articles+ search results
1,510 articles+ results
1 - 100
Next
Number of results to display per page
1 - 100
Next
Number of results to display per page
1. Dinidor saucius Stal. The 1870 [2021]
-
L��pez, Guilherme E. L., Carrenho, Renan, and Schwertner, Cristiano F.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Dinidoridae, Dinidor, and Dinidor saucius
- Abstract
-
Dinidor saucius St��l 1870 Dinidor saucius St��l: 79; Lethierry and Severin, 1893: 235; Kirkaldy, 1909: 254; Schouteden, 1913: 5; Durai, 1987: 228, 231���232. 1873 Cyclopelta saucia: Walker: 27. 2015 Dinidor mactabilis: Schwertner and Grazia: 822, 827, 849, figs.; Genevcius et al., 2016: 1���4. Distribution. BRAZIL: Esp��rito Santo, Rio de Janeiro (Cachoeiras de Macacu [new rec.], Itatiaia [new rec.], and Rio de Janeiro); Santa Catarina (Joinville [new rec.]); S��o Paulo (Barueri [new rec.], ��leo [new rec.], Santos [new rec.], S��o Bernardo do Campo, S��o Paulo [new rec.]). Material examined. Brasil, SP, S��o Bernardo do Campo, Acampamento dos Engenheiros 23��44���52������S, 46��38���13.71������W, 11���12.Nov.2010, Bio de Campo UNIFESP (1♀); [Brasil] Barueri, S��o Paulo ��� Brasil, 28. III.1955, K. Lenko col. (1♀); Brasil, Joinville, S[an]ta. Catarina, Dirings col. [Agt 1956, in the back of the label] (2♀); Brasil, Joinville, Rio Bracinho, S[an]ta Catarina, Museu Dirings col. [Mar 1956, written in the back of the label] (1♀); [Brazil] Horto Florestal, S��o Paulo ���S.P., Brasil ��� 13.IV.1962, Lenko & Reichardt col. (2♀); [Brazil] 1.XII.1954, Barueri (Est. S.P.), K. Lenko leg. (1♀); Brasil S��o Paulo, Est. SP.���J. J. Ferraciolli, leg., 30.II.1954 (1♀); Brasil, Santos, Est[ado] S. Paulo, Dirings col. [Nov 1950, written in the back of the label] (2♀); [Brazil] Horto Florestal, S��o Paulo ���S.P., Brasil ��� 13.IV.1962, Lenko & Reichardt col. (4♂); Brasil, Joinville, S[an]ta Catarina, Dirings col. [Agt 1956 written in the back of the label] (2♂); Brasil, Santos, Est[ado] S[��o] Paulo, Dirings col. [Nov 1950, written in the back of the label] (1♂); [Brazil] Barueri, S��o Paulo ��� Brasil, 28. III.1955, K. Lenko col. (1♂); Brasil, Joinville, S[an]ta Catarina, II-54, Dirings col. (1♂). Itatiaia, E[stado] do Rio-Brasil, J. F. Zik��n col., 7.IV.[19]31 (18♀ ♂); Brasil, RJ Estado, Local Ipanema, Col. J. Jurberg, Data X-[19]91, N�� (1♂); Brasil ���Estado PR, Local ��leo, Col. Cunha, Data 01/[19]96, N�� (1♂); Brazil, Rio de Jan[eiro], Acc[ess] No. 2966 Nov [ember], CJ Drake coll. 1956 (1♀). [Brazil] Rio [de Janeiro], PR Uhler Collection, no date (1♀ 2♂). * the species D. braziliensis and D. Impicticollis have unique colouration within the genus Dinidor; see text for explanation. ** Except for D. jograziae, body length measurements based on Durai (1987). Comments. The study of the specimens allows us to conclude that the correct identification of the species cited in Genevcius et al. (2016) is actually D. saucius. Some diagnostic characteristics pointed out by Durai (1987) in her key to separate D. mactabilis and D. saucius, for instance the colouration of the costal margin of the corium, are incongruent with the type specimens of both species, and the additional material examined. Indeed, the costal margins of hemelytra in red, orange or light brown is a characteristic seen in every species of the genus Dinidor, and cannot be used to separate the species. Some of the other characters used to diagnose the species, such as the width of the median coloured stripe along the pronotum, showed great variation within the species, and are not reliable for the correct identification of both species, D. mactabilis and D. saucius. Diagnostic characters for the five species of Dinidor with similar colouration (excluding D. braziliensis and D. impicticollis) are presented in Table 1. Prior to this work, the distribution of D. saucius has been scarcely addressed. St��l (1870) described the species from Rio de Janeiro (Brazil).Although Durai (1987) only mention Brazil for the distribution of D. saucius, additional material examined by the author were collected in the neighbouring State of Esp��rito Santo (dashed in the map), expanding the distribution of the species. Rolston et al. (1996) only cited Rio de Janeiro, and as the two previous works, no specific locality information was provided. Genevcius et al. (2016) recorded D. saucius (as D. mactabilis, see above) from the state of S��o Paulo (S��o Bernardo do Campo). Aside from the new locality records from the states of Rio de Janeiro and S��o Paulo, we extend the known distribution of D. saucius southwards by at least 600km, to the state of Santa Catarina. The distribution pattern of D. saucius seems to include only the Atlantic Rain Forest region, in southern and southeastern Brazil (Fig. 9).
Published as part of L��pez, Guilherme E. L., Carrenho, Renan & Schwertner, Cristiano F., 2021, Description of a new species of Dinidor Latreille (Hemiptera: Dinidoridae) from the Brazilian Amazon Rainforest, and new records of D. saucius St��l, pp. 654-662 in Zootaxa 4958 (1) on pages 658-660, DOI: 10.11646/zootaxa.4958.1.40, http://zenodo.org/record/4692744
{"references":["Stal, C. (1870) Enumeratio Hemipterorum. Bidrag till en foreteckning ofver alla hittils kanda Hemiptera jemte systematiska meddelanden. Enumeratio Dinidorinorum. In: Kungliga Svenska vetenskaps-akademiens handlingar. Bd. 9. No. 1. P. A. Norstedt, Stockholm, pp. 79 - 89.","Schouteden, H. (1913) Heteroptera. Fam. Pentatomidae. Subfam. Dinidorinae, the genera with lists of species. Genera Insectorum, Fasc. 153, 1 - 19, 2 pls.","Durai, P. S. S. (1987) A Revision of the Dinidoridae of the World (Heteroptera: Pentatomoidea). Oriental Insects, 21 (1), 163 - 360. https: // doi. org / 10.1080 / 00305316.1987.11835477","Genevcius, B. C., Carrenho, R. & Schwertner, C. F. (2016) Dinidor mactabilis (Perty, 1833): first record of Dinidoridae (Hemiptera: Pentatomoidea) in the state of Sao Paulo, Brazil. Check List, 12 (3), 1 - 4. https: // doi. org / 10.15560 / 12.3.1900","Rolston, L. H., Rider, D. A., Murray, M. J. & Aalbu, R. L. (1996) Catalog of the Dinidoridae of the world. Papua New Guinea Journal of Agriculture, Forestry and Fisheries, 39 (1), 22 - 101."]}
-
Valenti L, Corradini E, Adams LA, Aigner E, Alqahtani S, Arrese M, Bardou-Jacquet E, Bugianesi E, Fernandez-Real JM, Girelli D, Hagström H, Henninger B, Kowdley K, Ligabue G, McClain D, Lainé F, Miyanishi K, Muckenthaler MU, Pagani A, Pedrotti P, Pietrangelo A, Prati D, Ryan JD, Silvestri L, Spearman CW, Stål P, Tsochatzis EA, Vinchi F, Zheng MH, and Zoller H
Nature reviews. Endocrinology [Nat Rev Endocrinol] 2023 May; Vol. 19 (5), pp. 299-310. Date of Electronic Publication: 2023 Feb 17.
- Subjects
-
Humans, Ferritins genetics, Ferritins metabolism, Iron metabolism, Iron Overload diagnosis, and Iron Overload genetics
- Abstract
-
Hyperferritinaemia is a common laboratory finding that is often associated with metabolic dysfunction and fatty liver. Metabolic hyperferritinaemia reflects alterations in iron metabolism that facilitate iron accumulation in the body and is associated with an increased risk of cardiometabolic and liver diseases. Genetic variants that modulate iron homeostasis and tissue levels of iron are the main determinants of serum levels of ferritin in individuals with metabolic dysfunction, raising the hypothesis that iron accumulation might be implicated in the pathogenesis of insulin resistance and the related organ damage. However, validated criteria for the non-invasive diagnosis of metabolic hyperferritinaemia and the staging of iron overload are still lacking, and there is no clear evidence of a benefit for iron depletion therapy. Here, we provide an overview of the literature on the relationship between hyperferritinaemia and iron accumulation in individuals with metabolic dysfunction, and on the associated clinical outcomes. We propose an updated definition and a provisional staging system for metabolic hyperferritinaemia, which has been agreed on by a multidisciplinary global panel of expert researchers. The goal is to foster studies into the epidemiology, genetics, pathophysiology, clinical relevance and treatment of metabolic hyperferritinaemia, for which we provide suggestions on the main unmet needs, optimal design and clinically relevant outcomes.
(© 2023. Springer Nature Limited.)
- Full text View on content provider's site
-
López, Guilherme E. L., Carrenho, Renan, and Schwertner, Cristiano F.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, and Dinidoridae
- Abstract
-
López, Guilherme E. L., Carrenho, Renan, Schwertner, Cristiano F. (2021): Description of a new species of Dinidor Latreille (Hemiptera: Dinidoridae) from the Brazilian Amazon Rainforest, and new records of D. saucius Stål. Zootaxa 4958 (1): 654-662, DOI: https://doi.org/10.11646/zootaxa.4958.1.40
-
Guimier A, de Pontual L, Braddock SR, Torti E, Pérez-Jurado LA, Muñoz-Cabello P, Arumí M, Monaghan KG, Lee H, Wang LK, Pluym ID, Lynch SA, Stals K, Ellard S, Muller C, Houyel L, Cohen L, Lyonnet S, Bajolle F, Amiel J, and Gordon CT
Human molecular genetics [Hum Mol Genet] 2023 Jan 13; Vol. 32 (3), pp. 353-356.
- Subjects
-
Humans, Heart Defects, Congenital, and Truncus Arteriosus, Persistent
- Full text View on content provider's site
-
Helman G, Mendes MI, Nicita F, Darbelli L, Sherbini O, Moore T, Derksen A, Amy Pizzino, Carrozzo R, Torraco A, Catteruccia M, Aiello C, Goffrini P, Figuccia S, Smith DEC, Hadzsiev K, Hahn A, Biskup S, Brösse I, Kotzaeridou U, Gauck D, Grebe TA, Elmslie F, Stals K, Gupta R, Bertini E, Thiffault I, Taft RJ, Schiffmann R, Brandl U, Haack TB, Salomons GS, Simons C, Bernard G, van der Knaap MS, Vanderver A, and Husain RA
Genetics in medicine : official journal of the American College of Medical Genetics [Genet Med] 2021 Dec; Vol. 23 (12), pp. 2352-2359. Date of Electronic Publication: 2021 Aug 27.
- Subjects
-
Cross-Sectional Studies, Disease Progression, Humans, Phenotype, Leukoencephalopathies diagnostic imaging, and Leukoencephalopathies genetics
- Abstract
-
Purpose: Recent reports of individuals with cytoplasmic transfer RNA (tRNA) synthetase-related disorders have identified cases with phenotypic variability from the index presentations. We sought to assess phenotypic variability in individuals with AARS1-related disease.
Methods: A cross-sectional survey was performed on individuals with biallelic variants in AARS1. Clinical data, neuroimaging, and genetic testing results were reviewed. Alanyl tRNA synthetase (AlaRS) activity was measured in available fibroblasts.
Results: We identified 11 affected individuals. Two phenotypic presentations emerged, one with early infantile-onset disease resembling the index cases of AARS1-related epileptic encephalopathy with deficient myelination (n = 7). The second (n = 4) was a later-onset disorder, where disease onset occurred after the first year of life and was characterized on neuroimaging by a progressive posterior predominant leukoencephalopathy evolving to include the frontal white matter. AlaRS activity was significantly reduced in five affected individuals with both early infantile-onset and late-onset phenotypes.
Conclusion: We suggest that variants in AARS1 result in a broader clinical spectrum than previously appreciated. The predominant form results in early infantile-onset disease with epileptic encephalopathy and deficient myelination. However, a subgroup of affected individuals manifests with late-onset disease and similarly rapid progressive clinical decline. Longitudinal imaging and clinical follow-up will be valuable in understanding factors affecting disease progression and outcome.
(© 2021. The Author(s), under exclusive licence to the American College of Medical Genetics and Genomics.)
-
Radio FC, Pang K, Ciolfi A, Levy MA, Hernández-García A, Pedace L, Pantaleoni F, Liu Z, de Boer E, Jackson A, Bruselles A, McConkey H, Stellacci E, Lo Cicero S, Motta M, Carrozzo R, Dentici ML, McWalter K, Desai M, Monaghan KG, Telegrafi A, Philippe C, Vitobello A, Au M, Grand K, Sanchez-Lara PA, Baez J, Lindstrom K, Kulch P, Sebastian J, Madan-Khetarpal S, Roadhouse C, MacKenzie JJ, Monteleone B, Saunders CJ, Jean Cuevas JK, Cross L, Zhou D, Hartley T, Sawyer SL, Monteiro FP, Secches TV, Kok F, Schultz-Rogers LE, Macke EL, Morava E, Klee EW, Kemppainen J, Iascone M, Selicorni A, Tenconi R, Amor DJ, Pais L, Gallacher L, Turnpenny PD, Stals K, Ellard S, Cabet S, Lesca G, Pascal J, Steindl K, Ravid S, Weiss K, Castle AMR, Carter MT, Kalsner L, de Vries BBA, van Bon BW, Wevers MR, Pfundt R, Stegmann APA, Kerr B, Kingston HM, Chandler KE, Sheehan W, Elias AF, Shinde DN, Towne MC, Robin NH, Goodloe D, Vanderver A, Sherbini O, Bluske K, Hagelstrom RT, Zanus C, Faletra F, Musante L, Kurtz-Nelson EC, Earl RK, Anderlid BM, Morin G, van Slegtenhorst M, Diderich KEM, Brooks AS, Gribnau J, Boers RG, Finestra TR, Carter LB, Rauch A, Gasparini P, Boycott KM, Barakat TS, Graham JM Jr, Faivre L, Banka S, Wang T, Eichler EE, Priolo M, Dallapiccola B, Vissers LELM, Sadikovic B, Scott DA, Holder JL Jr, and Tartaglia M
American journal of human genetics [Am J Hum Genet] 2021 Mar 04; Vol. 108 (3), pp. 502-516. Date of Electronic Publication: 2021 Feb 16.
- Subjects
-
Adolescent, Autism Spectrum Disorder genetics, Autism Spectrum Disorder pathology, Child, Child, Preschool, Chromosome Deletion, Chromosome Disorders physiopathology, DNA Methylation genetics, Epigenesis, Genetic genetics, Female, Haploinsufficiency genetics, Humans, Intellectual Disability genetics, Intellectual Disability physiopathology, Male, Neurodevelopmental Disorders genetics, Neurodevelopmental Disorders physiopathology, Phenotype, Young Adult, Chromosome Disorders genetics, Chromosomes, Human, Pair 1 genetics, Chromosomes, Human, X genetics, DNA-Binding Proteins genetics, and RNA-Binding Proteins genetics
- Abstract
-
Deletion 1p36 (del1p36) syndrome is the most common human disorder resulting from a terminal autosomal deletion. This condition is molecularly and clinically heterogeneous. Deletions involving two non-overlapping regions, known as the distal (telomeric) and proximal (centromeric) critical regions, are sufficient to cause the majority of the recurrent clinical features, although with different facial features and dysmorphisms. SPEN encodes a transcriptional repressor commonly deleted in proximal del1p36 syndrome and is located centromeric to the proximal 1p36 critical region. Here, we used clinical data from 34 individuals with truncating variants in SPEN to define a neurodevelopmental disorder presenting with features that overlap considerably with those of proximal del1p36 syndrome. The clinical profile of this disease includes developmental delay/intellectual disability, autism spectrum disorder, anxiety, aggressive behavior, attention deficit disorder, hypotonia, brain and spine anomalies, congenital heart defects, high/narrow palate, facial dysmorphisms, and obesity/increased BMI, especially in females. SPEN also emerges as a relevant gene for del1p36 syndrome by co-expression analyses. Finally, we show that haploinsufficiency of SPEN is associated with a distinctive DNA methylation episignature of the X chromosome in affected females, providing further evidence of a specific contribution of the protein to the epigenetic control of this chromosome, and a paradigm of an X chromosome-specific episignature that classifies syndromic traits. We conclude that SPEN is required for multiple developmental processes and SPEN haploinsufficiency is a major contributor to a disorder associated with deletions centromeric to the previously established 1p36 critical regions.
(Copyright © 2021 American Society of Human Genetics. Published by Elsevier Inc. All rights reserved.)
- Full text View on content provider's site
-
Barish S, Barakat TS, Michel BC, Mashtalir N, Phillips JB, Valencia AM, Ugur B, Wegner J, Scott TM, Bostwick B, Murdock DR, Dai H, Perenthaler E, Nikoncuk A, van Slegtenhorst M, Brooks AS, Keren B, Nava C, Mignot C, Douglas J, Rodan L, Nowak C, Ellard S, Stals K, Lynch SA, Faoucher M, Lesca G, Edery P, Engleman KL, Zhou D, Thiffault I, Herriges J, Gass J, Louie RJ, Stolerman E, Washington C, Vetrini F, Otsubo A, Pratt VM, Conboy E, Treat K, Shannon N, Camacho J, Wakeling E, Yuan B, Chen CA, Rosenfeld JA, Westerfield M, Wangler M, Yamamoto S, Kadoch C, Scott DA, and Bellen HJ
American journal of human genetics [Am J Hum Genet] 2020 Dec 03; Vol. 107 (6), pp. 1096-1112. Date of Electronic Publication: 2020 Nov 23.
- Subjects
-
Adolescent, Animals, Child, Child, Preschool, Drosophila Proteins genetics, Drosophila melanogaster, Female, Genes, Dominant, Genetic Variation, Haploinsufficiency, Humans, Infant, Male, Microscopy, Confocal, Neuroglia metabolism, Neurons metabolism, Protein Binding, Zebrafish, Zebrafish Proteins genetics, Chromosomal Proteins, Non-Histone genetics, Developmental Disabilities genetics, Mutation, Missense, Phenotype, and Tumor Suppressor Proteins genetics
- Abstract
-
SWI/SNF-related intellectual disability disorders (SSRIDDs) are rare neurodevelopmental disorders characterized by developmental disability, coarse facial features, and fifth digit/nail hypoplasia that are caused by pathogenic variants in genes that encode for members of the SWI/SNF (or BAF) family of chromatin remodeling complexes. We have identified 12 individuals with rare variants (10 loss-of-function, 2 missense) in the BICRA (BRD4 interacting chromatin remodeling complex-associated protein) gene, also known as GLTSCR1, which encodes a subunit of the non-canonical BAF (ncBAF) complex. These individuals exhibited neurodevelopmental phenotypes that include developmental delay, intellectual disability, autism spectrum disorder, and behavioral abnormalities as well as dysmorphic features. Notably, the majority of individuals lack the fifth digit/nail hypoplasia phenotype, a hallmark of most SSRIDDs. To confirm the role of BICRA in the development of these phenotypes, we performed functional characterization of the zebrafish and Drosophila orthologs of BICRA. In zebrafish, a mutation of bicra that mimics one of the loss-of-function variants leads to craniofacial defects possibly akin to the dysmorphic facial features seen in individuals harboring putatively pathogenic BICRA variants. We further show that Bicra physically binds to other non-canonical ncBAF complex members, including the BRD9/7 ortholog, CG7154, and is the defining member of the ncBAF complex in flies. Like other SWI/SNF complex members, loss of Bicra function in flies acts as a dominant enhancer of position effect variegation but in a more context-specific manner. We conclude that haploinsufficiency of BICRA leads to a unique SSRIDD in humans whose phenotypes overlap with those previously reported.
(Copyright © 2020 American Society of Human Genetics. All rights reserved.)
- Full text View on content provider's site
8. Laccocorinae STAL 1876 [2022]
-
Sites, Robert W.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, and Naucoridae
- Abstract
-
SUBFAMILY LACCOCORINAE STÅL, 1876 FIGS 3B, 4– 6, 10E, 11E, 12, 14, 15, 20, 21 Type species: Laccocoris spurcus Stål, 1856. Taxonomic history: Stål (1876) proposed the division Laccocoraria to contain two genera, Heleocoris and Laccocoris, that he described. Montandon (1897b) e l e v a t e d L a c c o c o r a r i a t o s u b f a m i l y s t a t u s a s Laccocorinae. Popov (1970) considered this group as a tribe-level taxon, Laccocorini, within subfamily Naucorinae, but this classification scheme has not been followed by other specialists. Presently, ten genera are recognized in the subfamily, with no suprageneric organization as tribes. Revised taxonomy: Laccocorinae remains unchanged with respect to constituent species, although synonymies, new genera and tribes are proposed here. In my Most Probable Phylogeny dendrogram (Fig. 9), I substituted the ML topology of the clade sister to Ctenipocoris to represent what I consider to be the most plausible evolutionary relationships in the subfamily. Laccocorinae is represented by four distinct major clades, which are herein recognized as tribe-level taxa (Fig. 13). Two of the predominant genera (Heleocoris and Laccocoris) in the subfamily are polyphyletic and occur in multiple clades in two tribes. Species of Heleocoris occur in three disparate clades (Figs 13, 14). The type species is Heleocoris obliquatus (Spinola, 1837) from Bombay (Mumbai, India) as designated by Stål (1876), who based his designation on a specimen in the collection of Signoret. Montandon (1910b) questioned the existence of the type specimen, which was based on a brief original description, and provided a redescription of the species based on a specimen in Distant’s collection from the Dawna Hills of eastern Burma. Given that most species in these groups are restricted to particular geographic regions, it is highly doubtful that the specimen upon which Montandon redescribed H. obliquatus was in fact that species. Further vitiating this identification is the figure in Distant (1910: 322) of a specimen from ‘Lower Burma’ identified by Montandon as H. obliquatus, which instead clearly is Heleocoris strabus Montandon, 1897b. As such, H. obliquatus from Mumbai remains enigmatic and nearly impossible to diagnose without an authoritatively identified specimen, and thus is a species inquirenda. Nonetheless, because the type locality was given as ‘Bombay’, I here consider the clade containing species of Heleocoris from central India (all but the far eastern states) to be valid Heleocoris. Other clades containing Heleocoris from Africa and Indochina each must have the genus renamed. Species of Laccocoris were recovered in two distinct clades within different tribes (Figs 13, 15). The type species is Laccocoris spurcus (Stål, 1856) from Africa; thus, the species of Laccocoris from Africa remain unchanged. However, the species of Laccocoris from Sundaland and the Philippines are here placed in a newly erected genus, Heleolaccocoris gen. nov. Because the well-supported ML topology recovered Heleolaccocoris as sister to three species of Indochinese Heleocoris in successively more inclusive clades, this necessitated either designation of additional genera to accommodate the clades of Indochinese Heleocoris, or placing them all in Heleolaccocoris as I have done here (Fig. 13: bluecoloured clades). The previously recognized distinction between the two genera (Heleocoris and Laccocoris) was based on the shape of the labrum as wider than long with a rounded apex or longer than wide with an acute apex. This has been generally considered a feature inconsistent with phylogeny by recent scientists who have studied the group. In a treatment of the Naucoridae in Singapore, Polhemus & Polhemus (2013) considered the generic limits of Heleocoris and Laccocoris to be indistinct and correctly predicted the possible synonymy of Asian Laccocoris with Heleocoris. Diagnosis: This subfamily has a suite of unique diagnostic attributes, some of which exhibit variation among genera. The front of the head is folded posteroventrally such that the labrum is set back from the functional anterior margin of the head (Fig. 3b). Males of all genera have a dense tomentose pad ventrally over much of the mesotibia and tarsomeres 2 and 3 (Fig. 12), and to a lesser extent the protibia and tarsus, whereas in females the pads are greatly reduced. The prothoracic pretarsal claws are paired and articulated, except in Namtokocoris in which they are single and fused with the tarsus, which is the condition found in all other subfamilies (Fig. 4c). Males have two-segmented front tarsi and females only one, except in Ctenipocoris where both sexes have two, and in Namtokocoris and Pogonocaudina where both sexes have one (Fig. 4). Comments: This subfamily is circumtropical in distribution and is most common in Africa and Asia. It is not known from Australia. Although Ctenipocoris is circumtropical in distribution, each of the other major clades in the subfamily has a distinct geographic association.
Published as part of Sites, Robert W., 2022, Phylogeny and revised classification of the saucer bugs (Hemiptera: Nepomorpha: Naucoridae), pp. 1245-1286 in Zoological Journal of the Linnean Society 195 on pages 1262-1264, DOI: 10.1093/zoolinnean/zlab105, http://zenodo.org/record/6994599
{"references":["Stal C. 1876. Enumeratio Hemipterorum. Bidrag till en forteckning ofver alla hittills kanda. Hemiptera, jemte systematiska meddelanden. Kongliga Svenska VetenskapsAkademiens Handlingar 14: 1 - 167.","Stal C. 1856. Hemiptera samlade af Victorin i Caplandet. Ofversigt af Kongliga Svenska Vetenskaps-Akademiens Forhandlingar 13: 193 - 199.","Montandon AL. 1897 b. Hemiptera Cryptocerata. Fam. Naucoridae. Sous fam. Laccocorinae. Verhandlungen der Kaiserlich-Koniglichen Zoologisch-Botanischen Gesellschaft in Wien 47: 435 - 454.","Popov YA. 1970. Notes on the classification of the recent Naucoridae (Heteroptera: Nepomorpha). Bulletin of the Polish Academy of Sciences (Biological Sciences) 18: 93 - 98.","Spinola M. 1837. Essai sur les genres d'insectes appartenants a l'ordre des Hemipteres, Lin. ou Rhyngotes, Fab. et a la section des Heteropteres, Dufour. Chez Yves Graviers, Genes, 383 pp.","Montandon AL. 1910 b. Especes nouvelles ou peu connues d'Hydrococrises de l'Inde. Bulletin de la Societe des Sciences de Bucarest, Roumanie 19: 652 - 658.","Distant WL. 1910. The fauna of British India, including Ceylon and Burma. Rhynchota. Vol. V. Heteroptera: Appendix. London: Taylor & Francis.","Polhemus DA, Polhemus JT. 2013. Guide to the aquatic Heteroptera of Singapore and Peninsular Malaysia. XI. Infraorder Nepomorpha - families Naucoridae and Aphelocheiridae. Raffles Bulletin of Zoology 61: 665 - 686."]}
-
Thomson SA, Pyle RL, Ahyong ST, Alonso-Zarazaga M, Ammirati J, Araya JF, Ascher JS, Audisio TL, Azevedo-Santos VM, Bailly N, Baker WJ, Balke M, Barclay MVL, Barrett RL, Benine RC, Bickerstaff JRM, Bouchard P, Bour R, Bourgoin T, Boyko CB, Breure ASH, Brothers DJ, Byng JW, Campbell D, Ceríaco LMP, Cernák I, Cerretti P, Chang CH, Cho S, Copus JM, Costello MJ, Cseh A, Csuzdi C, Culham A, D'Elía G, d'Udekem d'Acoz C, Daneliya ME, Dekker R, Dickinson EC, Dickinson TA, van Dijk PP, Dijkstra KB, Dima B, Dmitriev DA, Duistermaat L, Dumbacher JP, Eiserhardt WL, Ekrem T, Evenhuis NL, Faille A, Fernández-Triana JL, Fiesler E, Fishbein M, Fordham BG, Freitas AVL, Friol NR, Fritz U, Frøslev T, Funk VA, Gaimari SD, Garbino GST, Garraffoni ARS, Geml J, Gill AC, Gray A, Grazziotin FG, Greenslade P, Gutiérrez EE, Harvey MS, Hazevoet CJ, He K, He X, Helfer S, Helgen KM, van Heteren AH, Hita Garcia F, Holstein N, Horváth MK, Hovenkamp PH, Hwang WS, Hyvönen J, Islam MB, Iverson JB, Ivie MA, Jaafar Z, Jackson MD, Jayat JP, Johnson NF, Kaiser H, Klitgård BB, Knapp DG, Kojima JI, Kõljalg U, Kontschán J, Krell FT, Krisai-Greilhuber I, Kullander S, Latella L, Lattke JE, Lencioni V, Lewis GP, Lhano MG, Lujan NK, Luksenburg JA, Mariaux J, Marinho-Filho J, Marshall CJ, Mate JF, McDonough MM, Michel E, Miranda VFO, Mitroiu MD, Molinari J, Monks S, Moore AJ, Moratelli R, Murányi D, Nakano T, Nikolaeva S, Noyes J, Ohl M, Oleas NH, Orrell T, Páll-Gergely B, Pape T, Papp V, Parenti LR, Patterson D, Pavlinov IY, Pine RH, Poczai P, Prado J, Prathapan D, Rabeler RK, Randall JE, Rheindt FE, Rhodin AGJ, Rodríguez SM, Rogers DC, Roque FO, Rowe KC, Ruedas LA, Salazar-Bravo J, Salvador RB, Sangster G, Sarmiento CE, Schigel DS, Schmidt S, Schueler FW, Segers H, Snow N, Souza-Dias PGB, Stals R, Stenroos S, Stone RD, Sturm CF, Štys P, Teta P, Thomas DC, Timm RM, Tindall BJ, Todd JA, Triebel D, Valdecasas AG, Vizzini A, Vorontsova MS, de Vos JM, Wagner P, Watling L, Weakley A, Welter-Schultes F, Whitmore D, Wilding N, Will K, Williams J, Wilson K, Winston JE, Wüster W, Yanega D, Yeates DK, Zaher H, Zhang G, Zhang ZQ, and Zhou HZ
PLoS biology [PLoS Biol] 2018 Mar 14; Vol. 16 (3), pp. e2005075. Date of Electronic Publication: 2018 Mar 14 (Print Publication: 2018).
- Subjects
-
Biodiversity and Conservation of Natural Resources
- Full text
View/download PDF
-
Younossi ZM, Ratziu V, Loomba R, Rinella M, Anstee QM, Goodman Z, Bedossa P, Geier A, Beckebaum S, Newsome PN, Sheridan D, Sheikh MY, Trotter J, Knapple W, Lawitz E, Abdelmalek MF, Kowdley KV, Montano-Loza AJ, Boursier J, Mathurin P, Bugianesi E, Mazzella G, Olveira A, Cortez-Pinto H, Graupera I, Orr D, Gluud LL, Dufour JF, Shapiro D, Campagna J, Zaru L, MacConell L, Shringarpure R, Harrison S, and Sanyal AJ
Lancet (London, England) [Lancet] 2019 Dec 14; Vol. 394 (10215), pp. 2184-2196. Date of Electronic Publication: 2019 Dec 05.
- Subjects
-
Administration, Oral, Biomarkers analysis, Biopsy, Chenodeoxycholic Acid administration dosage, Chenodeoxycholic Acid therapeutic use, Double-Blind Method, Female, Humans, Liver Function Tests, Male, Middle Aged, Chenodeoxycholic Acid analogs derivatives, and Non-alcoholic Fatty Liver Disease drug therapy
- Abstract
-
Background: Non-alcoholic steatohepatitis (NASH) is a common type of chronic liver disease that can lead to cirrhosis. Obeticholic acid, a farnesoid X receptor agonist, has been shown to improve the histological features of NASH. Here we report results from a planned interim analysis of an ongoing, phase 3 study of obeticholic acid for NASH.
Methods: In this multicentre, randomised, double-blind, placebo-controlled study, adult patients with definite NASH, non-alcoholic fatty liver disease (NAFLD) activity score of at least 4, and fibrosis stages F2-F3, or F1 with at least one accompanying comorbidity, were randomly assigned using an interactive web response system in a 1:1:1 ratio to receive oral placebo, obeticholic acid 10 mg, or obeticholic acid 25 mg daily. Patients were excluded if cirrhosis, other chronic liver disease, elevated alcohol consumption, or confounding conditions were present. The primary endpoints for the month-18 interim analysis were fibrosis improvement (≥1 stage) with no worsening of NASH, or NASH resolution with no worsening of fibrosis, with the study considered successful if either primary endpoint was met. Primary analyses were done by intention to treat, in patients with fibrosis stage F2-F3 who received at least one dose of treatment and reached, or would have reached, the month 18 visit by the prespecified interim analysis cutoff date. The study also evaluated other histological and biochemical markers of NASH and fibrosis, and safety. This study is ongoing, and registered with ClinicalTrials.gov, NCT02548351, and EudraCT, 20150-025601-6.
Findings: Between Dec 9, 2015, and Oct 26, 2018, 1968 patients with stage F1-F3 fibrosis were enrolled and received at least one dose of study treatment; 931 patients with stage F2-F3 fibrosis were included in the primary analysis (311 in the placebo group, 312 in the obeticholic acid 10 mg group, and 308 in the obeticholic acid 25 mg group). The fibrosis improvement endpoint was achieved by 37 (12%) patients in the placebo group, 55 (18%) in the obeticholic acid 10 mg group (p=0·045), and 71 (23%) in the obeticholic acid 25 mg group (p=0·0002). The NASH resolution endpoint was not met (25 [8%] patients in the placebo group, 35 [11%] in the obeticholic acid 10 mg group [p=0·18], and 36 [12%] in the obeticholic acid 25 mg group [p=0·13]). In the safety population (1968 patients with fibrosis stages F1-F3), the most common adverse event was pruritus (123 [19%] in the placebo group, 183 [28%] in the obeticholic acid 10 mg group, and 336 [51%] in the obeticholic acid 25 mg group); incidence was generally mild to moderate in severity. The overall safety profile was similar to that in previous studies, and incidence of serious adverse events was similar across treatment groups (75 [11%] patients in the placebo group, 72 [11%] in the obeticholic acid 10 mg group, and 93 [14%] in the obeticholic acid 25 mg group).
Interpretation: Obeticholic acid 25 mg significantly improved fibrosis and key components of NASH disease activity among patients with NASH. The results from this planned interim analysis show clinically significant histological improvement that is reasonably likely to predict clinical benefit. This study is ongoing to assess clinical outcomes.
Funding: Intercept Pharmaceuticals.
(Copyright © 2019 Elsevier Ltd. All rights reserved.)
- Full text View on content provider's site
-
Von Walden F, Gantelius S, Liu C, Borgström H, Björk L, Gremark O, Stål P, Nader GA, and PontéN E
Muscle & nerve [Muscle Nerve] 2018 Aug; Vol. 58 (2), pp. 277-285. Date of Electronic Publication: 2018 May 24.
- Subjects
-
Adolescent, Cell Count, Child, Collagen metabolism, Cytokines biosynthesis, Cytokines genetics, Female, Gene Expression Regulation, Humans, Male, Muscle Fibers, Skeletal pathology, RNA, Ribosomal genetics, Real-Time Polymerase Chain Reaction, Ribosomes genetics, Ribosomes pathology, Satellite Cells, Skeletal Muscle pathology, Brain Injuries pathology, Cerebral Palsy pathology, Extracellular Matrix pathology, Muscle, Skeletal pathology, and RNA, Ribosomal biosynthesis
- Abstract
-
Introduction: Children with cerebral palsy (CP) and acquired brain injury (ABI) commonly develop muscle contractures with advancing age. An underlying growth defect contributing to skeletal muscle contracture formation in CP/ABI has been suggested.
Methods: The biceps muscles of children and adolescents with CP/ABI (n = 20) and typically developing controls (n = 10) were investigated. We used immunohistochemistry, quantitative real-time polymerase chain reaction, and Western blotting to assess gene expression relevant to growth and size homeostasis.
Results: Classical pro-inflammatory cytokines and genes involved in extracellular matrix (ECM) production were elevated in skeletal muscle of children with CP/ABI. Intramuscular collagen content was increased and satellite cell number decreased and this was associated with reduced levels of RNA polymerase I transcription factors, 45s pre-rRNA and 28S rRNA.
Discussion: The present study provides novel data suggesting a role for pro-inflammatory cytokines and reduced ribosomal production in the development/maintenance of muscle contractures, possibly underlying stunted growth and perimysial ECM expansion. Muscle Nerve 58: 277-285, 2018.
(© 2018 Wiley Periodicals, Inc.)
- Full text View on content provider's site
12. Naucoris maculatus subsp. conspersus Stal [2015]
-
Slimani, Noura, Moulet, Pierre, Chen, Ping-Ping, Nieser, Nico, Pluot-Sigwalt, Dominique, Bouma��za, Moncef, and Guilbert, Eric
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Naucoridae, Naucoris, Naucoris maculatus, Naucoris maculatus conspersus stål, and Naucoris maculatus conspersus st��l
- Abstract
-
Naucoris maculatus conspersus St��l (Figs 6 B, 12 B) Material examined. Station 1, 28 -vi- 2013, 1 ♂ 1 ♀; 18 -vii- 2013, 2♂; station 6, 18 -vii- 2013, 1 ♂ 1 ♀; station 7, 29 -vi- 2013, 1 ♂ 1 ♀; station 8, 23 -v- 2013, 1 ♂ 1 ♀; 29 -vi- 2013, 1♂ 1 ♀; 25 -vii- 2013, 1♀; station 9, 30 -i- 2013, 1 ♂; 25 -iv- 2013, 3♂ 1 ♀; 23 -v- 2013, 1♂ 1 ♀; 29 -vi- 2013, 1♂ 1 ♀; 25 -vii- 2013, 2♂ 2 ♀; 22 -viii- 2013, 1♂ 1 ♀; 05-ix- 2013, 2♂ 1 ♀; 28 -xii- 2013, 2♂ 3 ♀; station 10, 29 -vi- 2013, 2 ♂ 1 ♀; 25 -vii- 2013, 1♂ 1 ♀; 22 -viii- 2013, 1♀; 05-ix- 2013, 2♂ 2 ♀; 29 - x- 2013, 1♂ 1 ♀; station 11:, 30 -i- 2013, 1♂; 28 -ii- 2013, 1♀; 28 -iii- 2013, 1♀; 25 -iv- 2013, 1♂ 1 ♀; 23 -v- 2013, 1♂ 1 ♀; 29 -vi- 2013, 1♂ 1 ♀; 25 -vii- 2013, 2♂ 2 ♀; 22 -viii- 2013, 1♂; 29 -x- 2013, 3♂ 1 ♀; 28 -xii- 2013, 1♂ 1 ♀; station 17, 27 - vi- 2013, 3 ♂ 1 ♀; station 21, 27 -vi- 2013, 1 ♂ 1 ♀; 24 -vii- 2013, 1♀; 29 -x- 2013, 3♂ 1 ♀; 28 -xi- 2013, 1♂ 1 ♀; 26 -xii- 2013, 3♂ 2 ♀; station 22, 23 -iv- 2013, 4 ♂ 3 ♀; 24 -vii- 2013, 2♂ 3 ♀; 20 -viii- 2013, 5♂ 4 ♀; 03-ix- 2013, 3♂ 4 ♀; station 23, 24 -vii- 2013, 3 ♂ 2 ♀; 20 -viii- 2013,1 ♂ 2 ♀; 03-ix- 2013, 1♂ 2 ♀; 29 -x- 2013, 1♂ 2 ♀; 28 -xi- 2013,2 ♂ 2 ♀; 26 -xii- 2013, 2♂ 1 ♀; station 24, 28 -i- 2013, 1 ♂; 26 -ii- 2013, 1♂; 26 -iii- 2013, 1♂; 23 -iv- 2013, 2♂ 2 ♀; 21 -v- 2013, 2♂ 2 ♀; 27 -vi- 2013, 4♂ 5 ♀; 24 -vii- 2013, 5♂ 4 ♀; 20 -viii- 2013, 5♂ 5 ♀; 03-ix- 2013, 5♂ 8 ♀; 29 -x- 2013, 3♂ 2 ♀; 28 -xi- 2013, 3♂ 2 ♀; 26 -xii- 2013, 2♂ 2 ♀; station 25, 28 -i- 2013, 1 ♀; 26 -ii- 2013, 1♂ 2 ♀; 26 -iii- 2013, 1♂ 1 ♀; 23 -iv- 2013, 3♂; 21 - v- 2013, 3♂ 2 ♀; 27 -vi- 2013, 1♂; 24 -vii- 2013, 5♂ 5 ♀; 20 -viii- 2013, 4♂ 3 ♀; 03-ix- 2013, 1♂ 1 ♀; 29 -x- 2013, 3♂ 2 ♀; 28 -xi- 2013, 4♂ 3 ♀; station 30, 25 -vii- 2013, 2 ♂; 05-ix- 2013, 1♀; 29 -x- 2013, 2♂ 2 ♀; 30 -xi- 2013, 1♂ 3 ♀; station 31, 29 -vi- 2013, 1 ♂ 2 ♀; 25 -vii- 2013, 2♀; 29 -x- 2013, 2♂; 30 -xi- 2013, 2♂ 2 ♀; station 33 29 -vi- 2013, 1♂; 25 -vii- 2013, 1♀; 29 -x- 2013, 1♂ 1 ♀; station 34, 29 -vi- 2013, 2 ♂ 2 ♀; 25 -vii- 2013, 1♂; 05-ix- 2013, 2♂; station 35, 29 -i- 2013, 1 ♂; 27 -ii- 2013, 1♀; 27 -iii- 2013, 1♀; 24 -iv- 2013, 1♂ 1 ♀; 22 -v- 2013, 2♂ 1 ♀; 28 -vi- 2013, 2♀; 24 -vii- 2013, 4♂ 2 ♀; 21 - viii- 2013, 1♀; 04-ix- 2013, 3♂ 2 ♀; 29 -xi- 2013, 3♂ 5 ♀; 27 -xii- 2013, 3♂ 2 ♀; station 36, 29 -i- 2013, 1 ♂ 1 ♀; 27 -ii- 2013, 3♀; 27 -iii- 2013, 2♀; 24 -iv- 2013, 1♂ 1 ♀; 22 -v- 2013, 4♂ 2 ♀; 28 -vi- 2013, 1♂ 3 ♀; 24 -vii- 2013, 2♂ 2 ♀; 21 -viii- 2013, 4♂ 3 ♀; 04-ix- 2013, 3♂ 3 ♀; 29 -x- 2013, 2♂ 1 ♀; 29 -xi- 2013,3 ♀; 27 -xii- 2013, 2♂; station 37, 29 -i- 2013, 2 ♂ 2 ♀; 27 -ii- 2013, 2♂ 1 ♀; 27 -iii- 2013, 2♂ 2 ♀; 24 -iv- 2013, 3♂ 2 ♀; 22 -v- 2013, 3♀; station 38, 30 -i- 2013, 2 ♂ 1 ♀; 28 -ii- 2013, 2♂; 28 -iii- 2013, 1♂ 1 ♀; 25 -iv- 2013, 1♂; 23 -v- 2013, 1♂ 1 ♀; 29 -vi- 2013, 2♂ 1 ♀; 25 -vii- 2013, 2♂ 2 ♀; 22 -viii- 2013, 1♂ 1 ♀; 29 -x- 2013, 2♂ 1 ♀; 30 -xi- 2013, 1♂ 4 ♀; 28 -xii- 2013, 3♂ 1 ♀; station 39, 22 -viii- 2013, 1 ♂ 1 ♀; 29 -x- 2013, 1♂ 1 ♀; station 42, 19 -viii- 2013, 2 ♂; station 43, 26 -vi- 2013, 4 ♂ 1 ♀; 16 -vii- 2013, 1♂; 31 -x- 2013, 1♂ 3 ♀; station 44, 27 -i- 2013, 1 ♂ 1 ♀; 25 -ii- 2013, 1♀; 22 -iv- 2013, 3♂ 1 ♀; 20 -v- 2013, 3♂ 5 ♀; 26 -vi- 2013, 4♂ 1 ♀; 16 -vii- 2013, 2♂ 1 ♀; 19 -viii- 2013, 1♂ 1 ♀; 02-ix- 2013, 2♂ 1 ♀; 31 -x- 2013, 4♂ 2 ♀; 25 -xii- 2013, 1♂ 2 ♀; station 45, 31 -x- 2013, 1 ♂ 1 ♀; 25 -xii- 2013, 1♂ 1 ♀; station 46, 26 -vi- 2013, 2 ♂ 1 ♀; 16 -vii- 2013, 1♂ 1 ♀; 31 -x- 2013, 1♂ 1 ♀; 27 -xi- 2013, 1♂ 3 ♀; 25 -xii- 2013, 1♂ 1 ♀; station 47, 30 -i- 2013, 1 ♂ 1 ♀; 25 -iii- 2013, 1♂ 2 ♀; station 48, 23 -v- 2013, 1 ♂ 1 ♀; 19 -vii- 2013, 1♂; 22 -viii- 2013,1 ♂ 1 ♀; station 49, 28 -i- 2013, 1 ♀; 25 -iv- 2013, 2♂ 4 ♀; 23 -v- 2013, 1♂ 1 ♀; 29 -vi- 2013, 2♂ 2 ♀; 19 -vii- 2013, 1♂ 1 ♀; 22 -viii- 2013, 2♂ 2 ♀; 05-ix- 2013, 1♂ 1 ♀; 31 -x- 2013, 2♂ 1 ♀; 30 -xi- 2013, 2♂ 4 ♀. Comments. This species is very common in Tunisia throughout the year, and inhabits stagnant or slowflowing waters, temporal or permanent, fresh water or brackish, with abundant riparian vegetation. It was first recorded from Tunisia by Ferrari (1884) under the name of Naucoris maculatus Fabricius. Distribution. This is a North African sub-species also known in southern Europe (south Portugal, Spain, Italy, Sicily, Sardinia) (Polhemus 1995; Carapezza 1997).
Published as part of Slimani, Noura, Moulet, Pierre, Chen, Ping-Ping, Nieser, Nico, Pluot-Sigwalt, Dominique, Bouma��za, Moncef & Guilbert, Eric, 2015, Checklist, distribution, and a new record of Nepomorphan water bugs (Hemiptera: Heteroptera) in northern Tunisia, pp. 151-176 in Zootaxa 3981 (2) on pages 163-164, DOI: 10.11646/zootaxa.3981.2.1, http://zenodo.org/record/239818
{"references":["Ferrari, P. M. (1884) Materiali per lo studio della fauna tunisina raccolti da G. e L. Doria. Rincoti. Annal del Museo Civico di Storia Naturale di Genova, Serie 2, 1, 439 - 522.","Carapezza, A. (1997) Heteroptera of Tunisia. Naturalista Siciliano, Serie IV, 21 (Supplement A), 1 - 312."]}
13. Diagnosis of lethal or prenatal-onset autosomal recessive disorders by parental exome sequencing. [2018]
-
Stals KL, Wakeling M, Baptista J, Caswell R, Parrish A, Rankin J, Tysoe C, Jones G, Gunning AC, Lango Allen H, Bradley L, Brady AF, Carley H, Carmichael J, Castle B, Cilliers D, Cox H, Deshpande C, Dixit A, Eason J, Elmslie F, Fry AE, Fryer A, Holder M, Homfray T, Kivuva E, McKay V, Newbury-Ecob R, Parker M, Savarirayan R, Searle C, Shannon N, Shears D, Smithson S, Thomas E, Turnpenny PD, Varghese V, Vasudevan P, Wakeling E, Baple EL, and Ellard S
Prenatal diagnosis [Prenat Diagn] 2018 Jan; Vol. 38 (1), pp. 33-43. Date of Electronic Publication: 2017 Dec 03.
- Subjects
-
Female, Genes, Recessive, Humans, Male, Pregnancy, Congenital Abnormalities genetics, Genetic Diseases, Inborn diagnosis, Parents, Prenatal Diagnosis methods, and Exome Sequencing
- Abstract
-
Objective: Rare genetic disorders resulting in prenatal or neonatal death are genetically heterogeneous, but testing is often limited by the availability of fetal DNA, leaving couples without a potential prenatal test for future pregnancies. We describe our novel strategy of exome sequencing parental DNA samples to diagnose recessive monogenic disorders in an audit of the first 50 couples referred.
Method: Exome sequencing was carried out in a consecutive series of 50 couples who had 1 or more pregnancies affected with a lethal or prenatal-onset disorder. In all cases, there was insufficient DNA for exome sequencing of the affected fetus. Heterozygous rare variants (MAF < 0.001) in the same gene in both parents were selected for analysis. Likely, disease-causing variants were tested in fetal DNA to confirm co-segregation.
Results: Parental exome analysis identified heterozygous pathogenic (or likely pathogenic) variants in 24 different genes in 26/50 couples (52%). Where 2 or more fetuses were affected, a genetic diagnosis was obtained in 18/29 cases (62%). In most cases, the clinical features were typical of the disorder, but in others, they result from a hypomorphic variant or represent the most severe form of a variable phenotypic spectrum.
Conclusion: We conclude that exome sequencing of parental samples is a powerful strategy with high clinical utility for the genetic diagnosis of lethal or prenatal-onset recessive disorders. © 2017 The Authors Prenatal Diagnosis published by John Wiley & Sons Ltd.
(© 2017 The Authors Prenatal Diagnosis published by John Wiley & Sons Ltd.)
- Full text View on content provider's site
-
Cruces L, de la Peña E, Livia C, and De Clercq P
Neotropical entomology [Neotrop Entomol] 2023 Apr; Vol. 52 (2), pp. 273-282. Date of Electronic Publication: 2022 Jun 21.
- Subjects
-
Animals, Insecta, Predatory Behavior, Larva, Nymph, Chenopodium quinoa, Heteroptera, and Aphids
- Abstract
-
In recent years, Liorhyssus hyalinus (Fabricius) (Hemiptera: Rhopalidae) and Nysius simulans Stål (Hemiptera: Lygaeidae) have emerged as important pests of quinoa in Peru, when the crop started to be cultivated at relatively low elevations. The potential of the native lacewing Chrysoperla externa (Hagen) (Neuroptera: Chrysopidae) was evaluated as a biological control agent of these two pest species. Prey consumption on all immature stages of L. hyalinus and N. simulans was assessed, as well as development on first instars of these heteropterans and eggs of Sitotroga cerealella (Olivier) (Lepidoptera: Pyralidae) as a factitious prey. In addition, prey preference was examined in the absence and presence of a preferred prey, Macrosiphum euphorbiae (Thomas) (Hemiptera: Aphididae). Larvae of the predator were not able to feed on L. hyalinus eggs, but they effectively did on N. simulans eggs as well as on all nymphal instars of both species. Nymphs of L. hyalinus were less suitable prey for larval development of C. externa than eggs of S. cerealella, whereas N. simulans was overall an unsuitable prey. There was a clear prey preference of C. externa for aphids over the two heteropteran species, as well as a preference for N. simulans over L. hyalinus. The predation rates in this study indicate the potential of C. externa as a predator of these heteropteran pests that can play a role in both conservation and augmentation biological control programs.
(© 2022. Sociedade Entomológica do Brasil.)
- Full text View on content provider's site
-
Bojmar L, Karlsson E, Ellegård S, Olsson H, Björnsson B, Hallböök O, Larsson M, Stål O, and Sandström P
PloS one [PLoS One] 2013 Dec 20; Vol. 8 (12), pp. e84815. Date of Electronic Publication: 2013 Dec 20 (Print Publication: 2013).
- Subjects
-
Biomarkers, Tumor metabolism, Breast Neoplasms genetics, Breast Neoplasms metabolism, Cadherins metabolism, Colorectal Neoplasms genetics, Colorectal Neoplasms metabolism, Epithelial-Mesenchymal Transition genetics, Gene Expression Regulation, Neoplastic genetics, Homeodomain Proteins metabolism, Humans, Immunohistochemistry, In Situ Hybridization, Laser Capture Microdissection, Liver Neoplasms secondary, Real-Time Polymerase Chain Reaction, Reverse Transcriptase Polymerase Chain Reaction, Survival Analysis, Transcription Factors metabolism, Zinc Finger E-box-Binding Homeobox 1, Breast Neoplasms physiopathology, Colorectal Neoplasms physiopathology, Epithelial-Mesenchymal Transition physiology, Gene Expression Regulation, Neoplastic physiology, Liver Neoplasms metabolism, MicroRNAs metabolism, and Signal Transduction physiology
- Abstract
-
The role of the epithelial-mesenchymal transition (EMT) in cancer has been studied extensively in vitro, but involvement of the EMT in tumorigenesis in vivo is largely unknown. We investigated the potential of microRNAs as clinical markers and analyzed participation of the EMT-associated microRNA-200-ZEB-E-cadherin pathway in cancer progression. Expression of the microRNA-200 family was quantified by real-time RT-PCR analysis of fresh-frozen and microdissected formalin-fixed paraffin-embedded primary colorectal tumors, normal colon mucosa, and matched liver metastases. MicroRNA expression was validated by in situ hybridization and after in vitro culture of the malignant cells. To assess EMT as a predictive marker, factors considered relevant in colorectal cancer were investigated in 98 primary breast tumors from a treatment-randomized study. Associations between the studied EMT-markers were found in primary breast tumors and in colorectal liver metastases. MicroRNA-200 expression in epithelial cells was lower in malignant mucosa than in normal mucosa, and was also decreased in metastatic compared to non-metastatic colorectal cancer. Low microRNA-200 expression in colorectal liver metastases was associated with bad prognosis. In breast cancer, low levels of microRNA-200 were related to reduced survival and high expression of microRNA-200 was predictive of benefit from radiotheraphy. MicroRNA-200 was associated with ER positive status, and inversely correlated to HER2 and overactivation of the PI3K/AKT pathway, that was associated with high ZEB1 mRNA expression. Our findings suggest that the stability of microRNAs makes them suitable as clinical markers and that the EMT-related microRNA-200-ZEB-E-cadherin signaling pathway is connected to established clinical characteristics and can give useful prognostic and treatment-predictive information in progressive breast and colorectal cancers.
- Full text
View/download PDF
16. AIP mutations in young patients with acromegaly and the Tampico Giant: the Mexican experience. [2016]
-
Ramírez-Rentería C, Hernández-Ramírez LC, Portocarrero-Ortiz L, Vargas G, Melgar V, Espinosa E, Espinosa-de-Los-Monteros AL, Sosa E, González B, Zúñiga S, Unterländer M, Burger J, Stals K, Bussell AM, Ellard S, Dang M, Iacovazzo D, Kapur S, Gabrovska P, Radian S, Roncaroli F, Korbonits M, and Mercado M
Endocrine [Endocrine] 2016 Aug; Vol. 53 (2), pp. 402-11. Date of Electronic Publication: 2016 Mar 31.
- Subjects
-
Adenoma genetics, Adolescent, Adult, Female, Gene Frequency, Growth Hormone-Secreting Pituitary Adenoma genetics, Humans, Male, Mexico, Mutation, Young Adult, Acromegaly genetics, Gigantism genetics, and Intracellular Signaling Peptides and Proteins genetics
- Abstract
-
Although aryl hydrocarbon receptor-interacting protein (AIP) mutations are rare in sporadic acromegaly, their prevalence among young patients is nonnegligible. The objectives of this study were to evaluate the frequency of AIP mutations in a cohort of Mexican patients with acromegaly with disease onset before the age of 30 and to search for molecular abnormalities in the AIP gene in teeth obtained from the "Tampico Giant". Peripheral blood DNA from 71 patients with acromegaly (51 females) with disease onset <30 years was analysed (median age of disease onset of 23 years) and correlated with clinical, biochemical and imaging characteristics. Sequencing was also carried out in DNA extracted from teeth of the Tampico Giant. Five patients (7 %) harboured heterozygous, germline mutations of the AIP gene. In two of them (a 9-year-old girl with gigantism and a young man with symptoms of GH excess since age 14) the c.910C>T (p.Arg304Ter), well-known truncating mutation was identified; in one of these two cases and her identical twin sister, the mutation proved to be a de novo event, since neither of their parents were found to be carriers. In the remaining three patients, new mutations were identified: a frameshift mutation (c.976_977insC, p.Gly326AfsTer), an in-frame deletion (c.872_877del, p.Val291_Leu292del) and a nonsense mutation (c.868A > T, p.Lys290Ter), which are predicted to be pathogenic based on in silico analysis. Patients with AIP mutations tended to have an earlier onset of acromegaly and harboured larger and more invasive tumours. A previously described genetic variant of unknown significance (c.869C > T, p.Ala299Val) was identified in DNA from the Tampico Giant. The prevalence of AIP mutations in young Mexican patients with acromegaly is similar to that of European cohorts. Our results support the need for genetic evaluation of patients with early onset acromegaly.
- Full text View on content provider's site
17. Rhacognathus americanus Stal 1870 [2021]
-
Rider, David A. and Swanson, Daniel R.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Pentatomidae, and Rhacognathus
- Abstract
-
Rhacognathus americanus Stål, 1870 Distribution: Canada: AB, MB, NT (Maw et al. 2000), ON (Maw et al. 2000, Roch 2020), QC (Roch 2020). United States: IL, IN, MA, MI, MN, NE, OH. Comments: Paiero (2019) has recently discussed the known records of this species from North America and has speculated that it might be extirpated from or might even be extinct from large portions of its known range. Further collecting is needed to test this possibility.
Published as part of Rider, David A. & Swanson, Daniel R., 2021, A distributional synopsis of the Pentatomidae (Heteroptera) north of Mexico, including new state and provincial records, pp. 1-69 in Zootaxa 5015 (1) on page 10, DOI: 10.11646/zootaxa.5015.1.1, http://zenodo.org/record/5159085
{"references":["Stal, C. (1870) Enumeratio Hemipterorum. Bidrag till en foreteckning ofver alla hittils kanda Hemiptera, jemte systematiska meddelanden. 1. Kongliga Svenska Vetenskaps-Akademiens Handlingar, 9 (1), 1 - 232. https: // doi. org / 10.5962 / bhl. title. 12549","Maw, H. E. L., Foottit, R. G., Hamilton, K. G. A. & Scudder, G. G. E. (2000) Checklist of the Hemiptera of Canada and Alaska. National Research Council of Canada, NRC Research Press, Ottawa, 220 pp. Canada,","Roch, J-F. (2020) Entomofaune du Quebec. Liste des Punaises du Quebec et des Regions Adjacentes (Hemiptera: Heteroptera). Document Faunique 27. Version 2.3. Entomofaune du Quebec Inc., Saguenay, 41 pp.","Paiero, S. M. (2019) Does it make scents? Making a case for the extirpation, and possibly extinction, of the native stink bug Rhacognathus americanus (Pentatomidae: Asopinae). Journal of the Entomological Society of Ontario, 150, 37 - 45."]}
-
Augusto Ferrari, Luciana Weiler, and Jocelia Grazia
- ResearcherID
Scopus-Elsevier
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Pentatomidae, Animal Science and Zoology, Ecology, Evolution, Behavior and Systematics, Heteroptera, biology.organism_classification, biology, Zoology, Taxonomy (biology), and Pentatominae
- Abstract
-
Lycipta Stål (1862a) was proposed as a genus to include three species previously placed in Euschistus Dallas – Euschistus illotus Stål, 1860; E. triangulator (Herrich-Schäffer, 1842); and E. scabricornis (Herrich-Schäffer, 1844). Later, Stål (1862b) treated Lycipta as a subgenus of Euschistus and described E. (L.) spurculus. Stål (1872) transferred E. spurculus to Euschistus (Euschistus); treated E. scabricornis as inserti generis (actually Agroecus scabricornis); and added three new species to Euschistus (Lycipta). As a result (Stål 1872), there are five species: E. (L.) cornutus (Dallas, 1851); E. (L.) cribrarius Stål, 1872; E. (L.) illotus; E. (L.) picticornis Stål, 1872; and E. (L.) triangulator. Rolston (1982) added five new species to Lycipta: E. (L.) luridus (Dallas, 1851); E. (L.) circumfusus Berg, 1883; E. (L.) imitator Berg, 1878; E. (L.) machadus Rolston, 1982; and E. (L.) sharpi Bergroth, 1891. Thomas (1983) corrected the homonymy of Euschistus luridus Dallas, 1851, replacing the name of E. (L.) aceratos Berg, 1894. Grazia & Hildebrand (1982) transferred Berecynthus monrosi Pirán, 1963 to Euschistus; Rolston (1984), based on the illustrations of the head and spermatheca of E. monrosi provided by Grazia & Hildebrand (1982), included this species in the subgenus Lycipta. Finally, Grazia & Hildebrand (1983) described E. (Lycipta) longicornis, for a total of 12 species in the subgenus.
-
Higor D. D. Rodrigues, Marcelo Duarte da Silva, Robert William Sites, Carlos José Einicker Lamas, Felipe Ferraz Figueiredo Moreira, Cristiano Feldens Schwertner, and Olívia Evangelista de Souza
- Biblioteca Digital de Teses e Dissertações da USP
Universidade de São Paulo (USP)
instacron:USP
- Abstract
-
A subfamília Limnocorinae (Naucoridae) possui quatro gêneros nominais na literatura, entretanto, apenas Limnocoris Stål, 1860 é considerado válido. O presente estudo revisa taxonomicamente as espécies do gênero, bem como a relação filogenética entre elas. Todas as espécies ocorrem na região Neotropical, registradas do sul do Estado de Nevada, nos Estados Unidos, até a região central da Argentina. Historicamente, Limnocoris é um grupo pouco estudado, com trabalhos que concentram basicamente em descrições de espécies, muitas delas, publicadas em estudos isolados, sem muito detalhe. Além disso, é digno de nota mencionar que até o presente momento nenhum estudo que se objetivou classificar grupos de espécies ou mesmo a relação de gêneros dentro das subfamílias utilizando análise filogenética foi realizado até o momento. Através de revisão taxonômica, buscou-se reconhecer os táxons pertencentes ao gênero, bem como suas variações intraespecíficas. A revisão teve ênfase na localização do material-tipo e espécimes adicionais, sempre que possível. Todas as espécies estudadas foram fotografadas e examinadas com o intuito de padronizar o estudo morfológico externo do gênero. Após o estudo dos espécimes-tipo, foi possível propor 15 sinonímias novas, sinônimos juniores entre colchetes: Limnocoris dubiosus Montandon [L. aymarana Poisson]; L. espinolai Nieser & Lopez-Ruf [L. porphyros Nieser & Lopez- Ruf]; L. insularis Champion [L. alcorni La Rivers]; L. malkini La Rivers [L. pulchellus La Rivers]; L. menkei La Rivers [L. birabeni De Carlo]; L. ochraceus Montandon [L. maculatus De Carlo]; L. pallescens (Stål) [L. bergrothi Montandon]; L. pauper Montandon [L. nigropunctatus Montandon]; L. pauper Montandon [L. nigropunctatus Montandon]; L. pectoralis Montandon [L. rivalis Melin]; L. pygmaeus La Rivers [L. solenoides La Rivers]; L. signoreti Montandon [L. brailovskyi La Rivers, L. laucki La Rivers e L. stangei La Rivers]; L. stali Montandon [L. carcharus La Rivers e L. robustus Roback & Nieser]. Além disso, três espécies são revalidadas: L. montandoni La Rivers, L. sattleri De Carlo e L. stali; L. surinamensis stat. nov. é elavada ao status de espécies, e outras 13 espécies novas são propostas. Lectótipos são designados para L. aymarana, L. bergrothi, L. dubiosus e L. signoreti. Com o objetivo de propor uma hipótese de relação de parentesco entre as espécies de Limnocoris, foi elaborada uma matriz de 82 caracteres morfológicos, tendo como método de estudo a máxima parcimônia. A análise utilizando pesagem implícita resultou em 1 árvore mais parcimoniosa; oito sinapomorfias suportam a monofilia do gênero Limnocoris, que se mostrou dividir-se em dois grandes clados separados principalmente pela pubescência da região ventral do corpo. A distribuição geográfica de grande parte das espécies é incrementada com a inclusão de novos registros e, com intuito de facilitar a identificação, mapas de distribuição e uma chave ilustrada é proposta para as espécies estudadas. The subfamily Limnocorinae (Naucoridae) contains four nominal genera in the literature, however, only Limnocoris Stål, 1860 is considered valid. The present study reviews taxonomically the species of the genus, as well as proposes a phylogenetic hypothesis of relation between them. All species occur in the Neotropical region, from southern Nevada in the United States, to central Argentina. Historically, Limnocoris is a poorly studied group, with works concentrate mainly on descriptions of species, many of them, published in isolated studies, without much detail. In addition, up to the present time no study that has aimed to classify groups of species or even the relationship of genera within the subfamilies using phylogenetic analysis has not been performed so far. Through a taxonomic revision, it was sought to recognize the taxa belonging to the genus, as well as their intraspecific variations. The revision has emphasized in the location of the type-material and additional specimens, whenever possible. All species studied were photographed and examined in order to standardize the external morphological study of the genus. After the study of the type specimens, it was possible to propose 15 new synonymies, junior synonyms between brackets: Limnocoris dubiosus Montandon [L. aymarana Poisson]; L. espinolai Nieser & Lopez-Ruf [L. porphyros Nieser & Lopez-Ruf]; L. insularis Champion [L. alcorni La Rivers]; L. malkini La Rivers [L. pulchellus La Rivers]; L. menkei La Rivers [L. birabeni De Carlo]; L. ochraceus Montandon [L. maculatus De Carlo]; L. pallescens (Stål) [L. bergrothi Montandon]; L. pauper Montandon [L. nigropunctatus Montandon]; L. pauper Montandon [L. nigropunctatus Montandon]; L. pectoralis Montandon [L. rivalis Melin]; L. pygmaeus La Rivers [L. solenoides La Rivers]; L. signoreti Montandon [L. brailovskyi La Rivers, L. laucki La Rivers e L. stangei La Rivers]; L. stali Montandon [L. carcharus La Rivers e L. robustus Roback & Nieser]. In addition, three species are revalidated: L. montandoni La Rivers, L. sattleri De Carlo and L. stali; L. surinamensis stat. nov. is elevated to species status and another 13 new species are proposed. Lectotypes are designated for L. aymarana, L. bergrothi, L. dubiosus e L. signoreti. With the aim of proposing a hypothesis of relationship among the species of Limnocoris, a matrix of 82 morphological characters was elaborated, having as method the maximum parsimony. The analysis under implicit weighing resulted in 1 more parsimonious tree; eight synapomorphies support the monophyly of the genus, which has been shown to divide into two clades separated mainly by the pubescence of the ventral region of the body. The geographic distribution of almost all species is increased with the inclusion of new records and, in order to facilitate identification, distribution maps and an identification key are proposed for the studied species.
20. Rustia Stal 1866 [2018]
-
Marathe, Kiran, Sanborn, Allen F., and Kunte, Krushnamegh
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Cicadidae, Rustia, and animal structures
- Abstract
-
Rustia St��l, 1866a Rustia St��l 1866a: 8. Gudaba Distant 1906a: 138. (Burma) n. syn. TYPE SPECIES. Cicada dentivitta Walker, 1862: 304 (Siam). SPECIES INCLUDED. Rustia apicata (Distant, 1906c) n. comb., Rustia dentivitta (Walker, 1862), Rustia kodagura n. sp., Rustia longicauda (Lei, 1996) n. comb., Rustia maculata (Distant, 1912) n. comb., Rustia marginata (Distant, 1897) n. comb., Rustia minuta n. sp., and Rustia tigrina (Distant, 1888). Remarks. St��l (1866a) described Rustia with the following characteristics (using current anatomical terminology): mesonotum width equal to the width of head, anterior margin of head between frons and rather prominent lobes of vertex deeply incised, lateral part of eyes hemispherical inclined upwards a small amount, postclypeus somewhat prominent; rostrum short; ocelli twice distance from eyes than from one another; hind wings with five apical areas. Distant (1905a) expanded the description of Rustia in the same work in which he established Gudaba. He described both Rustia and Gudaba possessing a head with eyes about as wide as the mesonotum and about as long as the pronotum, lateral pronotal margins nearly straight, abdomen longer than the distance between the apex of the head and base of the cruciform elevation, timbal covers shorter and narrower than timbal cavities, short male opercula not covering tympanal cavity, rostrum reaching posterior coxae, anterior femora strongly spined, fore wings and hind wings hyaline with eight and five apical cells, respectively (Distant 1906a). Characters listed in one of the generic descriptions (Distant, 1906a) that apply to both genera include the length of the head being about the distance between the eyes, the ocelli being closer to one another than to the eyes, lateral margins of the vertex not in line with those of the frons, the vertical angles globosely produced, eyes somewhat pedunculate, pronotum as long as mesonotum, the structure of the pronotal collar lateral angles and sinuate lateral margin of the pronotum, transverse male opercula, abdominal sternites III and IV in males with tubercles with the tubercle on sternite III being longest, and the fore wing basal cell being much longer than broad (see images in Fig. 5). The only character that is not obviously found in both genera is the lateral margins of the head being discontinuous found in the Rustia description (Distant 1906a). It is clear that the two genera share a common morphology and their status as separate genera is questionable. In addition to the shared characters from the original species descriptions, the genitalia are also highly similar. The pygofer distal shoulder is extended and wing-like curving laterad at its apex, and the uncus is broad at the base and tapering towards the apex. Distant (1906a; 1906b; 1914) used the 5 apical cells of the hind wings to distinguish Gudaba and Rustia from related genera. Distant's failure to recognize that Rustia possesses abdominal tubercles appears to be the reason for the erection of Gudaba. However, the presence of abdominal tubercles in Rustia was essential to the classification of the genus into their current subtribe (Lee and Emery 2013). Therefore, without any significant general morphological features that appear to be unique in the two genera, we recognize Gudaba Distant, 1906 n. syn. as a junior synonym of Rustia St��l, 1866a. As a result of this synonymy, the species previously assigned to Gudaba become Rustia apicata (Distant, 1906c) n. comb., Rustia longicauda (Lei, 1996) n. comb., Rustia maculata (Distant, 1912) n. comb., and Rustia marginata (Distant, 1897) n. comb. Description. Body size small (8���17mm body length), female shorter than male due to the male's elongated abdomen. Head about as wide as mesonotum and as long as distance between eyes, eyes protruding beyond anterior pronotal margin with a slight dorsal incline, somewhat pedunculate, ocelli closer to one another than to eyes; vertex at area of ocelli about as long as front, with a deep depression lateral to lateral ocelli and globosely produced anterolateral margins; postclypeus rounded in transverse section, lacking central sulcus, rostrum length varying among species but extended to some point between middle trochanters and abdominal sternite I. Pronotum as long as mesonotum, trapezoidal with anterior margin narrower than lateral margins of pronotal collar, lateral angles of pronotal collar slightly expanded, lateral margins of pronotal collar confluent with adjoining pronotal sclerites, sinusoidal when viewed from dorsal side. Dorsal midline of metanotum entirely concealed. Fore wing and hind wing hyaline, with eight and five apical cells, respectively, with various patterns of infuscation on apex, radial and radiomedial crossveins, distal marginal cells and ambient vein of fore wing, radial and radiomedial crossveins generally not parallel. Basal cell longer than broad and unmarked. Basal area of fore wing clavus and hind wing costal cell without infuscation. Fore wing cubitus posterior and anal vein 1 fused in part, median vein and cubitus anterior separated when meeting the basal cell, hind wing radius posterior and median veins fused at their bases, cubitus posterior and anal vein 1 unfused, and distal end of anal vein 3 straight. Fore femur with oblique primary spine, upright or less oblique secondary spine, possibly with very small apical spine, tarsi three-segmented. Male operculum small, scale-like, not covering tympanal cavity or encapsulating meracanthus, opercula well separated along midline, meracanthus tapering to a point, reaching to or past posterior margin of operculum. Abdomen longer than the distance between the apex of head and cruciform elevation in males but about the same distance in females, timbal cover small, recurved laterally forming a flattened ridge on the posterior timbal cavity, timbals extend below wing bases, abdominal segments with parallel sides to segment 8 where they narrow posteriorly to the genitalia, sternites III and IV with tubercles on posterolateral surface, the tubercle on sternite III longer. Pygofer distal shoulder well developed extending into a point or wing-like structure that is curved laterad, dorsal beak absent, pygofer upper lobe small, adpressed to lateral pygofer, pygofer basal lobes absent, uncus well developed with broad base and tapering towards apex, uncus retractable within pygofer, claspers absent, and male aedeagus simple, restrained under uncus. Female abdominal segment 9 with dorsal beak well defined and sinuate posterior margin, ovipositor sheath extends to about the level of the dorsal beak. Female sternite VII with medial notch. Measurments ( MM ). Length of body: 8.3���17.0; length of fore wing: 13.1���22.4; width of fore wing: 4.5���7.2; length of head: 0.6���1.8; width of head including eyes: 3.2���5.2; width of pronotum including suprahumeral plates: 3.6���5.2; width of mesonotum: 3.0���4.7. Female body length is generally less than in males due to the longer male abdomen. Diagnosis. The diagnostic features for members of the subtribe as described by Lee and Emery (2013) will distinguish what is now the only genus of the subtribe from all other members of the tribe. All other Leptopsaltriini have six apical cells in the hind wing. Distribution. The genus in its new concept is found over much of Southeastern Asia including Borneo, Burma, Cambodia, China, Himalayas, India, Indonesia, Korea, Nepal, Philippine Republic, Thailand, and Vietnam (Metcalf 1963; Sanborn 2013; 2015; Price et al. 2016). It has yet to be recorded from Laos (Lee 2014).
Published as part of Marathe, Kiran, Sanborn, Allen F. & Kunte, Krushnamegh, 2018, Revision of the genus Rustia St��l, 1866 (Hemiptera: Cicadidae: Cicadinae) including a generic synonymy, four new combinations, and two new species from the Western Ghats, India, pp. 431-443 in Zootaxa 4457 (3) on pages 432-434, DOI: 10.11646/zootaxa.4457.3.5, http://zenodo.org/record/1457917
{"references":["Stal, C. (1866 a) Hemiptera Homoptera Latr. Hemiptera Africana, 4, 1 - 276, pl. 1.","Distant, W. L. (1906 a) Rhynchota. Heteroptera-Homoptera. In: The Fauna of British India, including Ceylon and Burma. Uol. 3. Published under the authority of the Secretary of State for India in Council. Edited by Lt. Col. C. T. Bingham, pp. i - xiv + 1 - 503.","Distant, W. L. (1906 c) Undescribed Cicadidae. Annales De La Societe Entomologique De Belgique, 50, 148 - 154.","Lei, Z. (1996) A new species and a new record of the genus Gudaba from China (Homoptera: Cicadidae). Acta Zootaxonomica Sinica, 21, 210 - 213.","Distant, W. L. (1912) Descriptions of some new Homoptera. Annals and Magazine of Natural History, Series 8, 10 (58), 438 - 446. https: // doi. org / 10.1080 / 00222931208693257","Distant, W. L. (1897) Cicadidae from the North Chin Hills, Burma. Annals and Magazine of Natural History, Series 6, 20 (115), 17 - 19. https: // doi. org / 10.1080 / 00222939708680596","Distant, W. L. (1888) Descriptions of new species of Oriental Cicadidae. Annals and Magazine of Natural History, Series 6, 2 (10), 323 - 325. https: // doi. org / 10.1080 / 00222938809460932","Distant, W. L. (1906 b) A synonymic catalogue of Homoptera. Part I. Cicadidae. Trustees of the British Museum, London, 207 pp.","Distant, W. L. (1914) Homoptera, Fam. Cicadidae, Subfam. Gaeaninae. Genera Insectorum, 158, 1 - 38.","Lee, Y. J. & Emery, D. (2013) New genera and species of Leptopsaltriini (Hemiptera: Cicadidae: Cicadinae) from India and Tibet, with the descriptions of five new subtribes. Zoosystema, 35, 525 - 535. https: // doi. org / 10.5252 / z 2013 n 4 a 6","Metcalf, Z. P. (1963) General catalogue of the Homoptera, Fascicle VIII. Cicadoidea. Part 1. Cicadidae. Section I. Tibiceninae. North Carolina State College Contribution, 1502, i - vii + 1 - 585.","Sanborn, A. F. (2013) Catalogue of the Cicadoidea (Hemiptera: Cicadoidea). With contributions to the bibliography by Martin H. Uillet. Elsevier / Academic Press, San Diego, 1001 pp.","Sanborn, A. F. (2015) The cicadas (Hemiptera: Cicadidae) of Nepal with new records and a checklist of Himalayan cicadas. In: Hartmann, M. & Wiepert, J. (Eds.), Biodiversitat und Naturausstattung im Himalaya - Biodiversity and Natural Heritage of the Himalaya. Uol. U. Verein der Freunde und Forderer des Naturkundemuseums Erfurt e. V., Erfurt, pp. 211 - 226.","Price, B. W., Allan, E. L., Marathe, K., Sarkar, V., Simon, C. & Kunte, K. (2016) The cicadas (Hemiptera: Cicadidae) of India, Bangladesh, Bhutan, Myanmar, Nepal and Sri Lanka: an annotated provisionasl catalogue, regional checklist and bibliography. Biodiversity Data Journal, 4 (e 8051), 1 - 156. https: // doi. org / 10.3897 / BDJ. 4. e 8051","Lee, Y. J. (2014) Cicadas (Hemiptera: Cicadidae) of Laos, with the description of four new genera and two new species. Annales de la Societe entomologique de France (N. S.): International Journal of Entomology, 50, 59 - 81."]}
-
Marques P, Caimari F, Hernández-Ramírez LC, Collier D, Iacovazzo D, Ronaldson A, Magid K, Lim CT, Stals K, Ellard S, Grossman AB, and Korbonits M
The Journal of clinical endocrinology and metabolism [J Clin Endocrinol Metab] 2020 Jun 01; Vol. 105 (6).
- Subjects
-
Adolescent, Adult, Age of Onset, Female, Follow-Up Studies, Growth Hormone-Secreting Pituitary Adenoma genetics, Humans, Male, Pituitary Neoplasms genetics, Prognosis, Prospective Studies, Young Adult, Biomarkers analysis, Genetic Testing methods, Growth Hormone-Secreting Pituitary Adenoma diagnosis, Intracellular Signaling Peptides and Proteins genetics, Mass Screening methods, Mutation, and Pituitary Neoplasms diagnosis
- Abstract
-
Context: Germline mutations in the aryl hydrocarbon receptor-interacting protein (AIP) gene are responsible for a subset of familial isolated pituitary adenoma (FIPA) cases and sporadic pituitary neuroendocrine tumors (PitNETs).
Objective: To compare prospectively diagnosed AIP mutation-positive (AIPmut) PitNET patients with clinically presenting patients and to compare the clinical characteristics of AIPmut and AIPneg PitNET patients.
Design: 12-year prospective, observational study.
Participants & Setting: We studied probands and family members of FIPA kindreds and sporadic patients with disease onset ≤18 years or macroadenomas with onset ≤30 years (n = 1477). This was a collaborative study conducted at referral centers for pituitary diseases.
Interventions & Outcome: AIP testing and clinical screening for pituitary disease. Comparison of characteristics of prospectively diagnosed (n = 22) vs clinically presenting AIPmut PitNET patients (n = 145), and AIPmut (n = 167) vs AIPneg PitNET patients (n = 1310).
Results: Prospectively diagnosed AIPmut PitNET patients had smaller lesions with less suprasellar extension or cavernous sinus invasion and required fewer treatments with fewer operations and no radiotherapy compared with clinically presenting cases; there were fewer cases with active disease and hypopituitarism at last follow-up. When comparing AIPmut and AIPneg cases, AIPmut patients were more often males, younger, more often had GH excess, pituitary apoplexy, suprasellar extension, and more patients required multimodal therapy, including radiotherapy. AIPmut patients (n = 136) with GH excess were taller than AIPneg counterparts (n = 650).
Conclusions: Prospectively diagnosed AIPmut patients show better outcomes than clinically presenting cases, demonstrating the benefits of genetic and clinical screening. AIP-related pituitary disease has a wide spectrum ranging from aggressively growing lesions to stable or indolent disease course.
(© Endocrine Society 2020.)
- Full text View on content provider's site
-
Dénes J, Swords F, Rattenberry E, Stals K, Owens M, Cranston T, Xekouki P, Moran L, Kumar A, Wassif C, Fersht N, Baldeweg SE, Morris D, Lightman S, Agha A, Rees A, Grieve J, Powell M, Boguszewski CL, Dutta P, Thakker RV, Srirangalingam U, Thompson CJ, Druce M, Higham C, Davis J, Eeles R, Stevenson M, O'Sullivan B, Taniere P, Skordilis K, Gabrovska P, Barlier A, Webb SM, Aulinas A, Drake WM, Bevan JS, Preda C, Dalantaeva N, Ribeiro-Oliveira A Jr, Garcia IT, Yordanova G, Iotova V, Evanson J, Grossman AB, Trouillas J, Ellard S, Stratakis CA, Maher ER, Roncaroli F, and Korbonits M
The Journal of clinical endocrinology and metabolism [J Clin Endocrinol Metab] 2015 Mar; Vol. 100 (3), pp. E531-41. Date of Electronic Publication: 2014 Dec 12.
- Subjects
-
Adenoma epidemiology, Adrenal Gland Neoplasms epidemiology, Adult, Cohort Studies, Female, Genetic Association Studies, Genetic Testing, Humans, Male, Middle Aged, Paraganglioma epidemiology, Pheochromocytoma epidemiology, Pituitary Neoplasms epidemiology, Young Adult, Adenoma genetics, Adrenal Gland Neoplasms genetics, Genetic Heterogeneity, Genetic Predisposition to Disease, Paraganglioma genetics, Pheochromocytoma genetics, and Pituitary Neoplasms genetics
- Abstract
-
Context: Pituitary adenomas and pheochromocytomas/paragangliomas (pheo/PGL) can occur in the same patient or in the same family. Coexistence of the two diseases could be due to either a common pathogenic mechanism or a coincidence.
Objective: The objective of the investigation was to study the possible coexistence of pituitary adenoma and pheo/PGL.
Design: Thirty-nine cases of sporadic or familial pheo/PGL and pituitary adenomas were investigated. Known pheo/PGL genes (SDHA-D, SDHAF2, RET, VHL, TMEM127, MAX, FH) and pituitary adenoma genes (MEN1, AIP, CDKN1B) were sequenced using next generation or Sanger sequencing. Loss of heterozygosity study and pathological studies were performed on the available tumor samples.
Setting: The study was conducted at university hospitals.
Patients: Thirty-nine patients with sporadic of familial pituitary adenoma and pheo/PGL participated in the study.
Outcome: Outcomes included genetic screening and clinical characteristics.
Results: Eleven germline mutations (five SDHB, one SDHC, one SDHD, two VHL, and two MEN1) and four variants of unknown significance (two SDHA, one SDHB, and one SDHAF2) were identified in the studied genes in our patient cohort. Tumor tissue analysis identified LOH at the SDHB locus in three pituitary adenomas and loss of heterozygosity at the MEN1 locus in two pheochromocytomas. All the pituitary adenomas of patients affected by SDHX alterations have a unique histological feature not previously described in this context.
Conclusions: Mutations in the genes known to cause pheo/PGL can rarely be associated with pituitary adenomas, whereas mutation in a gene predisposing to pituitary adenomas (MEN1) can be associated with pheo/PGL. Our findings suggest that genetic testing should be considered in all patients or families with the constellation of pheo/PGL and a pituitary adenoma.
- Full text View on content provider's site
-
Aguilar H, Urruticoechea A, Halonen P, Kiyotani K, Mushiroda T, Barril X, Serra-Musach J, Islam A, Caizzi L, Di Croce L, Nevedomskaya E, Zwart W, Bostner J, Karlsson E, Pérez Tenorio G, Fornander T, Sgroi DC, Garcia-Mata R, Jansen MP, García N, Bonifaci N, Climent F, Soler MT, Rodríguez-Vida A, Gil M, Brunet J, Martrat G, Gómez-Baldó L, Extremera AI, Figueras A, Balart J, Clarke R, Burnstein KL, Carlson KE, Katzenellenbogen JA, Vizoso M, Esteller M, Villanueva A, Rodríguez-Peña AB, Bustelo XR, Nakamura Y, Zembutsu H, Stål O, Beijersbergen RL, and Pujana MA
Breast cancer research : BCR [Breast Cancer Res] 2014 May 28; Vol. 16 (3), pp. R53. Date of Electronic Publication: 2014 May 28.
- Subjects
-
Androstadienes therapeutic use, Antineoplastic Agents, Hormonal pharmacology, Aromatase Inhibitors therapeutic use, Biomarkers, Tumor genetics, Breast pathology, Breast Neoplasms genetics, Breast Neoplasms pathology, Cell Line, Tumor, Cell Proliferation drug effects, Cell Survival drug effects, Enzyme Activators pharmacology, ErbB Receptors antagonists inhibitors, Erlotinib Hydrochloride, Estrogen Receptor alpha antagonists inhibitors, Estrogen Receptor alpha genetics, Female, Gene Expression Regulation, Neoplastic, Genetic Association Studies, Genetic Variation, Humans, Letrozole, MCF-7 Cells, Nitriles therapeutic use, Protein Kinase Inhibitors pharmacology, Quinazolines pharmacology, RNA Interference, RNA, Small Interfering, Tamoxifen pharmacology, Tamoxifen therapeutic use, Toremifene pharmacology, Toremifene therapeutic use, Triazoles therapeutic use, Breast Neoplasms drug therapy, Drug Resistance, Neoplasm genetics, Estrogen Receptor alpha metabolism, Indazoles pharmacology, and Proto-Oncogene Proteins c-vav genetics
- Abstract
-
Introduction: Endocrine therapies targeting cell proliferation and survival mediated by estrogen receptor α (ERα) are among the most effective systemic treatments for ERα-positive breast cancer. However, most tumors initially responsive to these therapies acquire resistance through mechanisms that involve ERα transcriptional regulatory plasticity. Herein we identify VAV3 as a critical component in this process.
Methods: A cell-based chemical compound screen was carried out to identify therapeutic strategies against resistance to endocrine therapy. Binding to ERα was evaluated by molecular docking analyses, an agonist fluoligand assay and short hairpin (sh)RNA-mediated protein depletion. Microarray analyses were performed to identify altered gene expression. Western blot analysis of signaling and proliferation markers, and shRNA-mediated protein depletion in viability and clonogenic assays, were performed to delineate the role of VAV3. Genetic variation in VAV3 was assessed for association with the response to tamoxifen. Immunohistochemical analyses of VAV3 were carried out to determine its association with therapeutic response and different tumor markers. An analysis of gene expression association with drug sensitivity was carried out to identify a potential therapeutic approach based on differential VAV3 expression.
Results: The compound YC-1 was found to comparatively reduce the viability of cell models of acquired resistance. This effect was probably not due to activation of its canonical target (soluble guanylyl cyclase), but instead was likely a result of binding to ERα. VAV3 was selectively reduced upon exposure to YC-1 or ERα depletion, and, accordingly, VAV3 depletion comparatively reduced the viability of cell models of acquired resistance. In the clinical scenario, germline variation in VAV3 was associated with the response to tamoxifen in Japanese breast cancer patients (rs10494071 combined P value = 8.4 × 10-4). The allele association combined with gene expression analyses indicated that low VAV3 expression predicts better clinical outcome. Conversely, high nuclear VAV3 expression in tumor cells was associated with poorer endocrine therapy response. Based on VAV3 expression levels and the response to erlotinib in cancer cell lines, targeting EGFR signaling may be a promising therapeutic strategy.
Conclusions: This study proposes VAV3 as a biomarker and a rationale for its use as a signaling target to prevent and/or overcome resistance to endocrine therapy in breast cancer.
- Full text View on content provider's site
-
Stickel F, Buch S, Zoller H, Hultcrantz R, Gallati S, Österreicher C, Finkenstedt A, Stadlmayr A, Aigner E, Sahinbegovic E, Sarrazin C, Schafmayer C, Braun F, Erhart W, Nothnagel M, Lerch MM, Mayerle J, Völzke H, Schaller A, Kratzer W, Boehm BO, Sipos B, D'Amato M, Torkvist L, Stal P, Arlt A, Franke A, Becker T, Krawczak M, Zwerina J, Berg T, Hinrichsen H, Krones E, Dejaco C, Strasser M, Datz C, and Hampe J
Human molecular genetics [Hum Mol Genet] 2014 Jul 15; Vol. 23 (14), pp. 3883-90. Date of Electronic Publication: 2014 Feb 20.
- Subjects
-
Aged, Female, Genome, Human, Genome-Wide Association Study, Hemochromatosis complications, Hemochromatosis pathology, Hemochromatosis Protein, Homozygote, Humans, Iron metabolism, Male, Middle Aged, Polymorphism, Single Nucleotide, Risk Factors, Hemochromatosis genetics, Histocompatibility Antigens Class I genetics, Liver Cirrhosis genetics, Membrane Proteins genetics, and Subtilisins genetics
- Abstract
-
Genome-wide association studies (GWAS) have revealed genetic determinants of iron metabolism, but correlation of these with clinical phenotypes is pending. Homozygosity for HFE C282Y is the predominant genetic risk factor for hereditary hemochromatosis (HH) and may cause liver cirrhosis. However, this genotype has a low penetrance. Thus, detection of yet unknown genetic markers that identify patients at risk of developing severe liver disease is necessary for better prevention. Genetic loci associated with iron metabolism (TF, TMPRSS6, PCSK7, TFR2 and Chr2p14) in recent GWAS and liver fibrosis (PNPLA3) in recent meta-analysis were analyzed for association with either liver cirrhosis or advanced fibrosis in 148 German HFE C282Y homozygotes. Replication of associations was sought in additional 499 Austrian/Swiss and 112 HFE C282Y homozygotes from Sweden. Only variant rs236918 in the PCSK7 gene (proprotein convertase subtilisin/kexin type 7) was associated with cirrhosis or advanced fibrosis (P = 1.02 × 10(-5)) in the German cohort with genotypic odds ratios of 3.56 (95% CI 1.29-9.77) for CG heterozygotes and 5.38 (95% CI 2.39-12.10) for C allele carriers. Association between rs236918 and cirrhosis was confirmed in Austrian/Swiss HFE C282Y homozygotes (P = 0.014; ORallelic = 1.82 (95% CI 1.12-2.95) but not in Swedish patients. Post hoc combined analyses of German/Swiss/Austrian patients with available liver histology (N = 244, P = 0.00014, ORallelic = 2.84) and of males only (N = 431, P = 2.17 × 10(-5), ORallelic = 2.54) were consistent with the premier finding. Association between rs236918 and cirrhosis was not confirmed in alcoholic cirrhotics, suggesting specificity of this genetic risk factor for HH. PCSK7 variant rs236918 is a risk factor for cirrhosis in HH patients homozygous for the HFE C282Y mutation.
(© The Author 2014. Published by Oxford University Press. All rights reserved. For Permissions, please email: journals.permissions@oup.com.)
- Full text View on content provider's site
-
Vieira P, De Clercq A, Stals H, Van Leene J, Van De Slijke E, Van Isterdael G, Eeckhout D, Persiau G, Van Damme D, Verkest A, Antonino de Souza JD, Júnior, Glab N, Abad P, Engler G, Inzé D, De Veylder L, De Jaeger G, and Engler JD
The Plant cell [Plant Cell] 2014 Jun; Vol. 26 (6), pp. 2633-2647. Date of Electronic Publication: 2014 Jun 24.
- Abstract
-
In Arabidopsis thaliana, seven cyclin-dependent kinase (CDK) inhibitors have been identified, designated interactors of CDKs or Kip-related proteins (KRPs). Here, the function of KRP6 was investigated during cell cycle progression in roots infected by plant-parasitic root-knot nematodes. Contrary to expectations, analysis of Meloidogyne incognita-induced galls of KRP6-overexpressing lines revealed a role for this particular KRP as an activator of the mitotic cell cycle. In accordance, KRP6-overexpressing suspension cultures displayed accelerated entry into mitosis, but delayed mitotic progression. Likewise, phenotypic analysis of cultured cells and nematode-induced giant cells revealed a failure in mitotic exit, with the appearance of multinucleated cells as a consequence. Strong KRP6 expression upon nematode infection and the phenotypic resemblance between KRP6 overexpression cell cultures and root-knot morphology point toward the involvement of KRP6 in the multinucleate and acytokinetic state of giant cells. Along these lines, the parasite might have evolved to manipulate plant KRP6 transcription to the benefit of gall establishment.
(© 2014 American Society of Plant Biologists. All rights reserved.)
- Full text View on content provider's site
-
Wang GS, Eriksson LC, Xia L, Olsson J, and Stål P
Journal of hepatology [J Hepatol] 1999 Apr; Vol. 30 (4), pp. 689-98.
- Subjects
-
Animals, Antioxidants metabolism, Apoptosis drug effects, Body Weight drug effects, Carbon Tetrachloride antagonists inhibitors, Carcinogens toxicity, Cell Division drug effects, Diet, Diethylnitrosamine toxicity, Iron administration dosage, Iron metabolism, Kupffer Cells drug effects, Kupffer Cells pathology, Liver metabolism, Liver pathology, Liver Neoplasms, Experimental chemically induced, Liver Neoplasms, Experimental pathology, Male, Necrosis, Organ Size drug effects, Rats, Rats, Wistar, Ubiquinone metabolism, Vitamin E metabolism, Carbon Tetrachloride toxicity, Iron pharmacology, Liver drug effects, and Liver Neoplasms, Experimental prevention control
- Abstract
-
Background/aims: The aim of this study was to investigate if feeding with carbonyl iron would facilitate the development of preneoplastic lesions initiated by diethylnitrosamine (DEN) and promoted by CCl4-induced liver cirrhosis.
Methods: Male Wistar rats were fed a diet with 1.25%-2.5% carbonyl iron for 23 weeks and received intragastric injections of CCl4 (1.0 or 2.0 ml/kg per week) for 13 weeks, followed by one i.p. injection of DEN (200 mg/kg), after which CCl4 was administered for 8 additional weeks. Animals were killed 48 h after the first CCl4 injection to evaluate liver necrosis, 8 weeks later to evaluate fibrosis, and 9 weeks after DEN to determine formation of glutathione S-transferase 7,7 (GST-7,7) positive foci.
Results: Treatment with iron counteracted the increased serum alanine aminotransferase levels and liver necrosis following CCl4 administration. Hepatic levels of reduced Q9 and alpha-tocopherol were elevated in rats treated with CCl4 and decreased in rats treated with iron compared to the controls. Fibrogenesis was not altered by iron treatment. Nine weeks after DEN initiation, the number and volume density of GST-7,7-positive foci in rats treated with CCl4 were significantly increased as compared with controls, but co-treatment with iron inhibited this increase. Apoptotic index was increased in iron-loaded livers, and labelling index (the fraction of S-phase hepatocytes) was decreased by co-treatment with iron in livers exposed to CCl4.
Conclusion: Carbonyl iron depleted hepatic levels of antioxidants, it decreased CCl4-induced necrosis and cell proliferation, it enhanced apoptosis and did not facilitate fibrogenesis. These effects together may explain the suppression of CCl4-induced promotion after DEN initiation exerted by carbonyl iron in the present study.
- Full text View on content provider's site
-
Cruces L, de la Peña E, and De Clercq P
Journal of insect science (Online) [J Insect Sci] 2022 Jul 01; Vol. 22 (4).
- Subjects
-
Animals, Biology, Diet, Female, Nymph growth development, Ovum, Heteroptera growth development, Temperature, and Zea mays
- Abstract
-
When quinoa, Chenopodium quinoa Willd., is cultivated in South America outside of its Andean origin, the heteropterans Liorhyssus hyalinus (Fabricius) and Nysius simulans Stål may emerge as important pests. Here we studied the development and reproduction of both species at different constant temperatures in the laboratory. Egg and nymphal development were investigated at 18, 22, 26, 30, 34, and 36°C. For both species, egg incubation time significantly decreased as the temperature increased. Nymphs did not successfully develop at 18°C and the total nymphal time significantly decreased as the temperature increased from 22 to 36°C. Based on a linear day-degree (DD) model, the lower developmental threshold (LDT) temperatures for eggs and nymphs were estimated to be 16.0 and 17.9°C for L. hyalinus, and 16.1 and 19.7°C for N. simulans, respectively. Thermal requirements for egg and nymphal development were 68.6 and 114.8 DD for L. hyalinus, and 77.7 and 190.3 DD for N. simulans, respectively. Reproduction and adult longevity were studied at 22, 26, 30, and 34°C. For both species preoviposition time decreased as temperature increased, and the oviposition period was longest at 26°C. The highest fecundity and egg viability were observed at 30°C, whereas longevities were higher at 22-26°C than at 30-34°C. As the lowest tested temperatures were not suitable to both heteropterans and 30°C was found to be the optimal temperature for development and reproduction, peak densities are expected in warm areas and seasons.
(© The Author(s) 2022. Published by Oxford University Press on behalf of Entomological Society of America.)
- Full text View on content provider's site
-
Noordermeer T, Schutgens REG, Visser C, Rademaker E, de Maat MPM, Jansen AJG, Limper M, Cremer OL, Kruip MJHA, Endeman H, Maas C, de Laat B, and Urbanus RT
Research and practice in thrombosis and haemostasis [Res Pract Thromb Haemost] 2022 Sep 16; Vol. 6 (6), pp. e12809. Date of Electronic Publication: 2022 Sep 16 (Print Publication: 2022).
- Abstract
-
Background: Thrombosis is a frequent and severe complication in patients with coronavirus disease 2019 (COVID-19) admitted to the intensive care unit (ICU). Lupus anticoagulant (LA) is a strong acquired risk factor for thrombosis in various diseases and is frequently observed in patients with COVID-19. Whether LA is associated with thrombosis in patients with severe COVID-19 is currently unclear.
Objective: To investigate if LA is associated with thrombosis in critically ill patients with COVID-19.
Patients/methods: The presence of LA and other antiphospholipid antibodies was assessed in patients with COVID-19 admitted to the ICU. LA was determined with dilute Russell's viper venom time (dRVVT) and LA-sensitive activated partial thromboplastin time (aPTT) reagents.
Results: Of 169 patients with COVID-19, 116 (69%) tested positive for at least one antiphospholipid antibody upon admission to the ICU. Forty (24%) patients tested positive for LA; of whom 29 (17%) tested positive with a dRVVT, 19 (11%) tested positive with an LA-sensitive aPTT, and 8 (5%) tested positive on both tests. Fifty-eight (34%) patients developed thrombosis after ICU admission. The odds ratio (OR) for thrombosis in patients with LA based on a dRVVT was 2.5 (95% confidence interval [CI], 1.1-5.7), which increased to 4.5 (95% CI, 1.4-14.3) in patients at or below the median age in this study (64 years). LA positivity based on a dRVVT or LA-sensitive aPTT was only associated with thrombosis in patients aged less than 65 years (OR, 3.8; 95% CI, 1.3-11.4) and disappeared after adjustment for C-reactive protein.
Conclusion: Lupus anticoagulant on admission is strongly associated with thrombosis in critically ill patients with COVID-19, especially in patients aged less than 65 years.
(© 2022 The Authors. Research and Practice in Thrombosis and Haemostasis published by Wiley Periodicals LLC on behalf of International Society on Thrombosis and Haemostasis (ISTH).)
- Full text View on content provider's site
-
Vendrik KEW, Kuijper EJ, Dimmendaal M, Silvis W, Denie-Verhaegh E, de Boer A, Postma B, Schoffelen AF, Ruijs WLM, Koene FMHPA, Petrignani M, Hooiveld M, Witteveen S, Schouls LM, and Notermans DW
Euro surveillance : bulletin Europeen sur les maladies transmissibles = European communicable disease bulletin [Euro Surveill] 2022 Dec; Vol. 27 (49).
- Subjects
-
Child, Humans, Fusidic Acid therapeutic use, Fusidic Acid pharmacology, Methicillin, Anti-Bacterial Agents pharmacology, Anti-Bacterial Agents therapeutic use, Netherlands epidemiology, Staphylococcus aureus, Disease Outbreaks, Microbial Sensitivity Tests, Methicillin-Resistant Staphylococcus aureus, Impetigo drug therapy, Impetigo epidemiology, Staphylococcal Infections drug therapy, and Staphylococcal Infections epidemiology
- Abstract
-
In this retrospective observational study, we analysed a community outbreak of impetigo with meticillin-resistant Staphylococcus aureus (MRSA), with additional resistance to fusidic acid (first-line treatment). The outbreak occurred between June 2018 and January 2020 in the eastern part of the Netherlands with an epidemiological link to three cases from the north-western part. Forty nine impetigo cases and eight carrier cases were identified, including 47 children. All but one impetigo case had community-onset of symptoms. Pharmacy prescription data for topical mupirocin and fusidic acid and GP questionnaires suggested an underestimated outbreak size. The 57 outbreak isolates were identified by the Dutch MRSA surveillance as MLVA-type MT4627 and sequence type 121, previously reported only once in 2014. Next-generation sequencing revealed they contained a fusidic acid resistance gene, exfoliative toxin genes and an epidermal cell differentiation inhibitor gene. Whole-genome multilocus sequence typing revealed genetic clustering of all 19 sequenced isolates from the outbreak region and isolates from the three north-western cases. The allelic distances between these Dutch isolates and international isolates were high. This outbreak shows the appearance of community-onset MRSA strains with additional drug resistance and virulence factors in a country with a low prevalence of antimicrobial resistance.
- Full text View on content provider's site
30. Targeted interactomics reveals a complex core cell cycle machinery in Arabidopsis thaliana. [2010]
-
Van Leene J, Hollunder J, Eeckhout D, Persiau G, Van De Slijke E, Stals H, Van Isterdael G, Verkest A, Neirynck S, Buffel Y, De Bodt S, Maere S, Laukens K, Pharazyn A, Ferreira PC, Eloy N, Renne C, Meyer C, Faure JD, Steinbrenner J, Beynon J, Larkin JC, Van de Peer Y, Hilson P, Kuiper M, De Veylder L, Van Onckelen H, Inzé D, Witters E, and De Jaeger G
Molecular systems biology [Mol Syst Biol] 2010 Aug 10; Vol. 6, pp. 397.
- Subjects
-
Computational Biology, Cyclin-Dependent Kinases metabolism, Cyclins metabolism, DNA Replication, Luciferases metabolism, Mitosis, Models, Biological, Multiprotein Complexes metabolism, Protein Binding, Protein Interaction Mapping, Reproducibility of Results, Arabidopsis cytology, Arabidopsis metabolism, Arabidopsis Proteins metabolism, Cell Cycle, and Cell Cycle Proteins metabolism
- Abstract
-
Cell proliferation is the main driving force for plant growth. Although genome sequence analysis revealed a high number of cell cycle genes in plants, little is known about the molecular complexes steering cell division. In a targeted proteomics approach, we mapped the core complex machinery at the heart of the Arabidopsis thaliana cell cycle control. Besides a central regulatory network of core complexes, we distinguished a peripheral network that links the core machinery to up- and downstream pathways. Over 100 new candidate cell cycle proteins were predicted and an in-depth biological interpretation demonstrated the hypothesis-generating power of the interaction data. The data set provided a comprehensive view on heterodimeric cyclin-dependent kinase (CDK)-cyclin complexes in plants. For the first time, inhibitory proteins of plant-specific B-type CDKs were discovered and the anaphase-promoting complex was characterized and extended. Important conclusions were that mitotic A- and B-type cyclins form complexes with the plant-specific B-type CDKs and not with CDKA;1, and that D-type cyclins and S-phase-specific A-type cyclins seem to be associated exclusively with CDKA;1. Furthermore, we could show that plants have evolved a combinatorial toolkit consisting of at least 92 different CDK-cyclin complex variants, which strongly underscores the functional diversification among the large family of cyclins and reflects the pivotal role of cell cycle regulation in the developmental plasticity of plants.
- Full text View on content provider's site
-
Oram, R. A., Ellard, S., Hattersley, A. T., Stals, K., Shepherd, M. H., and Edghill, E. L.
-
Gomes, Geovany Amorim, Carvalho, Mario Geraldo de, Santiago, Gilvandete Maria Pinheiro, Roque, N?dia Fran?a, Pinto, Erik Daemon de Souza, Queiroz, Margareth Maria de Carvalho, and Chaves, Douglas Almeida de Siqueira
- Biblioteca Digital de Teses e Dissertações da UFRRJ
Universidade Federal Rural do Rio de Janeiro (UFRRJ)
instacron:UFRRJ
- Subjects
-
Myrcia ovata, Lippia sidoides, atividades biol?gica, biological activities, and Qu?mica
- Abstract
-
Submitted by Sandra Pereira (srpereira@ufrrj.br) on 2020-05-18T13:43:55Z No. of bitstreams: 1 2013 - Geovany Amorim Gomes.pdf: 11819103 bytes, checksum: 381e568ac6398f6cfa4544b2f766e74d (MD5) Made available in DSpace on 2020-05-18T13:43:57Z (GMT). No. of bitstreams: 1 2013 - Geovany Amorim Gomes.pdf: 11819103 bytes, checksum: 381e568ac6398f6cfa4544b2f766e74d (MD5) Previous issue date: 2013-12-05 Coordena??o de Aperfei?oamento de Pessoal de N?vel Superior, CAPES, Brasil. The present work reports the phytochemical study of essential oils, and of the hexane and ethyl acetate fractions obtained from ethanolic extract of leaves of Myrcia ovata Cambess. (Myrtaceae), as well as the study of the dichloromethane fraction from the ethanolic extract of stem and branch of this species. In addition, the chemical composition analysis of essential oils from Lippia sidoides Cham. leaves (Verbenaceae) was done. The chromatographic processing of these fractions allowed to the isolation of fifteen non-volatile constituents of M. ovata, including, nine phenolic compounds tectochrysin; 6-methyltectochrysin; 8-methyltectochrysin; 2,5-dihydroxy-6-methyl-7-methoxyflavanone; 2,5-dihydroxy-8-methyl-7-methoxyflavanone; astilbin (rel-2R,3R-,5,7,3?,4?-tetrahydroxy-3-O-?-L-rhamnopyranosylflavanonol); quercetin 3,3?,4?,5,7-pentahydroxyflavone); engeletin (rel-2R,3R-5,7,4?-trihydroxy-3-O-?-L-rhamnopyranosylflavanonol) and 4,5-di-O-caffeoylquinic acid methyl ester, four triterpenes (friedelin, lupeol, ?-and ?-amyrin), one steroid (?-sitosterol) and one sesquiterpene (7-hydroxycadalenal). The reaction of 6-methyltectochrysin with iodine yielded new derivative. The structural formulas were identified by 1H and 13C NMR (1D and 2D), masses, IR and CD spectra data analysis, as well as comparison with literature data. The oxygenated monoterpenes geranial and thymol were prevalent in the essential oils of M. ovata and L. sidoides, respectively. The oils were obtained by hydrodistillation or steam distillation method. The analysis was performed by GC/MS, GC/FID and by retention rates of the constituents by co-injection of hydrocarbon standards. The ethyl acetate fraction of ethanolic extract from leaves of M. ovata, stood out among the rest in relation to antioxidant activity. The presence of quercetin, astilbin, engeletin and 4,5-di-O-caffeoylquinic acid methyl ester in this fraction, can justify this activity. The essential oil of M. ovata presented low antioxidant activity, moderate larvicidal activity against Aedes aegypti L. (Diptera: Culicidae), strong acaricidal action against larvae of Rhipicephalus microplus (Canestrini, 1888) (Acari: Ixodidae) and partial control of engorged females of this species of tick. The oil of L. sidoides showed ninficidal action against Rhodnius prolixus (Stal, 1859) (Hemiptera: Reduviidae), while thymol and carvacrol exhibited biocidal effect in eggs and nymphs of this insect. Furthermore, this oil presented acaricidal activity on larvae of Dermacentor nitens (Neumann, 1897), Amblyomma cajennense (Fabricius, 1787) and R. sanguineus (Latreille, 1806) (Acari: Ixodidae), nymphs of the latter two species of ticks and larvae and engorged females of R. microplus. O presente trabalho relata o estudo fitoqu?mico de ?leos essenciais e de fra??es hexano e acetato de etila obtidas do extrato etan?lico de folhas de Myrcia ovata Cambess. (Myrtaceae), e da fra??o obtida com diclorometano do fracionamento do extrato etan?lico de caule e galhos desta esp?cie. Al?m disso, realizou-se a an?lise da composi??o qu?mica de ?leos essenciais de folhas de Lippia sidoides Cham. (Verbenaceae). O processamento cromatogr?fico destas fra??es forneceram 15 constituintes n?o-vol?teis de M. ovata, destes, nove s?o compostos fen?licos, tectocrisina, 6-metiltectocrisina, 8-metiltectocrisina, 2,5-diidroxi-6-metil-7-metoxiflavanona, 2,5-diidroxi-8-metil-7-metoxiflavanona, astilbina (rel-2R,3S-5,7,3',4'-tetraidroxi-3-O-?-L-ramnopiranosilflavanonol), quercetina (3,3?,4?,5,7-pentahidroxiflavona); engeletina (rel-2R,3S-5,7,4?-triidroxi-3-O-?-L-ramnopiranosilflavanonol) e 4,5-di-O-cafeoilquinato de metila; quatro triterpenos, friedelina, lupeol, ?-e ?-amirina, um esteroide, ?-sitosterol e um sesquiterpeno (7-hidroxicadalenal). A rea??o de ioda??o da flovona 6-metiltectocrisina forneceu o derivado 8-iodo-6-metiltectocrisina, subst?ncia in?dita na literatura. As f?rmulas estruturais foram identificadas atrav?s de an?lise dos dados espectrom?tricos de RMN de 1H e 13C (1D e 2D), massas, IV e DC, al?m de compara??o com dados da literatura. Os monoterpenos oxigenados geranial e timol foram predominantes nos ?leos essenciais de M. ovata e L. sidoides, respectivamente. Os ?leos foram obtidos por hidrodestila??o ou pelo m?todo de arraste a vapor. A an?lise foi realizada atrav?s de CG/EM, CG/DIC e pela obten??o de ?ndices de reten??o dos constituintes atrav?s de co-inje??o de padr?es de hidrocarbonetos. A fra??o acetato de etila do extrato etan?lico de folhas de M. ovata, destacou-se entre as demais em rela??o ? atividade antioxidante. A presen?a de quercetina, astilbina, engeletina e 4,5-di-O-cafeoilquinato de metila nesta fra??o, podem justificar esta atividade. O ?leo essencial de M. ovata apresentou baixo poder antioxidante, moderada atividade larvicida frente ? Aedes aegypti (Linnaeus, 1762) (Diptera: Culicidae), potente a??o carrapaticida frente a larvas de Rhipicephalus microplus (Canestrini, 1888) (Acari: Ixodidae) e controle parcial de f?meas ingurgitadas desta esp?cie de carrapato. O ?leo de L. sidoides apresentou a??o ninficida contra Rhodnius prolixus (Stal, 1859) (Hemiptera: Reduviidae), enquanto timol e carvacrol exibiram efeito biocida em ovos e ninfas deste inseto. Al?m disso, esse ?leo exibiu atividade carrapaticida sobre larvas de Dermacentor nitens (Neumann, 1897), Amblyomma cajennense (Fabricius, 1787) e R. sanguineus (Latreille, 1806) (Acari: Ixodidae), ninfas das duas ?ltimas esp?cies de carrapatos e larvas e f?meas ingurgitadas de R. microplus.
33. Pachylis nervosus Dallas 1852 [2022]
-
S., Wanessa da, Costa, and Campos, Luiz A.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Coreidae, Pachylis, and Pachylis nervosus
- Abstract
-
Pachylis nervosus Dallas, 1852 Pachylis nervosus Dallas, 1852: 383. — Dohrn 1859: 30. — Stål 1870: 132. — Walker 1871: 52. — Lethierry & Severin 1894: 13. — Van Duzee 1901: 346. — O’Shea 1980: 211. — Packauskas 2010: 178. — Linares & Orozco 2017: 16. — CoreoideaSF Team 2020. NON- TYPE MATERIAL. — México • 1♀; Yucatan; CAS • 3 ♀; Chiapas, S. slope of Cerro Vernal 13 mi. S. of Tonalá; alt. 610 m; 5.X.1974; D. E. Breedlove & J. A. Breedlove; CAS • 1♀, 1♂; Cuernavaca, Crawfor; CAS. Belize • 1♀; California Academy of Sciences Collection 180 Gift from Pomona College; CAS 4736. Costa Rica • 1♂; Mrs. E. L. Kerr coll.; 1.IX.1906. Panamá • 7 ♂, 5 ♀; Canal Zone, Fort Clayton, Paul W. Johnson Pres. to Calif. Acad. Sci. by David Johnson, Pres. by K. E. Frick coll.; IV.44(1944?); 25.IX.45(1945?), 23.VII/ 10.VIII.1956; CAS. Brazil • 1♀; Amazonas, Manaus; INPA; E. F. Ribeiro; 12.III.1982; INPA. No Data • ♀; CAS.
Published as part of S., Wanessa da, Costa & Campos, Luiz A., 2022, Phylogeny of Pachylis Lepeletier & Serville, 1825 (Hemiptera, Coreidae, Coreinae) with Thasus Stål, 1865 as a new synonym, and the redescription of Pachylis laticornis (Fabricius, 1798), pp. 503-547 in Zoosystema 44 (21) on pages 522-525, DOI: 10.5252/zoosystema2022v44a21, http://zenodo.org/record/7341932
{"references":["DALLAS W. S. 1852. - List of the specimens of Hemipterous Insects in the Collection of the British Museum. Catalog of Hemiptera. Part 2. Taylor and Francis, London, 638 p. https: // doi. org / 10.5962 / bhl. title. 20373","DOHRN A. 1859. - Catalogus Hemipterorum. Entomologischer Verein in Stettin, Alemanha, 130 p. https: // doi. org / 10.5962 / bhl. title. 8515","STAL C. 1870 - 1876. - Enumeratio Hemipterorum Bidrag till en forteckning ofver alla hittills kanda Hemiptera, jemte systematiska middelanden [1870, part 1, 9: 1 - 232; 1873, part. 3, 11 (2): 1 - 163]. Kongliga Svenska Vetenskaps-Akademiens Forhandlingar, Stockholm, 938 p. https: // doi. org / 10.5962 / bhl. title. 12549","LETHIERRY L. F. & SEVERIN G. 1894. - Catalogue general des hemipteres. Tome II Heteropteres: Coreidae, Berytidae, Lygaeidae, Pyrrhociridae. Academie Royale de Belgique, Bruxelles, 227 p. https: // doi. org / 10.5962 / bhl. title. 15830","VAN DUZEE E. P. 1901. - Notes on some Hemiptera from British Guiana. Transactions of the American Entomological Society 27: 343 - 352.","O'SHEA R. 1980. - A generic revision of the Nematopodini (Heteroptera: Coreidae: Coreinae). Studies on Neotropical Fauna and Environment 15 (3 - 4): 197 - 225. https: // doi. org / 10.1080 / 01650528009360574","PACKAUSKAS R. 2010. - Catalog of the Coreidae, or Leaf-Footed Bugs, of the New World. Fort Hays State University (ser. 4, n. 5), Kansas, 270 p.","LINARES C. & OROZCO J. 2017. - The Coreidae of Honduras (Hemiptera: Coreidae). Biodiversity Data Journal 5: 1 - 24. https: // doi. org / 10.3897 / BDJ. 5. e 13067","CoreoideaSF Team 2020. - Coreoidea Species File Online. Version 5.0 / 5.0. Available from: http: // Coreoidea. SpeciesFile. org / (junho / 2020)."]}
-
Eeckhout D, De Clercq A, Van De Slijke E, Van Leene J, Stals H, Casteels P, Persiau G, Vercammen D, Van Breusegem F, Zabeau M, Inzé D, Jespers L, Depicker A, and De Jaeger G
Journal of immunological methods [J Immunol Methods] 2004 Nov; Vol. 294 (1-2), pp. 181-7.
- Subjects
-
Antibodies, Monoclonal immunology, Antibody Affinity immunology, Carrier Proteins genetics, Gene Expression, Humans, Immunoglobulin Variable Region immunology, Immunoglobulin Variable Region isolation purification, Immunoglobulin kappa-Chains genetics, Recombinant Fusion Proteins genetics, Recombinant Fusion Proteins immunology, Recombinant Fusion Proteins isolation purification, Substrate Specificity genetics, Substrate Specificity immunology, Antibodies, Monoclonal genetics, Antibody Affinity genetics, Gene Library, Immunoglobulin Variable Region genetics, Peptides immunology, and Plant Proteins immunology
- Abstract
-
The application of recombinant antibodies in plant biology research is limited because plant researchers have minimal access to high-quality phage display libraries. Therefore, we constructed a library of 1.3 x 10(10) clones displaying human single-chain variable fragments (scFvs) that is available to the academic community. The scFvs selected from the library against a diverse set of plant proteins showed moderate to high antigen-binding affinity together with high specificity. Moreover, to optimize an scFv as immunodetection agent, two expression systems that allow efficient production and purification of bivalent scFv-Fc and scFv-CkappaZIP fusion proteins were integrated. We are convinced that this antibody platform will further stimulate applications of recombinant antibodies such as the diagnostic detection or immunomodulation of specific antigens in plants.
- Full text View on content provider's site
-
Igreja S, Chahal HS, King P, Bolger GB, Srirangalingam U, Guasti L, Chapple JP, Trivellin G, Gueorguiev M, Guegan K, Stals K, Khoo B, Kumar AV, Ellard S, Grossman AB, and Korbonits M
Human mutation [Hum Mutat] 2010 Aug; Vol. 31 (8), pp. 950-60.
- Subjects
-
Adult, Alternative Splicing genetics, Amino Acid Sequence, Animals, Cell Line, Cyclic AMP metabolism, Cyclic AMP-Dependent Protein Kinases metabolism, Family, Female, Gene Expression Regulation, Neoplastic, Humans, Intracellular Signaling Peptides and Proteins chemistry, Intracellular Signaling Peptides and Proteins metabolism, Male, Middle Aged, Molecular Sequence Data, Mutant Proteins genetics, Mutant Proteins metabolism, Mutation, Missense genetics, Pedigree, Pituitary Neoplasms enzymology, Promoter Regions, Genetic genetics, RNA Splice Sites genetics, RNA, Messenger genetics, RNA, Messenger metabolism, Rats, Signal Transduction, Intracellular Signaling Peptides and Proteins genetics, Mutation genetics, and Pituitary Neoplasms genetics
- Abstract
-
Familial isolated pituitary adenoma (FIPA) is an autosomal dominant condition with variable genetic background and incomplete penetrance. Germline mutations of the aryl hydrocarbon receptor interacting protein (AIP) gene have been reported in 15-40% of FIPA patients. Limited data are available on the functional consequences of the mutations or regarding the regulation of the AIP gene. We describe a large cohort of FIPA families and characterize missense and silent mutations using minigene constructs, luciferase and beta-galactosidase assays, as well as in silico predictions. Patients with AIP mutations had a lower mean age at diagnosis (23.6+/-11.2 years) than AIP mutation-negative patients (40.4+/-14.5 years). A promoter mutation showed reduced in vitro activity corresponding to lower mRNA expression in patient samples. Stimulation of the protein kinase A-pathway positively regulates the AIP promoter. Silent mutations led to abnormal splicing resulting in truncated protein or reduced AIP expression. A two-hybrid assay of protein-protein interaction of all missense variants showed variable disruption of AIP-phosphodiesterase-4A5 binding. In summary, exonic, promoter, splice-site, and large deletion mutations in AIP are implicated in 31% of families in our FIPA cohort. Functional characterization of AIP changes is important to identify the functional impact of gene sequence variants.
- Full text View on content provider's site
36. Heniartes productus Stal 1866 [2010]
-
Gil-Santana, Hélcio R. and Forero, Dimitri
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Reduviidae, Heniartes, and Heniartes productus
- Abstract
-
Heniartes productus St��l, 1866 (Figs. 37���38) Discussion: The male holotype of H. productus was redescribed by Wygodzinsky (1953), without later references in the literature. The extended and somewhat laterally compressed scutellum (Fig. 37), the pair of acute lateral processes on the pygophore rim, and the double medial process (Fig. 38), are diagnostic to this species. The male examined here (Figs. 37���38) fits the redescription of the species (Wygodzinsky 1953), except that the apex of the corium is orange (Fig. 37), whereas in the holotype it is black (Wygodzinsky 1947, 1953). Distribution: Heniartes productus was described by St��l (1866) from ��� Brasilia borealis���, quite likely what is nowadays Brazil. This is the first time this species is recorded from an exact locality. Specimen examined: BRAZIL, 1 male, Amap��, Mazag��o, Fazendinha, [0] 3 -XII- 1980, E. L. Oliveira [leg.] [MNRJ].
Published as part of Gil-Santana, H��lcio R. & Forero, Dimitri, 2010, Taxonomical and biological notes on Neotropical Apiomerini (Hemiptera: Heteroptera: Reduviidae: Harpactorinae), pp. 57-68 in Zootaxa 2331 on pages 65-66, DOI: 10.5281/zenodo.275474
{"references":["Stal, C. (1866) Bidrag till Reduviidernas kannedom. Ofversigt af Kongliga Vetenskaps-Akademiens Forhandlingar, 9, 235 - 302.","Wygodzinsky, P. (1953) Contribuicao ao conhecimento dos generos \" Heniartes \" Spinola, 1837 e \" Agriocleptes \" Stal, 1866 (Apiomerinae, Reduviidae, Hemiptera). Revista Brasileira de Biologia, 13, 369 - 380.","Wygodzinsky, P. (1947) Contribuicao ao conhecimento do genero Heniartes Spinola, 1837 (Apiomerinae, Reduviidae, Hemiptera). Arquivos do Museu Nacional, 41, 11 - 64."]}
-
Hernández-Ramírez LC, Gabrovska P, Dénes J, Stals K, Trivellin G, Tilley D, Ferrau F, Evanson J, Ellard S, Grossman AB, Roncaroli F, Gadelha MR, and Korbonits M
The Journal of clinical endocrinology and metabolism [J Clin Endocrinol Metab] 2015 Sep; Vol. 100 (9), pp. E1242-54.
- Subjects
-
Adenoma genetics, Adenoma pathology, Adolescent, Adult, Aged, Aged, 80 and over, Child, Child, Preschool, Female, Genetic Testing, Germ-Line Mutation, Growth Hormone-Secreting Pituitary Adenoma genetics, Growth Hormone-Secreting Pituitary Adenoma pathology, Humans, Longitudinal Studies, Male, Middle Aged, Mutation, Pituitary Neoplasms genetics, Pituitary Neoplasms pathology, Prospective Studies, Young Adult, Adenoma diagnosis, Growth Hormone-Secreting Pituitary Adenoma diagnosis, Intracellular Signaling Peptides and Proteins genetics, and Pituitary Neoplasms diagnosis
- Abstract
-
Context: Familial isolated pituitary adenoma (FIPA) due to aryl hydrocarbon receptor interacting protein (AIP) gene mutations is an autosomal dominant disease with incomplete penetrance. Clinical screening of apparently unaffected AIP mutation (AIPmut) carriers could identify previously unrecognized disease.
Objective: To determine the AIP mutational status of FIPA and young pituitary adenoma patients, analyzing their clinical characteristics, and to perform clinical screening of apparently unaffected AIPmut carrier family members.
Design: This was an observational, longitudinal study conducted over 7 years.
Setting: International collaborative study conducted at referral centers for pituitary diseases.
Participants: FIPA families (n 216) and sporadic young-onset (30 y) pituitary adenoma patients (n 404) participated in the study.
Interventions: We performed genetic screening of patients for AIPmuts, clinical assessment of their family members, and genetic screening for somatic GNAS1 mutations and the germline FGFR4 p.G388R variant.
Main Outcome Measure(s): We assessed clinical disease in mutation carriers, comparison of characteristics of AIPmut positive and negative patients, results of GNAS1, and FGFR4 analysis.
Results: Thirty-seven FIPA families and 34 sporadic patients had AIPmuts. Patients with truncating AIPmuts had a younger age at disease onset and diagnosis, compared with patients with nontruncating AIPmuts. Somatic GNAS1 mutations were absent in tumors from AIPmut-positive patients, and the studied FGFR4 variant did not modify the disease behavior or penetrance in AIPmut-positive individuals. A total of 164 AIPmut-positive unaffected family members were identified; pituitary disease was detected in 18 of those who underwent clinical screening.
Conclusions: A quarter of the AIPmut carriers screened were diagnosed with pituitary disease, justifying this screening and suggesting a variable clinical course for AIPmut-positive pituitary adenomas.
- Full text View on content provider's site
-
Arias, M.C., Arnoux, E., Bell, J.J., Bernadou, A., Bino, G., Blatrix, R., Bourguet, Denis, Carrea, C., Clamens, A.L., Cunha, H.A., d'Alencon, E., Ding, Y., Djieto-Lordon, C., Dubois, M.P., Dumas, P., Eraud, C., Faivre, B., Francisco, F.O., Francoso, E., Garcia, Marta, Gardner, J.P.A., Garnier, S., Gimenez, S., Gold, J.R., Harris, D.J., He, G.C., Hellemans, B., Hollenbeck, C.M., Jing, S.L., Kergoat, G.J., Liu, B.F., McDowell, J.R., McKey, D., Miller, T.L., Newton, E., Lohan, K.M.P., Papetti, C., Paterson, I., Peccoud, J., Peng, X.X., Piatscheck, F., Ponsard, S., Reece, K.S., Reisser, C.M.O., Renshaw, M.A., Ruzzante, D.E., Sauve, M., Shields, J.D., Sole-Cava, A., Souche, E. L., Van Houdt, J.K.J., Vasconcellos, A., Volckaert, F.A.M., Wang, S.Z., Xiao, J., Yu, H. J., Zane, L., Zannato, B., Zemlak, T.S., Zhang, C.X., Zhao, Y., Zhou, X., and Zhu, L.L.
- Abstract
-
This article documents the addition of 473 microsatellite marker loci and 71 pairs of single-nucleotide polymorphism (SNP) sequencing primers to the Molecular Ecology Resources Database. Loci were developed for the following species: Barteria fistulosa, Bombus morio, Galaxias platei, Hematodinium perezi, Macrocentrus cingulum Brischke (a.k.a. M.abdominalis Fab., M.grandii Goidanich or M.gifuensis Ashmead), Micropogonias furnieri, Nerita melanotragus, Nilaparvata lugens Stal, Sciaenops ocellatus, Scomber scombrus, Spodoptera frugiperda and Turdus lherminieri. These loci were cross-tested on the following species: Barteria dewevrei, Barteria nigritana, Barteria solida, Cynoscion acoupa, Cynoscion jamaicensis, Cynoscion leiarchus, Cynoscion nebulosus, Cynoscion striatus, Cynoscion virescens, Macrodon ancylodon, Menticirrhus americanus, Nilaparvata muiri and Umbrina canosai. This article also documents the addition of 116 sequencing primer pairs for Dicentrarchus labrax.
39. Tumor co-expression of progranulin and sortilin as a prognostic biomarker in breast cancer. [2021]
-
Berger K, Rhost S, Rafnsdóttir S, Hughes É, Magnusson Y, Ekholm M, Stål O, Rydén L, and Landberg G
BMC cancer [BMC Cancer] 2021 Feb 22; Vol. 21 (1), pp. 185. Date of Electronic Publication: 2021 Feb 22.
- Subjects
-
Adult, Antineoplastic Agents, Hormonal therapeutic use, Biomarkers, Tumor metabolism, Breast Neoplasms drug therapy, Female, Humans, Lymphatic Metastasis, Middle Aged, Neoplastic Stem Cells pathology, Prognosis, Randomized Controlled Trials as Topic, Retrospective Studies, Survival Rate, Adaptor Proteins, Vesicular Transport metabolism, Breast Neoplasms metabolism, Breast Neoplasms pathology, Neoplastic Stem Cells metabolism, Progranulins metabolism, and Tamoxifen therapeutic use
- Abstract
-
Background: The growth factor progranulin has been implicated in numerous biological processes such as wound healing, inflammation and progressive tumorigenesis. Both progranulin and its receptor sortilin are known to be highly expressed in subgroups of breast cancer and have been associated with various clinical properties including tamoxifen resistance. Recent data further suggest that progranulin, via its receptor sortilin, drives breast cancer stem cell propagation in vitro and increases metastasis formation in an in vivo breast cancer xenograft model. In this retrospective biomarker analysis, we aimed to determine whether tumor co-expression of progranulin and sortilin has prognostic and treatment predictive values for breast cancer patients.
Methods: We explored how co-expression of progranulin and sortilin was associated with established clinical markers by analyzing a tissue microarray including 560 randomized premenopausal breast cancer patients receiving either 2 years of tamoxifen treatment or no adjuvant treatment, with a median follow-up time of 28 years. Breast cancer-specific survival was analyzed using Kaplan-Meier and Cox Proportional Hazards regression models to assess the prognostic and predictive value of progranulin and sortilin in relation to known clinical markers.
Results: Co-expression of progranulin and sortilin was observed in 20% of the breast cancer samples. In untreated patients, prognostic considerations could be detailed separately from treatment prediction and the high progranulin and sortilin expressing subgroup was significantly associated with breast cancer-specific death in multivariable analyses (HR=2.188, CI: 1.317-3.637, p=0.003) along with tumor size, high tumor grade and lymph node positivity. When comparing the untreated patients with tamoxifen treated patients in the ERα positive subgroup, co-expression of progranulin and sortilin was not linked to tamoxifen resistance.
Conclusion: Data suggest that co-expression of progranulin and its receptor sortilin is a novel prognostic biomarker combination identifying a highly malignant subgroup of breast cancer. Importantly, this subpopulation could potentially be targeted with anti-sortilin based therapies.
- Full text
View/download PDF
40. Cylapini sensu Gorczyca 2000 [2021]
-
Wolski, Andrzej
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, and Miridae
- Abstract
-
Tribe Cylapini sensu Gorczyca (2000) Diagnosis. For details see Gorczyca (2000) and Wolski (2017). Remarks. The current phylogenetic analysis rendered the tribe Cylapini paraphyletic with respect to the vanniines. The tribe Vanniini, as currently understood, is composed of the Vannius complex sensu Cassis et al. (2003) and the genus Palaucoris Carvalho (Cassis & Schuh 2012; Namyatova et al. 2016). Distant (1883) first noticed the similarity between Vannius and Valdasus, which are currently classified in the tribes Vanniini and Cylapini, respectively. The taxa of Cylapini and Vanniini were united in one tribe, the Cylapini, by Poppius (1909), based on the long antenna and by Carvalho (1952a, 1955, 1957) based on the vertical head. Gorczyca (1997) excluded the Vannius complex from Cylapinae and moved it to the controversial subfamily Palaucorinae (with a single genus Palaucoris Carvalho) based mainly on the flattened parempodia found in both taxa and he erected two tribes: the Vanniini (for Vannius complex) and Palaucorini (for Palaucoris). Cassis et al. (2003) refuted this concept, and the Vannius complex was assigned again to Cylapinae as incertae sedis. Consequently, Gorczyca (2006a) treated these genera again within Cylapinae but placed them among Cylapini. The Vannius complex was given a tribal status within Cylapinae by Cassis & Schuh (2012). The present analysis, showing vanniines nested well within Cylapini, provides a strong argument for treatment of vanniines within Cylapini, corroborating the classification of Gorczyca (2006a). On the other hand, given the uncertainties concerning the results of the current analysis (see discussion above) I believe it is premature to relegate the vanniines to Cylapini, and I suggest retaining the concept of Cylapini in its current composition pending studies with larger sampling and emphasis on the molecular data. Notes on the morphological characters in Cylapini. The Cylapini in its present concept includes the genera listed in the Tab. 2. Herein, I present the discussion of the main characters found in Cylapini taking into account their diversity within the group and comparison with other tribes. Body shape. In Cylapini body is usually elongate to elongate-oval. In some species of Carvalhoma (C. ovatum Namyatova & Cassis, C. parvum Namyatova & Cassis or C. taplini Namyatova & Cassis) and in Schizopteromiris the body is ovate (Schuh 1986; Namyatova & Cassis 2016). ...continued on the next page ...continued on the next page Head. The head in Cylapini is always hypognathous, varying from weakly wider than high or as high as wide with frons sloping, not perpendicular to vertex (Carvalhoma, Corcovadocola Carvalho, Cylapinus Carvalho, Cylapoides Carvalho, Dariella Namyatova et Cassis, Labriella Namyatova et Cassis, Mangalcoris Murphy et Polhemus, Schizopteromiris Schuh) (Figs 8a, b; Namyatova & Cassis 2016: figs 2A, C, 3C, 4A, C, 2021: figs 3A, C, 5A, C) to much higher than wide in anterior view with frons strongly flattened, perpendicular to vertex (Cylapomorpha, Cylapus complex) (Figs 8c���i, 9a, g; Yasunaga 2000: fig. 2, 3; Wolski 2017: figs 9, 92; Wolski et al. 2020: fig. 28). In all Cylapini, Vanniini and Bothriomirini the antennal fossa is placed more or less above the suture between the maxillary and mandibular plates (Namyatova & Cassis 2016: figs 2C, 4C, 2021: figs 3A, 5A), and the mandibular plate is separated from the remainder of the head by a suture (Figs 9a���d; Namyatova & Cassis 2016: fig. 2C). In contrast, in all fulviines and rhinomirines the antennal insertion is continuous with the suture between maxillary and mandibular plates (Namyatova & Cassis 2019: figs 6G, 10E, 22C) and the mandibular plate is not separated from the remainder of head by any suture (Figs 9e, f; Wolski & Henry 2012: fig. 74; Wolski et al. 2018: fig. 11). Within Cylapini the antennal fossa is either situated close to the suture between maxillary and mandibular plates (all Cylapini except Cylapus complex) (8a, b, i, 9b; Namyatova & Cassis 2016: figs 2C, 4C, 2021: figs 3A, 5A) or distinctly removed from it (Figs 8c���h, 9a, g), and the suture behind the mandibular plate can be faint (Fig. 9b; Namyatova & Cassis 2016: 2 C) or strongly depressed (Figs 9a, g). All members of Cylapini, Vanniini, and many bothriomirines have the ventral margin of the eyes removed from the ventral margin of head (Figs 9a���d; Namyatova & Cassis 2016: fig. 2C, 2021: 3A; Namyatova et al. 2019: figs 5C, 10D, 11B) and the base of clypeus is positioned below the ventral margin of the eyes (Figs 9g ���i; Namyatova & Cassis 2016: fig. 3A, 2021: figs 3C, 5C; Namyatova et al. 2019: figs 5A, 10A, 11A). In most Fulviini and Rhinomirini the ventral margins of eyes are reaching or almost reaching the ventral margin of the head (Figs 9e, f, Wolski & Henry 2012: fig. 73; Wolski 2013: fig. 73) and the base of clypeus is situated above the ventral margin of the eyes (Figs 8l, m; Wolski 2013: figs 33���36; Namyatova et al. 2016: fig. 3H; Namyatova & Cassis 2019: figs 10A, 13C, 16C). Within Cylapini the eyes are situated either relatively close to the ventral margin of head (Figs 9b; Namyatova & Cassis 2021: figs 3A, 5A) or are strongly removed in the dorsal direction (Fig. 9a,c; Wolski 2017: figs 9, 95). The base of clypeus is situated close to the ventral margin of the eyes (Fig. 9h, 8a, b, i; Yasunaga 2000: fig. 2; Namyatova & Cassis 2021: 3 C, 5C) or is strongly removed from the eyes��� ventral margin (Figs 8c���h, 9g). The vertex in Cylapini is either carinate posteriorly (Carvalhoma, Corcovadocola, Cylapoides, Dariella, Labriella) (Figs 9h, 11e; Namyatova & Cassis 2016, 2021: figs 3b, 5b) or devoid of carina (Cylapinus, Cylapomorpha, Mangalcoris, Cylapus complex) (Figs 11a, g; Wolski 2017: fig. 33). The vertex in most Cylapini possesses a more or less developed depression along the midline. The depression is either faint (Figs 9h, 11a; Namyatova & Cassis 2016; Wolski 2017: 33) or strongly developed so the head is V-shaped in anterior view (Cylapus complex) (Figs 8c���h, 9g). The eyes are either embedded into the head, with the dorsal margin situated at the same plane as vertex (Carvalhoma, Corcovadocola, Cylapoides, Dariella, Labriella, Mangalcoris, Schizopteromiris) (Figs 8b, 9h; Namyatova & Cassis 2016: fig. 2B, 2021: 3B, 5B) or the eyes are pedunculate (Cylapomorpha, Cylapinus, Cylapus complex) (Figs 8a, c���i, 9g). The latter condition is unique within Cylapinae. Antennae. The shape of antennae is variable among the genera of Cylapini. In Carvalhoma, Corcovadocola, Cylapinus, Cylapoides, Dariella, Labriella and Schizopteromiris the antenna is relatively short, shorter than body length and the segments III and IV are not thread-like (Figs 3a, b, d; Namyatova & Cassis 2016: fig. 1, 2021: fig. 1). In Mangalcoris, Cylapomorpha and Cylapus complex the antennae are longer than the body length and segments III and IV are thread-like (e.g., Figs 4b, c; Wolski 2017: 40, 46, 48, 51; Yasunaga 2000: fig. 1; Gorczyca 2006a: fig. 5; Murphy & Polhemus 2012: figs 1A, B, D). The latter type of antenna is also found in Vanniini (e.g., Gorczyca 2006a: fig. 7). Labium. In all Cylapini, Vanniini, and Bothriomirini the labium is stout and rather short, the apex usually reaching the hind coxae or barely beyond it, and the segments I and II are not subdivided (Figs 9j, k; Namyatova & Cassis 2016: figs 5D, 6E, 2021: 3D, 5D; Namyatova et al. 2016: figs 9F, G, 2019: 5E, 9J). In contrast, in Fulviini and Rhinomirini the labium is thin and long, sharply pointed, the apex reaching beyond the middle of the abdomen, and segments I and II are subdivided (Fig. 9l; Namyatova et al. 2016: figs 9J, 10A; Namyatova & Cassis 2019: figs 10 R, 13J, 22D). Pronotum. In Cylapini the pronotum is either impunctate (Carvalhoma, Corcovadocola, Cylapoides, Cylapomorpha, Labriella, Mangalcoris, Schizopteromiris) (Figs 9b, 11e) or punctate (Cylapinus, Dariella, Cylapus complex) (Figs 9a, 10a, 11a, g). The lateral margin is always ecarinate (Figs 9a, b, 10a, 11b). The collar in Cylapini is always present, and in lateral view is situated anteriorly to the propleural suture (Fig. 9a). Thoracic pleura. The mesepimeral spiracle in Cylapini is slit-like (Figs 10b���e, 11c, f), in members of the Cylapus complex it is covered with evaporative bodies (Figs 10b���e). In most Cylapini taxa except for the Cylapus complex, the metepisternum is narrow and rectangular (Figs 11c, f; Namyatova & Cassis 2016: fig. 2K, 2021: figs 3F, 5H). In the Cylapus complex the metepisternum is broad and almost square (Figs 10b���e). In most Cylapini genera the metepisternum is carinate posteriorly (Figs 10b���e, 11c, f, i). The metepisternal evaporative areas are either relatively narrow, straight posteriorly and not extended onto anterior margin of metepisternum (Carvalhoma, Corcovadocola, Cylapinus, Cylapoides, Dariella, Labriella, Cylapomorpha) (Figs 11c; Namyatova & Cassis 2016: fig. 2K, 2021: figs 3F, 5H; Wolski 2017: fig. 35) or are broad, rounded, extended posteriorly, and extended well onto anterior margin of metepisternum (Cylapus complex) (Figs 10b���e). In many genera of the Cylapini the metepimeron is well exposed, not obscured by second abdominal segment (Figs 10b���e, 11c, f). The ostiolar peritreme is usually oval (Figs 10d���e, 11c, f), rarely the peritreme is narrow and ear-like (Amapacylapus) (Fig. 10b) or strongly protruding, thin and arcuate and sharply pointed (Cylapus) (Fig. 10c). Hemelytron. The hemelytron in Cylapini is either impunctate (Corcovadocola, Cylapoides, Labriella, Cylapomorpha) (Fig. 11e; Wolski 2017: fig. 33; Namyatova & Cassis 2021: fig. 1) or covered with deep and dense punctation (Carvalhoma, Cylapinus, Dariella, Cylapus complex) (Figs 11a, g, m; Namyatova & Cassis 2016: fig. 1, 2021: fig. 1). Most Cylapini genera are macropterous, and in such genera as Carvalhoma, Corcovadocola and Mangalcoris the hemelytron is further modified (see Wolski & Gorczyca 2014 and Namyatova & Cassis 2019 for detailed discussion on the wing modification in Cylapinae). Legs. In most Cylapini the legs are not modified; only in Phyllocylapus lutheri Poppius, 1913 the fore tibiae are strongly broadened and leaf-like (Gorczyca 2000: fig. 15). Most Cylapini possess moderately elongated legs. In the Cylapus complex the legs, especially hind legs, are strongly elongated (Figs 4c, 6a; Wolski 2017: figs 37, 41, 55). In all Cylapini the tarsus is three-segmented. Tarsal segment I is usually shorter than II and III combined (Figs 10j, 11d, j; Namyatova & Cassis 2021: fig. 3J, 5G), rarely I segment is as long as or longer than segments II and III combined (Carvalhoma, Cylapus) (Fig.10i; Namyatova & Cassis 2016: fig. 2I). Male genitalia. The pygophore in Cylapini has no supragenital bridge sensu Konstantinov 2003, instead the ventral wall is much longer than the dorsal wall, and the genital opening is directed upward (Yasunaga 2000: fig. 5; Namyatova & Cassis 2016: figs 7C, 8C, 2021: figs 4C, 6C; Wolski 2017: figs 17, 134). The parameres in Cylapini are similar in size, the left paramere is usually C-shaped, and the right paramere is usually sickle-shaped and frequently with more or less shortened apical process (Figs 12b, c, h, i, m, n; Yasunaga 2000: fig. 5; Namyatova & Cassis 2016: figs 7D, E, 8D, E, 2021: figs 4D���G, 6C���G). The aedeagus is moderately voluminous, not subdivided into the vesica and conjunctiva. The phallotheca is moderately sclerotized. Ductus seminis relatively short and thick (Figs 12a, g, j, 13m; Namyatova & Cassis 2016: figs 7A, B, 8A, B, 2021: figs 4A, B, 6A,B; Wolski 2017: figs 12, 66; Wolski et al. 2020: fig. 40, 48). The endosoma in Cylapini is either furnished with sclerites (Fig. 14r; Wolski 2017: figs 12, 66; Wolski et al. 2020: fig. 48; Namyatova & Cassis 2021: fig. 6) or devoid of spiculi (Figs 12j, p, 13a, g, m; Wolski et al. 2020: fig. 40). Sometimes the endosoma is composed of strongly inflated sclerotized lobes (Fig. 12g; Yasunaga 2000: fig. 6). Female genitalia. The ovipositor in the Cylapini is reminiscent of that found in Vanniini and Bothriomirini. Its first gonapophyses have the ventral margin more or less arcuate, dorsal margin sinuate, strongly convex subapically (Figs 21e���i; Yasunaga & Miyamoto 2006: fig. 4B; Wolski et al. 2020: figs 55, 59, 67, 69). The second gonapophyses are ventrally arcuate, with the dorsal margin weakly sinuate and strongly serrate (Figs 21m ���q, 22i, j; Wolski et al. 2020: figs 56, 60, 68, 70). In contrast, in most known Fulviini the gonapophyses are rounded, without tooth-like structures or with weakly developed denticles (Figs 22k, l; Sadowska-Woda et al. 2006: figs 2, 3, 4, 12, 13; Kim et al. 2019: figs 2D, 4D; Gorczyca et al. 2020: figs 5c, d). The first gonapophyses are often connected by well-developed, membranous structure (e.g., Sadowska-Woda et al. 2006: figs 2, 3, 12, 13; Gorczyca et al. 2020: figs 5c, d) and together with the second gonapophyses they form a dilatable ovipositing tube (Schmitz & ��tys 1973). The latter authors suggested that such a shape of the ovipositor allow fulviines to deposit eggs into the cavities tree bark where they live, indicating that they are predators. This hypothesis may be supported by the fact that most fulviines (unlike Cylapini, Vanniini, and Bothriomirini) have long, sharply pointed labium with subdivisions on segments I and II (which may make it highly flexible (van Doesburg 1985)), allowing these bugs for effective hunting. Moreover, direct evidence for predation exists only for fulviines and not for the representatives of the other tribes (see Introduction). The vestibulum in Cylapini is either membranous and without any structures encircling vulva (Figs 20b, c), or it possesses a well-developed, elongated sclerite adjacent to the base of the first gonapophyses (Figs 20a, d���h). The bursa copulatrix in Cylapini is voluminous, laterally extending beyond first gonapophyses (Figs 15a, b, f, h; 16a, d, g, 17j, 18b, 19a; Namyatova & Cassis 2016: 7 F, 9F; Wolski et al. 2020: fig. 66), and with the anterior margin strongly removed from the first gonapophyses in many cases (Cylapus complex) (Figs 15a, b, f, h; 16a, d, g, 17j, 18b, 19a; Wolski et al. 2020: fig. 66). The posterior wall of the genital chamber is simple and membranous (Figs 19f, g; Namyatova & Cassis 2019: figs 7G, 9G, 2021: fig. 7c; Wolski et al. 2020: fig. 54). The shape and position of the sclerotized rings are variable within the Cylapini. They can be paired (Figs 15f, g, h, 16g, 18c, 19a, d) or unpaired (Figs 15a, b, 16a, d, 17a, d, h, k). In some genera they can be minute, occupying a small portion of the dorsal wall (roof) of the genital chamber (Cylapoides, Labriella) (Fig. 15g; Namyatova & Cassis 2021: fig. 7A) while in other taxa the rings embrace anterior and lateral portions of the genital chamber (Cylapus, some species of Valdasus) (Figs 16a, d, g, 17a, d, h, k; Wolski et al. 2020: Figs 57, 63, 65) or occupies most of it (Amapacylapus, Peltidocylapus, some Valdasus) (Figs 15a, b, 18c, 19b, e). The lateral oviducts are situated centrally on the roof of the genital chamber roof. They are usually contiguous and, rarely they are separated (Cylapinus minusculus) (Fig. 15f). The lateral oviducts are either wide (Cylapus complex) (Figs 15a, 16d, g, 18a, b, 19b, e) or thin (Cylapinus minusculus, Cylapomorpha, Cylapoides unicolor) (Figs 15f, g, h; Yasunaga 2000: Fig. 7). They can be short (as in Amapacylapus, Peltidocylapus, and some species of Valdasus) (Figs 15a, b, 18c, 19b, e) or long, reaching beyond lateral or posterior portion of the genital chamber (Cylapus, some species of Valdasus, Cylapomorpha, Cylapinus, Cylapoides) (Figs 15f, g, 16d, g, 17d, k; Yasunaga 2000: fig. 7). The spermathecal gland opens centrally in the genital chamber, between the lateral oviducts (Figs 15a, b, f, h, 18a, 19b, e; Wolski et al. 2020: 52, 57), or it rarely it opens in the posterior area of the bursa copulatrix (some species of Cylapus) (Figs 16d, 17d). The dorsal sac sensu Kullenberg (1947) is absent in most studied Cylapini. The representative of Cylapomorpha investigated herein possesses the medio-longitudinal, U-shaped, membranous, structure (Fig. 15h), similar to that observed in Orthotylini (e.g., Pluot-Sigwalt & Matocq 2017: figs 5, 6). In all investigated species of Cylapus and some Valdasus (V. henryi Wolski, Ch��rot et Carpintero, V. schoenherri St��l) the posterior portion of bursa copulatrix is furnished with a more or less developed, transverse sclerotization connecting the posterior portion(s) of the sclerotized ring(s) (Figs 16b, e, h, 17f, h, k, l; Wolski et al. 2020: figs 63, 64, 65). In anterior view this structure clearly forms a pouch or pocket, and it is reminiscent of the pouch-like structures found in Hallodapini (Pluot-Sigwalt & Matocq 2017: fig. 12). It is noteworthy that species investigated here also possess the endosoma furnished with at least three sclerites (Wolski 2017: figs 66, 71, 80, 97, 102, 135, 14). At the same time, all studied Cylapus complex species without dorsal sac have the endosoma without sclerites (Peltidocylapus) (Figs 12j, 13a, m, 14a, f, e, l) or with a single, weakly developed sclerotized appendage (Amapacylapus) (Wolski 2017: figs 12, 18). This observation may support the hypothesis of Pluot-Sigwalt & Matocq (2017) who suggested the role of the dorsal sac during copulation when some portions of aedeagus and parameres penetrate the gynatrium and probably enter and anchor into the cavity of the dorsal sack sac.
Published as part of Wolski, Andrzej, 2021, Revised classification of the New World Cylapini (Heteroptera: Miridae: Cylapinae): taxonomic review of the genera Cylapinus, Cylapoides and Peltidocylapus and a morphology-based phylogenetic analysis of tribe Cylapini, pp. 1-66 in Zootaxa 5074 (1) on pages 18-27, DOI: 10.11646/zootaxa.5074.1.1, http://zenodo.org/record/5760387
{"references":["Gorczyca, J. (2000) A systematic study on Cylapinae with a revision of the Afrotropical Region (Heteroptera, Miridae). Wydawnictwo Uniwersytetu Slaskiego, Katowice, 174 pp.","Wolski, A. (2017) Taxonomic review of the plant bug genera Amapacylapus and Cylapus with descriptions of two new species and a key to the genera of Cylapini (Hemiptera: Heteroptera: Miridae). Acta Entomologica Musei Nationalis Pragae, 57 (2), 399 - 455. https: // doi. org / 10.1515 / aemnp- 2017 - 0084","Cassis, G., Schwartz, M. D. & Moulds, T. (2003) Systematics and new taxa of the Vannius complex (Hemiptera: Miridae: Cylapinae) from the Australian Region. Memoirs of the Queensland Museum, 49, 123 - 151.","Cassis, G. & Schuh, R. T. (2012) Systematics, biodiversity, biogeography, and host associations of Miridae (Insecta: Hemiptera: Heteroptera: Cimicomorpha). Annual Review of Entomology, 57, 377 - 404. https: // doi. org / 10.1146 / annurev-ento- 121510 - 133533","Distant, W. L. (1883) Insecta. Rhynchota. Hemiptera-Heteroptera. Biologia Centrali Americana, 1, 225 - 264.","Poppius, B. (1909) Zur Kenntnis der Miriden-Unterfamilie Cylapina Reut. Acta Societatis Scientiarum Fennicae, 37 (4), 1 - 46. https: // doi. org / 10.5962 / bhl. title. 9441","Carvalho, J. C. M. (1952 a) Neotropical Miridae, 56: Description of three new genera and five new species from Brazil and British Honduras (Hemiptera). Revista Brasileira de Biologia, 12, 265 - 273.","Carvalho, J. C. M. (1955) Keys to the genera of Miridae of the world (Hemiptera). Boletim do Museu Paraense Emilio Goeldi, 11, 1 - 151.","Carvalho, J. C. M. (1957) Catalogue of the Miridae of the World. Part I. Subfamilies Cylapinae, Deraeocorinae and Bryocorinae. Arquivos do Museu Nacional Rio de Janeiro, 44, 1 - 158.","Gorczyca, J. (1997) Revision on Vannius - complex and its subfamily placement (Hemiptera: Heteroptera: Miridae). Genus, 3, 517 - 533.","Gorczyca, J. (2006 a) The catalogue of the subfamily Cylapinae Kirkaldy, 1903 of the World (Hemiptera, Heteroptera, Miridae). Monographs of the Upper Silesian Museum. Vol. 5. Department of Natural History, Upper Silesian Museum, Bytom, 100 pp.","Schuh, R. T. (1986) Schizopteromiris, a new genus and four new species of coleopteroid cylapine Miridae from the Australian Region (Heteroptera). Annales de la Societe Entomologique de France, 22, 241 - 246.","Namyatova, A. A. & Cassis, G. (2016) Revision of the staphylinoid and ground-dwelling genus Carvalhoma Slater and Gross (Insecta: Heteroptera: Miridae: Cylapinae) of Australia. European Journal of Taxonomy, 253, 1 - 27. https: // doi. org / 10.5852 / ejt. 2016.253","Carvalho, J. C. M. & Fontes, A. V. (1968) Mirideos neotropicais, CI: Revisao do complexo Cylapus Say, com descricoes de gene- ros e especies novos (Hemiptera). Revista Brasileira de Biologia, 28, 273 - 282.","Bergroth, E. (1922) New Neotropical Miridae (Hem.). Arkiv for Zoologi, 14 (21), 1 - 14. https: // doi. org / 10.5962 / bhl. part. 7726","Carvalho, J. C. M. (1986) Mirideos neotropicais, CCLVI: Dois generos e seis especies novos da tribo Cylapini (Hemiptera). Acta Amazonica, 16 / 17, 589 - 598. https: // doi. org / 10.1590 / 1809 - 43921987171598","Carvalho, J. C. M. (1989) Mirideos neotropicais, CCCVI: novos generos e especies da tribo Cylapini Kirkaldy (Hemiptera). Boletim do Museu Paraense Emilio Goeldi, Zoologia, 5, 79 - 94.","Distant, W. L. (1893) Insecta. Rhynchota. Hemiptera-Heteroptera. Biologia Centrali Americana, Supplement, i - xx + 329 - 462.","Namyatova, A. A. & Cassis, G. (2021) Five new genera of the subfamily Cylapinae (Insecta, Heteroptera, Miridae) from Australia. ZooKeys, 1012, 95 - 134. https: // doi. org / 10.3897 / zookeys. 1012.57172","Murphy, D. H. & Polhemus, D. A. (2012) A new genus of micropterous Miridae from Singapore mangroves (Insecta: Hemiptera: Heteroptera). The Raffles Bulletin of Zoology, 60, 109 - 115.","Yasunaga, T. (2000) The mirid subfamily Cylapinae (Heteroptera: Miridae) or fungal inhabiting plant bugs in Japan. Tijdschrift voor Entomologie, 143, 183 - 209. https: // doi. org / 10.1163 / 22119434 - 99900044","Wolski, A., Cherot, F. & Carpintero, L. C. (2020) Review of the genus Valdasus Stal, 1860 (Heteroptera, Miridae, Cylapinae), with descriptions of four new species from Brazil, Ecuador and French Guiana. Zootaxa, 4849 (2), 187 - 206. https: // doi. org / 10.11646 / zootaxa. 4869.2.2","Namyatova, A. A. & Cassis, G. (2019) Total-evidence phylogeny of the Rhinomirini, taxonomic review of its subgroupings (Insecta: Heteroptera: Miridae: Cylapinae) and description of new Australian taxa. Zoological Journal of the Linnean Society, 187 (4), 1196 - 1252. https: // doi. org / 10.1093 / zoolinnean / zlz 058","Wolski, A. & Henry, T. J. (2012) Revision of the New World Species of Peritropis Uhler (Heteroptera: Miridae: Cylapinae). Insect Systematics and Evolution, 43, 213 - 270. https: // doi. org / 10.1163 / 1876312 X- 04303002","Wolski, A., Gorczyca, J. & Yasunaga, T. (2018) Taxonomic review of the bifenestratus species group of the genus Fulvius Stal with descriptions of two new species (Hemiptera, Heteroptera, Miridae, Cylapinae). ZooKeys, 796, 107 - 129. https: // doi. org / 10.3897 / zookeys. 796.21293","Konstantinov, F. V. (2012) A new species of Palaucoris from Sulawesi. Entomologica Americana, 118, 121 - 129. https: // doi. org / 10.1664 / 12 - RA- 013.1","Wolski, A. (2013) Revision of the plant bug genus Cylapocoris (Hemiptera: Heteroptera: Miridae: Cylapinae), with descriptions of seven new species from Costa Rica, Brazil, Ecuador, and Venezuela. Zootaxa, 3721 (6), 501 - 528. https: // doi. org / 10.11646 / zootaxa. 3721.6.1","Wolski, A. & Gorczyca, J. (2014) Revision of the plant bug genus Xenocylapidius (Hemiptera, Heteroptera, Miridae, Cylapinae), with descriptions of five new species from Australia and New Caledonia. ZooKeys, 459, 73 - 94. https: // doi. org / 10.3897 / zookeys. 459.8015","Konstantinov, F. V. (2003) Male genitalia in Miridae (Heteroptera) and their significance for suprageneric classification of the family. Part I: general review, Isometopinae and Psallopinae. Belgian Journal of Entomology, 5, 3 - 36.","Yasunaga, T., Miyamoto, S. (2006) Second report on the Japanese cylapinae plant bugs (Heteroptera, Miridae, Cylapinae), with description of five new species. In: Rabitch W (Ed.), Hug the Bug - For Love of True Bugs. Festschrift zum 70. Geburtstag von Ernst Heiss. Denisia, 19, 721 - 735.","Sadowska-Woda, I., Cherot, F. & Gorczyca, J. (2006) Contribution to the study of the female genitalia of twelve Fulvius species (Heteroptera, Miridae, Cylapinae). In: Rabitsch W. (Ed.), Hug the bug - For love of true bugs. Festschrift zum 70. Geburtstag von Ernst Heiss. Denisia, 19, pp. 617 - 636.","Kim, J., Lim, J. & Jung, S. (2019) A taxonomic review of the fungal-inhabiting plant bugs (Hemiptera: Heteroptera: Miridae: Cylapinae) from the Korean Peninsula. Journal of Asia - Pacific Biodiversity, 12 (2019), 249 - 256. https: // doi. org / 10.1016 / j. japb. 2019.01.006","Gorczyca, J., Wolski, A. & Taszakowski, A. (2020) The first record of the genus Fulvius Stal, 1862 (Heteroptera: Miridae: Cylapinae) from continental China with description of a new species. Bonn zoological Bulletin, 69 (1), 123 - 130. https: // doi. org / 10.20363 / bzb- 2020.69.1.123","Schmitz, G. & Stys, P. (1973) Howefulvius elytratus gen. n. sp. n. (Heteroptera, Miridae, Fulviinae) from Lord Howe Island in the Tasman Sea. Acta Entomologica Bohemoslovaka, 70, 400 - 407.","Kullenberg, B. (1947) Uber Morphologie und Funktion des Kopulationsapparats der Capsiden und Nabiden. Zoologiska Bidrag fran Uppsala, 24, 217 - 248.","Pluot-Sigwalt, D. & Matocq, A. (2017) An investigation of the roof of the genital chamber in female plant-bugs with special emphasis on the \" dorsal sac \" (Hemiptera: Heteroptera: Miridae). Annales de la Societe entomologique de France, New Series, 1 - 16. https: // doi. org / 10.1080 / 00379271.2017.1285723"]}
-
Groeneweg S, van Geest FS, Abacı A, Alcantud A, Ambegaonkar GP, Armour CM, Bakhtiani P, Barca D, Bertini ES, van Beynum IM, Brunetti-Pierri N, Bugiani M, Cappa M, Cappuccio G, Castellotti B, Castiglioni C, Chatterjee K, de Coo IFM, Coutant R, Craiu D, Crock P, DeGoede C, Demir K, Dica A, Dimitri P, Dolcetta-Capuzzo A, Dremmen MHG, Dubey R, Enderli A, Fairchild J, Gallichan J, George B, Gevers EF, Hackenberg A, Halász Z, Heinrich B, Huynh T, Kłosowska A, van der Knaap MS, van der Knoop MM, Konrad D, Koolen DA, Krude H, Lawson-Yuen A, Lebl J, Linder-Lucht M, Lorea CF, Lourenço CM, Lunsing RJ, Lyons G, Malikova J, Mancilla EE, McGowan A, Mericq V, Lora FM, Moran C, Müller KE, Oliver-Petit I, Paone L, Paul PG, Polak M, Porta F, Poswar FO, Reinauer C, Rozenkova K, Menevse TS, Simm P, Simon A, Singh Y, Spada M, van der Spek J, Stals MAM, Stoupa A, Subramanian GM, Tonduti D, Turan S, den Uil CA, Vanderniet J, van der Walt A, Wémeau JL, Wierzba J, de Wit MY, Wolf NI, Wurm M, Zibordi F, Zung A, Zwaveling-Soonawala N, and Visser WE
The lancet. Diabetes & endocrinology [Lancet Diabetes Endocrinol] 2020 Jul; Vol. 8 (7), pp. 594-605.
- Subjects
-
Adolescent, Adult, Aged, Child, Child, Preschool, Female, Follow-Up Studies, Humans, Infant, International Agencies, Male, Mental Disorders etiology, Middle Aged, Monocarboxylic Acid Transporters genetics, Muscular Diseases etiology, Mutation, Neurodevelopmental Disorders etiology, Prognosis, Retrospective Studies, Survival Rate, Symporters genetics, Young Adult, Biomarkers analysis, Mental Disorders pathology, Monocarboxylic Acid Transporters deficiency, Muscular Diseases pathology, Neurodevelopmental Disorders pathology, and Symporters deficiency
- Abstract
-
Background: Disordered thyroid hormone transport, due to mutations in the SLC16A2 gene encoding monocarboxylate transporter 8 (MCT8), is characterised by intellectual and motor disability resulting from cerebral hypothyroidism and chronic peripheral thyrotoxicosis. We sought to systematically assess the phenotypic characteristics and natural history of patients with MCT8 deficiency.
Methods: We did an international, multicentre, cohort study, analysing retrospective data from Jan 1, 2003, to Dec 31, 2019, from patients with MCT8 deficiency followed up in 47 hospitals in 22 countries globally. The key inclusion criterion was genetically confirmed MCT8 deficiency. There were no exclusion criteria. Our primary objective was to analyse the overall survival of patients with MCT8 deficiency and document causes of death. We also compared survival between patients who did or did not attain full head control by age 1·5 years and between patients who were or were not underweight by age 1-3 years (defined as a bodyweight-for-age Z score <-2 SDs or <5th percentile according to WHO definition). Other objectives were to assess neurocognitive function and outcomes, and clinical parameters including anthropometric characteristics, biochemical markers, and neuroimaging findings.
Findings: Between Oct 14, 2014, and Jan 17, 2020, we enrolled 151 patients with 73 different MCT8 (SLC16A2) mutations. Median age at diagnosis was 24·0 months (IQR 12·0-60·0, range 0·0-744·0). 32 (21%) of 151 patients died; the main causes of mortality in these patients were pulmonary infection (six [19%]) and sudden death (six [19%]). Median overall survival was 35·0 years (95% CI 8·3-61·7). Individuals who did not attain head control by age 1·5 years had an increased risk of death compared with patients who did attain head control (hazard ratio [HR] 3·46, 95% CI 1·76-8·34; log-rank test p=0·0041). Patients who were underweight during age 1-3 years had an increased risk for death compared with patients who were of normal bodyweight at this age (HR 4·71, 95% CI 1·26-17·58, p=0·021). The few motor and cognitive abilities of patients did not improve with age, as evidenced by the absence of significant correlations between biological age and scores on the Gross Motor Function Measure-88 and Bayley Scales of Infant Development III. Tri-iodothyronine concentrations were above the age-specific upper limit in 96 (95%) of 101 patients and free thyroxine concentrations were below the age-specific lower limit in 94 (89%) of 106 patients. 59 (71%) of 83 patients were underweight. 25 (53%) of 47 patients had elevated systolic blood pressure above the 90th percentile, 34 (76%) of 45 patients had premature atrial contractions, and 20 (31%) of 64 had resting tachycardia. The most consistent MRI finding was a global delay in myelination, which occurred in 13 (100%) of 13 patients.
Interpretation: Our description of characteristics of MCT8 deficiency in a large patient cohort reveals poor survival with a high prevalence of treatable underlying risk factors, and provides knowledge that might inform clinical management and future evaluation of therapies.
Funding: Netherlands Organisation for Health Research and Development, and the Sherman Foundation.
(Copyright © 2020 Elsevier Ltd. All rights reserved.)
- Full text View on content provider's site
-
van der Zwaluw K, Witteveen S, Wielders L, van Santen M, Landman F, de Haan A, Schouls LM, and Bosch T
Clinical microbiology and infection : the official publication of the European Society of Clinical Microbiology and Infectious Diseases [Clin Microbiol Infect] 2020 Oct; Vol. 26 (10), pp. 1412.e7-1412.e12. Date of Electronic Publication: 2020 Feb 05.
- Subjects
-
Anti-Bacterial Agents pharmacology, Bacterial Proteins metabolism, Carbapenem-Resistant Enterobacteriaceae drug effects, Enterobacter cloacae drug effects, Enterobacter cloacae genetics, Enterobacter cloacae isolation purification, Enterobacteriaceae Infections drug therapy, Enterobacteriaceae Infections microbiology, Escherichia coli drug effects, Escherichia coli genetics, Escherichia coli isolation purification, Humans, Interspersed Repetitive Sequences genetics, Klebsiella pneumoniae drug effects, Klebsiella pneumoniae genetics, Klebsiella pneumoniae isolation purification, Meropenem pharmacology, Microbial Sensitivity Tests, Molecular Epidemiology, Netherlands epidemiology, beta-Lactamases metabolism, Bacterial Proteins genetics, Carbapenem-Resistant Enterobacteriaceae genetics, Carbapenem-Resistant Enterobacteriaceae isolation purification, Enterobacteriaceae Infections epidemiology, and beta-Lactamases genetics
- Abstract
-
Objectives: Carbapenem resistance mediated by mobile genetic elements has emerged worldwide and has become a major public health threat. To gain insight into the molecular epidemiology of carbapenem resistance in The Netherlands, Dutch medical microbiology laboratories are requested to submit suspected carbapenemase-producing Enterobacterales (CPE) to the National Institute for Public Health and the Environment as part of a national surveillance system.
Methods: Meropenem MICs and species identification were confirmed by E-test and MALDI-TOF and carbapenemase production was assessed by the Carbapenem Inactivation Method. Of all submitted CPE, one species/carbapenemase gene combination per person per year was subjected to next-generation sequencing (NGS).
Results: In total, 1838 unique isolates were received between 2014 and 2018, of which 892 were unique CPE isolates with NGS data available. The predominant CPE species were Klebsiella pneumoniae (n = 388, 43%), Escherichia coli (n = 264, 30%) and Enterobacter cloacae complex (n = 116, 13%). Various carbapenemase alleles of the same carbapenemase gene resulted in different susceptibilities to meropenem and this effect varied between species. Analyses of NGS data showed variation of prevalence of carbapenemase alleles over time with bla OXA-48 being predominant (38%, 336/892), followed by bla NDM-1 (16%, 145/892). For the first time in the Netherlands, bla OXA-181 , bla OXA-232 and bla VIM-4 were detected. The genetic background of K. pneumoniae and E. coli isolates was highly diverse.
Conclusions: The CPE population in the Netherlands is diverse, suggesting multiple introductions. The predominant carbapenemase alleles are bla OXA-48 and bla NDM-1 . There was a clear association between species, carbapenemase allele and susceptibility to meropenem.
(Copyright © 2020 National Institute for Public Health and the Environment, Bilthoven, The Netherlands. Published by Elsevier Ltd.. All rights reserved.)
43. Cosmopepla lintneriana Kirkaldy 1909 [2021]
-
Rider, David A. and Swanson, Daniel R.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Pentatomidae, and Cosmopepla
- Abstract
-
Cosmopepla lintneriana Kirkaldy, 1909 New state records: California: Plumas Co.: Plumas Natl. Forest, Butterfly Valley, 20-VIII-1989, C. B. Barr (1♂ DAR). Kentucky: Fayette Co.: [no specific locality], 13-VII-1959, J. M. Campbell (1♀ DAR). Oregon: Benton Co.: Sulphur Springs, 6 mi. N Corvallis, 8-X-1962, R. Bland (1♂ 1♀ UMMZ). Lane Co.: 2 mi. E Jasper, 2-VI-1972, Westcott & Penrose (1♂ DAR). West Virginia: Wood Co.: 25-27-VII-1971, L. H. Rolston (3♂♂ 2♀♀ DAR). Distribution: Canada: AB, BC, MB (Maw et al. 2000), NB (Maw et al. 2000, Roch 2020), NF (Maw et al. 2000, Roch 2020), NS, NT (Maw et al. 2000), ON, PE (Brown 1941, Maw et al. 2000, Roch 2020), QC, SK (Maw et al. 2000). United States: AR, AZ (Snow 1904, 1906), CA, CO, CT, DC, GA, IA (Osborn 1892, Stoner 1917, 1920, Hendrickson 1930), IL, KS, KY, LA (Rosewall 1938), MA, ME, MI, MO, MS, MT, NC, NE, NH, NJ, NM, NY, OH, OK, OR, PA, SD (Parshley 1922, Harris 1937, Morihara & Balsbaugh 1976), TN (Meyer 1937, Howden & Crossley 1961, Powell et al. 1996), TX, UT, VA, VT, WA, WI (Stål 1872), WV. (Mexico) Comments: Froeschner (1988) listed this species under the preoccupied name, Cosmopepla bimaculata (Thomas, 1865). He correctly explained that it was not preoccupied by Pentatoma bimaculata Westwood, 1837, but apparently he was unaware of the description of Pentatoma bimaculata by Montrouzier (1855), predating Thomas’ Pentatoma bimaculata by ten years. See Rider & Rolston (1995) for clarification. So, many of the records for this species are under its synonyms, Cosmopepla bimaculata or Cosmopepla carnifex (Fabricius, 1798).
Published as part of Rider, David A. & Swanson, Daniel R., 2021, A distributional synopsis of the Pentatomidae (Heteroptera) north of Mexico, including new state and provincial records, pp. 1-69 in Zootaxa 5015 (1) on page 17, DOI: 10.11646/zootaxa.5015.1.1, http://zenodo.org/record/5159085
{"references":["Kirkaldy, G. W. (1909) Catalogue of the Hemiptera (Heteroptera) with Biological and Anatomoical References, Lists of Foodplants and Parasites, etc. Prefaced by a Discussion on Nomenclature, and an Analytical Table of Families. Vol. I. Cimicidae. Felix L. Dames, Berlin, 392 pp. https: // doi. org / 10.5962 / bhl. title. 15205","Maw, H. E. L., Foottit, R. G., Hamilton, K. G. A. & Scudder, G. G. E. (2000) Checklist of the Hemiptera of Canada and Alaska. National Research Council of Canada, NRC Research Press, Ottawa, 220 pp. Canada,","Roch, J-F. (2020) Entomofaune du Quebec. Liste des Punaises du Quebec et des Regions Adjacentes (Hemiptera: Heteroptera). Document Faunique 27. Version 2.3. Entomofaune du Quebec Inc., Saguenay, 41 pp.","Brown, A. W. A. (1941) Foliage insects of spruce in Canada. Canadian Department of Agriculture, Publication 712. Technical Bulletin, 31, 1 - 30, 2 pls., keys.","Snow, F. H. (1904) Lists of Coleoptera, Lepidoptera, Diptera and Hemiptera collected in Arizona by the entomological expeditions of the University of Kansas in 1902 and 1903. The Kansas University Science Bulletin, 2 (12), 323 - 350.","Snow, F. H. (1906) Some results of the University of Kansas entomological expeditions to Arizona in 1904 and 1905. Transactions of the Kansas Academy of Science, 20 (1), 155 - 181. https: // doi. org / 10.2307 / 3624697","Osborn, H. (1892) Catalogue of the Hemiptera of Iowa. Proceedings of the Iowa Academy of Sciences, 1 (2), 120 - 131.","Stoner, D. (1917) The Pentatomoidea of the Lake Okoboji Region. Bulletins from the Laboratories of Natural History of the State University of Iowa, 7 (3), 39 - 47, pls. 9 - 10.","Stoner, D. (1920) The Scutelleroidea of Iowa. University of Iowa Studies, Studies in Naturtal History, 8 (4), 1 - 140, pls. 1 - 7.","Hendrickson, G. O. (1930) Studies on the insect fauna of Iowa praries. Iowa State College Journal of Science, 4 (2), 49 - 179.","Rosewall, O. W. (1938) Notes on the Pentatomidae of Louisiana. Proceedings of the Louisiana Academy of Sciences, 4, 237 - 240.","Parshley, H. M. (1922) Report on a collection of Hemiptera-Heteroptera from South Dakota. South Dakota State College, Technical Bulletin, 2, 1 - 22.","Harris, H. M. (1937) Contributions to the South Dakota list of Hemiptera. Iowa State College Journal of Science, 11 (2), 169 - 176.","Morihara, D. K. & Balsbaugh, E. U., Jr. (1976) Phytopagous insects collected on musk thistle, Carduus nutans, in southeastern South Dakota. Environmental Entomology, 5 (4), 692 - 696. https: // doi. org / 10.1093 / ee / 5.4.692","Meyer, A. M. (1937) An ecological study of Cedar Glade invertebrates near Nashville, Tennessee. Ecological Monographs, 7 (3), 403 - 443. https: // doi. org / 10.2307 / 1943056","Howden, H. F. & Crossley, D. A. Jr. (1961) Insect Species on Vegetation of the White Oak Lake Bed, Oak Ridge, Tennessee. No. ORNL- 3094. Oak Ridge National Laboratory, Oak Ridge, Tennessee, 38 pp. https: // doi. org / 10.2172 / 4041200","Powell, S. D., Grant, J. F. & Lambdin, P. L. (1996) Incidence of above-ground arthropod species on musk thistle in Tennessee. Journal of Agricultural Entomology, 13 (1), 17 - 28.","Stal, C. (1872) Enumeratio Hemipterorum. Bidrag till en forteckning ofver alla hittels kanda Hemiptera, Jemte Systematiska meddelanden. 2. Kongliga Svenska Vetenskaps-Akademiens Handlingar, 10 (4), 1 - 159.","Froeschner, R. C. (1988) Family Pentatomidae Leach, 1815. The stink bugs. In: Henry, T. J. & Froeschner, R. C. (Eds.), Catalog of the Heteroptera, or True Bugs, of Canada and the Continental United States. E. J. Brill, Leiden, New York, pp. 544 - 607. https: // doi. org / 10.1201 / 9781351070447 - 30","Thomas, C. (1865) Insects injurious to vegetation in Illinois. Transactions of the Illinois State Agricultural Society, 5, 401 - 468.","Westwood, J. O. (1837) In: Hope, F. W., A Catalogue of Hemiptera in the Collection of the Rev. F. W. Hope, M. A. with Short Latin Diagnoses of the New Species. Pt. 1. Printed by J. C. Bridgewater, London, pp. 1 - 46.","Montrouzier, P. (1855) Essai sur la faune de l'Ile de Woodlark ou Moiou (bei Neuguinea). Annales de la Societe d'Agriculture de Lyon, Series 2, 7 (1), 1 - 114.","Rider, D. A. & Rolston, L. H. (1995) Nomenclatural changes in the Pentatomidae (Hemiptera-Heteroptera). Proceedings of the Entomological Society of Washington, 97 (4), 845 - 855.","Fabricius, J. C. (1798) Entomologia Systematica Emendata et Aucta, Secundum Classes, Ordines, Genera, Species, Adjectis Synonymis, Locis, Observationibus. Supplementum. Proft et Storch, Hafniae, ii + 572 pp."]}
44. Brochymena quadripustulata [2021]
-
Rider, David A. and Swanson, Daniel R.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Pentatomidae, and Brochymena
- Abstract
-
Brochymena quadripustulata (Fabricius, 1775) Distribution: Canada: AB, BC, NB (Larivière 1992, Roch 2020), MB (Maw et al. 2000), NS (Larivière 1992, Roch 2020), ON, QC, SK (Larivière 1992). United States: AK (Scudder & Sikes 2014), AL (Larivière 1992), AR, AZ, CA, CO, CT, DC, DE (Larivière 1992), FL, GA (Herrich-Schäfer 1839, Scott & Fiske 1902, Larivière 1992), IA, ID (Harris & Shull 1944, Furniss 1972, Larivière 1992), IL, IN, KS, KY (Larivière 1992), LA, MA, MD, ME (Larivière 1992, Roch 2020), MI, MN (Lugger 1900, Larivière 1992, Rider 2012, Koch et al. 2014), MO, MS, MT (Larivière 1992), NC, ND (Larivière 1992, Rider 2012), NE, NH, NJ, NM, NV (Larivière 1992), NY, OH, OK, OR (Torre-Bueno 1934, Larivière 1992, Hedstrom et al. 2017), PA, SC, SD (Parshley 1922, Harris 1937, Larivière 1992), TN (Howden & Crossley 1961, Larivière 1992), TX (Uhler 1876, Snow 1906, Tucker 1917, Torre-Bueno 1931, Larivière 1992), UT, VA, VT (Larivière 1992, Roch 2020), WA (Wallis & Turner 1972, Larivière 1992, Zack et al. 2012), WI (Stål 1872, Larivière 1992), WV (Brown et al. 1988, Larivière 1992). (Hawaii) Comments: Lugger (1900) recorded Brochymena annulata from Minnesota; this is clearly a misdetermination and should be referred to this species.
Published as part of Rider, David A. & Swanson, Daniel R., 2021, A distributional synopsis of the Pentatomidae (Heteroptera) north of Mexico, including new state and provincial records, pp. 1-69 in Zootaxa 5015 (1) on page 31, DOI: 10.11646/zootaxa.5015.1.1, http://zenodo.org/record/5159085
{"references":["Fabricius, J. C. (1775) Systema Entomologiae Sistens Insectorum Classes, Ordines, Genera, Species; Adjectis Synonymis, Locis, Descriptionibus et Observationibus. Flensburgi et Lipsiae, xxxii + 832 pp. https: // doi. org / 10.5962 / bhl. title. 36510","Lariviere, M. - C. (1992) Description of Parabrochymena, new genus, and redefinition and review of Brochymena Amyot and Audinet-Serville (Hemiptera: Pentatomidae), with considerations on natural history, chorological affinities, and evolutionary relationships. Memoirs of the Entomological Society of Canada, 163, 1 - 75. https: // doi. org / 10.4039 / entm 124163 fv","Roch, J-F. (2020) Entomofaune du Quebec. Liste des Punaises du Quebec et des Regions Adjacentes (Hemiptera: Heteroptera). Document Faunique 27. Version 2.3. Entomofaune du Quebec Inc., Saguenay, 41 pp.","Maw, H. E. L., Foottit, R. G., Hamilton, K. G. A. & Scudder, G. G. E. (2000) Checklist of the Hemiptera of Canada and Alaska. National Research Council of Canada, NRC Research Press, Ottawa, 220 pp. Canada,","Scudder, G. G. E. & Sikes, D. S. (2014) Alaskan Heteroptera (Hemiptera): New records, associated data, and deletions. Zootaxa, 3852 (3), 373 - 381. https: // doi. org / 10.11646 / zootaxa. 3852.3.6","Scott, W. M. & Fiske, W. F. (1902) Jarring for the circulio on an extensive scale in Georgia, with a list of the insects caught. Bulletin of the United States Department of Agriculture, Division of Entomology, New Series, 31, 24 - 36.","Harris, H. M. & Shull, W. E. (1944) A preliminary list of Hemiptera of Idaho. Iowa State College Journal of Science, 18 (2), 199 - 208.","Furniss, M. M. (1972) A preliminary list of insects and mites that infest some important browse plants of western big game. USDA Forest Service Research Note INT- 155. Intermountain Forest & Range Experiment Station, Ogden, Utah, 16 pp.","Lugger, O. (1900) Bugs (Hemiptera) injurious to our cultivated plants. University of Minnesota Agricultural Experiment Station Bulletin, 69, 1 - 259, 16 pls.","Rider, D. A. (2012) The Heteroptera (Hemiptera) of North Dakota I: Pentatomomorpha: Pentatomoidea. The Great Lakes Entomologist, 45 (3 - 4), 312 - 380.","Koch, R. L., Rider, D. A., Tinerella, P. P. & Rich, W. A. (2014) Stink bugs (Hemiptera: Heteroptera: Pentatomidae) of Minnesota: An annotated checklist and new state records. The Great Lakes Entomologist, 47 (3 - 4), 171 - 185.","Torre-Bueno, J. R. de la (1934) On some Heteroptera from the west and southwest. Bulletin of the Brooklyn Entomological Society, 29 (4), 155 - 157.","Hedstrom, C., Lowenstein, D., Andrews, H., Bai, B. & Wiman, N. (2017) Pentatomid host suitability and the discovery of introduced populations of Trissolcus japonicus in Oregon. Journal of Pest Science, 90 (4), 1169 - 1179. https: // doi. org / 10.1007 / s 10340 - 017 - 0892 - 6","Parshley, H. M. (1922) Report on a collection of Hemiptera-Heteroptera from South Dakota. South Dakota State College, Technical Bulletin, 2, 1 - 22.","Harris, H. M. (1937) Contributions to the South Dakota list of Hemiptera. Iowa State College Journal of Science, 11 (2), 169 - 176.","Howden, H. F. & Crossley, D. A. Jr. (1961) Insect Species on Vegetation of the White Oak Lake Bed, Oak Ridge, Tennessee. No. ORNL- 3094. Oak Ridge National Laboratory, Oak Ridge, Tennessee, 38 pp. https: // doi. org / 10.2172 / 4041200","Uhler, P. R. (1876) List of the Hemiptera of the region west of the Mississippi River, including those collected during the Hayden explorations of 1873. Bulletin of the United States Geological and Geographical Survey of the Territories, 1, 267 - 361.","Snow, F. H. (1906) Some results of the University of Kansas entomological expeditions to Arizona in 1904 and 1905. Transactions of the Kansas Academy of Science, 20 (1), 155 - 181. https: // doi. org / 10.2307 / 3624697","Tucker, E. S. (1917) Determination and records of insects collected at Plano, Tex. Transactions of the Kansas Academy of Sciences, 28, 291 - 312. https: // doi. org / 10.2307 / 3624372","Torre-Bueno, J. R. de la (1931) Heteroptera collected by G. P. Engelhardt in the south and west - II. Bulletin of the Brooklyn Entomological Society, 26, 135 - 139.","Wallis, R. L. & Turner, J. E. (1972) Insects overwintering in the warm microenvironment of drainage ditches in central Washington. Environmental Entomology, 1 (1), 107 - 109. https: // doi. org / 10.1093 / ee / 1.1.107","Zack, R. S., Landolt, P. J. & Munyaneza, J. E. (2012) The stink bugs (Hemiptera: Heteroptera: Pentatomidae) of Washington State. The Great Lakes Entomologist, 45 (3), 251 - 262.","Stal, C. (1872) Enumeratio Hemipterorum. Bidrag till en forteckning ofver alla hittels kanda Hemiptera, Jemte Systematiska meddelanden. 2. Kongliga Svenska Vetenskaps-Akademiens Handlingar, 10 (4), 1 - 159.","Brown, M. W., Adler, C. R. L. & Weires, R. W. (1988) Insects associated with apple in the mid-Atlantic states. New York's Food and Life Sciences Bulletin, 124, 1 - 31."]}
45. Euschistus variolarius [2021]
-
Rider, David A. and Swanson, Daniel R.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Pentatomidae, and Euschistus
- Abstract
-
Euschistus variolarius (Palisot de Beauvois, 1817) New state records: Alabama: Lee Co.: [no specific locality], 16-VI-1981, D. A. Rider (1♂ DAR). Tennessee: Fentress Co.: Allardt, 17-VIII-1922, 1650 feet, T. H. Hubbell, det. R. F. Hussey 1924 (1♂ UMMZ), 18-VIII-1922, T. H. Hubbell (1♂ UMMZ), 16-VIII-1924, c. 1600 ft., T. H. Hubbell, det. R. I. Sailer 1950 (1♂ UMMZ). West Virginia: Wood Co.: 25-27-VII-1971, L. H. Rolston (1♀ DAR). Distribution: Canada: AB (Maw et al. 2000), BC, NS (Dallas 1851; Walker 1867, 1872), ON, QC. United States: AL, AR, CO, CT, DC, FL, IA, ID, IL, IN, KS, KY (Garman 1897; Yeargan 1979; Townsend & Sedlacek 1986; Sedlacek & Townsend 1988; Apriyanto, Sedlacek & Townsend 1989; Apriyanto, Townsend & Sedlacek 1989), MA, MD (Aldrich et al. 1991, Brown & Bahr 2008), ME (Parshley 1914, Procter 1946, Roch 2020), MI, MN (Koch et al. 2014, Koch & Rich 2015), MO, NC, ND (Rider 2012), NE, NH, NJ, NM (Osborn 1893), NY, OH, OK (Carpenter 1937, Stoner et al. 1962, Arnold & Drew 1988, Kondratieff et al. 2005), OR, PA, SD (Parshley 1922, Harris 1937), TN, TX (Stål 1872, Uhler 1876, Suh et al. 2013), UT, VA, WV, WA (Zack et al. 2012), WI (Fluke 1929; Williams 2004, 2015). Comments: Provancher (1886) listed this species from California and Texas, but Van Duzee (1912) indicated that these were based upon misidentifications of Euschistus fissilis (= servus). This species is commonly called the onespotted stink bug.
Published as part of Rider, David A. & Swanson, Daniel R., 2021, A distributional synopsis of the Pentatomidae (Heteroptera) north of Mexico, including new state and provincial records, pp. 1-69 in Zootaxa 5015 (1) on page 21, DOI: 10.11646/zootaxa.5015.1.1, http://zenodo.org/record/5159085
{"references":["Palisot de Beauvois, A. - M. - F. - J. (1817) Insectes Recueillis en Afrique et en Amerique, dans les Royaumes d'Oware et de Benin, a Saint-Domingue et dans les Etats-Unis, pendant les Annees 1786 - 1797. Parts 9 - 10. Imprimerie de Fain et Compagnie, Paris, 36 pp. [pp. 137 - 172]","Maw, H. E. L., Foottit, R. G., Hamilton, K. G. A. & Scudder, G. G. E. (2000) Checklist of the Hemiptera of Canada and Alaska. National Research Council of Canada, NRC Research Press, Ottawa, 220 pp. Canada,","Dallas, W. S. (1851) List of the Specimens of Hemipterous Insects in the Collection of the British Museum. Vol. 1. Taylor & Francis, Inc., London, 368 pp., 11 pls.","Walker, F. (1867) s. n. In: Catalogue of the Specimens of Heteropterous Hemiptera in the Collection of the British Museum. Part II. Scutata. E. Newman, London, pp. 241 - 417. https: // doi. org / 10.5962 / bhl. title. 118688","Walker, F. (1872) Hemiptera, Heteroptera and Dermaptera (Orthoptera) of America to the north of the United States. The Canadian Entomologist, 4 (1), 29 - 31. https: // doi. org / 10.4039 / Ent 429 - 2","Garman, H. (1897) Notes on several tobacco insects and on two imperfectly known diseases of tobacco. Bulletin of the Kentucky Agricultural Experiment Station, 66, 33 - 39.","Yeargan, K. V. (1979) Parasitism and predation of stink bug eggs in soybean and alfalfa fields. Environmental Entomology, 8 (4), 715 - 719. https: // doi. org / 10.1093 / ee / 8.4.715","Townsend, L. H. & Sedlacek, J. D. (1986) Damage to corn caused by Euschistus servus, E. variolarius, and Acrosternum hilare (Heteroptera: Pentatomidae) under greenhouse conditions. Journal of Economic Entomology, 79, 1254 - 1258. https: // doi. org / 10.1093 / jee / 79.5.1254","Sedlacek, J. D. & Townsend, L. H. (1988) Impact of Euschistus servus and E. variolarius (Heteroptera: Pentatomidae) feeding on early growth stages of corn. Journal of Economic Entomology, 81 (3), 840 - 844. https: // doi. org / 10.1093 / jee / 81.3.840","Aldrich, J. R., Hoffman, M. P., Kochansky, J. P., Lusby, W. R., Eger, J. E. & Payne, J. A. (1991) Identification and attractiveness of a major pheromone component for nearctic Euschistus spp. stink bugs (Heteroptera, Pentatomidae). Environmental Entomology, 20 (2), 477 - 483. https: // doi. org / 10.1093 / ee / 20.2.477","Brown, J. W. & Bahr, S. M. II. (2008) Appendix. List of the invertebrates of Plummers Island, Maryland. Bulletin of the Biological Society of Washington, 15 (1), 192 - 226. https: // doi. org / 10.2988 / 0097 - 0298 (2008) 15 [192: ALOTIO] 2.0. CO; 2","Parshley, H. M. (1914) List of the Hemiptera-Heteroptera of Maine. Psyche, 21 (5), 139 - 149. https: // doi. org / 10.1155 / 1914 / 95384","Procter, W. (1946) Biological Survey of the Mount Desert Region Incorporated. VII. The Insect Fauna with References to Methods of Capture, Food Plants, the Flora and Other Biological Features. The Wistar Institute of Anatomy and Biology, Philadelphia, 566 pp.","Roch, J-F. (2020) Entomofaune du Quebec. Liste des Punaises du Quebec et des Regions Adjacentes (Hemiptera: Heteroptera). Document Faunique 27. Version 2.3. Entomofaune du Quebec Inc., Saguenay, 41 pp.","Koch, R. L., Rider, D. A., Tinerella, P. P. & Rich, W. A. (2014) Stink bugs (Hemiptera: Heteroptera: Pentatomidae) of Minnesota: An annotated checklist and new state records. The Great Lakes Entomologist, 47 (3 - 4), 171 - 185.","Koch, R. L. & Rich, W. A. (2015) Stink bug (Hemiptera: Heteroptera: Pentatomidae) feeding and phenology on early-maturing soybean in Minnesota. Journal of Economic Entomology, 108 (5), 2335 - 2343. https: // doi. org / 10.1093 / jee / tov 218","Rider, D. A. (2012) The Heteroptera (Hemiptera) of North Dakota I: Pentatomomorpha: Pentatomoidea. The Great Lakes Entomologist, 45 (3 - 4), 312 - 380.","Osborn, H. (1893) Notes on the distribution of Hemiptera. Proceedings of the Iowa Academy of Sciences, 1 (4), 120 - 123.","Carpenter, J. R. (1937) Fluctuations in biotic communities, III. Aspection in a ravine sere in central Oklahoma. Ecology, 18 (1), 80 - 92. https: // doi. org / 10.2307 / 1932704","Stoner, A., Bryan, D. E. & Drew, W. A. (1962) A partial inventory of insect populations in tallgrass prarie pastures in north central Oklahoma. Proceedings of the Oklahoma Academy of Science, 42, 143 - 157.","Arnold, D. C. & Drew, W. A. (1988) The Pentatomoidea (Hemiptera) of Oklahoma. Agricultural Experiment Station, Oklahoma State University, Technical Bulletin T - 166. Norman, Oklahoma, 42 pp.","Kondratieff, B. C., Schmidt, J. P., Opler, P. A. & Garhart, M. C. (2005) Survey of selected arthropod taxa of Fort Sill, Comanche County, Oklahoma. III. Arachnida: Ixodidae, Scorpiones, Hexapoda: Ephemeroptera, Hemiptera, Homoptera, Coleoptera, Neuroptera, Trichoptera, Lepidoptera, and Diptera. Contributions of the C. P. Gillette Museum of Arthropod Diversity, 2005, 72 - 265.","Parshley, H. M. (1922) Report on a collection of Hemiptera-Heteroptera from South Dakota. South Dakota State College, Technical Bulletin, 2, 1 - 22.","Harris, H. M. (1937) Contributions to the South Dakota list of Hemiptera. Iowa State College Journal of Science, 11 (2), 169 - 176.","Stal, C. (1872) Enumeratio Hemipterorum. Bidrag till en forteckning ofver alla hittels kanda Hemiptera, Jemte Systematiska meddelanden. 2. Kongliga Svenska Vetenskaps-Akademiens Handlingar, 10 (4), 1 - 159.","Uhler, P. R. (1876) List of the Hemiptera of the region west of the Mississippi River, including those collected during the Hayden explorations of 1873. Bulletin of the United States Geological and Geographical Survey of the Territories, 1, 267 - 361.","Suh, C. P. - C., Westbrook, J. K. & Esquivel, J. F. (2013) Species of stink bugs in cotton and other row crops in the Brazos River bottom of Texas. Southwestern Entomologist, 38 (4), 561 - 569. https: // doi. org / 10.3958 / 059.038.0402","Zack, R. S., Landolt, P. J. & Munyaneza, J. E. (2012) The stink bugs (Hemiptera: Heteroptera: Pentatomidae) of Washington State. The Great Lakes Entomologist, 45 (3), 251 - 262.","Fluke, C. L. (1929) The known predacious and parasitic enemies of the pea aphid in North America. Wisconsin Agricultural Experiment Station, Research Bulletin, 93, 1 - 47.","Williams, A. H. (2004) Feeding records of true bugs (Hemiptera: Heteroptera) from Wisconsin. The Great Lakes Entomologist, 37 (1 - 2), 16 - 29.","Williams, A. H. (2015) Feeding records of true bugs (Hemiptera: Heteroptera) from Wisconsin, supplement. The Great Lakes Entomologist, 48 (3 - 4), 192 - 198.","Provancher, A. L. (1886) Petite Faune Entomologique du Canada et Particulierement de la Province de Quebec. Vol. III. Cinquieme Ordre les Hemipteres. s. n., Quebec, 354 pp., 5 pls. https: // doi. org / 10.5962 / bhl. title. 38557","Van Duzee, E. P. (1912) Synonymy of the Provancher collection of Hemiptera. The Canadian Entomologist, 44 (11), 317 - 329. https: // doi. org / 10.4039 / Ent 44317 - 11"]}
46. Thyanta custator subsp. accerra McAtee 1919 [2021]
-
Rider, David A. and Swanson, Daniel R.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Pentatomidae, and Thyanta
- Abstract
-
Thyanta custator accerra McAtee, 1919 Distribution: Canada: MB (Maw et al. 2000), ON (Maw et al. 2000, Roch 2020), QC, SK (Scudder 2013). United States: AL, AR, AZ, CA (Van Duzee 1917, Johnson & Ledig 1918, Norland 1931, Goeden 1971, Rider & Chapin 1992), CO, CT (Van Duzee 1917, Parshley 1923 a, O’Donnell & Schaefer 2012), DE (Rider & Chapin 1992), DC (Rider & Chapin 1992), FL, GA, IA (Osborn, 1892, Stoner 1915, Van Duzee 1917, Hendrickson 1930, Knight 1936, Rider & Chapin 1992), IL, IN, KS, KY (Rider & Chapin 1992), LA (Rider & Chapin 1992, Temple, Davis, Micinski et al. 2013), MA (Uhler 1878, Parshley 1917, Van Duzee 1917), MD (Rider & Chapin 1992), ME (Phipps 1930, Rider & Chapin 1992, Roch 2020), MI, MN (Rider & Chapin 1992, Koch et al. 2014), MO, MS, MT, NC, ND, NE (Uhler 1872, 1876; Van Duzee 1917; Rider & Chapin 1992), NH (Rider & Chapin 1992, Roch 2020), NJ (Van Duzee 1917, Rider & Chapin 1992), NM, NV, NY, OH (Osborn 1900, Adkins 1917, Balduf 1923, Furth 1974, Rider & Chapin 1992), OK (Ortenburger 1927; Carpenter 1937; Smith 1940a, b; Fenton & Howell 1957; Stoner et al. 1962; Arnold & Drew 1988; Rider & Chapin 1992; Kondratieff et al. 2005), PA (Van Duzee 1917, Rider & Chapin 1992), SC (Jones & Sullivan 1981, Rider & Chapin 1992), SD, TN (Stål 1872, Van Duzee 1917, Howden & Crossley 1961, Rider & Chapin 1992, Lambdin et al. 2003), TX, UT, VA (Hoffman 1971; Allen & Hoffman 1975, 1976; Rider & Chapin 1992; Basnet et al. 2014), WV (Rider & Chapin 1992), WI (Rider & Chapin 1992), WY. (Mexico, Guatemala, Hawaii) Comments: At the time of the Froeschner (1988) catalog, the status of the different U.S. forms within Thyanta was confused. Rider & Chapin (1992) determined that Thyanta custator is composed of two subspecies - the nominate subspecies occurs along the Atlantic and Gulf coasts, whereas Thyanta custator accerra occurs throughout the rest of the U.S., except it is replaced by Thyanta pallidovirens in the western U.S. This form was listed in Froeschner (1988) as Thyanta accerra and also the records for Thyanta pallidovirens spinosa Ruckes refer to this form. Additionally, most records of Thyanta perditor from the desert southwestern states should be referred here. The Idaho record for this species should be referred to Thyanta pallidovirens.
Published as part of Rider, David A. & Swanson, Daniel R., 2021, A distributional synopsis of the Pentatomidae (Heteroptera) north of Mexico, including new state and provincial records, pp. 1-69 in Zootaxa 5015 (1) on pages 38-39, DOI: 10.11646/zootaxa.5015.1.1, http://zenodo.org/record/5159085
{"references":["McAtee, W. L. (1919) Notes on Nearctic Hemiptera. Bulletin of the Brooklyn Entomological Society, 14, 8 - 16.","Maw, H. E. L., Foottit, R. G., Hamilton, K. G. A. & Scudder, G. G. E. (2000) Checklist of the Hemiptera of Canada and Alaska. National Research Council of Canada, NRC Research Press, Ottawa, 220 pp. Canada,","Roch, J-F. (2020) Entomofaune du Quebec. Liste des Punaises du Quebec et des Regions Adjacentes (Hemiptera: Heteroptera). Document Faunique 27. Version 2.3. Entomofaune du Quebec Inc., Saguenay, 41 pp.","Scudder, G. G. E. (2013) Additional provincial and state records for Heteroptera (Hemiptera) in Canada and the United States. Journal of the Entomological Society of British Columbia, 109, 55 - 69.","Van Duzee, E. P. (1917) Catalogue of the Hemiptera of America North of Mexico, Excepting the Aphididae, Coccidae and Aleurodidae. University of California Publications Entomology 2. University of California press, Berkeley, California, xiv + 902 pp. https: // doi. org / 10.5962 / bhl. title. 29381","Johnson, C. & Ledig, R. (1918) Tentative list of Hemiptera from the Claremont-Laguna region. Journal of Entomology and Zoology, 10, 3 - 8.","Norland, C. (1931) List of California Pentatomidae, especially from the south. Journal of Entomology and Zoology, 23, 45 - 46.","Goeden, R. D. (1971) Insect ecology of silverleaf nightshade. Weed Science, 19 (1), 45 - 51. https: // doi. org / 10.1017 / S 0043174500048244","Rider, D. A. & Chapin, J. B. (1992) Revision of the genus Thyanta Stal, 1862 (Heteroptera: Pentatomidae) II. North America, Central America, and the West Indies. Journal of the New York Entomological Society, 100 (1), 42 - 98.","Parshley, H. M. (1923 a) Family Pentatomidae, Cydnidae, Scutelleridae. In: Britton, W. E. (Ed.), Guide to the Insects of Connecticut. Part IV. The Hemiptera or Sucking Insects of Connecticut. Connecticut State Geological and Natural History Survey Bulletin, 34, pp. 753 - 783, pls. XVIII - XX","Wheeler, A. G. Jr. & Krimmel, B. A. (2012) Banasa sordida (Uhler) (Hemiptera: Pentatomidae): Monterey cypress and Gowen cyprus (Cupressus macrocarpa, C. goveniana; Cupressaceae) as host plants in coastal California. Proceedings of the Entomological Society of Washington, 114 (2), 263 - 268. https: // doi. org / 10.4289 / 0013 - 8797.114.2.263","Osborn, H. (1892) Catalogue of the Hemiptera of Iowa. Proceedings of the Iowa Academy of Sciences, 1 (2), 120 - 131.","Stoner, D. (1915) Preliminary notes on Iowa Pentatomoidea (Heterop.). Entomological News, 26, 353 - 355.","Hendrickson, G. O. (1930) Studies on the insect fauna of Iowa praries. Iowa State College Journal of Science, 4 (2), 49 - 179.","Knight, H. H. (1936) Records of southern insect species moving northward during the drouth years of 1930 and 1934. Annals of the Entomological Society of America, 29 (4), 578 - 580. https: // doi. org / 10.1093 / aesa / 29.4.578","Temple, J. H., Davis, J. A., Micinski, S., Hardke, J. T., Price, P. & Leonard, B. R. (2013) Species composition and seasonal abundance of stink bugs (Hemiptera: Pentatomidae) in Louisiana soybean. Environmental Entomology, 42 (4), 648 - 657. https: // doi. org / 10.1603 / EN 11135","Uhler, P. R. (1878) On the Hemiptera collected by Dr. Elliott Coues, U. S. A., in Dakota and Montana, during 1873 - 74. Bulletin of the United States Geological and Geographical Survey of the Territories, 4, 503 - 512.","Parshley, H. M. (1917) Fauna of New England. 14. List of the Hemiptera-Heteroptera. Occasional Papers of the Boston Society of Natural History, 7, 1 - 125.","Phipps, C. R. (1930) Blueberry and huckleberry insects. Bulletin of the Maine Agricultural Experiment Station, 356, 107 - 232.","Koch, R. L., Rider, D. A., Tinerella, P. P. & Rich, W. A. (2014) Stink bugs (Hemiptera: Heteroptera: Pentatomidae) of Minnesota: An annotated checklist and new state records. The Great Lakes Entomologist, 47 (3 - 4), 171 - 185.","Uhler, P. R. (1872) Notices of the Hemiptera of the Western Territories of the United States, chiefly from the surveys of Dr. F. V. Hayden. In: Hayden, F. V. (Ed.), Preliminary Report of the United States Geological Survey of Montana and Portions of Adjacent Territories, Being a Fifth Annual Report of Progress. Government Printing Office, Washington, D. C, pp. 392 - 423.","Uhler, P. R. (1876) List of the Hemiptera of the region west of the Mississippi River, including those collected during the Hayden explorations of 1873. Bulletin of the United States Geological and Geographical Survey of the Territories, 1, 267 - 361.","Osborn, H. (1900) Remarks on the hemipterous fauna of Ohio with a preliminary record of species. Annual Report of the Ohio State Academy of Science, 8, 60 - 79.","Adkins, W. S. (1917) Some Ohio Heteroptera records. Ohio Journal of Science, 18 (2), 58 - 61.","Balduf, W. V. (1923) The insects of the soybean in Ohio. Bulletin of the Ohio Agricultural Experiment Station, 366, 147 - 181.","Furth, D. G. (1974) The stink bugs of Ohio (Hemiptera: Pentatomidae). Bulletin of the Ohio Biological Survey, 5 (1), 1 - 62.","Ortenburger, A. I. (1927) Some Oklahoma Hemiptera. Proceedings of the Oklahoma Academy of Science, 6, 184 - 192.","Carpenter, J. R. (1937) Fluctuations in biotic communities, III. Aspection in a ravine sere in central Oklahoma. Ecology, 18 (1), 80 - 92. https: // doi. org / 10.2307 / 1932704","Smith, C. C. (1940 a) Biotic and physiographic succession on abandoned eroded farmland. Ecological Monographs, 10 (3), 421 - 484. https: // doi. org / 10.2307 / 1948513","Fenton, F. A. & Howell, D. E. (1957) A comparison of five methods of sampling alfalfa fields for arthropod populations. Annals of the Entomological Society of America, 50 (6), 606 - 611. https: // doi. org / 10.1093 / aesa / 50.6.606","Stoner, A., Bryan, D. E. & Drew, W. A. (1962) A partial inventory of insect populations in tallgrass prarie pastures in north central Oklahoma. Proceedings of the Oklahoma Academy of Science, 42, 143 - 157.","Arnold, D. C. & Drew, W. A. (1988) The Pentatomoidea (Hemiptera) of Oklahoma. Agricultural Experiment Station, Oklahoma State University, Technical Bulletin T - 166. Norman, Oklahoma, 42 pp.","Kondratieff, B. C., Schmidt, J. P., Opler, P. A. & Garhart, M. C. (2005) Survey of selected arthropod taxa of Fort Sill, Comanche County, Oklahoma. III. Arachnida: Ixodidae, Scorpiones, Hexapoda: Ephemeroptera, Hemiptera, Homoptera, Coleoptera, Neuroptera, Trichoptera, Lepidoptera, and Diptera. Contributions of the C. P. Gillette Museum of Arthropod Diversity, 2005, 72 - 265.","Jones, W. A. Jr. & Sullivan, M. J. (1981) Overwintering habitats, spring emergence patterns, and winter mortality of some South Carolina Hemiptera. Environmental Entomology, 10 (3), 409 - 414. https: // doi. org / 10.1093 / ee / 10.3.409","Stal, C. (1872) Enumeratio Hemipterorum. Bidrag till en forteckning ofver alla hittels kanda Hemiptera, Jemte Systematiska meddelanden. 2. Kongliga Svenska Vetenskaps-Akademiens Handlingar, 10 (4), 1 - 159.","Howden, H. F. & Crossley, D. A. Jr. (1961) Insect Species on Vegetation of the White Oak Lake Bed, Oak Ridge, Tennessee. No. ORNL- 3094. Oak Ridge National Laboratory, Oak Ridge, Tennessee, 38 pp. https: // doi. org / 10.2172 / 4041200","Lambdin, P. L., Grant, J. F., Wiggins, G. J. & Saxton, A. (2003) Diversity of the true bugs (Hemiptera: Heteroptera) on Arnold Air Force Base, Tullahoma, Tennessee. Journal of the Tennessee Academy of Science 78 (3), 76 - 84.","Hoffman, R. L. (1971) The Insects of Virginia: No. 4. Shield Bugs (Hemiptera; Scutelleroidea, Corimelaenidae, Cydnidae, Pentatomidae). Virginia Polytechnic Institute and State University, Research Division Bulletin, 67, i - v + 1 - 61, 7 maps, 1 pl.","Allen, W. A. & Hoffman, R. L. (1975) Distribution records of several Virginia shield bugs (Hemiptera: Scutelleridae, Corimelaenidae, Cydnidae, Pentatomidae). USDA Cooperative Economic Insect Report, 25 (12), 233 - 236.","Allen, W. A. & Hoffman, R. L. (1976) New geographical and seasonal distribution records for thiry-one species of Virginia shield bugs (Hemiptera: Scutelleridae, Cydnidae, and Pentatomidae. USDA Cooperative Plant Pest Report, 1 (41), 747 - 751.","Basnet, S., Maxey, L. M., Laub, C. A., Kuhar, T. P. & Pfeiffer, D. G. (2014) Stink bugs (Hemiptera: Pentatomidae) in primocanebearing raspberries in southwestern Virginia. Journal of Entomological Science, 49 (3), 304 - 312. https: // doi. org / 10.18474 / 0749 - 8004 - 49.3.304","Froeschner, R. C. (1988) Family Pentatomidae Leach, 1815. The stink bugs. In: Henry, T. J. & Froeschner, R. C. (Eds.), Catalog of the Heteroptera, or True Bugs, of Canada and the Continental United States. E. J. Brill, Leiden, New York, pp. 544 - 607. https: // doi. org / 10.1201 / 9781351070447 - 30"]}
- Full text View on content provider's site
47. Macrostylopyga Anisyutkin, Anichkin & Nguyen [2013]
-
Anisyutkin, Leonid N., Anichkin, Alexandr E., and Thinh, Nguyen Van
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Blattodea, Blattidae, and Macrostylopyga
- Abstract
-
Genus Macrostylopyga Anisyutkin, Anichkin & Nguyen, gen. nov. The gender is feminine. Type species: Macrostylopyga grandis gen. et sp. nov., here designated. Description. Large and uniformly dark-colored cockroaches. Sexual dimorphism poorly marked, both sexes completely lacking tegmina and wings (Figs. 3, 13). Hind metatarsus a little longer than other segments combined (Figs. 18, 22); all metatarsi with 2 unequal rows of spines along lower margin: exterior row (Fig. 22, e.r.) with larger number of spines, as compared to interior row (Fig. 22, i.r.); euplantulae small or absent (Figs. 18, 22); claws symmetrical and simple; arolium vestigial (Fig. 19, ar.). Anal plate with medial part caudally elongated, not triangular (Figs. 5, 14). Paraprocts nearly symmetrical, without pv sclerites (sensu Klass 1997) (Figs. 6, 8, 10, 15). Male genitalia: left phallomere (Figs. 27���38) with large sclerite L 4 C, process sla large, medially directed, outer side of phallomere with undivided sclerite L 4 F (possibly L 4 E + L 4 F), sclerite L 2 large, occupied lower and part of inner sides of phallomere, sclerite L 1 large, plate-like (Figs. 35, 36, 41, 42, 46), located in parallel with phallomere (not incorporated with phallomere wall���Figs. 35, 36, 39); right phallomere with caudal part of sclerite R 1 H in shape of long, more or less cylindrical in section (not plate-like), processes (Figs. 50���56), R 1 H fused with complicate, partly membranous sclerite R 1 G (Figs 50, 51, 53���55). The completely apterous females are known only for the type species, M. grandis sp. nov. (see below for its description). The last instar nymph of M. laosana (Anisyutkin, 2010) was described (Anisyutkin 2010), and it has no visible traces or rudiments of tegmina and wings. The complete absence of tegmina and wings in females of M. bidupi sp. nov. and M. laosana can be deduced from the rule common for all cockroaches: the shortening of tegmina and wings due to sexual dimorphism is always more expressed in females. The opposite cases, where males have shorter tegmina and wings than females, are yet unknown. Therefore, if the only known males of M. bidupi sp. nov. and M. laosana are completely apterous, then it is safe to conclude that the females of these species are apterous as well. Differential diagnosis. The genus Macrostylopyga gen. nov. belongs to the subfamily Blattinae Latreille according to the structures of male genitalia and tarsi (McKittrick 1964; Mackerras 1965; Klass 1997). It is characterized by the peculiar apterous habitus. Completely apterous cockroaches with similar habitus can also be found in the subfamilies Polyzosteriinae Handlirsch and Tryonicinae Mackerras of the family Blattidae and in the family Lamproblattidae McKittrick. The representatives of South American Lamproblattidae are characterized by a very peculiar structure of the male genitalia (McKittrick 1964; Klass 1997), which strongly differs from those of Macrostylopyga gen. nov. The subfamily Polyzosteriinae is characterized by the peculiar structure of tarsi: ������tarsi relatively rather short and stout, either all segments lacking spines, or first and second segment of hind and sometimes of mid tarsus spined, pulvilli [= euplantulae] and arolia large, claws symmetrical or more frequently asymmetrical.��� (Mackerras 1965, p. 844). Macrostylopyga gen. nov. differs from the representatives of Tryonicinae in the structure of male genitalia, viz. in the shape of sclerites L 4 C and R 1 H (Grandcolas 1997). Roth (2003 a) listed 25 genera in the subfamily Blattinae: Apterisca Princis, Austrostylopyga Mackerras, Blatta Linnaeus, Brinckella Princis, Cartoblatta Shelford, Catara Walker, Celatoblatta Johns, Deropeltis Burmeister, Dorylaea Stal, Duchailluia Rehn, Eroblatta Shelford, Eumethana Princis, Hebardina Bey-Bienko, Henicotyle Rehn & Hebard, Homalosilpha Stal, Maoriblatta Princis, Mimosilpha Bey-Bienko, Miostylopyga Princis, Neostylopyga Shelford, Pelmatosilpha Dohrn, Periplaneta Burmeister, Pseudoderopeltis Krauss, Scabinopsis Bey- Bienko, Shelfordella Adelung and Thyrsocera Burmeister. Catara is characterized by strong reduction of the tibial spines (Shelford 1910) and evidently belongs to the subfamily Archiblattinae Kirby. Duchailluia was erected in the monotypic subfamily Duchailluiinae Roth (Roth 2003 b). It can readily be distinguished from Macrostylopyga gen. nov. in having remarkably modified styli (Rehn 1933, Roth 2003 b). Austrostylopyga, Blatta, Cartoblatta, Celatoblatta, Deropeltis, Dorylaea, Eroblatta, Eumethana, Hebardina, Homalosilpha, Mimosilpha, Pelmatosilpha, Periplaneta, Pseudoderopeltis, Scabinopsis, Shelfordella and Thyrsocera clearly differ from Macrostylopyga gen. nov. in having more or less developed tegmina and wings, at least in the males. Apterisca and Brinckella differ from Macrostylopyga gen. nov. in having modified abdominal tergites VI and VII (Princis 1963). Macrostylopyga gen. nov. can be separated from the South-American genus Henicotyle by the complete absence of tegmina (in the females of Henicotyle tegmina present in the shape of lateral flaps, males as yet undescribed) and the reduction of one row of spines along the lower margin of hind metatarsus; in Henicotyle, ������ventral surface of tarsal joints regularly biseriate spinulose��� (Rehn & Hebard 1927, p. 187). Maoriblatta differs from the new genus in the presence of tegmina, reduced to lateral flaps, and the large euplantula on the hind metatarsus; in Maoriblatta the metatarsus of the hind leg has a large pulvillus more than half the length of the segment "Kaudaler Basitarsus mit grossem Pulvillus versehen, der mehr als die H��lfte der Unterseite des Glieder bedeckt" (Princis 1966, p. 57). Celatoblatta can readily be distinguished from Macrostylopyga gen. nov. by the outline of apical part of the left phallomere (Johns 1966). The new genus is most similar to the genera Neostylopyga and Miostylopyga. The structure of the male genitalia of N. rhombifolia (Stoll), the type species of Neostylopyga, is similar to that of Periplaneta americana (Linnaeus), the type species of the Periplaneta Burmeister, 1838 (Anisyutkin 2010) and clearly differs from that of representatives of the genus Macrostylopyga gen. nov. These differences are the shape of sclerites L 4 C, L 4 F, L 1, L 2, R 1 H, presence or absence of process sla (compare figs. 5���8 in Anisyutkin (2010) and Figs. 27 ���40, 50��� 56 of the current paper). From the monotypic Miostylopyga the new genus differs in larger size and structure of hind tarsus which has euplantulae on the metatarsus and second segment. In Miostylopyga proposita (Shelford) these euplantulae are completely absent (Princis 1966). Included species. The type species, M. bidupi sp. nov. and M. laosana (Anisyutkin, 2010).
Published as part of Anisyutkin, Leonid N., Anichkin, Alexandr E. & Thinh, Nguyen Van, 2013, Macrostylopyga gen. nov., a new genus of cockroaches (Dictyoptera: Blattidae), with descriptions of two new species, pp. 520-532 in Zootaxa 3635 (5) on pages 521-522, DOI: 10.11646/zootaxa.3635.5, http://zenodo.org/record/217427
-
Newsome PN, Buchholtz K, Cusi K, Linder M, Okanoue T, Ratziu V, Sanyal AJ, Sejling AS, and Harrison SA
The New England journal of medicine [N Engl J Med] 2021 Mar 25; Vol. 384 (12), pp. 1113-1124. Date of Electronic Publication: 2020 Nov 13.
- Subjects
-
Adolescent, Adult, Aged, Amylases blood, Biopsy, Diabetes Mellitus, Type 2 complications, Diabetes Mellitus, Type 2 drug therapy, Dose-Response Relationship, Drug, Double-Blind Method, Female, Glucagon-Like Peptides adverse effects, Humans, Injections, Subcutaneous, Lipase blood, Liver pathology, Liver Cirrhosis drug therapy, Liver Cirrhosis etiology, Liver Cirrhosis pathology, Male, Middle Aged, Non-alcoholic Fatty Liver Disease blood, Non-alcoholic Fatty Liver Disease complications, Non-alcoholic Fatty Liver Disease pathology, Young Adult, Glucagon-Like Peptides administration dosage, and Non-alcoholic Fatty Liver Disease drug therapy
- Abstract
-
Background: Nonalcoholic steatohepatitis (NASH) is a common disease that is associated with increased morbidity and mortality, but treatment options are limited. The efficacy and safety of the glucagon-like peptide-1 receptor agonist semaglutide in patients with NASH is not known.
Methods: We conducted a 72-week, double-blind phase 2 trial involving patients with biopsy-confirmed NASH and liver fibrosis of stage F1, F2, or F3. Patients were randomly assigned, in a 3:3:3:1:1:1 ratio, to receive once-daily subcutaneous semaglutide at a dose of 0.1, 0.2, or 0.4 mg or corresponding placebo. The primary end point was resolution of NASH with no worsening of fibrosis. The confirmatory secondary end point was an improvement of at least one fibrosis stage with no worsening of NASH. The analyses of these end points were performed only in patients with stage F2 or F3 fibrosis; other analyses were performed in all the patients.
Results: In total, 320 patients (of whom 230 had stage F2 or F3 fibrosis) were randomly assigned to receive semaglutide at a dose of 0.1 mg (80 patients), 0.2 mg (78 patients), or 0.4 mg (82 patients) or to receive placebo (80 patients). The percentage of patients in whom NASH resolution was achieved with no worsening of fibrosis was 40% in the 0.1-mg group, 36% in the 0.2-mg group, 59% in the 0.4-mg group, and 17% in the placebo group (P<0.001 for semaglutide 0.4 mg vs. placebo). An improvement in fibrosis stage occurred in 43% of the patients in the 0.4-mg group and in 33% of the patients in the placebo group (P = 0.48). The mean percent weight loss was 13% in the 0.4-mg group and 1% in the placebo group. The incidence of nausea, constipation, and vomiting was higher in the 0.4-mg group than in the placebo group (nausea, 42% vs. 11%; constipation, 22% vs. 12%; and vomiting, 15% vs. 2%). Malignant neoplasms were reported in 3 patients who received semaglutide (1%) and in no patients who received placebo. Overall, neoplasms (benign, malignant, or unspecified) were reported in 15% of the patients in the semaglutide groups and in 8% in the placebo group; no pattern of occurrence in specific organs was observed.
Conclusions: This phase 2 trial involving patients with NASH showed that treatment with semaglutide resulted in a significantly higher percentage of patients with NASH resolution than placebo. However, the trial did not show a significant between-group difference in the percentage of patients with an improvement in fibrosis stage. (Funded by Novo Nordisk; ClinicalTrials.gov number, NCT02970942.).
(Copyright © 2020 Massachusetts Medical Society.)
- Full text View on content provider's site
-
Pirzadian J, Persoon MC, Severin JA, Klaassen CHW, de Greeff SC, Mennen MG, Schoffelen AF, Wielders CCH, Witteveen S, van Santen-Verheuvel M, Schouls LM, and Vos MC
Scientific reports [Sci Rep] 2021 Oct 25; Vol. 11 (1), pp. 21015. Date of Electronic Publication: 2021 Oct 25.
- Subjects
-
Anti-Bacterial Agents pharmacology, Geography, Medical, History, 21st Century, Humans, Microbial Sensitivity Tests, Multilocus Sequence Typing, Netherlands epidemiology, Phylogeny, Pilot Projects, Pseudomonas Infections history, Pseudomonas aeruginosa classification, Pseudomonas aeruginosa drug effects, Pseudomonas aeruginosa isolation purification, Public Health Surveillance, beta-Lactam Resistance, beta-Lactamases biosynthesis, Disease Outbreaks, Pseudomonas Infections epidemiology, Pseudomonas Infections microbiology, Pseudomonas aeruginosa genetics, and beta-Lactamases genetics
- Abstract
-
Verona Integron-encoded Metallo-beta-lactamase (VIM) is the most frequently-encountered carbapenemase in the healthcare-related pathogen Pseudomonas aeruginosa. In the Netherlands, a low-endemic country for antibiotic-resistant bacteria, no national surveillance data on the prevalence of carbapenemase-producing P. aeruginosa (CPPA) was available. Therefore, in 2016, a national surveillance pilot study was initiated to investigate the occurrence, molecular epidemiology, genetic characterization, and resistomes of CPPA among P. aeruginosa isolates submitted by medical microbiology laboratories (MMLs) throughout the country. From 1221 isolates included in the study, 124 (10%) produced carbapenemase (CIM-positive); of these, the majority (95, 77%) were positive for the bla VIM gene using PCR. Sequencing was performed on 112 CIM-positive and 56 CIM-negative isolates (n = 168), and genetic clustering revealed that 75/168 (45%) isolates were highly similar. This genetic cluster, designated Group 1, comprised isolates that belonged to high-risk sequence type ST111/serotype O12, had similar resistomes, and all but two carried the bla VIM-2 allele on an identical class 1 integron. Additionally, Group 1 isolates originated from around the country (i.e. seven provinces) and from multiple MMLs. In conclusion, the Netherlands had experienced a nationwide, inter-institutional, clonal outbreak of VIM-2-producing P. aeruginosa for at least three years, which this pilot study was crucial in identifying. A structured, national surveillance program is strongly advised to monitor the spread of Group 1 CPPA, to identify emerging clones/carbapenemase genes, and to detect transmission in and especially between hospitals in order to control current and future outbreaks.
(© 2021. The Author(s).)
- Full text View on content provider's site
50. Melucha lineatella [2022]
-
S., Wanessa da, Costa, and Campos, Luiz A.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Coreidae, Melucha, and Melucha lineatella
- Abstract
-
Melucha lineatella (Fabricius, 1803) NON- TYPE MATERIAL. — Brazil • ♂; Amapá; Porto Grande; E. L. Oliveira; 9.V.1982; INPA) • 2♀; Amazonas; Barcelos, Rio Aracá, Boca do Curuduri; 00°05’50”N, 63°17’22”W; Sopé da Serra do Aracá;0°52’24”N, 63°27’19”W; C.F. Schwertner col., C. Durigan, Varredura; coleta manual; VII.2007; 16.VI.2010; INPA • 2♀; Novo Airão AM 352 Ramal Km 10 02°42’56.5”S, 60°56’26.7”W; Armadilha luminosa móvel 18:00-21:00h and 21:00-24:00h; J.A. Rafael, D. Takiya & J.T. Câmara; 28-29.VIII.2011; INPA • ♀, 3♂; Obidos, Bx. Amazonas, Traira, Dirings; VIII/XII.59(1959?); MZSP 1695, 1797, 1699, 1700 • 4♀, ♂; Manaus, Estr. Am 1km 15; Res. Ducke; 02°55’S 59°59’W); Reserva Florestal Adolpho Ducke AM 010; 02°55’51”S, 59°58’59”W); Trilha do Barro Branco, Trilha da Ciência, J. T. Câmara, B.R.S. Machado, Serrão, Rose, A. Faustino, P. Torres, coleta manual, Rede entomológica; 29.VI.1970; 18.IV.1998, 10.IV.2002, 01-20.V.2010; INPA 3004 • ♀; Beruri, Rio Purus; 03°56’62”S, 61°21’02”W; Coleta Manual, Xavier & Aquino leg.; XII.2003; INPA • ♀; Novo Aripuanã, Lago Xadá; 05°15’39”S, 60°42’32”W); Coleta manual, F. Xavier, F. Godoi & A. Lourido Leg.; INPA • ♀; S. Gabriel da Cachoeira, Penny e Elias, 5-12.VII.1980; INPA • 3♀; Pará; Tucurui, Rio Tocantins, Chiqueirão, Canoal; M.F. Torres; 28.III.1984, 02/ 07.IV.1984; MPEG 05016513, 05016517, 05016502 • ♀; Mun. De Itaituba, Rio Tapajoz, Camargo, Dirings; V?/VI?.62(1962); MZSP • ♀, ♂; Belém Mocambo, P. Waldir, Exp. Perm. Amaz.; III.1964, 01.IV.1977; MPEG 05016672, MZSP 1730 • 2♀; Mun. Benevides; 408 km 06; Faz. Morelandia, M.F. Torres, W. França; 22.X.1991, 21.VI.1980; MPEG 05015926, 05016774 • ♀; Parauapebas, Carajás, Flona Carajás; INPA • ♀; Rondônia; Ouro Preto do Oeste, Margem direita Rio Paraiso; M.F. Torres; 17.III.1985; MPEG 05017563 • 3♀; Ouro Preto d’Oeste, Projeto Polonoroeste; C. Elias leg.; 29.X and 18.XI.1987; DZUP 361568, 361573, 363492.
Published as part of S., Wanessa da, Costa & Campos, Luiz A., 2022, Phylogeny of Pachylis Lepeletier & Serville, 1825 (Hemiptera, Coreidae, Coreinae) with Thasus Stål, 1865 as a new synonym, and the redescription of Pachylis laticornis (Fabricius, 1798), pp. 503-547 in Zoosystema 44 (21) on page 545, DOI: 10.5252/zoosystema2022v44a21, http://zenodo.org/record/7341932
-
Mascarenhas J, Virtgaym E, Stal M, Blacklock H, Gerds AT, Mesa R, Ganly P, Snyder D, Tabbara I, Tremblay D, and Moshier E
Annals of hematology [Ann Hematol] 2018 Aug; Vol. 97 (8), pp. 1369-1374. Date of Electronic Publication: 2018 Apr 03.
- Subjects
-
Aged, Biomarkers, Bridged-Ring Compounds administration dosage, Bridged-Ring Compounds adverse effects, Female, Humans, Kaplan-Meier Estimate, Male, Middle Aged, Molecular Targeted Therapy, Mutation, Primary Myelofibrosis diagnosis, Primary Myelofibrosis genetics, Primary Myelofibrosis mortality, Protein Kinase Inhibitors administration dosage, Protein Kinase Inhibitors adverse effects, Pyrimidines administration dosage, Pyrimidines adverse effects, Treatment Outcome, Bridged-Ring Compounds therapeutic use, Primary Myelofibrosis drug therapy, Protein Kinase Inhibitors therapeutic use, and Pyrimidines therapeutic use
- Abstract
-
Myelofibrosis (MF) is a chronic yet progressive myeloid neoplasm in which only a minority of patients undergo curative therapy, hematopoietic stem cell transplantation. Ruxolitinib, a JAK1/2 inhibitor, is the lone therapy approved for MF, offering a clear symptom and spleen benefit at the expense of treatment-related cytopenias. Pacritinib (PAC), a multi-kinase inhibitor with specificity for JAK2, FLT3, and IRAK1 but sparing JAK1, has demonstrated clinical activity in MF with minimal myelosuppression. Due to an FDA-mandated full clinical hold, the randomized phase 3 PERSIST trials were abruptly stopped and PAC was immediately discontinued for all patients. Thirty-three patients benefitting from PAC on clinical trial prior to the hold were allowed to resume therapy on an individual, compassionate-use basis. This study reports the detailed outcomes of 19 of these PAC retreatment patients with a median follow-up of 8 months. Despite a median platelet count of 49 × 10 9 /L at restart of PAC, no significant change in hematologic profile was observed. Grade 3/4 adverse events of epistaxis (n = 1), asymptomatic QT prolongation (n = 1), and bradycardia (n = 1) occurred in three patients within the first 3 months of retreatment. One death due to catheter-associated sepsis occurred. The median time to discontinuation of PAC therapy on compassionate use for all 33 patients was 12.2 (95% CI 8.3-NR) months. PAC retreatment was associated with modest improvement in splenomegaly without progressive myelosuppression and supports the continued development of this agent for the treatment of MF second line to ruxolitinib or in the setting of treatment-limiting thrombocytopenia.
- Full text View on content provider's site
52. Phaneroptera laticerca Barataud 2021, n. sp [2021]
-
Barataud, Julien
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Orthoptera, Tettigoniidae, Phaneroptera, and Phaneroptera laticerca
- Abstract
-
Phaneroptera laticerca n. sp. (Figs 3-15) urn:lsid:zoobank.org:act: 943241B7-3E5C-4059-A702-0A53452608FA MAT��RIEL TYPE. ��� Holotype. France. ♂; Le Perthus (66), col de Panissars; 42��27���18���N, 2��51���27���E; alt. 326 m; 14.VIII.2019; J. Barataud leg.; MNHN-EO-ENSIF12090. Paratypes. France. 1 ♀; Le Perthus (66), col de Panissars; 42��27���18���N, 2��51���27���E; alt. 326 m; 14.VIII.2019; J. Barataud leg.; MNHN-EO-ENSIF 12093 ��� 1 ♂; Le Perthus (66), col de Panissars; 42��27���18���N, 2��51���27���E; alt. 326 m; 14.VIII.2019; J. Barataud leg.; coll. JB ��� 1 ♂, 1 ♀; Le Perthus (66), col de Panissars; 42��27���18���N, 2��51���27���E; alt. 326 m; 11.IX.2019; J. Barataud leg.; coll. JB ��� 1 ♂, Cerb��re (66), Casa cremada; 42��26���57���N, 3��8���54���E; alt. 225 m; 12.IX.2019; J. Barataud leg.; coll. JB ��� 1 ♂, 1 ♀; Latour-de-Carol (66), el Sol��; 42��27���56���N, 1��53���42���E; alt. 1295 m; 18.X.2020; J. Barataud leg.; coll. DLP ��� 1 ♂, 3 ♀; idem; J. Barataud leg.; coll. JB ��� 1 ♂, 1 ♀; Enveitg (66), Tauja; 42��27���57���N, 1��53���59���E; alt. 1350 m; 19.X.2020; leg. J. Barataud; MNHN-EO-ENSIF12091, 12092 ��� 1 ♂, 1 ♀; Oss��ja (66), Les Closes; 42��24���28���N, 1��59���50���E; alt. 1320 m; 21.X.2020; J. Barataud leg.; coll. DLP ��� 1 ♂, 2 ♀; idem; coll. JB ��� 2 ♀; Latour-de-Carol (66); El Fenars; 42��28���22���N, 1��52���53���E; alt. 1330 m; 23.X.2020; J. Barataud leg.; coll. JB ��� 1 ♂; Minerve (34), Les Lacs; 43��22���5���N, 2��42���57���E; alt. 422 m; 9.VIII.2021; J. Barataud leg.; coll. JB ��� 1 ♀; Conqueyrac (30), Pic d���Aguzan; 43.925 96, 3.898665; alt. 197 m; 10.VIII.2021; J. Barataud leg.; coll. JB. ENREGISTREMENTS AUDIO. ��� France. 1 ♂; Le Perthus (66), col de Panissars; 42��27���18���N, 2��51���27���E; alt. 326 m, 19.IX.2018; J. Barataud leg. ��� 2 ♂; Le Perthus (66), col de Panissars; 42��27���18���N, 2��51���27���E; alt. 326 m; 14.VIII.2019; J. Barataud leg. ��� 3 ♂; L���Alb��re (66), El roc de la vinya; 42��28���40���N, 2��52���35���E; alt. 439 m; 15.VIII.2019; J. Barataud leg. ��� 2♂; Le Perthus (66), col de Panissars; 42��27���18���N, 2��51���27���E; alt. 326 m; 11.IX.2019; J. Barataud leg. ��� 8 ♂; L���Alb��re (66), El roc de la vinya; 42��28���40���N, 2��52���35���E; alt. 439 m; 11.IX.2019; J. Barataud leg. ��� 3 ♂; Cerb��re (66), Casa cremada; 42��26���57���N, 3��8���54���E; alt. 225 m; 12.IX.2019; J. Barataud leg. ��� 4 ♂; L���Alb��re (66), El roc de la vinya; 42��28���40���N, 2��52���35���E; alt. 439 m; individus juv��niles r��colt��s le 8.VII.2020 et enregistr��s entre le 11.VIII.2020 et le 03.IX.2020; J. Barataud leg. ��� 5 ♂; Latour-de-Carol (66), el Sol��; 42��27���56���N, 1��53���42���E; alt. 1295 m; 18.X.2020; J. Barataud leg. ��� 1 ♂; Oss��ja (66), Les Closes; 42��24���28���N, 1��59���50���E; alt. 1320 m; 21.X.2020; J. Barataud leg. ��� 1 ♂; Latour-de-Carol (66), El Fenars; 42��28���22���N, 1��52���53���E; alt. 1330 m; 23.X.2020; J. Barataud leg. ��� 3 ♂; Minerve (34), Les Lacs; 43��22���5���N, 2��42���57���E; alt. 422 m; 9.VIII.2021; J. Barataud leg. ��� 1 ♂; Aigues-Vives (34), Les Saules; 43��19���36���N, 2��49���48���E; alt. 126 m; 9.VIII.2021; J. Barataud leg. ��� 2 ♂; Conqueyrac (30), Pic d���Aguzan; 43��55���33���N, 3��53���55���E; alt. 197 m; 10.VIII.2021; J. Barataud leg. ��� 1♂; Gruissan (11), Chapelle des Auzils; 43��8���19���N, 3��5���34���E; alt. 140 m; 08.X.2021; J. Barataud leg.. Espagne. 2 ♂; Abla, El Encinar (AL); 37��5���18���N, 2��45���1���O; alt. 1324 m; 28.X.2019; J. Barataud leg. LOCALIT�� TYPE. ��� France, Le Perthus (Pyr��n��es-orientales); col de Panissars. DISTRIBUTION. ��� France m��ridionale (des Pyr��n��es-orientales aux Bouches-du-Rh��ne), Espagne. ��TYMOLOGIE. ��� Le nom d���esp��ce fait r��f��rence �� la forme ��largie des cerques des m��les. PROPOSITION D��� UN NOM VERNACULAIRE. ��� Le Phan��ropt��re �� larges cerques. DIAGNOSE M��le La morphologie g��n��rale (Fig. 3A) est tr��s proche de celle des esp��ces voisines et en partie sympatriques Phaneroptera falcata, et surtout P. nana et P. cf. sparsa. La distinction avec P. falcata est assez simple gr��ce �� la plaque sous-g��nitale (Fig. 3C) de forme triangulaire, r��tr��cie �� l���extr��mit�� (��largie �� l���extr��mit�� en deux lobes divergents chez P. falcata), aux sternites abdominaux (Fig. 5C) de coloration claire et uniforme (chez P. falcata, pr��sence d���une bande m��diane vert vif contrastant avec les c��t��s blanc-verd��tre clair ��� Fig. 5D), et au paranotum l��g��rement plus haut que large (plus large que haut chez P. falcata). La distinction avec P. nana et P. cf. sparsa est moins ��vidente et n��cessite l���examen de plusieurs crit��res. Les cerques nettement ��largis avant la pointe apicale constituent une caract��ristique diagnostique importante (Fig. 3C). Ils diff��rent en effet de ceux de P. nana qui sont de diam��tre �� peu pr��s constant, brusquement r��tr��cis en pointe apicale (Fig. 3E) et de ceux de P. cf. sparsa qui sont plus effil��s et nettement r��tr��cis avant la pointe apicale (Fig. 3G). Les caract��ristiques biom��triques sont interm��diaires entre P. nana et P. cf. sparsa, en recouvrement partiel avec cette derni��re esp��ce (Fig. 6A et Annexe 2). Par rapport �� P. nana, les tegmina sont un peu moins larges (entre 5,3 et 5,9 fois plus longs que larges) et les f��murs post��rieurs un peu plus ��troits (entre 9,4 et 10,7 fois plus longs que larges). Les autres mesures r��alis��es ne mettent pas en ��vidence de crit��res discriminants. Pour ceux avanc��s par Ragge (1956) entre P. nana et P. sparsa concernant la forme des lobes lat��raux du pronotum et le rapport entre la longueur des tegmina et la longueur des f��murs post��rieurs, P. laticerca n. sp. pr��sente des valeurs interm��diaires, en recouvrement avec les deux autres esp��ces (Fig. 6B). Ces deux variables ne constituent donc pas des crit��res diagnostiques fiables, au moins dans les zones biog��ographiques o�� la pr��sence de P. laticerca n. sp. est possible. Les tegmina au repos ne d��passent pas les genoux post��rieurs, ce qui constitue un crit��re int��ressant par rapport �� P. cf. sparsa chez qui les genoux post��rieurs sont d��pass��s par les tegmina au repos. Il n���y a g��n��ralement que trois taches noires sur le dessus des tegmina (Fig. 3B) mais certains individus peuvent en avoir quatre, comme P. nana. La forme de la plaque sous-g��nitale, m��me si elle semble un peu plus large en moyenne que chez P. nana, ne semble pas constituer un crit��re pertinent entre les trois esp��ces. La r��pe stridulatoire semble ��galement tr��s similaire chez les diff��rentes esp��ces (Fig. 3D, F et H). Femelle Comme pour le m��le, la morphologie g��n��rale est tr��s proche de celle des esp��ces voisines P. falcata, P. nana et P. cf. sparsa (Fig. 5A). La distinction avec P. falcata est assez simple gr��ce aux caract��ristiques de l���oviscapte (Fig. 5B) qui pr��sente une courbure r��guli��re avec la base de la lamelle entre les valves inf��rieures et sup��rieures droite et non sinueuse, une dentelure assez forte sur le bord sup��rieur et une coloration verte �� la base du bord inf��rieur (anguleux �� la base, avec la base de la lamelle sinueuse, des dentelures fines sur le bord sup��rieur et une coloration brune sur le bord inf��rieur chez P. falcata). Les autres crit��res d��taill��s chez le m��le (coloration des sternites abdominaux et forme du paranotum) sont valables ��galement chez la femelle et constituent des crit��res faciles �� appr��cier sur le terrain. La distinction avec P. nana et P. cf. sparsa est moins ��vidente et n��cessite l���examen de plusieurs crit��res. Comme chez le m��le, les caract��ristiques biom��triques sont interm��diaires entre P. nana et P. cf. sparsa, permettant la s��paration d���avec P. nana, gr��ce �� la largeur moins importante des tegmina et des f��murs post��rieurs (Fig. 6A). Par rapport �� P. cf. sparsa, il existe d���autres caract��ristiques diagnostiques li��es au nombre de denticules sur le bord sup��rieur de l���oviscapte (31 �� 36 denticules contre 41 �� 44 chez P. cf. sparsa; Fig. 4) et aux tegmina ne d��passant pas les genoux post��rieurs. On peut ��galement noter de l��g��res diff��rences au niveau de l�����piprocte (Fig. 5E) de forme semi-circulaire, avec le bord post��rieur assez largement arrondi (de forme subtriangulaire avec le bord post��rieur plus ��troitement arrondi chez P. cf. sparsa; Fig. 5G), et des cerques (Fig. 5E) qui se r��tr��cissent r��guli��rement depuis leur base jusqu����� leur extr��mit��, en restant relativement ��pais jusqu����� l���apex (se r��tr��cissant plus brusquement et restant plus fins sur leur moiti�� distale chez P. cf. sparsa; Fig. 5G). Les caract��ristiques des cerques et de l�����piprocte sont par contre tr��s similaires �� P. nana (Fig. 5F). DESCRIPTION MORPHOLOGIQUE M��le Coloration g��n��rale. Vert-jaun��tre avec des fines taches brunrouille r��parties sur l���ensemble du corps (Fig. 3A). Dessus de l���abdomen color�� de brun-rouille (sur la partie des tergites cach��e sous les tegmina au repos). Sternites abdominaux et face interne des f��murs post��rieurs d��pourvus de ponctuation, uniform��ment de coloration blanc-verd��tre clair (Fig. 5C). Tegmina. Entre 5,3 et 5,9 fois plus longs que larges (Fig. 6A). Bordure inf��rieure rehauss��e de rouille orang��e. Pr��sence de trois (rarement quatre) petites taches noires de part et d���autres de l���appareil stridulatoire (Fig. 3B): sur le tegmen gauche, une tache �� l���extr��mit�� de la nervure cubitale 1, une tache �� l���extr��mit�� de la nervure cubitale 2 et parfois une tache �� la base de la nervure cubitale 2; sur le tegmen droit, une tache �� l���extr��mit�� de la nervure cubitale 1. Appareil stridulatoire. R��pe stridulatoire pr��sentant une double courbure avec une partie rectiligne plus longue vers la base, comportant des dents allong��es et nombreuses (plus de 50) (Fig. 4D). La partie externe, apr��s la double courbure, avec des dents beaucoup plus petites, moins nombreuses (entre 20 et 30) et beaucoup plus rapproch��es. Pr��sence sur le tegmen droit d���un miroir bien marqu��, de forme quadrangulaire, l��g��rement concave sur sa partie interne et se r��tr��cissant dans sa partie post��rieure �� partir de la zone m��diane. Ailes post��rieures. Plus longues que les tegmina, en grande partie hyalines et avec la partie apicale renforc��e, rugueuse et de coloration identique aux tegmina. Pronotum. Sans car��nes lat��rales marqu��es. Disque pourvu d���une rainure transverse oblique au tiers basal et d���une rainure m��diane indistincte dans la m��tazone. Marge basale du disque arrondie. Lobes lat��raux entre 1,1 et 1,3 fois plus hauts que longs (Fig. 6B). Pattes. Pattes post��rieures avec des f��murs entre 9,4 et 10,7 fois plus longs que larges (Fig. 6A), ne d��passant pas l���apex des tegmina. Pr��sence d�����pines sur la face interne des tibias post��rieurs (au moins 35), m��dians (7-10) et ant��rieurs (3-5). Pattes ant��rieures munies d���une ��pine coxale bien d��velopp��e. Orifice tympanal. De forme ovale, environ deux fois plus long que large. Epiprocte. De forme assez r��guli��re, quadrangulaire, un peu plus long que large. Pr��sence d���un l��ger sillon m��dian vers l���extr��mit�� et de deux fossettes longitudinales peu marqu��es dans la partie basale. Plaque sous-g��nitale. De forme triangulaire, r��tr��cie et nettement ��chancr��e �� l���extr��mit�� (Fig. 3C). ��chancrure de forme triangulaire. Cerques. De diam��tre irr��gulier, amincis dans leur partie m��diane, avant un ��largissement distinct dans leur partie apicale (Fig. 3C); pointe apicale formant une griffe ��paisse recourb��e vers l���int��rieur. Femelle Comme le m��le �� l���exception des ��l��ments suivants. Tegmina. D��pourvus de taches noires, enti��rement vert-jaun��tre finement ponctu��s de brun-rouille. Absence d���appareil stridulatoire diff��renci��. ��piprocte. De forme semi-circulaire, avec le bord post��rieur assez largement arrondi (Fig. 5E). Plaque sous-g��nitale. De forme triangulaire, avec un r��tr��cissement marqu�� au niveau du quart apical (Fig. 5C). Cerques. Se r��tr��cissent r��guli��rement depuis leur base jusqu����� leur extr��mit��, en restant relativement ��pais jusqu����� l���apex (Fig. 5E). Oviscapte. Avec une courbure r��guli��re, et une coloration verte avec une marge brune sur le bord sup��rieur et le quart apical du bord inf��rieur. Dentelure assez forte sur le bord sup��rieur avec 31 �� 36 denticules (Fig. 4). Base de la lamelle entre les valves inf��rieures et sup��rieures droite et non sinueuse (Fig.5B). BIOACOUSTIQUE L���esp��ce semble avoir une activit�� strictement nocturne et les stridulations n���ont ��t�� entendues qu���une fois la nuit tomb��e. L���activit�� est maximale dans les trois premi��res heures de la nuit mais des chants ont ��t�� enregistr��s en captivit�� jusqu���en fin de nuit. Presque inaudible �� l���oreille nue, la stridulation est en grande partie dans le domaine ultrasonore, avec une FME g��n��ralement comprise entre 22 et 26 kHz (minimum 19,8 et maximum 27,7 kHz; n= 603). La distance de d��tection avec un d��tecteur d���ultrasons D 1000x est assez faible, environ 20 m pour les types de chants les plus sonores et seulement quelques m��tres pour les types de chants d���intensit�� plus faible (contre plus de 30 m pour le chant d���appel de P. nana dans des conditions similaires). Le chant d���appel du m��le, particuli��rement complexe, est compos�� de strophes h��t��rog��nes dans lesquelles alternent diff��rents types de phrases, syllabes et impacts isol��s. Il peut ��tre d��compos�� en trois types, ici num��rot��s de 1 �� 3 en fonction de leur r��le pr��sum�� dans le comportement acoustique de l���esp��ce (voir discussion sur le comportement acoustique dans le genre Phaneroptera): ��� Le chant de type 1 (Fig. 7) est compos�� de syllabes isol��es comportant g��n��ralement 10 �� 13 impacts (minimum 7; maximum 17; n= 254). La dur��e des syllabes est le plus souvent comprise entre 60 et 90 ms (minimum 44; maximum 169 ms; n=254) et les intervalles entre syllabes sont g��n��ralement de 700 �� 1300 ms (minimum 261 ms; maximum �� plus de 10 s; n = 254). L���intensit�� des impacts au sein de chaque syllabe augmente de mani��re progressive puis diminue plus brutalement. ��� Le chant de type 2 (Fig. 8) est compos�� de phrases complexes comprenant une syllabe principale avec g��n��ralement 6 �� 8 impacts (minimum 4; maximum 15; n= 127). Cette syllabe est plus courte que les syllabes de type 1, avec une dur��e moyenne de 20 �� 30 ms (minimum 15; maximum 85; n =127). Elle est suivie par 2 �� 6 syllabes secondaires (le plus souvent 4), d���intensit�� nettement plus faible et comptant g��n��ralement 4 �� 7 impacts (minimum 3; maximum 9; n= 127). ��� Le chant de type 3 (Fig. 9), d���intensit�� nettement plus faible que les pr��c��dents, est compos�� de s��ries d���impacts isol��s, ��mis avec un rythme rapide et assez r��gulier, et se terminant par une acc��l��ration finale l��g��rement plus forte en intensit��. Les intervalles entre impacts sont en moyenne de 100 ms (minimum 31; maximum 379 ms; n =205). Sur quelques s��quences, les impacts ��taient le plus souvent group��s par deux (Fig. 10). L���analyse des nombreux enregistrements r��alis��s sur plus de 40 individus diff��rents (voir d��tail en Annexe 1) permet de d��gager une s��quence type (Fig. 12A) qui revient le plus souvent (mais non de mani��re syst��matique). Cette s��quence type commence g��n��ralement par le chant de type 1 qui est celui que l���on entend le plus souvent sur le terrain, souvent ��mis de mani��re r��guli��re sur des dur��es a
Published as part of Barataud, Julien, 2021, Caract��risation acoustique des diff��rentes esp��ces du genre Phaneroptera Audinet-Serville, 1831 en Europe occidentale, et description d'une nouvelle esp��ce cryptique en France et en Espagne (Orthoptera, Tettigoniidae, Phaneropterinae), pp. 691-727 in Zoosystema 43 (29) on pages 695-706, DOI: 10.5252/zoosystema2021v43a29, http://zenodo.org/record/5705046
{"references":["RAGGE D. R. 1956. - A revision of the genera Phaneroptera Serville and Nephoptera Uvarov (Orthoptera: Tettigoniidae), with conclusions of zoogeographical and evolutionary interest. Proceedings of the Zoological Society of London: 127 (2): 205 - 283. https: // doi. org / 10.1111 / j. 1096 - 3642.1956. tb 00471. x","FIEBER F. X. 1853. - Synopsis der europaischen Orthoptera. Lotos 3: 168 - 176.","STAL C. 1857 [1856]. - Orthoptera cursoria och Locustina fran Cafferlandet. Ofversigt af Kongliga Vetenskaps-Akademiens Forhan- dlinger 13: 165 - 170.","TAUBER E. & PENER M. 2000. - Song recognition in female bushcrickets Phaneroptera nana. The Journal of experimental biology 203: 597 - 603.","HELLER K. - G., HEMP C., INGRISCH S. & LIU C. 2015. - Acoustic communication in Phaneropterinae (Tettigonioidea) - a global review with some new data. Journal of Orthoptera Research 24 (1): 7 - 18. https: // doi. org / 10.1665 / 034.024.0103","HELLER K. G., HELLER M., VOLLETH M., SAMIETZ J. & HEMP C. 2021. - Similar songs, but different mate localization strategies of the three species of Phaneroptera occurring in Western Europe (Orthoptera: Phaneropteridae). European Journal of Entomology. 118: 111 - 122. https: // doi. org / 10.14411 / eje. 2021.012"]}
-
Shao E, Liu S, Lin L, and Guan X
Journal of invertebrate pathology [J Invertebr Pathol] 2013 Nov; Vol. 114 (3), pp. 255-7. Date of Electronic Publication: 2013 Sep 08.
- Subjects
-
Animals, Bacillus thuringiensis Toxins, Binding Sites, Insect Control, Insect Proteins metabolism, Microvilli metabolism, Peptide Hydrolases metabolism, Proteolysis, Bacterial Proteins metabolism, Endotoxins metabolism, Hemiptera metabolism, and Hemolysin Proteins metabolism
- Abstract
-
To understand the low toxicity of Cry toxins in planthoppers, proteolytic activation of Cry1Ab in Nilaparvata lugens was studied. The proteolytic processing of Cry1Ab protoxin by N. lugens midgut proteases was similar to that by trypsin activated Cry1Ab. The Cry1Ab processed with N. lugens midgut proteases was highly insecticidal against Plutella xylostella. However, Cry1Ab activated either by trypsin or the gut proteases of the brown planthopper showed low toxicity in N. lugens. Binding analysis showed that activated Cry1Ab bound to brush border membrane vesicles (BBMV) from N. lugens at a significantly lower level than to BBMV from P. xylostella.
(Copyright © 2013 Elsevier Inc. All rights reserved.)
54. Chlorochroa uhleri [2021]
-
Rider, David A. and Swanson, Daniel R.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Pentatomidae, and Chlorochroa
- Abstract
-
Chlorochroa uhleri (Stål, 1872) Distribution: Canada: AB, BC, MB (Maw et al. 2000), SK (Scudder & Thomas 1987). United States: AZ, CA, CO, ID, KS, MT, ND, NE, NM, NV, OR, SD, TX (Chittenden 1898, Gaines 1933), UT, WA, WY (Buxton et al. 1983). (Mexico) Comments: Records of this species from central and eastern North America should be referred to Chlorochroa persimilis.
Published as part of Rider, David A. & Swanson, Daniel R., 2021, A distributional synopsis of the Pentatomidae (Heteroptera) north of Mexico, including new state and provincial records, pp. 1-69 in Zootaxa 5015 (1) on page 36, DOI: 10.11646/zootaxa.5015.1.1, http://zenodo.org/record/5159085
{"references":["Stal, C. (1872) Enumeratio Hemipterorum. Bidrag till en forteckning ofver alla hittels kanda Hemiptera, Jemte Systematiska meddelanden. 2. Kongliga Svenska Vetenskaps-Akademiens Handlingar, 10 (4), 1 - 159.","Maw, H. E. L., Foottit, R. G., Hamilton, K. G. A. & Scudder, G. G. E. (2000) Checklist of the Hemiptera of Canada and Alaska. National Research Council of Canada, NRC Research Press, Ottawa, 220 pp. Canada,","Scudder, G. G. E. & Thomas, D. B. Jr. (1987) The green stink bug genus Chlorochroa Stal (Hemiptera: Pentatomidae) in Canada. The Canadian Entomologist, 119 (1), 83 - 93. https: // doi. org / 10.4039 / Ent 11983 - 1","Chittenden, F. H. (1898) Reported damage by the green plant-bug, Lioderma uhleri Stal. United States Department of Agriculture, Division of Entomology, Bulletin, New Series, 10, 94.","Gaines, J. C. (1933) Trap collections of insects in cotton in 1932. Bulletin of the Brooklyn Entomological Society, 28 (2), 47 - 54.","Buxton, G. M., Thomas, D. B. & Froeschner, R. C. (1983) Revision of the species of the sayi - group of Chlorochroa Stal (Hemiptera: Pentatomidae). Occasional Papers in Entomology (Sacramento, Calif.), 29, 1 - 23."]}
55. Banasa dimidiata Say 1832 [2021]
-
Rider, David A. and Swanson, Daniel R.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Pentatomidae, and Banasa
- Abstract
-
Banasa dimidiata (Say, 1831a) New state records: Alabama: Baldwin Co.: Gulf Shores St. Pk., 17-V-1985, E. G. Riley & D. A. Rider (1♂ DAR). Cleburne Co.: Shoal Creek Ford, 6 mi. NNW Edwardsville, 23-VII-1965, J. & L. Donahue, det. J. E. McPherson (1♀ MSUC). Hale Co.: near Payne Lake, 11 mi. S Duncanville, 22-VII-1965, J. & L. Donahue, det. J. E. McPherson (1♂ MSUC). Lee Co.: [no specific locality], 22-VI-1981, D. A. Rider (1♂ DAR), 24-VI-1982, D. A. Rider (1♀ DAR). Tuscaloosa Co.: University, 1935, A. F. Archer (1♂ UMMZ). South Carolina: Pickens Co.: Clemson, 1-VII-1959 [additional dates: 13-VII-1958, 20-VII-1958, 29-VIII-1958], R. C. Fox, det. J E. McPherson (2♂♂ 2♀♀ MSUC). Wyoming: Albany Co.: Rock Creek Trail, 15-VI-2007, W. K. Reeves (1♀ DAR). Distribution: Canada: AB, BC, MB, NB (Brown 1941, Maw et al. 2000, Roch 2020), NS, ON, PE (Maw et al. 2000, Roch 2020), QC, SK (Walley 1929). United States: AL, AR, AZ (Thomas & Yonke 1981, Jones 1993), CA, CO, CT (Parshley 1917, 1923a; O’Donnell & Schaefer 2012), DC, DE (Schrader & Hughes-Schrader 1958), FL, GA, IA, ID (Harris & Shull 1944), IL, IN, KS (Packauskas 2012), LA, MA, MD, ME (Parshley 1914, 1917; Johnson 1927; Phipps 1930; Roch 2020), MI, MN (Koch et al. 2014), MO, MS (Lago & Testa 2000), MT (Van Duzee 1917), NC, ND, NE, NH (Slosson 1896, Parshly 1917, Roch 2020), NJ, NM, NY, OH, OK, OR, PA, RI (Parshley 1917), SC, SD (Parshley 1922, Harris 1937), TN (Lambdin et al. 2003, Vlach et al. 2010), TX, UT, VA, VT (Roch 2020), WV, WA, WI, WY. (Mexico) Comments: Say (1831a) originally used dimiata as the specific epithet for this species, which was emended to the present form by LeConte (1859). This was probably unjustified, hence the listing of this species as Banasa dimiata in Froeschner (1988), but Hoffman (2005) provided arguments for maintaining the use of Banasa dimidiata for reasons of stability. Thomas & Yonke (1981) characterized the range of this species as “Entire U.S., northern Mexico and southern Canada ”, but they did not give any specific state localities. This species was also recorded from Alabama, Maine, and Minnesota in an unpublished thesis (Simons 1969).
Published as part of Rider, David A. & Swanson, Daniel R., 2021, A distributional synopsis of the Pentatomidae (Heteroptera) north of Mexico, including new state and provincial records, pp. 1-69 in Zootaxa 5015 (1) on page 41, DOI: 10.11646/zootaxa.5015.1.1, http://zenodo.org/record/5159085
{"references":["Say, T. (1831 a) Descriptions of New Species of Heteropterous Hemiptera of North America. New Harmony, Indiana, 39 pp.","Brown, A. W. A. (1941) Foliage insects of spruce in Canada. Canadian Department of Agriculture, Publication 712. Technical Bulletin, 31, 1 - 30, 2 pls., keys.","Maw, H. E. L., Foottit, R. G., Hamilton, K. G. A. & Scudder, G. G. E. (2000) Checklist of the Hemiptera of Canada and Alaska. National Research Council of Canada, NRC Research Press, Ottawa, 220 pp. Canada,","Roch, J-F. (2020) Entomofaune du Quebec. Liste des Punaises du Quebec et des Regions Adjacentes (Hemiptera: Heteroptera). Document Faunique 27. Version 2.3. Entomofaune du Quebec Inc., Saguenay, 41 pp.","Walley, G. S. (1929) Hemiptera. In: Criddle, N., The entomological record, 1928. Annual Report of the Entomological Society of Ontario, 59, pp. 120 - 124.","Thomas, D. B. Jr. & Yonke, T. R. (1981) A review of the Nearctic species of the genus Banasa Stal (Hemiptera: Pentatomidae). Journal of the Kansas Entomological Society, 54 (2), 233 - 248.","Jones, W. A. Jr. (1993) New host and habitat associations for some Arizona Pentatomoidea and Coreidae. Southwestern Entomologist, Supplement, 16, 1 - 29.","Parshley, H. M. (1917) Fauna of New England. 14. List of the Hemiptera-Heteroptera. Occasional Papers of the Boston Society of Natural History, 7, 1 - 125.","Parshley, H. M. (1923 a) Family Pentatomidae, Cydnidae, Scutelleridae. In: Britton, W. E. (Ed.), Guide to the Insects of Connecticut. Part IV. The Hemiptera or Sucking Insects of Connecticut. Connecticut State Geological and Natural History Survey Bulletin, 34, pp. 753 - 783, pls. XVIII - XX","O'Donnell, J. E. & Schaefer, C. W. (2012) Annotated checklist of the Pentatomidae (Heteroptera) of Connecticut. The Great Lakes Entomologist, 45 (3 - 4), 220 - 234.","Schrader, F. & Hughes-Schrader, S. (1958) Chromatid autonomy in Banasa (Hemiptera: Pentatomidae). Chromosoma, 9 (3), 193 - 215. https: // doi. org / 10.1007 / BF 02568075","Harris, H. M. & Shull, W. E. (1944) A preliminary list of Hemiptera of Idaho. Iowa State College Journal of Science, 18 (2), 199 - 208.","Packauskas, R. J. (2012) The Pentatomidae, or stink bugs, of Kansas with a key to species (Hemiptera: Heteroptera). The Great Lakes Entomologist, 45 (3 - 4), 210 - 219.","Parshley, H. M. (1914) List of the Hemiptera-Heteroptera of Maine. Psyche, 21 (5), 139 - 149. https: // doi. org / 10.1155 / 1914 / 95384","Johnson, C. W. (1927) Biological Survey of the Mount Desert Region. Part I. The Insect Fauna with Reference to the Flora and Other Biological Features. The Wistar Institute of Anatomy and Biology, Philadelphia, Pennsylvania, 247 pp.","Phipps, C. R. (1930) Blueberry and huckleberry insects. Bulletin of the Maine Agricultural Experiment Station, 356, 107 - 232.","Koch, R. L., Rider, D. A., Tinerella, P. P. & Rich, W. A. (2014) Stink bugs (Hemiptera: Heteroptera: Pentatomidae) of Minnesota: An annotated checklist and new state records. The Great Lakes Entomologist, 47 (3 - 4), 171 - 185.","Lago, P. K. & Testa, S., III (2000) The terrestrial Hemiptera and auchenorrhynchous Homoptera of Point Clear Island and surrounding marshlands, Hancock County, Mississippi. Journal of the Mississippi Academy of Sciences, 45 (3), 186 - 195.","Van Duzee, E. P. (1917) Catalogue of the Hemiptera of America North of Mexico, Excepting the Aphididae, Coccidae and Aleurodidae. University of California Publications Entomology 2. University of California press, Berkeley, California, xiv + 902 pp. https: // doi. org / 10.5962 / bhl. title. 29381","Slosson, A. T. (1896) Additional list of insects taken in alpine region of Mt. Washington. Entomological News, 7 (9), 262 - 265.","Parshley, H. M. (1922) Report on a collection of Hemiptera-Heteroptera from South Dakota. South Dakota State College, Technical Bulletin, 2, 1 - 22.","Harris, H. M. (1937) Contributions to the South Dakota list of Hemiptera. Iowa State College Journal of Science, 11 (2), 169 - 176.","Lambdin, P. L., Grant, J. F., Wiggins, G. J. & Saxton, A. (2003) Diversity of the true bugs (Hemiptera: Heteroptera) on Arnold Air Force Base, Tullahoma, Tennessee. Journal of the Tennessee Academy of Science 78 (3), 76 - 84.","Vlach, J., Lambdin, P., Dilling, C., Grant, J., Paulsen, D. & Wiggens, G. (2010) Diversity of the insect fauna within the unique sinking pond habitat in middle Tennessee. Journal of the Tennessee Academy of Science, 85 (3 - 4), 62 - 86.","LeConte, J. L., Jr. (1859) The Complete Writings of Thomas Say on the Entomology of North America. Vol. I. Bailliere Brothers, New York, xxi + 412 pp.","Froeschner, R. C. (1988) Family Pentatomidae Leach, 1815. The stink bugs. In: Henry, T. J. & Froeschner, R. C. (Eds.), Catalog of the Heteroptera, or True Bugs, of Canada and the Continental United States. E. J. Brill, Leiden, New York, pp. 544 - 607. https: // doi. org / 10.1201 / 9781351070447 - 30","Hoffman, R. L. (2005) The Virginia species of Banasa, three decades later (Heteroptera: Pentatomidae). Banisteria, 25, 41 - 44.","Simons, E. E. (1969) The stink bugs (Pentatomidae) of Alabama. MS Thesis, Auburn University, Auburn, Alabama, 124 pp."]}
-
Waltersson MA, Askmalm MS, Nordenskjöld B, Fornander T, Skoog L, and Stål O
International journal of oncology [Int J Oncol] 2009 Feb; Vol. 34 (2), pp. 441-8.
- Subjects
-
Breast Neoplasms pathology, Breast Neoplasms radiotherapy, Chemotherapy, Adjuvant, Combined Modality Therapy, Female, Follow-Up Studies, Gene Frequency, Humans, Immunohistochemistry, Neoplasm Recurrence, Local epidemiology, Prognosis, Randomized Controlled Trials as Topic, Retinoblastoma Protein genetics, Time Factors, Antineoplastic Combined Chemotherapy Protocols therapeutic use, Breast Neoplasms drug therapy, Breast Neoplasms genetics, Cyclin E genetics, and Gene Expression Regulation, Neoplastic
- Abstract
-
Cyclin E and the retinoblastoma protein (Rb) are both important regulators of the G1 phase in the cell cycle. Overexpression of cyclin E and lost expression of Rb has previously been observed in breast tumours at frequencies of 10-50% and 20-30%, respectively. We explored the prognostic role of cyclin E and Rb in breast cancer patients randomised for tamoxifen (TAM), CMF (cyclophosphamide, metotrexate, 5-fluorouracil) chemotherapy and radiotherapy (RT) and how their expression affects the patients' response to treatment. Protein expression was assessed with immunohistochemistry. We found overexpression of cyclin E in 32.1% (71/221) of the tumours and loss of Rb expression in 25.0% (59/236). Increased expression of cyclin E correlated to dysfunctional p53 (P=0.003) while loss of Rb correlated to normal p53 status (P=0.001). Our results suggest that patients with high cyclin E tumours have less benefit from tamoxifen (ER+, TAM vs. no TAM; RR=0.97; 95% CI, 0.36-2.60) than patients whose tumours show low expression (ER+, TAM vs. no TAM; RR =0.41; 95% CI, 0.24-0.72). Cyclin E also tended to predict the benefit from radiotherapy with a local recurrence rate of 0.31 (RT vs. CMF; 95% CI, 0.12-0.83) for patients with low expression and 0.68 (RT vs. CMF; 95% CI, 0.2-2.32) for patients with high expression of cyclin E. When the p53 status was taken in consideration the results showed that patients with both normal p53 and normal Rb expression had considerably lower locoregional recurrence rate when treated with radiotherapy instead of CMF (RR=0.17; 95% CI, 0.052-0.58) as compared to patients with either altered Rb or p53 or both (RR=0.70; 95% CI, 0.28-1.73).
-
Zardavas D, Te Marvelde L, Milne RL, Fumagalli D, Fountzilas G, Kotoula V, Razis E, Papaxoinis G, Joensuu H, Moynahan ME, Hennessy BT, Bieche I, Saal LH, Stal O, Iacopetta B, Jensen JD, O'Toole S, Lopez-Knowles E, Barbaraeschi M, Noguchi S, Azim HA Jr, Lerma E, Bachelot T, Wang Q, Perez-Tenorio G, Can de Velde CJH, Rea DW, Sabine V, Bartlett JMS, Sotiriou C, Michiels S, and Loi S
Journal of clinical oncology : official journal of the American Society of Clinical Oncology [J Clin Oncol] 2018 Apr 01; Vol. 36 (10), pp. 981-990. Date of Electronic Publication: 2018 Feb 22.
- Subjects
-
Adolescent, Adult, Aged, Aged, 80 and over, Breast Neoplasms mortality, Breast Neoplasms pathology, Breast Neoplasms therapy, Disease-Free Survival, Female, Genotype, Humans, Middle Aged, Mutation, Neoplasm Staging, Prognosis, Proportional Hazards Models, Receptor, ErbB-2 metabolism, Receptors, Estrogen metabolism, Survival Rate, Young Adult, Breast Neoplasms genetics, and Class I Phosphatidylinositol 3-Kinases genetics
- Abstract
-
Purpose Phosphatidylinositol-4, 5-bisphosphate 3-kinase catalytic subunit alpha ( PIK3CA) mutations are frequently observed in primary breast cancer. We evaluated their prognostic relevance by performing a pooled analysis of individual patient data. Patients and Methods Associations between PIK3CA status and clinicopathologic characteristics were tested by applying Cox regression models adjusted for age, tumor size, nodes, grade, estrogen receptor (ER) status, human epidermal growth factor receptor 2 (HER2) status, treatment, and study. Invasive disease-free survival (IDFS) was the primary end point; distant disease-free survival (DDFS) and overall survival (OS) were also assessed, overall and by breast cancer subtypes. Results Data from 10,319 patients from 19 studies were included (median OS follow-up, 6.9 years); 1,787 patients (17%) received chemotherapy, 4,036 (39%) received endocrine monotherapy, 3,583 (35%) received both, and 913 (9%) received none or their treatment was unknown. PIK3CA mutations occurred in 32% of patients, with significant associations with ER positivity, increasing age, lower grade, and smaller size (all P < .001). Prevalence of PIK3CA mutations was 18%, 22%, and 37% in the ER-negative/HER2-negative, HER2-positive, and ER-positive/HER2-negative subtypes, respectively. In univariable analysis, PIK3CA mutations were associated with better IDFS (HR, 0.77; 95% CI, 0.71 to 0.84; P < .001), with evidence for a stronger effect in the first years of follow-up (0 to 5 years: HR, 0.73; 95% CI, 0.66 to 0.81; P < .001; 5 to 10 years: HR, 0.82; 95% CI, 0.68 to 0.99; P = .037); > 10 years: (HR, 1.15; 95% CI, 0.84 to 1.58; P = .38; P heterogeneity = .02). In multivariable analysis, PIK3CA genotype remained significant for improved IDFS ( P = .043), but not for the DDFS and OS end points. Conclusion In this large pooled analysis, PIK3CA mutations were significantly associated with a better IDFS, DDFS, and OS, but had a lesser prognostic effect after adjustment for other prognostic factors.
- Full text View on content provider's site
58. Euschistus (Lycipta) triangulator [2021]
-
Barros, Lurdiana D., Paim, Marcelo R., Krein, Verônica, Carabajal, Victor, Brandão, Marcela N., Bernardes, Paula De O., and Lindner, Mariana F.
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Pentatomidae, Euschistus, and Euschistus triangulator
- Abstract
-
Euschistus (Lycipta) triangulator (Herrich-Schäffer, 1842) (Figs 63–64) Cimex triangulator Herrich-Schäffer, 1842: 95–96. Euschistus triangulator: Stål, 1860: 19. Lycipta triangulator: Stål, 1862: 58. Euschistus (Lycipta) triangulator: Stål, 1872b: 23; Rolston, 1982: 290–291; Weiler et al. 2011: 59, 60, 64. Material studied. Maquiné: 1♀, 01.IV.2006, V. C. Matesco leg. (UFRG); 1♂, 12.X.2005, M. O. Marchiori leg. (UFRG). São Francisco de Paula: 1♂, 18.III.2007, C. F. Schwertner leg. (UFRG). Diagnostic features. Body dorsal and ventral surfaces castaneous to reddish castaneous, antennae reddish. Mandibular plates subequal to clypeus, rounded apically.Anterolateral margins of pronotum concave and with spaced denticles (Fig. 63). Internal angles of cicatrices of pronotum dark. Humeral angles reddish castaneous, strongly developed, acute apically and directed laterally (Fig. 63). Pronotum with callous transumeral band. Pronotum and scutellum with multiple concolorous impunctate callosities. Apex of scutellum with inconspicuous callosity (Fig. 63). Legs pale with dark castaneous spots. Apex of radial vein with pale yellow callosity. Veins of the membranous portion of hemelytra reticulate. Body length: 9.50–10.50 mm (Garbelotto & Campos 2014). Recorded host plants. Canola (Marsaro Jr. et al. 2017; Bianchi et al. 2019). Distribution in Rio Grande do Sul. Maquiné, Passo Fundo and São Francisco de Paula (Fig. 64).
Published as part of Barros, Lurdiana D., Paim, Marcelo R., Krein, Verônica, Carabajal, Victor, Brandão, Marcela N., Bernardes, Paula De O. & Lindner, Mariana F., 2021, Illustrated guide to Pentatominae (Hemiptera: Pentatomidae) species associated with the four main grain crops in Rio Grande do Sul state, Brazil, pp. 430-478 in Zootaxa 4958 (1) on pages 453-454, DOI: 10.11646/zootaxa.4958.1.27, http://zenodo.org/record/4692176
{"references":["Stal, C. (1860) Bidrag till Rio Janeiro - Traktens Hemipter-fauna. Part I. Kongliga Svenska Vetenskaps - Akademiens Handlingar, 2 (7), 1 - 84.","Stal, C. (1862) Bidrag till Rio Janeiro - Traktens Hemipter-fauna. Part I. Kongliga Svenska Vetenskaps - Akademiens Handlingar, 3 (6), 1 - 75.","Stal, C. (1872 b) Enumeratio Hemipterorum. II. Kongliga Svenska Vetenskaps-Akademiens Handlingar, 10 (4), 1 - 159.","Rolston, L. H. (1982) A revision of Euschistus Dallas subgenus Lycipta Stal (Hemiptera: Pentatomidae). Proceedings of the Entomological Society of Washington, 84, 281 - 296.","Weiler, L., Ferrari, A. & Grazia, J. (2011) Contributions to the knowledge of Euschistus (Lycipta) with the description of E. (L.) riograndensis sp. nov. (Hemiptera: Heteroptera: Pentatomidae: Pentatominae: Carpocorini). Zootaxa, 3067 (1), 59 - 64. https: // doi. org / 10.11646 / zootaxa. 3067.1.5","Garbelotto, T. A. & Campos, L. A. (2014) Pentatominae do Sul de Santa Catarina. Sociedade Brasileira de Zoologia, Curitiba, 80 pp. https: // doi. org / 10.7476 / 9788598203089.0001","Bianchi, F. M., Marsaro Jr., A. L., Grazia, J., Pereira, P. R. V. S. & Panizzi, A. R. (2019) Diversity of Stink Bugs (Pentatomidae) Associated with Canola: Looking for Potential Pests. Neotropical Entomology, 48, 219 - 224. https: // doi. org / 10.1007 / s 13744 - 018 - 0642 - 3"]}
-
Zhu AX, Park JO, Ryoo BY, Yen CJ, Poon R, Pastorelli D, Blanc JF, Chung HC, Baron AD, Pfiffer TE, Okusaka T, Kubackova K, Trojan J, Sastre J, Chau I, Chang SC, Abada PB, Yang L, Schwartz JD, and Kudo M
The Lancet. Oncology [Lancet Oncol] 2015 Jul; Vol. 16 (7), pp. 859-70. Date of Electronic Publication: 2015 Jun 18.
- Subjects
-
Adult, Aged, Aged, 80 and over, Antibodies, Monoclonal, Humanized, Carcinoma, Hepatocellular mortality, Carcinoma, Hepatocellular pathology, Confidence Intervals, Disease-Free Survival, Dose-Response Relationship, Drug, Double-Blind Method, Drug Administration Schedule, Female, Follow-Up Studies, Humans, Kaplan-Meier Estimate, Liver Neoplasms mortality, Liver Neoplasms pathology, Male, Middle Aged, Niacinamide therapeutic use, Patient Selection, Proportional Hazards Models, Remission Induction, Sorafenib, Survival Analysis, Time Factors, Treatment Outcome, Antibodies, Monoclonal therapeutic use, Carcinoma, Hepatocellular drug therapy, Liver Neoplasms drug therapy, Niacinamide analogs derivatives, and Phenylurea Compounds therapeutic use
- Abstract
-
Background: VEGF and VEGF receptor-2-mediated angiogenesis contribute to hepatocellular carcinoma pathogenesis. Ramucirumab is a recombinant IgG1 monoclonal antibody and VEGF receptor-2 antagonist. We aimed to assess the safety and efficacy of ramucirumab in advanced hepatocellular carcinoma following first-line therapy with sorafenib.
Methods: In this randomised, placebo-controlled, double-blind, multicentre, phase 3 trial (REACH), patients were enrolled from 154 centres in 27 countries. Eligible patients were aged 18 years or older, had hepatocellular carcinoma with Barcelona Clinic Liver Cancer stage C disease or stage B disease that was refractory or not amenable to locoregional therapy, had Child-Pugh A liver disease, an Eastern Cooperative Oncology Group performance status of 0 or 1, had previously received sorafenib (stopped because of progression or intolerance), and had adequate haematological and biochemical parameters. Patients were randomly assigned (1:1) to receive intravenous ramucirumab (8 mg/kg) or placebo every 2 weeks, plus best supportive care, until disease progression, unacceptable toxicity, or death. Randomisation was stratified by geographic region and cause of liver disease with a stratified permuted block method. Patients, medical staff, investigators, and the funder were masked to treatment assignment. The primary endpoint was overall survival in the intention-to-treat population. This study is registered with ClinicalTrials.gov, number NCT01140347.
Findings: Between Nov 4, 2010, and April 18, 2013, 565 patients were enrolled, of whom 283 were assigned to ramucirumab and 282 were assigned to placebo. Median overall survival for the ramucirumab group was 9·2 months (95% CI 8·0-10·6) versus 7·6 months (6·0-9·3) for the placebo group (HR 0·87 [95% CI 0·72-1·05]; p=0·14). Grade 3 or greater adverse events occurring in 5% or more of patients in either treatment group were ascites (13 [5%] of 277 patients treated with ramucirumab vs 11 [4%] of 276 patients treated with placebo), hypertension (34 [12%] vs ten [4%]), asthenia (14 [5%] vs five [2%]), malignant neoplasm progression (18 [6%] vs 11 [4%]), increased aspartate aminotransferase concentration (15 [5%] vs 23 [8%]), thrombocytopenia (13 [5%] vs one [<1%]), hyperbilirubinaemia (three [1%] vs 13 [5%]), and increased blood bilirubin (five [2%] vs 14 [5%]). The most frequently reported (≥1%) treatment-emergent serious adverse event of any grade or grade 3 or more was malignant neoplasm progression.
Interpretation: Second-line treatment with ramucirumab did not significantly improve survival over placebo in patients with advanced hepatocellular carcinoma. No new safety signals were noted in eligible patients and the safety profile is manageable.
Funding: Eli Lilly and Co.
(Copyright © 2015 Elsevier Ltd. All rights reserved.)
- Full text View on content provider's site
-
Golub, Viktor B. and Heiss, Ernst
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Tingidae, Leptopharsa, and Leptopharsa colombiana
- Abstract
-
Leptopharsa colombiana sp. nov. Fig. 3A, B Material. Holotype: mаle, deposited аs COL-TING-01 in CEHI аnd lаbeled аccordingly. Distribution. Pleistocene Colombiаn Copаl, Colombiа. Diagnosis. This new species аlso belongs to the genus Leptopharsa Stål, 1873 shаring its mаin morphologicаl chаrаcters (see Leptopharsa antica sp. nov.) differing from the other four Miocene species of the genus Leptopharsa (L. poinari Golub et Popov, L. evsyunini Golub et Popov, L. frater Golub et Popov, Leptopharsa antica sp. nov.) by the nаrrower body 2.77 times аs long аs wide (vs. L. poinari 2.6; L. evsyunini 2.26; L. frater 1.7; L.antica sp. nov. 2.38), very long heаd spines, pаrticulаrly the frontаl one, from L. antica sp. nov. by longer аntennаe, segment III meаsuring 1.08mm (vs. 0.5mm) аnd from аll of them by not protruding аnterolаterаl аngles of pаrаnotа. Leptopharsa colombiana sp. nov. seems to be rаther close to recent L. satipona Drаke et Hаmbleton, 1944, described from Peru. Both species аre rаther smаll (body length of L. satipona 2.7, body width 1.0 mm), hаve biseriаte pаrаnotа, costаl аreа of hemelytrа mostly biseriаte аnd triseriаte аt the widest pаrt, very nаrrow аnd biseriаte subcostаl аreа, discoidаl аreа with five rows of аreolаe аt the widest pаrt. But judging from the originаl description (Drаke & Hаmbleton 1944) pаrаnotа of L. satipona аre rаther nаrrow аnd projecting upwаrd, their outer mаrgins neаrly strаight; while those of Leptopharsa colombiana аre wide аnd not projecting upwаrd аt аll, their lаterаl mаrgins weаkly but distinctly convex. Description. Mаcropterous, of smаll size аbout 3mm; body nаrrow, elongаte, 2.77 times аs long аs wide. Colorаtion dorsаlly fuscous, venter аnd аntennаe fuscous, pronotаl disc blаckish-brown, legs yellowish brown. Hemelytrа аnd pаrаnotа with rаther lаrge hyаline аreolаe. Lаterаl veins of pаrаnotа аnd hemelytrа nude, without bristles or hаirs. Heаd short аnd wide, 2.33 times аs wide аs long, with three frontаl аnd two thin аnd very long occipitаl spines with аcute аpices, these reаching the bаse of аntenniferous tubercles; frontаl mediаn spine аlmost reаching аpex of аntennаl segment I. Frons convex. Eyes rаther lаrge, lаterаlly produced. Antenniferous tubercles smаll, curved towаrds heаd, with obtuse аpex. Antennаe very long аnd thin; longest segment III 3.27 times аs long аs segment IV аnd 3.09 times аs long аs width of heаd. Bucculаe closed аnteriorly; rostrum rаther thin, reаching hind coxаe. Rostrаl chаnnel not interrupted by trаnsverse lаminаe аt meso-metаsternаl suture. Pronotum nаrrowed аnteriorly, with three low longitudinаl cаrinаe with аn indistinct row of аreolаe. Pronotаl disc moderаtely convex. Hood (vesiculа) rаther smаll, tectiform, subаngulаrly produced аnteriorly аnd pаrtly covering the bаse of heаd. Pаrаnotа rаther wide, slightly reflexed, with two rows of rаther lаrge, mostly quаdrаngulаr аreolаe аlong their length; lаterаl mаrgins of pаrаnotа slightly convex, аnterolаterаl аngles rounded, not produced аnteriorly. Pronotаl triаngulаr posterior process relаtively short, with rаther lаrge аreolаe. Hemelytrа much longer thаn аbdomen. Lаterаl mаrgins of the folded wings аlmost pаrаllel to eаch other, slightly converging towаrds аpex аnd weаkly sinuаte аt middle of their length. Costаl аreа slightly reflexed аnd wide, with two rows of rectаngulаr аnd pentаgonаl аreolаe аlong most of its length, with two to three аreolаe of аn intermediаte third row аt the widest pаrt (аt the preаpicаl sinus), with one row аt the аpex of hemelytrа. Subcostаl аreа very nаrrow, with two rows of very smаll rectаngulаr аnd pentаgonаl аreolаe. Discoidаl аreа rаther short, with five rows of rаther smаll аreolаe which аre much lаrger thаn those of subcostаl аreа. Membrаne with six rows of rаther lаrge аreolаe аt the widest pаrt. Hind wings of the holotype аre not visible. Measurements. (in mm): body length from аpex of clypeаl spine to аpex of аbdomen—2.97, from аpex of clypeus to аpex of аbdomen—2.77; body width—1.0; pronotum length—1.03; pronotum width—1.1; heаd length from posterior mаrgin of eyes to аpex of clypeus—0.15; from posterior mаrgin of eyes to аpex of frontаl mediаn spine—0.4; length of mediаn frontаl spine—0.2; heаd width—0.35; vertex width—0.15; length of аntennаl segments (I, II, III, IV)—0.24, 0.1, 1.08, 0.33; length of hemelytron—2.0; length of discoidаl аreа—0.9; length of foreleg femur—0.5, length of middle leg femur—0.6, length of hind leg segments: femur—0.63, tibiа—0.69; tаrsus—0.1. Etymology. The epithet of this first Tingidаe species from Colombiаn Copаl is nаmed аfter the country of origin.
Published as part of Golub, Viktor B. & Heiss, Ernst, 2018, Two new species of lace bugs from Dominican amber and a new species from Colombian copal (Hemiptera: Heteroptera: Tingidae), pp. 333-341 in Zootaxa 4444 (3) on pages 338-339, DOI: 10.11646/zootaxa.4444.3.8, http://zenodo.org/record/1309735
{"references":["Stal, C. (1873) Enumeratio Hemipterorum. 3. Kongliga Svenska Vetenskap-Akademiens Forhandlingar, 11 (2), 1 - 163232.","Drake, C. J. & Hambleton, J. (1944) Concerning Neotropical Tingitidae (Hemiptera). Journal of the Washington Academy of Sciences, 34 (4), 120 - 129."]}
-
Hendrickx APA, Landman F, de Haan A, Borst D, Witteveen S, van Santen-Verheuvel MG, van der Heide HGJ, and Schouls LM
Scientific reports [Sci Rep] 2020 Oct 08; Vol. 10 (1), pp. 16778. Date of Electronic Publication: 2020 Oct 08.
- Subjects
-
High-Throughput Nucleotide Sequencing, Humans, Klebsiella pneumoniae isolation purification, Netherlands, DNA, Bacterial genetics, Klebsiella Infections microbiology, Klebsiella pneumoniae genetics, and beta-Lactamases genetics
- Abstract
-
Carbapenemase-producing Klebsiella pneumoniae emerged as a nosocomial pathogen causing morbidity and mortality in patients. For infection prevention it is important to track the spread of K. pneumoniae and its plasmids between patients. Therefore, the major aim was to recapitulate the contents and diversity of the plasmids of genetically related K. pneumoniae strains harboring the beta-lactamase gene bla KPC-2 or bla KPC-3 to determine their dissemination in the Netherlands and the former Dutch Caribbean islands from 2014 to 2019. Next-generation sequencing was combined with long-read third-generation sequencing to reconstruct 22 plasmids. wgMLST revealed five genetic clusters comprised of K. pneumoniae bla KPC-2 isolates and four clusters consisted of bla KPC-3 isolates. KpnCluster-019 bla KPC-2 isolates were found both in the Netherlands and the Caribbean islands, while bla KPC-3 cluster isolates only in the Netherlands. Each K. pneumoniae bla KPC-2 or bla KPC-3 cluster was characterized by a distinct resistome and plasmidome. However, the large and medium plasmids contained a variety of antibiotic resistance genes, conjugation machinery, cation transport systems, transposons, toxin/antitoxins, insertion sequences and prophage-related elements. The small plasmids carried genes implicated in virulence. Thus, implementing long-read plasmid sequencing analysis for K. pneumoniae surveillance provided important insights in the transmission of a KpnCluster-019 bla KPC-2 strain between the Netherlands and the Caribbean.
- Full text View on content provider's site
-
Golub, Viktor B. and Heiss, Ernst
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Tingidae, Leptopharsa, and Leptopharsa antica
- Abstract
-
Leptopharsa antica sp.nov. Fig. 2 Material. Holotype: mаle, deposited аs DOM-TING-04 in CEHI аnd lаbeled аccordingly. Distribution. Miocene Dominicаn аmber, Dominicаn Republic. Diagnosis. All mаin morphologicаl chаrаcters of the new species indicаte thаt it belongs to the recent genus Leptopharsa Stål, 1873 аs redescribed by M.P. Hurd (1946): heаd аrmed with three spines (аs in recent species L. gibbicarina Froeschner, 1976); аntennаe thin аnd long; lаmellаte pаrаnotа deflected obliquely dorsаd but not bent onto pronotаl disc; lаmellаte pronotаl cаrinаe not very high, with one row of аreolаe; hemelytrа produced posteriorly, discoidаl аreа short (less thаn hаlf the length of hemelytron). Ventrаl fаce of holotype cаnnot be exаmined becаuse of the dаrkness of the аmber piece. The new species is closely relаted to Miocene L. poinari Golub et Popov, 2000 described from Dominicаn аmber. It differs from L. poinari by hаving only one frontаl spine, distinctly shorter аntennаe, slightly wider hood (vesiculа or cyst аuct. = аreolаte vesiculаr structure on аnterior mаrgin of pronotum), lаterаl pronotаl mаrgins less convex, costаl аreа of hemelytrа wider with three rows of аreolаe аt bаsаl hаlf, hemelytrаl membrаne with mаximаlly seven rows of аreolаe, lаterаl veins of pаrаnotа аnd hemelytrа nude. Heаd of L. poinari is аrmed with three frontаl spines, аntennаe very long аnd distinctly longer thаn in L. antica, the hood nаrrower (somewhаt depressed lаterаlly), lаterаl pronotаl mаrgins slightly sinuаte аt middle of their length, costаl аreа of hemelytrа nаrrower аnd biseriаte in bаsаl hаlf, membrаne with five to six rows of аreolаe аt the lаrgest pаrt, lаterаl veins of pаrаnotа аnd hemelytrа covered with minute bristles (Golub & Popov 2000). L. antica differs cleаrly from Miocene L. evsyunini Golub аnd Popov, 2000 by hаving one frontаl spine (three in L. evsyunini), nаrrower аnterolаterаl аngles of pаrаnotа not produced (vs. distinctly produced аnteriorly), four rows of аreolаe in costаl аreа of hemelytrа (vs. only three rows of lаrger аreolаe аnd а single аreolа of а fourth row аt the widest pаrt), five rows of аreolаe in discoidаl аreа (vs. only 3 rows). Miocene L. frater Golub et Popov, 2003 differs from the new species by hаving three frontаl spines (аs L. poinari аnd L. evsyunini), noticeаbly nаrrower hood, distinctly diverging аpices of folded wings, three rows of аreolаe in subcostаl аreа, four to five rows of in bаsаl pаrt of costаl аreа аnd three rows in аpicаl hаlf of membrаne (Golub & Popov 2003). The new species а s well аs L. poinari аre similаr to recent L. elegantula Stаl, 1873, the type species of the genus, described from Columbiа аnd recorded аlso in Ecuаdor, Boliviа аnd Brаzil. All three species hаve а similаr hаbitus, relаtively nаrrow pаrаnotа with two rows of аreolаe аnd hemelytrаl аpices not diverging in repose. L. elegantula differs from the new species by its lаrger size (3 mm), three frontаl spines, costаl аreа of hemelytrа with only three rows of аreolаe аt the widest pаrt. Recent species L. gibbicarina Froeschner, 1976 (known аs pest of oil pаlm) described from Colombiа аnd hаving only one frontаl spine differs from Leptopharsa antica by strongly rounded mаrgins of pаrаnotа, lаrger hood, divergent аpices of hemelytrа аnd the presence of аn oblique dаrk strip on the hemelytrа (Froeschner 1976). Description. Mаcropterous mаle; body distinctly elongаte аnd rаther nаrrow, аpproximаtely 2.38 times аs long аs wide. Colorаtion dorsаlly yellowish-fuscous, venter, heаd аnd pronotаl disc blаck, аntennаe brown, legs yellowish fuscous with blаck tаrsi on hind legs. Hemelytrа аnd pаrаnotа with rаther lаrge trаnspаrent аreolаe. Mаrginаl veins of pаrаnotа аnd hemelytrа nude, without spines or hаirs. Heаd short аnd wide, 1.9 times аs wide аs long, with two occipitаl аnd one frontаl very thin spine; occipitаl spines (only left ones cleаrly visible) rаther long, аdjаcent to heаd аnd аlmost reаching the аnterior mаrgin of eye; frontаl spine directed forwаrd аnd obliquely upwаrd. Frons convex. Eyes lаrge аnd globulаr, lаterаlly produced аnd exposed ventrаlly. Antenniferous tubercles very smаll, with obtuse аpices. Antennаe long аnd slender; аntennаl segment III longest, 2.5 times аs long аs segment IV аnd 1.32 times аs long аs width of heаd. Pronotum with three lаmellаte, relаtively low longitudinаl cаrinаe beаring one row of smаll, rectаngulаr аreolаe. pronotаl disc convex аnd аreolаte. Hood (vesiculа) tectiform, slightly inflаted lаterаlly, rаther elevаted, its аnterior mаrgin subаngulаte аnd produced, covering bаse of heаd, vesiculа with five to six аreolаe аlong eаch side of the midline. Pаrаnotа moderаtely wide, obliquely reflexed upright, with two rows of rаther lаrge, mostly quаdrаngulаr аreolаe; аnterior аngles of pаrаnotа widely rounded аnd not projecting аnteriorly, lаterаl mаrgins slightly convex. Triаngulаr posterior pronotаl process well developed аnd with obtuse аpex. Hemelytrа much longer thаn аbdomen, lаterаl mаrgins of the folded wings pаrаllel to eаch other, slightly sinuаte аt hаlf their length, аpices not diverging. Hemelytrа cleаrly subdivided into costаl, subcostаl, discoidаl аnd suturаl аreаs by elevаted veins. Costаl аreа very wide, with three rows of lаrge аreolаe mostly quаdrаngulаr аnd pentаgonаl forms for most of its length, with one to two аreolаe of the fourth row аt the widest pаrt, аpicаlly biseriаte аnd uniseriаte аt аpex. Subcostаl аreа very nаrrow, with two rows of rаther smаll, quаdrаngulаr аnd pentаgonаl аreolаe in the bаsаl hаlf of its length, with one row of rectаngulаr аreolаe increаsing in size towаrds the аpex of hemelytron in its аpicаl hаlf. Discoidаl аreа is short аnd rаther wide with five rows of аngulаr аreolаe in the widest pаrt. Suturаl аreа with one row of quаdrаngulаr аreolаe аlong bаsаl hаlf of discoidаl аreа which аre increаsing in size towаrds аpex. Posterior wings well developed, longer thаn аbdomen; on the left hind wing indistinct veins аre recognizаble representing Subcostаl- Rаdiаl- аnd Cubitаl veins аnd probаbly а trаnsverse vein connecting the lаtter (nomenclаture of veins аfter Drаke аnd Dаvis, 1960). Measurements. (in mm): body length—2.5, body width (аpproximаte, аs the left wing is spreаd аside)—1.05; pronotum length—0.98; pronotum width—0.75; heаd length from posterior mаrgin of eyes to аpex of clypeus— 0.2; heаd width—0.38; length of аntennаl segments (I, II, III, IV; аpproximаte becаuse of the oblique position of the аntennаe)—0.12, 0.08, 0.5, 0.2; length of hemelytron—1.78; length of discoidаl аreа—0.72; length of foreleg segments: femur—0.35, tibiа—0.52, tаrsus—0.008. Etymology. The epithet of this interesting species refers to its аge from anticus >Lаtin
Published as part of Golub, Viktor B. & Heiss, Ernst, 2018, Two new species of lace bugs from Dominican amber and a new species from Colombian copal (Hemiptera: Heteroptera: Tingidae), pp. 333-341 in Zootaxa 4444 (3) on pages 336-338, DOI: 10.11646/zootaxa.4444.3.8, http://zenodo.org/record/1309735
{"references":["Stal, C. (1873) Enumeratio Hemipterorum. 3. Kongliga Svenska Vetenskap-Akademiens Forhandlingar, 11 (2), 1 - 163232.","Hurd, M. P. (1946) Generic classification of North American Tingoidea (Hemiptera Heteroptera). The Jowa State College Journal of Science, 20 (4), 429 - 493.","Froeschner, R. C. (1976) Description of a new species of lace bug attacking the oil palm in Colombia (Hemiptera: Tingidae). Proceedings of the Entomological Society of Washington, 78 (1), 104 - 107.","Golub, V. B. & Popov, Yu. A. (2000) New Cenozoic lace bugs (Heteroptera: Tingidae). Paleontological Journal, 34 (Supplment 3), 290 - 297.","Golub, V. B. & Popov, Yu. A. (2003) Two new species of lace bugs from Dominican amber (Heteroptera: Tingidae, Tinginae). Annals of the Upper Silesian Museum in Bytom, Entomology, 12, 101 - 110.","Drake, C. J. & Davis, N. T. (1960) The morphology, phylogeny and higher classification of the family Tingidae, including the description of a new genus and species of the subfamily Vianaidinae (Heteroptera). Entomologia Americana, New Series, 39, 1 - 100."]}
-
Hagström H, Nasr P, Ekstedt M, Kechagias S, Önnerhag K, Nilsson E, Rorsman F, Sheikhi R, Marschall HU, Hultcrantz R, and Stål P
Scandinavian journal of gastroenterology [Scand J Gastroenterol] 2017 Feb; Vol. 52 (2), pp. 159-165. Date of Electronic Publication: 2016 Oct 06.
- Subjects
-
Adult, Aged, Biomarkers blood, Fatty Acids blood, Female, Fibrosis, Glycerophospholipids blood, Humans, Liver pathology, Liver Cirrhosis etiology, Logistic Models, Male, Middle Aged, Multivariate Analysis, Prospective Studies, Risk Factors, Severity of Illness Index, Surveys and Questionnaires, Sweden, Young Adult, Alcohol Drinking, Liver Cirrhosis pathology, Non-alcoholic Fatty Liver Disease complications, and Non-alcoholic Fatty Liver Disease pathology
- Abstract
-
Background and Aim: Moderate alcohol consumption has been associated with a lower risk of disease severity in non-alcoholic fatty liver disease (NAFLD). It is unclear if this reflects current or lifetime drinking, or can be attributed to confounders such as diet and exercise. We evaluated the impact of lifetime alcohol consumption on fibrosis severity in NAFLD.
Methods: We prospectively enrolled 120 subjects with biopsy-proven NAFLD and through detailed questionnaires examined lifetime alcohol consumption, diet and physical activity. Main outcome measures were odds ratios (OR) for fibrosis stage, calculated through ordinal regression after adjustment for body mass index, diabetes mellitus type 2, smoking and age at biopsy. A biomarker for recent alcohol consumption, phosphatidyl ethanol (PEth) was sampled.
Results: An increase in median weekly alcohol consumption to a maximum of 13 drinks per week was associated with lower fibrosis stage (adjusted OR for each incremental unit, 0.86; 95% CI, 0.76-0.97; p = .017). The lowest risk for fibrosis was found with the lowes`t odds seen in the top quartile of alcohol consumption (aOR 0.23; 95% CI 0.08-0.66; p = .006). Adding soft drink and coffee consumptions, and physical activity to the model did not change the estimates. Subjects with PEth ≥0.3 μmol/L had higher ORs for a higher fibrosis stage (aOR 2.77; 95% CI 1.01-7.59; p = .047).
Conclusion: Lifetime alcohol consumption with up to 13 units per week is associated with lower fibrosis stage in NAFLD. Elevated PEth is associated with higher stages of fibrosis.
-
Morrison WR 3rd, Acebes-Doria A, Ogburn E, Kuhar TP, Walgenbach JF, Bergh JC, Nottingham L, Dimeglio A, Hipkins P, and Leskey TC
Journal of economic entomology [J Econ Entomol] 2017 Jun 01; Vol. 110 (3), pp. 1002-1009.
- Subjects
-
Animals, Housing, Seasons, Chemotaxis, Heteroptera physiology, Insect Control, and Pheromones pharmacology
- Abstract
-
The brown marmorated stink bug, Halyomorpha halys (Stål), is an invasive species from Asia capable of causing severe agricultural damage. It can also be a nuisance pest when it enters and exits anthropogenic overwintering sites. In recent years, pheromone lures and traps for H. halys have been developed and used to monitor populations in field studies. To date, no study has investigated the applicability of these monitoring tools for use indoors by building residents during the overwintering period. Herein, we 1) assessed when in late winter (diapause) and spring (postdiapause) H. halys begins to respond to its pheromone (10,11-epoxy-1-bisabolen-3-ol), 2) evaluated whether pheromone-based tools can be used reliably for monitoring H. halys adults in unheated and heated buildings, and 3) elucidated the potential for indoor management using pheromone-baited traps. A 2-yr trapping study suggested that H. halys began to respond reliably to pheromone-baited traps after a critical photoperiod of 13.5 h in the spring. Captures before that point were not correlated with visual counts of bugs in buildings despite robust populations, suggesting currently available pheromone-baited traps were ineffective for surveillance of diapausing H. halys. Finally, because baited traps captured only 8-20% of the adult H. halys known to be present per location, they were not an effective indoor management tool for overwintering H. halys. Our study contributes important knowledge about the capacity of H. halys to perceive its pheromone during overwintering, and the ramifications thereof for building residents with nuisance problems.
(Published by Oxford University Press on behalf of Entomological Society of America 2017. This work is written by US Government employees and is in the public domain in the US.)
- Full text View on content provider's site
-
Ehinger A, Malmström P, Bendahl PO, Elston CW, Falck AK, Forsare C, Grabau D, Rydén L, Stål O, and Fernö M
Acta oncologica (Stockholm, Sweden) [Acta Oncol] 2017 Jan; Vol. 56 (1), pp. 68-74. Date of Electronic Publication: 2016 Oct 20.
- Subjects
-
Adult, Aged, Aged, 80 and over, Breast Neoplasms drug therapy, Breast Neoplasms metabolism, Cohort Studies, Female, Follow-Up Studies, Humans, Immunoenzyme Techniques, Lymphatic Metastasis, Middle Aged, Neoplasm Grading, Neoplasm Recurrence, Local drug therapy, Neoplasm Recurrence, Local metabolism, Neoplasm Staging, Prognosis, Receptor, ErbB-2 metabolism, Receptors, Estrogen metabolism, Receptors, Progesterone metabolism, Survival Rate, Antineoplastic Combined Chemotherapy Protocols therapeutic use, Biomarkers, Tumor metabolism, Breast Neoplasms classification, Breast Neoplasms pathology, and Neoplasm Recurrence, Local pathology
- Abstract
-
Background: The St Gallen surrogate definition of the intrinsic subtypes of breast cancer consist of five subgroups based on estrogen receptor (ER), progesterone receptor (PgR), human epidermal growth factor receptor type 2 (HER2), and Ki-67. PgR and Ki-67 are used for discriminating between the 'Luminal A-like' and 'Luminal B-like (HER2-negative)' subtypes. Histological grade (G) has prognostic value in breast cancer; however, its relationship to the St Gallen subtypes is not clear. Based on a previous pilot study, we hypothesized that G could be a primary discriminator for ER-positive/HER2-negative breast cancers that were G1 or G3, whereas Ki-67 and PgR could provide additional prognostic information specifically for patients with G2 tumors. To test this hypothesis, a larger patient cohort was examined.
Patients and Methods: Six hundred seventy-one patients (≥35 years of age, pT1-2, pN0-1) with ER-positive/HER2-negative breast cancer and complete data for PgR, Ki-67, G, lymph node status, tumor size, age, and distant disease-free survival (DDFS; median follow-up 9.2 years) were included.
Results: 'Luminal A-like' tumors were mostly G1 or G2 (90%) whereas 'Luminal B-like' tumors were mostly G2 or G3 (87%) and corresponded with good and poor DDFS, respectively. In 'Luminal B-like' tumors that were G1 (n = 23), no metastasis occurred, whereas 14 of 40 'Luminal A-like' tumors that were G3 metastasized. In the G2 subgroup, low PgR and high Ki-67 were associated with an increased risk of distant metastases, hazard ratio (HR) and 95% confidence interval (CI) 1.8 (0.95-3.4) and 1.5 (0.80-2.8), respectively.
Conclusions: Patients with ER-positive/HER2-negative/G1 breast cancer have a good prognosis, similar to that of 'Luminal A-like', while those with ER-positive/HER2-negative/G3 breast cancer have a worse prognosis, similar to that of 'Luminal B-like', when assessed independently of PgR and Ki-67. Therapy decisions based on Ki-67 and PgR might thus be restricted to the subgroup G2.
- Full text
View/download PDF
66. Anastatus (Anastatus) bifasciatus [2020]
-
Peng, Lingfei, Gibson, Gary A. P., Tang, Lu, and Xiang, Jiawei
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hymenoptera, Eupelmidae, Anastatus, and Anastatus bifasciatus
- Abstract
-
Anastatus (Anastatus) bifasciatus (Geoffroy) Figs 1, 2 Cynips bifasciatus Geoffroy in Fourcroy 1785: 388. Described: female. Diplolepis bifasciata (Geoffroy); Dalla Torre, 1898: 418. Anastatus bifasciatus (Geoffroy); Nikol’skaya, 1952: 490, fig. 477. Anastatus (Anastatus) bifasciatus (Geoffroy); Gibson, 1995: 105 (by implication); Narendran, 2009: 78, fig. 12. Cinips bifasciata Fonscolombe, 1832: 294. Described: female. Synonymy by Bouček, 1970: 80. Pteromalus bifasciatus (Fonscolombe); Nees ab Esenbeck, 1834: 426. Eupelmus bifasciatus (Fonscolombe); Förster, 1860: 122. Anastatus bifasciatus (Fonscolombe); Ruschka, 1921: 264 Anastatus eurycephalus Masi, 1919: 321–324, figs 26(1–5), 27. Described: female. Synonym of A. bifasciatus (Fonscolombe) by Bolívar y Pieltain, 1935: 280; synonymy by Bouček, 1970: 80. Cerycium pretense Erdős, 1946: 138–139, figs 4a–b. Described: male. Synonymy by Bouček, 1970: 80. Cinips bombycum Fonscolombe, 1832: 295. Described: male. Synonymy by Graham, 1992: 1101. Diplolepis bombycum; Dalla Torre, 1898: 418. Eupelmus subaeneus De Stefani, 1898: 251. Described: female. Synonymy by Bouček, 1970: 80. Pteromalus oomyzus Rondani, 1872: 202–203. Described: male (see Bouček 1974: 261). Synonymy by Bouček, 1974: 261, 277. Misocoris oomyzus; Rondani, 1877: 187, plate II, figs 55–58. Misocoris oophagus Rondani, 1877: 187, plate II, figs 61–63. Described: male. Synonymy by Bouček, 1974: 262, 277. Pteromalus ovivorus Rondani, 1872: 203. Described: female. Synonymy by Bouček, 1974: 262, 277. Misocoris ovivorus; Rondani, 1877: 187, plate II, figs 59–60. Cynips gemmarum Fonscolombe, 1832: 296. Described: male. Synonymy by Bouček, 1970: 80. Pteromalus gemmarum; Nees ab Esenbeck, 1834: 425. Diagnosis. FEMALE. Macropterous (Figs 1A, B). Fore wing with hyaline cross band behind marginal vein complete and with entirely white setae (Fig. 1D); infuscate region basal of hyaline band with uniformly dark setae and about 2.5–3.0× wider than cross band (Fig. 1D); basal region with basal cell, mediocubital fold, and cubital and vanal areas bare (Fig. 1F: bac, mcf, cua, vna). Head (Fig. 1E) with scrobal depression distinctly separated from anterior ocellus, by distance at least equal to 2× longitudinal diameter of ocellus (Fig. 1E: osd). Antenna (Fig. 1C) with fl2 slightly longer than pedicel (Fig. 1C, insert), but not all funiculars longer than wide, with at least apical two funiculars quadrate to slightly transverse (Fig. 1C). Mesosoma (Figs 1A, B), including procoxa (Fig. 1B), entirely dark, with concave posteromedial part of mesoscutum similarly dark as rest of mesoscutum (Fig. 1G) though under some angles of light with slight metallic luster; mesotibial apical spur infuscate (Fig. 1I); mesotarsus usually (see further under Remarks) similarly infuscate as mesotibial apical spur and similar in colour to mesotarsal pegs (Fig. 1B). Mesoscutum (Fig. 1G) with convex anterior part of medial lobe extensively mesh-like coriaceous at least anteriorly, at most distinctly reticulate only posteriorly, and with concave posterior part of mesoscutum only very sparsely setose with dark hair-like setae; mesoscutal lateral lobe with bare, minutely mesh-like coriaceous band anterior of posteromedian carina relative to distinctly larger mesh-like coriaceous to coriaceous-imbricate or reticulate sculpture on outer inclined surface (Fig. 1G). Profemur with ventral margin evenly curved, without distinct angulation or tooth apically (Fig. 1H). MALE. Antenna with scape (Fig. 2E) extensively dark dorsally but yellow ventrolongitudinally; pedicel dark; flagellum (Figs 2B, E) uniformly dark such that multiporous plate sensilla not contrasting in colour with surrounding cuticle, and consisting of five funiculars and clava, with clava (Fig.2E: clv) more than twice as long as combined length of funiculars. Head with frons mostly to entirely mesh-like coriaceous (Fig. 2C), at most slightly roughened in part. Mesopleurosternum uniformly dark (Fig. 2D) or at most with transepisternal line variably distinctly paler. Legs (Fig. 2B) beyond trochanters with all femora and tibiae extensively dark but front leg with knee, inner surface and apex of tibia, and all but apical tarsomere pale; middle leg with knee, tibia apically, and all but apical tarsomere pale, and hind leg with knee and basal three or four tarsomeres pale. Fore wing (Fig. 2F) with costal cell dorsally setose along entire leading margin (Fig. 2G); basal cell at least uniformly setose along basal and mediocubital folds though variably setose within cell and setae often white and inconspicuous; disc with large, quadrangular speculum (Fig. 2F: spc), the ventral surface with only 1 or 2 lines of setae adjacent to parastigma, and comparatively inconspicuously closed posteriorly by line of white setae. Species concept. Our concept of A. bifasciatus is based on identified specimens from Croatia, Cyprus, France, Greece, Hungary, Iran, Italy and Switzerland in the CNC, including reared material from Stahl et al. (2018a). Regional records. Reported from mainland China by Chu et al. (1935) and from Taiwan by Yie and Hsu (1967) under the name A. gastropachae, which Noyes (2019) listed, incorrectly, as a junior synonym of A. bifasciatus following Ishii (1938) (see under A. gastropachae). We did not examine voucher material from Chu et al. (1935) or Yie and Hsu (1967), but assuming their identifications of A. gastropachae were correct, then evidence for the presence of A. bifasciatus in China is completely lacking. However, because of past confusion between A. bifasciatus and A. gastropachae as well as between A. bifasciatus and A. japonicus (see below) we treat the name so that all three species can be distinguished reliably if A. bifasciatus is eventually found in China. It is possible that the species occurs at least in the Palaearctic part of China if the records from Japan and South Korea are accurate (see below). Distribution. Noyes (2019) recorded A. bifasciatus from throughout the Palaearctic region, including Europe and the Middle East, northern Africa, and Japan and Korea in the eastern Palaearctic, as well as Kenya (Afrotropical), India (Oriental), and United States of America (Nearctic). However, as discussed by Hayat (1975: 268), the record of Narayanan et al. (1967) is a misidentification of A. japonicus and subsequent inclusions of A. bifasciatus in the Indian fauna, such as by Narendran (2009), are based on prior literature records rather than validating specimens. Likewise, Nearctic records, such as by Crossman (1925), are based on misidentifications of A. japonicus and it remains to be confirmed whether A. bifasciatus occurs outside the Palaearctic region. Hosts. Noyes (2019) listed A. bifasciatus as a parasitoid of about 30 species of Hemiptera, Lepidoptera, and Orthoptera plus, as a hyperparasitoid, two species of Braconidae (Hymenoptera). However, some of the listed host records are undoubtedly based on misidentification of the parasitoid. This species is currently being investigated for potential augmentative biocontrol of an invasive agricultural pest, Halyomorpha halys (Stål, 1855) (Hemiptera: Pentatomidae), in Europe (Haye et al. 2014; Stahl et al. 2018a, 2018b). Its extensive putative host range, including Dendrolimus punctatus (Walker, 1855) (Lepidoptera: Lasiocampidae) and other lepidopteran and hemipteran pest species, suggests potential for biocontrol in China as well. Remarks. Females of A. bifasciatus are similar to those of A. colemani in sharing a complete fore wing hyaline cross band (Figs 1D, 3F) in combination with similar mesoscutal sculpture and setal patterns (Figs 1G, 3E). However, females of A. colemani have a short but distinct spine-like projection ventrally on the profemur within about its apical third (Fig. 3I: arrow), setae within the fore wing basal region (Fig. 3H), and the concave posteromedial part of the mesoscutum contrasting quite conspicuously in colour to the rest of the mesoscutum because of distinctly brighter metallic luster (Fig. 3E). Females of A. bifasciatus do not have a profemoral tooth (Fig. 1H), have the basal region of the fore wing entirely bare (Fig. 1F), and have the mesoscutum more-or-less uniformly dark with at most slight metallic luster (Fig. 1G). Three females from Iran that we provisionally identify as A. bifasciatus have entirely pale mesotarsi. However, all other examined A. bifasciatus females have infuscate mesotarsi that are similar in colour to the mesotarsal pegs and mesotibia (Fig. 1I). The few A. colemani females examined have at least the basal four mesotarsomeres pale in distinct contrast to the pegs and tibia (Fig. 3J). Females of both species have an infuscate mesotibial apical spur (Figs 1I, 3J). Unfortunately, males of A. colemani are unknown, but males of A. bifasciatus are distinguished from males of all other treated species by flagellar structure. The clava (Fig. 2E: clv) is greatly elongate compared to other species and there are only five funiculars, which suggests that length of the clava is at least partly a consequence of fusion of the apical two funiculars with the clava. This difference in flagellar structure demonstrates that the redescription of the male of A. bifasciatus by Tachikawa (1959) actually was a misidentification of A. japonicus (see further under this latter species).
Published as part of Peng, Lingfei, Gibson, Gary A. P., Tang, Lu & Xiang, Jiawei, 2020, Review of the species of Anastatus (Hymenoptera: Eupelmidae) known from China, with description of two new species with brachypterous females, pp. 351-401 in Zootaxa 4767 (3) on pages 357-361, DOI: 10.11646/zootaxa.4767.3.1, http://zenodo.org/record/3772901
{"references":["Fourcroy, A. F. (1785) Entomologia Parisiensis, sive catalogus Insectorum, quae in agro parisiensi reperiuntus-secundum methodam Geoffraeriam in sectiones, genara et species distributii; cui addita sunt nomina trivialia et fere recentae novae species, pars secunda. Via et Aedibus Serpentineis, Paris, 231 pp. https: // doi. org / 10.5962 / bhl. title. 36528","Dalla Torre, K. W. (1898) Catalogus Hymenopterorum hucusque descriptorum systematicus et synonymicus. Vol. V. Chalcididae et Proctotrupidae. Guilelmi Engelmann, Lepzig, 598 pp.","Nikol'skaya, M. N. (1952) Khaltsidy fauny SSSR (Chalcidoidea). Opredeliteli po faune SSSR. Vol. 44. Akademiia Nauk SSSR, Moscow, 575 pp. [in Russian, English translation: Nikol'skaya, M. N. 1963. The chalcid fauna of the U. S. S. R. Israel Program for Scientific Translations, Jerusalem, Israel]","Gibson, G. A. P. (1995) Parasitic wasps of the subfamily Eupelminae: classification and revision of world genera (Hymenoptera: Chalcidoidea, Eupelmidae). Memoirs on Entomology, International 5. Associated Publishers, Gainesville, Florida, 421 pp.","Narendran, T. C. (2009) A review of the species of Anastatus Motschulsky (Hymenoptera: Chalcidoidea: Eupelmidae) of the Indian subcontinent. Journal of Threatened Taxa, 1, 72 - 96. https: // doi. org / 10.1111 / j. 1365 - 3113.1956. tb 01100. x","Fonscolombe, E. L. J. H. B. (1832) Monographia chalciditum galloprovinciae circa aquas degentum. Annales des Sciences Naturelles, Series 1, Zoologie, 26, 273 - 307.","Boucek, Z. (1970) Contribution to the knowledge of Italian Chalcidoidea based mainly on a study at the Institute of Entomology in Turin, with descriptions of some new European species (Hymenoptera). Memorie della Societa Entomologica Italiana, 49, 35 - 102.","Nees ab Esenbeck, C. G. (1834) Hymenopterorum Ichneumonibus affinium, Monographiae, genara Europaea et species illustrantes. J. G. Cottae, Stuttgart, 320 pp. https: // doi. org / 10.5962 / bhl. title. 26555","Forster, A. (1860) Eine centurie neuer Hymenopteren. Verhandlungen des Naturhistorischen Vereins der Preussischen Rheinlande und Westfalens, 17, 93 - 153.","Ruschka, F. (1921) Chalcididenstudien I. Verhandlungen der Zoologisch- Botanischen Gesellschaft in Wien, 70, 234 - 315.","Masi, L. (1919) Materiali per una fauna dell'Arcipelago Toscano. XI. Calcididi del Giglio. Seconda serie: Eurytomidae (sequito), Eucharidinae, Encyrtinae, Eupelminae (partim.). Annali del Museo Civico di Storia Naturale di Genova, 48, 277 - 337.","Bolivar y Pieltain, C. (1935) Estudio monografico de las especies espanolas del genaro Anastatus Motsch. (Hym. Chalc.). Revista Espanola di Entomologia, 10, 273 - 292.","Erdos, J. (1946) Genera nova et species novae chalcidoidarum (Hym.). Annales Historico-Naturales Musei Nationalis Hungarici, 39, 131 - 165.","Graham, M. W. R. (1992) Hymenoptera collections of Boyer de Fonscolombe, with an account of his work and a description of the natural features of his estate. Journal of Natural History, 26, 1089 - 1111. https: // doi. org / 10.1080 / 00222939200770631","De Stefani, T. (1898) Miscellanea entomologica sicula. Naturalista Siciliano, Nuova Serie, 2, 249 - 256.","Rondani, C. (1872) Sopra alcuni vesparii parassiti. Note. Bullettino della Societa Entomologica Italiana, 4, 201 - 208.","Boucek, Z. (1974) On the Chalcidoidea (Hymenoptera) described by C. Rondani. Redia, 55, 241 - 285.","Rondani, C. (1877) Vesparia parassita non vel minus cognita observata et descripta. Bullettino della Societa Entomologica Italiana, 9, 166 - 213.","Stahl, J. M., Babendreier, D. & Haye, T. J. (2018 a) Using the egg parasitoid Anastatus bifasciatus against the invasive brown marmorated stink bug in Europe: can non-target effects be ruled out? Journal of Pest Science, 91, 1005 - 1017. https: // doi. org / 10.1007 / s 10340 - 018 - 0969 - x","Chu, J. T. & Hsia, S. H. (1935) A list of the Chekiang and Kiangsu chalcids and proctotrupids in the Bureau of Entomology, Hangchow. Entomology and Phytopathology, 3, 394 - 398.","Yie, S. T. & Hsu, S. J. (1967) Biological study of the more important insect-pests attacking genus Pinus introduced from the USA. VII. Insect parasites of the pine caterpillar, Dendrolimus punctatus Walk. and sawfly, Nesodiprion japonica Marlatt. Plant Protection Bulletin, Taichung, 9, 5 - 13.","Noyes, J. S. (2019) Universal Chalcidoidea database. Online. Available from www. nhm. ac. uk / chalcidoids (accessed 18 May 2019)","Ishii, T. (1938) Chalcidoid- and proctotrypoid-wasps reared from Dendrolimus spectabilis Butler and D. albolineatus Matsumura and their insect parasites, with descriptions of three new species. Kontyu, 12, 97 - 105.","Hayat, M. (1975) Some Indian species of Anastatus (Hymenoptera: Chalcidoidea: Eupelmidae). Oriental Insects, 9, 261 - 271. https: // doi. org / 10.1080 / 00305316.1975.10434497","Narayanan, E. S., Rao, V. P. & Subba Rao, B. R. (1967) Advances made in insect parasitology and biological control of pests in India. In: Agricultural Entomology, Reviews circulated at entomological research workers conference. Indian Council of Agricultural Research, New Delhi, pp. 205 - 246.","Crossman, S. S. (1925) Two imported egg parasites of the gipsy moth, Anastatus bifasciatus Fonsc. and Schedius kuvanae Howard. Journal of Agricultural Research, 30, 643 - 675.","Haye, T., Abdallah, S., Gariepy, T. & Wyniger, D. (2014) Phenology, life table analysis and temperature requirements of the invasive brown marmorated stink bug, Halyomorpha halys, in Europe. Journal of Pest Science, 87, 407 - 418. https: // doi. org / 10.1007 / s 10340 - 014 - 0560 - z","Stahl, J. M., Babendreier, D. & Haye, T. J. (2018 b) Life history of Anastatus bifasciatus, a potential biological control agent of the brown marmorated stink bug in Europe. Biological Control, 129, 178 - 186. https: // doi. org / 10.1016 / j. biocontrol. 2018.10.016","Tachikawa, T. (1959) Redescription of the male of Anastatus bifasciatus Fonscolmbe (Hymenoptera: Eupelmidae). Kontyu, 27, 284 - 286."]}
-
Groenewald, Gerald
- Historia; Nov2011, Vol. 56 Issue 2, p203-206, 4p
- Subjects
-
NAMIBIAN history and NONFICTION
- Abstract
-
The article presents a book review of "Môrewind oor die Karasberge: ’n Kultuurhistoriese Verkenning van die Karasstreek van die Laat Negentiende Eeu," by E. L. P. Stals.
- Full text
View/download PDF
68. Heterochterus timmsii Evans 1971 [2020]
-
Kment, Petr, Carapezza, Attilio, and Jindra, Zdeněk
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Miridae, Heterochterus, and Heterochterus timmsii
- Abstract
-
Ƭ Heterochterus timmsii Evans, 1971 Heterochterus timmsii Evans, 1971: 149– 150 (original description, illustration). HOLOTYPE:?sex, wing, Australia: Queensland: ‘ Mt Crosby, coll. B. V. Timms, presented by Department of Entomology, University of Queensland, Q.M. F6473’ (QMBA). Heterochterus timmsii: JELL (2004): 65 (redescription, illustrations). Distribution. Australia: Queensland (Ipswich Coal Measures: Late Triassic) (EVANS 1971, JELL 2004). Discussion The first described species of velvety shore bugs was the widely distributed Acanthia marginata Latreille, 1804, discovered in southern France, and soon after accommodated in its own new genus, Ochterus Latreille, 1807, and new family, Pelogonida Leach, 1815 (based on an unnecessary new replacement name Pelogonus Latreille, 1809). Additional two taxa were described by GUÉRIN- MÉ- NEVILLE (1843), Pelogonus indicus (junior synonym of O. marginatus marginatus) from India, and the first American species, Pelogonus perboscii from Mexico. Until the end of 19th century, altogether eleven species of Ochteridae were described, seven of which still remain valid. Among them were also two species which were in the future designated as types of new genera, Ocyochterus Drake & Gómez-Menor, 1954 (Pelogonus victor Bolívar, 1879) and Megochterus Jaczewski, 1934 (Pelogonus nasutus Montandon, 1898). Between 1901 and 1970, 17 additional species of Ochteridae were described, mostly from the American continent where important contributions were published by CHAMPION (1901), BARBER (1913), HUNGERFORD (1927), and especially the revision by SCHELL (1943a,b). In the Old World, only five species were described in this period (HORVÁTH 1913; JACZEWSKI 1934, 1935, 1938; MANCINI 1939). SINGH- PRUTHI (1925) first described and illustrated male genitalia including the right paramere of Ochterus marginatus, a character soon applied in ochterid taxonomy by HUNGERFORD (1927) and JACZEWSKI (1934). Big progress in describing new Ochteridae started in 1970s with three revisional papers by Nicolas A. Kormilev for Australian, Oriental and Afrotropical taxa (KORMILEV 1971, 1972, 1973), largely based on the structure of the right paramere. Soon followed the papers of NIESER (1975) (Suriname), POLHEMUS & POLHEMUS (1976) (SW USA), RIEGER (1977) (Australia, Philippines), and GAPUD & SAN VALENTIN (1977) (Philippines). Victor P. Gapud continued his work on the fauna of Philippines also in the following three decades (GAPUD 1981, 1995, 2003). In the same time, Martin Baehr, a renowned German coleopterist specialised in Carabidae (Coleoptera), revised Ochteridae of the Australian Region in a series of four papers (BAEHR 1989, 1990a,b,c). In 1990s, Nico Nieser and Ping-ping Chen described seven additional species mostly from Malesia, but also from southern China and South America (NIESER & CHEN 1992, 1999). Finally, Dan A. Polhemus started describing new Ochteridae with Ochterus seychellensis in 1992 (POLHEMUS 1992a), and continued, together with his father John T. Polhemus, with series of revisional papers on Ochterus of Mauritius (POLHEMUS & POLHEMUS 2008), Malaysia and the Oriental part of Indonesia (2012, 2015), North and Central America (POLHEMUS & POLHEMUS 2016), as well as a revision of the genus Ocyochterus with the description of one new species (POLHEMUS & POLHEMUS 2014). Since 1971, 64 species of Ochteridae were described, nearly three times the number described before this date (see Table 1 and Fig. 25). The most prolific authors were D. A. and J. T. Polhemus, who described together 17 species of Ochteridae, followed by M. Baehr with 16 species and subspecies, N. Nieser with 9 species, and N. A. Kormilev and V. P. Gapud each with 8 species (cf. Table 2). The species inventory of Ochteridae is certainly far from complete, as it is documented by mentions of a probable new species of Ochterus from Palawan (GAPUD 2003) and several undescribed species from New Guinea (POLHEMUS & POLHEMUS 1998, 2012), and Oriental Region, as well as due to the probable polyphyly of O. marginatus (CHEN et al. 2005). Also our unpublished results suggest existence of additional undescribed species, especially in the Oriental Region, the Afrotropical Region and Madagascar. The extant members of the family Ochteridae are distributed in the tropical and subtropical regions of all continents. The present lack of published records from Lesser Sunda and Maluku Islands (Indonesia) is probably due to sampling bias, as we have at hand unidentified material from Maluku, superficially resembling O. nicobarensis (ZJPC). Further Ochteridae inhabit temperate zones of Australia and Tasmania (ANDERSEN & WEIR 2004), East Palearctic (north to the northernmost Japanese island, Hokkaido, and to Kunashir, the southernmost island of Kuriles) (POLHEMUS 1995 a, KANYUKOVA 2006, HAYASHI et al. 2016, HAYASHI & MIYAMOTO 2018) and Eastern Nearctic Region (north to Massachusetts, Michigan, Minnesota and Ontario (POLHEMUS & POLHEMUS 1988a, 2016; MAW et al. 2000). On the contrary, Ochteridae are missing in temperate Europe, continental regions of Central Asia (POLHEMUS 1995 a, KANYUKOVA 2006), from the Appalachian Mountains and the Ozark Plateau in the eastern part, as well as from most of the western part of USA (POLHEMUS & POLHEMUS 1988a, 2016), from New Zealand, and from temperate and subtropical South America (the most southern species being O. foersteri reaching the Misiones province of Argentina – MELO 2015, BACHMANN & MAZZUCCONI 2017). The zoogeographical pattern of Gelastocoridae resembles that of Ochteridae, with three exceptions: i) Gelastocoridae in South America occur further south, into central Chile; ii) in the Eastern Palaearctic they extend northward only to central China and the southern Japanese islands of Kyushu and Shikoku; and iii) they are completely absent in the Western Palaearctic (except one record from coast of Sinai, Egypt) (e.g., TODD 1955, 1961; POLHEMUS & POLHEMUS 1988b; POLHEMUS 1995b; ANDERSEN & WEIR 2004; CHEN et al. 2005; KMENT & JINDRA 2008; FAÚNDEZ & ASHWORTH 2015; FAÚNDEZ & CARVAJAL 2017; NIESER et al. 2020). Concerning the biodiversity pattern, we can recognize two distinct biodiversity centres, the Australasian Region with 29 species-group taxa and the Neotropical Region with 28 species-group taxa. Within the Neotropical Region, most of these taxa (i.e. 17) are known from Central America, while only 14 species and subspecies are known from South America (see Table 2). This situation may be influenced by the existence of the recent excellent revision of Central American fauna by POLHEMUS & POLHEMUS (2016) and future research will elucidate the precise number of species actually occurring in South America. In the Caribbean, so far only one endemic species is known (O. hungerfordi from Cuba) and two widely distributed species shared with the continent (O. aeneifrons aeneifrons and O. perbosci), which is in contrast with high number of island endemics occurring in Malesia and islands of the Indian Ocean. In the Australian Region, 5 species occur in Sulawesi (including the widely distributed O. marginatus marginatus and O. noualhieri shared with Sundaland), 11 species in New Guinea, Vanuatu and Solomon Islands, 13 species and subspecies in Australia, and 2 species in New Caledonia (one of them endemic). The Oriental Region seems also species rich with 22 species-group taxa, but only 5 species are so far known in its western (mostly continental) part north of the border of Malaysia; 8 species occur in Sundaland and 11 species and subspecies are confined to the Philippines. The Afrotropical Region harbours 8 species, 6 of them occurring on the continent and 4 on the adjacent islands; O. caffer and O. papaceki sp. nov. occur in both the African mainland and islands (Madagascar and Socotra, respectively), while Mauritius and Seychelles each harbour a single endemic species. The fauna of the Nearctic Region includes five species (with O. rotundus and O. perbosci confined to its southernmost regions and shared with Neotropical Region) (POLHEMUS & POLHEMUS 2016). The least species rich is fauna of the Palaearctic Region, including only three described species, the widely distributed O. marginatus marginatus, O. strigicollis endemic to Israel, and O. breviculus confined to the transitional zone between the Palaearctic and the Oriental Region in Yunnan and Xizang (Tibet) in southern China (NIESER & CHEN 1992, POLHEMUS 1995a). In alternative zoogeographical regionalisation, Malesia (including the Malay Peninsula, Sundaland, Philippines, Wallacea, New Guinea and Solomon Islands), would harbour 33 species and subspecies – see CHEN et al. 2005, ZETTEL & LANE 2010. POLHEMUS & POLHEMUS 2012). In contrast to the New World, we must stress the importance of island endemism for the species diversity in Old World Ochterus – among 55 Old World species, 33 (60 %) of them are confined to islands. Interestingly, also Gelastocoridae also share a similar pattern of species richness, with centres of biodiversity in Neotropical and Australian Region; the Oriental Region harbours only 9 species, 3 of them extending to Eastern Palaearctic, the Afrotropical Region has only 2 species, one of them marginally reaching the Western Palaearctic; 8 species-group taxa occur in Nearctic Region, though most of them are confined to its southernmost areas, Florida and along the Mexican border (e.g., TODD 1955, 1961; POLHEMUS & POLHEMUS 1988b; POLHEMUS 1995b; ANDERSEN & WEIR 2004; CHEN et al. 2005; KMENT & JINDRA 2008; FAÚNDEZ & ASHWORTH 2015; NIESER et al. 2020). The phylogenetic relationships within Ochteridae were addressed by MAHNER (1993) and summarized as follows: (Megochterus + (Ocyochterus + (American Ochterus + Old World Ochterus))). The monophyly of the Old World Ochterus is well supported by the apomorphic structure of the right paramere, provided with a rounded apical cap and two subapical appendages; however, the monophyly of American Ochterus with a simple right paramere remains questionable, as their paraphyly towards the Old World clade (Ochterus s. str.) is also possible (MAHNER 1993). The first cladistic analysis of relationships among genera of Ochteridae was performed by YAO et al. (2011), who included the three recent genera and three fossil genera from Late Jurassic and Early Cretaceous of China, suggesting the following relationships: ((† Floricaudus + † Pristinochterus) + († Angulochterus + (Megochterus + (Ochterus + Ocyochterus)))). For review of the fossil taxa assigned to Ochteridae and Ochteroidea stem group see Table 3. On the other hand, relationships among species-group taxa within the diverse Ochterus have never been rigorously tested. Considering the morphological homogeneity of this group, the use of molecular phylogenetic methods will be necessary.
Published as part of Kment, Petr, Carapezza, Attilio & Jindra, Zdeněk, 2020, Taxonomic catalogue of the family Ochteridae with description of Ochterus papaceki sp. nov. from Socotra Island and Tanzania (Hemiptera: Heteroptera), pp. 23-64 in Acta Entomologica Musei Nationalis Pragae 60 (1) on pages 51-55, DOI: 10.37520/aemnp.2020.003, http://zenodo.org/record/3879659
{"references":["EVANS J. W. 1971: Some Upper Triassic Hemiptera from Mount Crosby, Queensland. Memoirs of the Queensland Museum 16: 145 - 151.","JELL P. A. 2004: The fossil insects of Australia. Memoirs of the Queensland Museum 50: 1 - 124.","LATREILLE P. A. 1804: Histoire naturelle, generale et particuliere des crustaces et des insectes. Vol. 12. F. Dufart, Paris, 424 pp.","LATREILLE P. A. 1807: Genera crustaceorum et insectorum secundem ordinem naturalem in familias disposita iconibus exemplisque plurimis explicata. Tomus tertius. Amand Koenig, Parisiis et Argentorati, 259 pp.","LEACH W. E. 1815: Entomology. Pp. 57 - 172. In: BREWSTER D. (ed.): The Edinburgh Encyclopaedia. Vol. 9. Blackwood, Edinburgh, 764 pp. + pls. CCLIII-CCLX.","LATREILLE P. A. 1809: Genera crustaceorum et insectorum secundem ordinem naturalem in familias disposita iconibus exemplisque plurimis explicata. Tomus quartus et ultimus. Amand Koenig, Parisiis et Argentorati, 599 pp + 16 pls.","DRAKE C. J. & GOMEZ-MENOR J. 1954: A new genus of American Ochteridae (Hemiptera). EOS, Revista Espanola de Entomologia 30: 157 - 159 + pl. X.","BOLIVAR I. 1879: Hemipteros nuevos del Museo de Madrid. Anales de la Sociedad Espanola de Historia Natural 8: 130 - 146.","JACZEWSKI T. 1934: Notes on the Old World species of Ochteridae (Heteroptera). Annals and Magazine of Natural History, Series 10 13: 597 - 613.","MONTANDON A. L. 1898: Hemipteres Heteropteres nouveaux des collections du Museum de Paris. Bulletin du Museum d'Histoire Naturelle (Paris) 4: 72 - 75.","CHAMPION G. C. 1897 - 1901: Insects. Rhynchota. Hemiptera - Heteroptera. Vol. II. In: GODMAN F. D. & SALVIN O. (eds): Biologia Centrali-Americana. Vol. II. R. H. Porter, London, xvi + 416 pp., 22 pl. [1901: i-xvi, 345 - 416]","BARBER H. G. 1913. Description of two new species of Ochterus Latr. (Hemiptera) with an arrangement of the North American species. Canadian Entomologist 45: 213 - 215.","HUNGERFORD H. B. 1927: A report upon the aquatic and semi-aquatic Hemiptera of the Mulford Biological Expedition to Bolivia, South- - America, 1921 - 22. Proceedings of the Entomomological Society of America 29: 187 - 190 + pl. 10.","SCHELL D. V. 1943 a: The Ochteridae (Hemiptera) of the Western Hemisphere. Journal of the Kansas Entomological Society 16 (1): 29 - 36. [January 1943]","HORVATH G. 1913: Aquatic and semi-aquatic Rhynchota from the Lake of Tiberias and its immediate vicinity. Journal of the Asiatic Society of Bengal 9: 477 - 480.","JACZEWSKI T. 1935: Die Uferwanzen (Heteroptera: Fam. Leptopodidae, Acanthiidae, Ochteridae und Mononychidae) der Deutschen Limnologischen Sunda-Expedition. Archiv fur Hydrobiologie, Suppl. - Band XIII ' Tropische Binnengewasser' 5: 474 - 483.","JACZEWSKI T. 1938: Eine neue Ochteriden-Art aus Africa, nebst faunistischen Angaben ueber einige andere Arten dieser Familie (Heteroptera). Sitzungsberichte der Gesellschaft der Naturforschender Freunde in Berlin 1937: 186 - 187.","KORMILEV N. A. 1971: Ochteridae from the Oriental and Australian Regions (Hemiptera-Heteroptera). Pacific Insects 13: 429 - 444.","KORMILEV N. A. 1972: A new species of the genus Ochterus Latreille, 1807, from New Guinea (Hemiptera-Heteroptera: Ochteridae). Pacific Insects 14: 585 - 587.","KORMILEV N. A. 1973: Ochteridae from Western and Southern Africa (Hemiptera: Heteroptera). Occasional Papers of the California Academy of Sciences 106: 1 - 9.","NIESER N. 1975: The water bugs (Heteroptera: Nepomorpha) of the Guyana region. Studies of the Fauna of Suriname and other Guyanas 16: 1 - 310 + 24 pls.","POLHEMUS J. T. & POLHEMUS M. S. 1976: Aquatic and semiaquatic Heteroptera of the Grand Canyon (Insecta: Hemiptera). Great Basin Naturalist 36: 221 - 226.","RIEGER CH. 1977: Neue Ochteridae aus der Alten Welt. Deutsche Entomologische Zeitschrift, Neue Folge 24: 213 - 217.","GAPUD V. P. & SAN VALENTIN H. O. 1977: The Ochteridae (Hemiptera) of the Philippines. Kalikasan, Philippine Journal of Biology 6 (3): 269 - 300.","GAPUD V. P. 1981: Contribution to the taxonomy of the genus Ochterus Latreille (Hemiptera: Ochteridae). Kalikasan, Philippine Journal of Biology 10 (2 - 3): 300 - 309.","GAPUD V. P. 1995: A new species of Ochterus Latreille (Hemiptera: Ochteridae) from the Philippines. Asia Life Sciences 4 (1): 41 - 44.","GAPUD V. P. 2003: Two new Philippine Ochterus Latreille (Insecta: Heteroptera: Ochteridae) and checklist of Philippine species. Annalen des Naturhistorischen Museums in Wien, Serie B 104 [2002]: 99 - 108.","BAEHR M. 1989: Review of the Australian Ochteridae (Insecta, Heteroptera). Spixiana 11: 111 - 126.","BAEHR M. 1990 a: Revision of the genus Megochterus Jaczewski (Insecta: Heteroptera: Ochteridae). Invertebrate Taxonomy 4: 197 - 203","NIESER N. & CHEN P. - P. 1992: Notes on Gelastocoridae and Ochteridae (Heteroptera) with the description of five new species. Storkia 1: 2 - 13.","NIESER N. & CHEN P. - P. 1999: Sixteen new species of Nepomorpha mainly from Sulawesi. Notes on Malaysian aquatic and semiaquatic bugs (Heteroptera), VIII. Tijdschrift voor Entomologie 142: 77 - 123.","POLHEMUS D. A. 1992 a: The first records of the families Ochteridae and Hebridae (Heteroptera) from the granitic Seychelles, with descriptions of two new species. Journal of the New York Entomological Society 100: 418 - 423.","POLHEMUS D. A. & POLHEMUS J. T. 2008: A new Indian Ocean species of Ochterus from the island of Mauritius (Hemiptera: Heteroptera: Ochteridae). Acta Entomologica Musei Nationalis Pragae 48: 281 - 288.","POLHEMUS D. A. & POLHEMUS J. T. 2016: Revision of the genus Ochterus (Hemiptera: Heteroptera: Ochteridae) in Mesoamerica and the United States. Tijdschrift voor Entomologie 159: 9 - 75.","POLHEMUS D. A. & POLHEMUS J. T. 2014: Ocyochterus irmae, a beautiful new species of Ochteridae (Heteroptera) from the Northern Andes. Tijdschrift voor Entomologie 157: 163 - 171.","POLHEMUS D. A. & POLHEMUS J. T. 1998: A biodiversity survey of aquatic insects in the Ajkwa River Basin and adjacent areas, Irian Jaya, Indonesia. Tropical Biodiversity 5 (3): 197 - 216.","POLHEMUS D. A. & POLHEMUS J. T. 2012: Guide to the aquatic Heteroptera of Singapore and Peninsular Malaysia. IX. Infraorder Nepomorpha, families Ochteridae and Gelastocoridae. Raffles Bulletin of Zoology 60: 343 - 359.","CHEN P. - P., NIESER N. & ZETTEL H. 2005: The aquatic and semi-aquatic bugs (Heteroptera: Nepomorpha & Gerromorpha) of Malesia. Fauna Malesiana Handbook, Vol. 5. Brill, Leiden - Boston, x + 546 pp.","STAL C. 1855: Hemiptera fran Kafferlandet. Ofversigt af Kongliga Vetenskaps-Akademiens Forhandlingar 12: 27 - 47.","CHANDRA K. & JEHAMALAR E. E. 2012: Ochterus nicobarensis sp. nov. from Great Nicobar Biosphere Reserve, Andaman and Nicobar Islands, India (Hemiptera: Heteroptera: Ochteridae). Acta Entomologica Musei Nationalis Pragae 52: 23 - 28.","ZETTEL H. & LANE D. J. W. 2010: A new species of Ochterus Latreille (Heteroptera: Ochteridae) from Brunei. Zeitschrift der Arbeitsgemeinschaft Osterreichischer Entomologen 62: 97 - 101.","MONTROUZIER P. 1864: Hemipteres Heteropteres. Pp. 223 - 242. In: PERROUD B. - P. & MONTROUZIER P.: Essai sur la faune entomologique de Kanala (Nouvelle-Caledonie) et description de quelques especes nouvelles ou peu connues. Annales de la Societe de la Linneene de Lyon, Series 2 11: 46 - 257.","UHLER P. R. 1876: List of the Hemiptera of the region West of the Mississippi river, including those collected during the Hayden explorations of 1873. Bulletin of the Geological and Geographical Survey of the Territories 1: 269 - 361 + pls. 19 - 21.","GUERIN-MENEVILLE F. E. 1843: Note sur la Naucoris rugosa de J. Desjardins, formant un nouveau genre d'Hemipteres, et description de plusieurs especes des genres Pelogonus et Mononyx. Revue Zoologique Societe Cuvier 6: 112 - 114.","DRAKE C. J. 1952: Concerning American Ochteridae (Hemiptera). Florida Entomologist 35: 72 - 75.","KORMILEV N. A. & DE CARLO J. A. 1952: Una especie nueva del genero \" Ochterus \" Latreille (1807) del Paraguay (Hemiptera, Ochteridae). Anales de la Sociedad Cientifica Argentina 154: 155 - 159.","CORDEIRO I. DA R. S., MOREIRA F. F. F. & SILVA F. A. C. DA 2014: A new Ochterus (Hemiptera: Heteroptera: Ochteridae) from northeastern Brazil, with a key to the species recorded from the country. Zootaxa 3860 (5): 493 - 497.","POPOV YU. A., DOLLING W. R. & WHALLEY P. E. S. 1994: British Upper Triassic and Lower Jurassic Heteroptera and Coleorrhyncha (Insecta: Hemiptera). Genus 5: 307 - 347.","POPOV YU. A 1986: Podotryad Cimicina (= Heteroptera). Pp. 54 - 83. In: Nasekomye v rannemelovykh ekosistemakh Zapadnoy Mongolii. Somestnaya Sovetsko-Mongol'skaya Paleontologicheskaya Ekspeditsiya. [Insects in Early Cretaceous ecosystems of Western Mongolia. The Joint Soviet-Mongolian Palaeontological Expedition.] Trudy. [Transactions]. Vol. 28. Nauka, Moskva, 214 pp (in Russian).","YAO Y. - ZH., CAI W. - ZH. & REN D. 2007: Pristinochterus gen. n. (Hemiptera: Ochteridae) from the Upper Mesozoic of northeastern China. European Journal of Entomology 104: 827 - 835.","YAO Y. - ZH., ZHANG W. - T., REN D. & SHIH CH. - K. 2011: New fossil Ochteridae (Hemiptera: Heteroptera: Ochteroidea) from the Upper Mesozoic of north-eastern China, with phylogeny of the family. Systematic Entomology 36: 589 - 600.","ANDERSEN N. M. & WEIR T. A. 2004: Australian water bugs. Their biology and identification (Hemiptera-Heteroptera, Gerromorpha & Nepomorpha). Entomograph Vol. 14. Apollo Books, Stenstrup & CSIRO Publishing, Collingwood, 344 pp.","POLHEMUS J. T. 1995 a: Family Ochetridae Kirkaldy, 1906 - velvety shore bugs. Pp. 25 - 26. In: AUKEMA B. & RIEGER CH. (eds): Catalogue of the Heteroptera of the Palaearctic Region. Vol. 1, Enicocephalomorpha, Dipsocoromorpha, Nepomorpha, Gerromorpha and Leptopodomorpha. The Netherlands Entomological Society, Amsterdam, xxvi + 222 pp.","SOUZA M. A. A. DE, MELO A. L. DE & VIANNA G. J. C. 2006: Heteropteros aquaticos oriundos do municipio de Mariana, MG. Neotropical Entomology 35: 803 - 810.","HAYASHI M., TOMOKUNI M., YOSHIZAWA K. & ISHIKAWA T. (eds) 2016: Catalogue of the insects of Japan. Vol. 4, Paraneoptera. Entomological Society of Japan & Touka-shobo, Fukuoka, 629 pp.","HAYASHI M. & MIYAMOTO S. 2018: Hemiptera. Pp. 329 - 427. In: KAWAI T. & TANIDA K. (eds): Aquatic Insects of Japan: Manual with Keys and illustrations. The second edition. Tokai University Press, Kanagawa, 1752 pp (in Japanese).","POLHEMUS D. A. & POLHEMUS J. T. 1988 a: Family Ochteridae Kirkaldy, 1906. The Velvety Shore Bugs. Pp. 541 - 543. In: HENRY T. J. & FROESCHNER R. C. (eds): Catalog of the Heteroptera, or True Bugs, of Canada and the Continental United States. E. J. Brill, Leiden, New York, Kobenhavn, Koln, xix + 958 pp.","MAW H. E. L., FOOTTIT R. G., HAMILTON K. G. A. & SCUDDER G. G. E. 2000: Checklist of the Hemiptera of Canada and Alaska. NRC Research Press, Ottawa, viii + 220 pp.","MELO M. C. 2015: Ochteroidea. Pp. 341 - 346. In: ROIG-JUNENT S., CLAPS L. E. & MORRONE J. J. (eds): Biodiversidad de Artropodos Argentinos. Vol. 3. Universidad Nacional de Tucuman, Facultad de Ciencias, San Miguel de Tucuman, 546 pp.","BACHMANN A. O. & MAZZUCCONI S. A. 2017: Family Ochteridae Kirkaldy. Pp. 203 - 204. In: COSCARON M. DEL C. (ed.): A catalogue of the Heteroptera (Hemiptera) or true bugs of Argentina. Zootaxa 4295 (1): 1 - 432.","TODD E. L. 1955: A taxonomic revision of the family Gelastocoridae (Hemiptera). University of Kansas Science Bulletin 37: 277 - 475.","TODD E. L. 1961: A checklist of the Gelastocoridae (Hemiptera). Proceedings of the Hawaiian Entomological Societ y 17: 461 - 476.","POLHEMUS D. A. & POLHEMUS J. T. 1988 b: Family Gelastocoridae Kirkaldy, 1897. The Toad Bugs. Pp. 136 - 139. In: HENRY T. J. & FROESCHNER R. C. (eds): Catalog of the Heteroptera, or True Bugs, of Canada and the Continental United States. E. J. Brill, Leiden, New York, Kobenhavn, Koln, xix + 958 pp.","POLHEMUS J. T. 1995 b: Family Gelastocoridae Kirkaldy, 1897 - toad bugs. Pp. 23 - 25. In: AUKEMA B. & RIEGER CH. (eds): Catalogue of the Heteroptera of the Palaearctic Region. Vol. 1, Enicocephalomorpha, Dipsocoromorpha, Nepomorpha, Gerromorpha and Leptopodomorpha. The Netherlands Entomological Society, Amsterdam, xxvi + 222 pp.","KMENT P. & JINDRA Z. 2008: Review of the family Gelastocoridae (Heteroptera: Nepomorpha) of south-eastern Asia. Pp. 189 - 213. In: GROZEVA S. & SIMOV N. (eds): Advances in Heteroptera research. Festschrift in honour of 80 th anniversary of Michail Josifov. PenSoft Publishers, Sofia, Moscow, 417 pp.","FAUNDEZ E. I. & ASHWORTH A. C. 2015: Notas sobre la familia Gelastocoridae (Hemiptera: Heteroptera) en el extremo sur de Chile, con descripcion de un subgenero y especie nuevos. Anales Instituto Patagonia 43: 69 - 74.","FAUNDEZ E. I. & CARVAJAL M. A. 2017: New data on the subgenus Rhinodermacoris (Insecta: Heteroptera: Gelastocoridae), with comments on its Gondwanian origin and relationships. Pp. 321 - 324. In: GUAIQUIL I., LEPPE M., ROJAS P. & CANALES R. (eds): Visiones sobre Ciencia Antarctica. Libro de Resumenes del IX Congreso Latinoamericano de Ciencia Antarctica. Punta Arenas, Chile, 4 al 6 de octubre 2017. Instituo Antartico Chileno, Punta Arenas, 931 pp.","NIESER N., CHEN P. - P. & CASPERS M. 2020: Taxonomic notes on toad bug genus Nerthra (Hemiptera: Heteroptera: Gelastocoridae) with description of a new species from Bonaire and Curacao. Acta Entomologica Musei Nationalis Pragae 60 (1): in press.","MAHNER M. 1993: Systema Cryptoceratorum Phylogeneticum (Insecta, Heteroptera). Zoologica (Stuttgart) 48: i-ix + 1 - 302."]}
-
POCCO, M. A. R. T. I. N. A. E., GUZMÁN, N. O. E. L. I. A., PLISCHUK, S. A. N. T. I. A. G. O., CONFALONIERI, V. I. V. I. A. N. A., LANGE, C. A. R. L. O. S. E., and CIGLIANO, MARÍA M. A. R. T. A.
- Systematic Entomology; Apr2018, Vol. 43 Issue 2, p290-307, 18p
- Subjects
-
BIODIVERSITY, GRASSHOPPER behavior, BIOMES, PHYLOGENY, and SPECIES distribution
- Abstract
-
Abstract: The open vegetation biomes, within the limits of the Chacoan subregion, occur along a diagonal in eastern South America covering a large range of environmental conditions. In order to contribute to the knowledge on the biodiversity of these open biomes, we analysed the phylogenetic relationships of the grasshopper genus Zoniopoda to the remaining South American Romaleinae, and examined the biogeographical patterns of diversification of the genus. The study is based on morphological and molecular (COI and H3) evidence, including 12 species of Zoniopoda and 17 species of four tribes of South American Romaleinae. We describe a new species of Zoniopoda, and test its taxonomic placement within the group. Results of our phylogenetic analyses recovered Zoniopoda as a monophyletic group with high support values. According to the dispersion–vicariance analysis, the ancestor of Zoniopoda may have been distributed in an area corresponding to the Chacoan and Cerrado provinces. A vicariant event, that could be explained by the uplift of the Brazilian Plateau and the subsidence of the Chaco, is hypothesized to have occurred splitting the ancestral distribution of Zoniopoda, resulting in the independent evolution of the Tarsata group within the Cerrado and the Iheringi group in the Chacoan subregion. This published work has been registered in ZooBank, http://zoobank.org/urn:lsid:zoobank.org:act:FCFB4C5D-1741-46F1-8E25-B37ED2B9D872. [ABSTRACT FROM AUTHOR]
- Full text
View/download PDF
-
Edghill, E. L., Stals, K., Oram, R. A., Shepherd, M. H., Hattersley, A. T., and Ellard, S.
- Diabetic Medicine; Jan2013, Vol. 30 Issue 1, p114-117, 4p, 1 Diagram
- Subjects
-
DIAGNOSIS of diabetes, KIDNEY disease diagnosis, LIVER, GENETIC polymorphisms, GENETICS, GENETIC mutation, and ANATOMY
- Abstract
-
Diabet. Med. 30, 114-117 (2013) Abstract Aims Hepatocyte nuclear factor 1β ( HNF1B) mutations cause a syndrome of renal cysts and diabetes, with whole gene deletions accounting for approximately 50% of cases. The severity of the renal phenotype is variable, from enlarged cystic kidneys incompatible with life to normal renal development and function. We investigated the prevalence of HNF1B deletions in patients with diabetes but no known renal disease. Methods We tested 461 patients with familial diabetes diagnosed before 45 years, including 258 probands who met clinical criteria for maturity-onset diabetes of the young (two generations affected and at least one family member diagnosed under 25 years). A fluorescent polymerase chain reaction assay was used to analyse two intragenic polymorphic HNF1B markers and identify heterozygous patients who therefore did not have whole gene deletions. Those patients homozygous for both markers were then tested for an HNF1B deletion using multiplex ligation-dependent probe amplification. Results Heterozygous HNF1B intragenic polymorphisms were identified in 337/461 subjects. Multiplex ligation-dependent probe amplification analysis showed an HNF1B gene deletion in three of the remaining 124 probands, all of whom met the criteria for maturity-onset diabetes of the young. Testing of their relatives identified three additional deletion carriers and ultrasound scanning showed renal developmental abnormalities in three of these six patients. Conclusions We estimate that HNF1B mutations account for < 1% of cases of maturity-onset diabetes of the young. Although HNF1B mutations are a rare cause of diabetes in the absence of known renal disease, a genetic diagnosis of renal cysts and diabetes syndrome is important as it raises the possibility of subclinical renal disease and the 50% risk of renal cysts and diabetes syndrome in the patient's offspring. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Tillman, P Glynn, Grabarczyk, Erin E, Balusu, Rammohan, Kesheimer, Katelyn, Blaauw, Brett, Sial, Ashfaq, Vinson, Edgar, and Cottrell, Ted E
- Journal of Insect Science; Mar2023, Vol. 23 Issue 2, p1-12, 12p
- Subjects
-
BROWN marmorated stink bug, STINKBUGS, PARASITISM, PREDATION, and HEMIPTERA
- Abstract
-
Stink bugs, including Halyomorpha halys (Stål) and Nezara viridula (L.), are agricultural pests that feed on fruit in a variety of crops. Monitoring predation and parasitism of stink bug egg masses furthers our understanding of potential biological control tactics. However, best practices for laboratory and field assessments of parasitism and predation of egg masses require further attention. We carried out a series of laboratory and field experiments to test whether parasitism and predation for three types of sentinel H. halys egg masses, fresh, frozen, and refrigerated, varied in agricultural commodities. In addition, we asked if predation and parasitism differed between sentinel and naturally occurring H. halys and N. viridula egg masses in soybean. In the laboratory, more H. halys eggs were parasitized by Trissolcus euschisti (Ashmead) (Hymenoptera: Scelionidae) if they were frozen or refrigerated compared to fresh eggs. Similarly, in the field, parasitism was higher for frozen egg masses than fresh. In 2018 and 2019, H. halys natural egg masses had higher parasitism and lower predation compared to sentinel egg masses in soybean. In a paired field test during 2020 and 2021, there was no difference in parasitism between H. halys natural and sentinel eggs, but much higher incidence of parasitism was detected in natural N. viridula egg masses than sentinel eggs. Collecting natural egg masses is the best methodology for field assessment of parasitism of stink bug egg masses; however, if natural egg masses are not easily available, deploying refrigerated sentinel egg masses is a good alternative. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
ÁLVAREZ, Leopoldo J., BERNARDIS, Adela M., DEFEA, Bárbara S., DELLAPÉ, Pablo M., DEL RÍO, María G., GITTINS LÓPEZ, Cecilia G., LANTERI, Analía A., LÓPEZ ARMENGOL, María F., MARINO DE REMES LENICOV, Ana M., MINGHETTI, Eugenia, PARADELL, Susana L., and RIZZO, María E.
- Revista de la Sociedad Entomológica Argentina; 2021, Vol. 80 Issue 1, p48-69, 22p
- Subjects
-
HYMENOPTERA, CURCULIONIDAE, HOMOPTERA, PEST control, INSECT collection & preservation, BEETLES, and HEMIPTERA
- Abstract
-
Copyright of Revista de la Sociedad Entomológica Argentina is the property of Sociedad Entomologica Argentina and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)
- Full text View on content provider's site
-
Kawagoe, James C, Abrams, Adelaine E, Lourie, Austin P, and Walse, Spencer S
- Pest Management Science; Jul2022, Vol. 78 Issue 7, p3090-3097, 8p
- Subjects
-
STINKBUGS, BROWN marmorated stink bug, CARBON dioxide, FUMIGATION, ATMOSPHERIC carbon dioxide, HEMIPTERA, and DILUTION
- Abstract
-
BACKGROUND: The brown marmorated stink bug (BMSB), Halyomorpha halys, has caused significant agricultural damage to numerous hosts, so agricultural producers seek to limit its spread. Where established, BMSB can also cause substantial urban and commercial disturbance, as overwintering adults may seek refuge inside dwellings, covered spaces, vehicles, and consignments. Phytosanitary authorities are most concerned with the importation of 'hitchhiking' adults in this refugia, with certain countries requiring a quarantine treatment to mitigate risk. This study explores fumigation with ethyl formate, applied as 16.7% by mass dilution in carbon dioxide, for control of adult BMSB. RESULTS: The induction of diapause, to simulate overwintering physiology, resulted in 2‐ and 3‐fold increases in the tolerance of adults toward this ethyl formate fumigation at 10 ± 0.5 °C (x¯±2s) lasting for 8 and 12 h, respectively. However, a decreased tolerance (0.7‐fold) of diapausing specimens was observed for a 4‐h duration. Diapausing and nondiapausing adult BMSB can be controlled at the probit 9 level if the headspace concentration of ethyl formate, [EF], in the carbon dioxide mixture is maintained ≥7.68 mg L−1 for 12 h at 10 ± 0.5 °C (x¯±2s). If the duration is shortened to 4 h, [EF] must be maintained ≥14.73 mg L−1 over the course of fumigation. CONCLUSION: The toxicity of ethyl formate in this mixture can be distinct for different physiological states of the same life stage, as evidenced by a ca. 3‐fold increase in the Haber's z parameter for adult BMSB when in diapause. Respective to the physiological state of adults, this study identifies how the applied dose and/or treatment duration can be modulated (i.e. tuned) to ensure adequate toxicological efficacy toward BMSB infesting hosts or refuge at temperatures ca. >10 °C. Published 2022. This article is a U.S. Government work and is in the public domain in the USA. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Balachiranjeevi, C. H., Prahalada, G. D., Mahender, A., Jamaloddin, Md., Sevilla, M. A. L., Marfori-Nazarea, C. M., Vinarao, R., Sushanto, U., Baehaki, S. E., Li, Z. K., and Ali, J.
- Euphytica; 2019, p1-14, 14p
- Subjects
-
NILAPARVATA lugens, SINGLE nucleotide polymorphisms, LOCUS (Genetics), GENOTYPES, INSECT pests, and RICE
- Abstract
-
Rice is the most important staple food crop, and it feeds more than half of the world population. Brown planthopper (BPH) is a major insect pest of rice that causes 20–80% yield loss through direct and indirect damage. The identification and use of BPH resistance genes can efficiently manage BPH. A molecular marker-based genetic analysis of BPH resistance was carried out using 101 BC1F5 mapping population derived from a cross between a BPH-resistant indica variety Khazar and an elite BPH-susceptible line Huang–Huan–Zhan. The genetic analysis indicated the existence of Mendelian segregation for BPH resistance. A total of 702 high-quality polymorphic single nucleotide polymorphism (SNP) markers, genotypic data, and precisely estimated BPH scores were used for molecular mapping, which resulted in the identification of the BPH38(t) locus on the long arm of chromosome 1 between SNP markers 693,369 and id 10,112,165 of 496.2 kb in size with LOD of 20.53 and phenotypic variation explained of 35.91%. A total of 71 candidate genes were predicted in the detected locus. Among these candidate genes, LOC_Os01g37260 was found to belong to the FBXL class of F-box protein possessing the LRR domain, which is reported to be involved in biotic stress resistance. Furthermore, background analysis and phenotypic selection resulted in the identification of introgression lines (ILs) possessing at least 90% recurrent parent genome recovery and showing superior performance for several agro-morphological traits. The BPH resistance locus and ILs identified in the present study will be useful in marker-assisted BPH resistance breeding programs. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Løkkegaard, Sanne, Elias, Daniel, Alves, Carla L., Bennetzen, Martin V., Lænkholm, Anne-Vibeke, Bak, Martin, Gjerstorff, Morten F., Johansen, Lene E., Vever, Henriette, Bjerre, Christina, Kirkegaard, Tove, Nordenskjöld, Bo, Fornander, Tommy, Stål, Olle, Lindström, Linda S., Esserman, Laura J., Lykkesfeldt, Anne E., Andersen, Jens S., Leth-Larsen, Rikke, and Ditzel, Henrik J.
- NPJ Breast Cancer; 1/4/2021, Vol. 7 Issue 1, p1-15, 15p
- Full text View on content provider's site
-
Dahlfors G, Stål P, Hansson EC, Bàràny P, Sisowath C, Onelöv L, Nelson D, Eggertsen G, Marmur J, and Beshara S
Scandinavian journal of clinical and laboratory investigation [Scand J Clin Lab Invest] 2015; Vol. 75 (8), pp. 652-8. Date of Electronic Publication: 2015 Aug 12.
- Subjects
-
Adult, Aged, Blood Chemical Analysis, Case-Control Studies, Enzyme-Linked Immunosorbent Assay, Female, Hepcidins genetics, Humans, Kidney Failure, Chronic blood, Limit of Detection, Liver metabolism, Liver Diseases blood, Male, Middle Aged, RNA, Messenger metabolism, Tandem Mass Spectrometry, Young Adult, and Hepcidins blood
- Abstract
-
Background: Hepcidin-25 is a potential marker for iron disorders with a demand for accessible assays. This study aimed to evaluate a commercial competitive enzyme-linked immunosorbent assay (cELISA) for hepcidin quantitation.
Methods: Serum samples; 95 healthy subjects (HS), six patients with iron deficiency (ID), 84 patients with liver disorders (LD) and 220 hemodialysis patients (HD), were analyzed. Controls were used for imprecision, while accuracy was evaluated by quantitating hepcidin-25 with LC-MS/MS in 149 samples. Cross-reactivity for hepcidin-20 and hepcidin-22 was tested. Hepcidin-mRNA expression in 37 liver biopsies was measured.
Results: S-hepcidin ranged from 8-76 and 2-31 μg/L in healthy men and women. Levels in ID, LD and HD significantly differed from HS. Total coefficients of variation (CV) for controls were 24% and 22%. Within-sample CV was 10%. Despite a good correlation with LC-MS/MS (r = 0.89), the cELISA showed higher values and detected hepcidin-20 and hepcidin-22. Hepcidin-mRNA correlated well with S-hepcidin using cELISA and LC-MS/MS (r = 0.69 and 0.64).
Conclusions: The correlation with LC-MS/MS is good and the examined kit can differentiate between patient groups although it is not specific for hepcidin-25. Considering ELISA's capacity to readily be set up, the investigated kit can be applied. Specific reference ranges are required.
- Full text
View/download PDF
-
Negbenebor, H. E., Abdullahi, R. I., Nura, S., and Sharif, U.
- Bayero Journal of Pure & Applied Sciences; Jun2020, Vol. 13 Issue 1, p145-151, 7p
- Subjects
-
SESAME, BOTANICAL insecticides, INSECTICIDES, CARDIAC glycosides, INSECT mortality, HEMIPTERA, and EXTRACTS
- Abstract
-
A study was conducted to investigate the insecticidal potency of leaf and stem ethanolic extracts of white sesame (Sesamum indicum L.) on the pod-sucking bug (Clavigralla tomentosicollis Stal.) under laboratory conditions. Four different concentrations of the extracts (5.00, 10.00, 15.00 and 20.00 mg/l) of ethanolic extracts were prepared from the leaf and stem parts of the Sesame plant. Water and Cypermethrin were used as negative and positive controls. Fresh cowpea pods were treated with the various concentrations of the stem and leaf ethanolic extracts and the pod-sucking bugs were introduced into the jars containing the pods. The result obtained revealed significant differences (P≤0.05) in the effect of various concentrations in inducing mortality of the insects at different instars. The extracts were more effective in the first (1st) instars against the pod-sucking bugs. The activity is concentration dependent as it increases with increase in concentration of the extract. However, leaf ethanolic extract proved to be more effective. More so, the percentages of pods infested by the bugs were found to be lower among the 20.00 mg/l treated pods in both stem and leaf ethanolic extracts. The phytochemical result indicated the presence of certain phytochemicals such as alkaloids, carbohydrates, cardiac glycosides, diterpenoids, flavonoids, proteins, saponins, steroids, tannins and triterpenoids that were proved to be vital in the insecticidal activity of the extracts. Thus, the stem and leaf ethanolic extracts of sesame are effective botanical insecticides against C. tomentosicollis especially at 20.00 mg/l of the leaf extract. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Assefa, Yoseph, Tiroesele, Bamphitlhi, Segwagwe, Amogelang, and Madisa, Mogapi E.
- African Journal of Ecology; Sep2015, Vol. 53 Issue 3, p381-384, 4p
- Subjects
-
LANTANA camara, ORNAMENTAL plants, BIOSAFETY, QUARANTINE, ECOSYSTEM dynamics, NATURALIZATION, and WEEDS
- Abstract
-
The article presents a research focused on analyzing the status of ornamental plant lantana camara that grows in the urban areas and also discusses its implication on the biosafety and quarantine of the region. Various topics discussed in the research includes natural enemies of lantana, natural ecosystem of Botswana and impact of naturalization on weed removal.
- Full text View on content provider's site
-
van Prehn J, van Triest MI, Altorf-van der Kuil W, and van Dijk K
Clinical microbiology and infection : the official publication of the European Society of Clinical Microbiology and Infectious Diseases [Clin Microbiol Infect] 2019 Apr; Vol. 25 (4), pp. 518-520. Date of Electronic Publication: 2018 Dec 04.
- Subjects
-
Humans, Microbial Sensitivity Tests, Netherlands epidemiology, Prevalence, Streptococcal Infections epidemiology, Streptococcal Infections microbiology, Streptococcus mitis isolation purification, Streptococcus oralis isolation purification, Anti-Bacterial Agents pharmacology, Carbapenems pharmacology, Cephalosporins pharmacology, Registries statistics numerical data, Streptococcus mitis drug effects, Streptococcus oralis drug effects, and beta-Lactam Resistance
-
Valentin, Rafael E, Maslo, Brooke, Lockwood, Julie L, Pote, John, and Fonseca, Dina M
- Pest Management Science; Oct2016, Vol. 72 Issue 10, p1854-1861, 8p
- Subjects
-
POLYMERASE chain reaction, BIOLOGICAL assay, STINKBUGS, PREDATORY animals, INTRODUCED organisms, and NONINDIGENOUS pests
- Abstract
-
BACKGROUND Early detection before establishment and identification of key predators are time-honored strategies towards effective eradication or control of invasive species. The brown marmorated stink bug (BMSB), Halyomorpha halys, is a recent exotic pest of several important crops in North America and Europe. Resulting widespread applications of insecticides have countered years of careful integrated pest management and are leading to the resurgence of other agricultural pests. Environmental DNA (eDNA) has been used effectively to detect aquatic invasives. RESULTS We developed a real-time PCR (qPCR) assay for BMSB in a conserved region of the ribosomal DNA interspacer 1 (ITS1). We validated this assay on worldwide populations of BMSB and tested its specificity and sensitivity against other US Pentatomidae species and on guano of big brown bat, Eptesicus fuscus, which we confirmed is a BMSB predator in New Jersey. We also detected BMSB DNA after rapid (and inexpensive) HotSHOT DNA extractions of soiled paper from cages briefly holding BMSB, as well as from discarded exuviae. CONCLUSION Given the high sensitivity of our assay to BMSB environmental DNA (eDNA) in terrestrial samples, this tool should become a cost-effective approach for using eDNA to detect terrestrial invasive species and their key predators. © 2016 Society of Chemical Industry [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
OLATUNDE, G. O., ODEBIYI, J. A., CHIANG, H. S., and JACKAI, L. E. N.
- Insect Science & Its Application; 08/01/1991, Vol. 12 Issue 4, p455-461, 7p
-
Golub, Viktor B. and Heiss, Ernst
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, Tingidae, Leptopharsa, and Leptopharsa antica
- Abstract
-
Leptopharsa antica sp.nov. Fig. 2 Material. Holotype: mаle, deposited аs DOM-TING-04 in CEHI аnd lаbeled аccordingly. Distribution. Miocene Dominicаn аmber, Dominicаn Republic. Diagnosis. All mаin morphologicаl chаrаcters of the new species indicаte thаt it belongs to the recent genus Leptopharsa Stål, 1873 аs redescribed by M.P. Hurd (1946): heаd аrmed with three spines (аs in recent species L. gibbicarina Froeschner, 1976); аntennаe thin аnd long; lаmellаte pаrаnotа deflected obliquely dorsаd but not bent onto pronotаl disc; lаmellаte pronotаl cаrinаe not very high, with one row of аreolаe; hemelytrа produced posteriorly, discoidаl аreа short (less thаn hаlf the length of hemelytron). Ventrаl fаce of holotype cаnnot be exаmined becаuse of the dаrkness of the аmber piece. The new species is closely relаted to Miocene L. poinari Golub et Popov, 2000 described from Dominicаn аmber. It differs from L. poinari by hаving only one frontаl spine, distinctly shorter аntennаe, slightly wider hood (vesiculа or cyst аuct. = аreolаte vesiculаr structure on аnterior mаrgin of pronotum), lаterаl pronotаl mаrgins less convex, costаl аreа of hemelytrа wider with three rows of аreolаe аt bаsаl hаlf, hemelytrаl membrаne with mаximаlly seven rows of аreolаe, lаterаl veins of pаrаnotа аnd hemelytrа nude. Heаd of L. poinari is аrmed with three frontаl spines, аntennаe very long аnd distinctly longer thаn in L. antica, the hood nаrrower (somewhаt depressed lаterаlly), lаterаl pronotаl mаrgins slightly sinuаte аt middle of their length, costаl аreа of hemelytrа nаrrower аnd biseriаte in bаsаl hаlf, membrаne with five to six rows of аreolаe аt the lаrgest pаrt, lаterаl veins of pаrаnotа аnd hemelytrа covered with minute bristles (Golub & Popov 2000). L. antica differs cleаrly from Miocene L. evsyunini Golub аnd Popov, 2000 by hаving one frontаl spine (three in L. evsyunini), nаrrower аnterolаterаl аngles of pаrаnotа not produced (vs. distinctly produced аnteriorly), four rows of аreolаe in costаl аreа of hemelytrа (vs. only three rows of lаrger аreolаe аnd а single аreolа of а fourth row аt the widest pаrt), five rows of аreolаe in discoidаl аreа (vs. only 3 rows). Miocene L. frater Golub et Popov, 2003 differs from the new species by hаving three frontаl spines (аs L. poinari аnd L. evsyunini), noticeаbly nаrrower hood, distinctly diverging аpices of folded wings, three rows of аreolаe in subcostаl аreа, four to five rows of in bаsаl pаrt of costаl аreа аnd three rows in аpicаl hаlf of membrаne (Golub & Popov 2003). The new species а s well аs L. poinari аre similаr to recent L. elegantula Stаl, 1873, the type species of the genus, described from Columbiа аnd recorded аlso in Ecuаdor, Boliviа аnd Brаzil. All three species hаve а similаr hаbitus, relаtively nаrrow pаrаnotа with two rows of аreolаe аnd hemelytrаl аpices not diverging in repose. L. elegantula differs from the new species by its lаrger size (3 mm), three frontаl spines, costаl аreа of hemelytrа with only three rows of аreolаe аt the widest pаrt. Recent species L. gibbicarina Froeschner, 1976 (known аs pest of oil pаlm) described from Colombiа аnd hаving only one frontаl spine differs from Leptopharsa antica by strongly rounded mаrgins of pаrаnotа, lаrger hood, divergent аpices of hemelytrа аnd the presence of аn oblique dаrk strip on the hemelytrа (Froeschner 1976). Description. Mаcropterous mаle; body distinctly elongаte аnd rаther nаrrow, аpproximаtely 2.38 times аs long аs wide. Colorаtion dorsаlly yellowish-fuscous, venter, heаd аnd pronotаl disc blаck, аntennаe brown, legs yellowish fuscous with blаck tаrsi on hind legs. Hemelytrа аnd pаrаnotа with rаther lаrge trаnspаrent аreolаe. Mаrginаl veins of pаrаnotа аnd hemelytrа nude, without spines or hаirs. Heаd short аnd wide, 1.9 times аs wide аs long, with two occipitаl аnd one frontаl very thin spine; occipitаl spines (only left ones cleаrly visible) rаther long, аdjаcent to heаd аnd аlmost reаching the аnterior mаrgin of eye; frontаl spine directed forwаrd аnd obliquely upwаrd. Frons convex. Eyes lаrge аnd globulаr, lаterаlly produced аnd exposed ventrаlly. Antenniferous tubercles very smаll, with obtuse аpices. Antennаe long аnd slender; аntennаl segment III longest, 2.5 times аs long аs segment IV аnd 1.32 times аs long аs width of heаd. Pronotum with three lаmellаte, relаtively low longitudinаl cаrinаe beаring one row of smаll, rectаngulаr аreolаe. pronotаl disc convex аnd аreolаte. Hood (vesiculа) tectiform, slightly inflаted lаterаlly, rаther elevаted, its аnterior mаrgin subаngulаte аnd produced, covering bаse of heаd, vesiculа with five to six аreolаe аlong eаch side of the midline. Pаrаnotа moderаtely wide, obliquely reflexed upright, with two rows of rаther lаrge, mostly quаdrаngulаr аreolаe; аnterior аngles of pаrаnotа widely rounded аnd not projecting аnteriorly, lаterаl mаrgins slightly convex. Triаngulаr posterior pronotаl process well developed аnd with obtuse аpex. Hemelytrа much longer thаn аbdomen, lаterаl mаrgins of the folded wings pаrаllel to eаch other, slightly sinuаte аt hаlf their length, аpices not diverging. Hemelytrа cleаrly subdivided into costаl, subcostаl, discoidаl аnd suturаl аreаs by elevаted veins. Costаl аreа very wide, with three rows of lаrge аreolаe mostly quаdrаngulаr аnd pentаgonаl forms for most of its length, with one to two аreolаe of the fourth row аt the widest pаrt, аpicаlly biseriаte аnd uniseriаte аt аpex. Subcostаl аreа very nаrrow, with two rows of rаther smаll, quаdrаngulаr аnd pentаgonаl аreolаe in the bаsаl hаlf of its length, with one row of rectаngulаr аreolаe increаsing in size towаrds the аpex of hemelytron in its аpicаl hаlf. Discoidаl аreа is short аnd rаther wide with five rows of аngulаr аreolаe in the widest pаrt. Suturаl аreа with one row of quаdrаngulаr аreolаe аlong bаsаl hаlf of discoidаl аreа which аre increаsing in size towаrds аpex. Posterior wings well developed, longer thаn аbdomen; on the left hind wing indistinct veins аre recognizаble representing Subcostаl- Rаdiаl- аnd Cubitаl veins аnd probаbly а trаnsverse vein connecting the lаtter (nomenclаture of veins аfter Drаke аnd Dаvis, 1960). Measurements. (in mm): body length—2.5, body width (аpproximаte, аs the left wing is spreаd аside)—1.05; pronotum length—0.98; pronotum width—0.75; heаd length from posterior mаrgin of eyes to аpex of clypeus— 0.2; heаd width—0.38; length of аntennаl segments (I, II, III, IV; аpproximаte becаuse of the oblique position of the аntennаe)—0.12, 0.08, 0.5, 0.2; length of hemelytron—1.78; length of discoidаl аreа—0.72; length of foreleg segments: femur—0.35, tibiа—0.52, tаrsus—0.008. Etymology. The epithet of this interesting species refers to its аge from anticus >Lаtin
-
Panizzi, A. R. and Lucini, T. L.
- Arthropod-Plant Interactions; Feb2022, Vol. 16 Issue 1, p1-14, 14p
- Abstract
-
Most stink bugs (Pentatomidae) are polyphagous and feed on an array of cultivated and non-cultivated plants. Among the last, weed plants play an important role in their bioecology and pest status, particularly in the Neotropics, in where stink bugs are active during most of the year. In spite of this, the weeds role is, in general, underestimated. In this review article we present and discuss the importance of weed plants present in row crops and pasture lands, affecting stink bugs pests of major commodities in the Neotropics. We surveyed the literature and other sources (unpublished records) on the presence of stink bugs on weed plants. These plants were ranked as hosts (allowing nymph development and/or adult reproduction) or as associated plants (providing some nutrients/water/shelter, but not allowing nymph and/or adult performance). The following stink bug pest species were covered: The green-bellied stink bugs, Diceraeus furcatus (F.) and D. melacanthus Dallas; the Neotropical brown sink bug, Euschistus heros (F.); the brown-winged stink bug, Edessa meditabunda (F.); the southern green stink bug, Nezara viridula (L.); the rice stink bugs, Oebalus poecilus (Dallas) and O. ypsilongriseus (De Geer); the red-banded stink bug, Piezodorus guildinii (Westwood); the rice stalk stink bug, Tibraca limbativentris Stål; and the red-shouldered stink bug, Thyanta perditor (F.). The survey showed plants from 16 different families interacting with the 10 species of pest pentatomids analyzed, with the greater number of species of Fabaceae (16+), Poaceae (14+), and Asteraceae (7). Data demonstrated that, in the modern landscape scenario of agricultural areas in the Neotropics, highly polyphagous species, such as N. viridula, tend to suffer greater impact, while the oligophagous species, E. heros, D. furcatus, and D. melacanthus, in contrast, tend to be favored. The management of weed plants through the increase use of herbicides, multiple cropping, and the non-tillage cultivation systems seems to be the major factors influencing the interactions of stink bugs and weeds, changing the population dynamics of pest stink bugs in the Neotropics, and, consequently their pest status. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Bout A, Tortorici F, Hamidi R, Warot S, Tavella L, and Thomas M
Insects [Insects] 2021 Aug 24; Vol. 12 (9). Date of Electronic Publication: 2021 Aug 24.
- Abstract
-
We report the first detection of Trissolcus mitsukurii in France. More than 1860 sentinel egg masses of Halyomorpha halys (BMSB) were exposed in the field during the 2018-2020 period, and 12 specimens of T. mitsukurii emerged from one egg mass. Their taxonomic identification was confirmed both by morphological and molecular analysis. Trissolcus mitsukurii , similar to T. japonicus , is an egg parasitoid of BMSB in its area of origin in Asia, and both species are considered to be candidates for a classical biological control strategy against BMSB. Trissolcus mitsukurii was previously recorded in Italy where it is well established and widespread, and this may be the source of the French population. Possible permanent establishment and dispersion of T. mitsukurii in France should be monitored with emphasis on its potential effect on BMSB populations.
- Full text
View/download PDF
-
Seidel, E J, Pazini, J B, Tomazella, V L D, Vieira, A M C, Silva, F F, Martins, J F S, and Barrigossi, J A F
- Environmental Entomology; Oct2020, Vol. 49 Issue 5, p1145-1154, 10p
- Subjects
-
STINKBUGS, POPULATION dynamics, RICE, PEST control, and PADDY fields
- Abstract
-
The rice stem stink bug, Tibraca limbativentris Stål (Hemiptera: Pentatomidae), is one of the most harmful insects for Brazilian rice fields. Aiming to define the most appropriate time and place for pest management measures in commercial paddy fields, we adjusted regression models (Poisson, Zero Inflated Poisson, reparametrized Zero Inflated Poisson, Negative Binomial and Zero Inflated Negative Binomial) for modeling the population variation of T. limbativentris along the phenological cycle of the flooded rice cultivation. We hypothesize that the rice stem stink bug population's size is influenced by the rice cycle (time) and geographical positions within the crop. It was possible to predict the occurrence of the rice stem stink bug in the commercial flooded rice crop. The population of the rice stem stink bug increased significantly with the time or phenological evolution of rice. Our results indicated that the start of T. limbativentris monitoring should occur up to 45 d After Plant Emergence (DAE), from the regions along the edges of the rice paddies, which are the points of entry and higher concentration of the insect. In addition, 45 and 60 DAE were considered the crucial times for T. limbativentris control decision making in flooded rice paddies. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Abrams, Adelaine E, Alvarez, Alfredo, Rodriguez, Matthew S, Kron, Cindy R, Bellamy, Dave E, and Walse, Spencer S
- Journal of Economic Entomology; Dec2021, Vol. 114 Issue 6, p2297-2306, 10p
- Subjects
-
BROWN marmorated stink bug, STINKBUGS, HEMIPTERA, GREENHOUSES, ADULTS, and COWPEA
- Abstract
-
Brown marmorated stink bug (BMSB), Halyomorpha halys (Stål) (Hemiptera: Pentatomidae), is a pest of concern that must be controlled for market access of host material and regulated articles to certain countries. This work outlines a rearing system for BMSB on live cowpea plants, Vigna unguiculata (L.) Walp. (Fabales: Fabaceae), including methods to induce adults to both enter and exit diapause. This scalable system affords continuous access to >600 specimens per week of each life stage and/or age group, which is particularly advantageous when developing treatment efficacy data. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Koona, P., Osisanya, E. O., Lajide, L., Jackai, L. E. N., and Tamo, M.
- Journal of Applied Entomology; Jun2003, Vol. 127 Issue 5, p293, 6p
- Subjects
-
PLANT chemical defenses, VIGNA, and COREIDAE
- Abstract
-
The effects of secondary metabolites in different Vigna species on the development of Clavigralla tomentosicollis were investigated in an artificial seed system using different fractions of crude pod extracts, while the orientation response of this pod-bug to volatile extracts was studied using a dual-choice olfactometer. Feeding on the neutral fraction extracts, in contrast to the basic and acidic fractions, resulted in significantly higher mortalities, longer total developmental time, and lower growth index of the insects in comparison with controls. All volatile extracts elicited an avoidance reaction by C. tomentosicollis, except the volatile from the susceptible genotype IT84S-2246 which generally attracted as many insects as controls. Extracts from wild Vigna species showed higher activity than those from their cultivated relatives. The present study which has established that most secondary metabolites in cowpea pods were localized in the neutral fraction of the crude extract, could facilitate experiments on the separation and characterization of the toxic factors involved. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Arhrib, A., Hernandez-Sanchez, J., Mahmoudi, F., Santos, R., Akeroyd, A., Moretti, S., Yagyu, K., Yildirim, E., Khater, W., Krawczyk, M., Najjari, S., Sokołowska, D., Osland, P., Purmohammadi, M., Pruna, G., Sharma, P., Stål, O., Aoki, M., Basso, L., and Ginzburg, I.
- European Physical Journal C -- Particles & Fields; May2017, Vol. 77 Issue 5, p1-33, 33p
- Subjects
-
HIGGS bosons, SCALAR field theory, SUPERSYMMETRY, STANDARD model (Nuclear physics), DARK matter, and MATHEMATICAL models
- Abstract
-
The goal of this report is to summarize the current situation and discuss possible search strategies for charged scalars, in non-supersymmetric extensions of the Standard Model at the LHC. Such scalars appear in Multi-Higgs-Doublet models, in particular in the popular Two-Higgs-Doublet model, allowing for charged and additional neutral Higgs bosons. These models have the attractive property that electroweak precision observables are automatically in agreement with the Standard Model at the tree level. For the most popular version of this framework, Model II, a discovery of a charged Higgs boson remains challenging, since the parameter space is becoming very constrained, and the QCD background is very high. We also briefly comment on models with dark matter which constrain the corresponding charged scalars that occur in these models. The stakes of a possible discovery of an extended scalar sector are very high, and these searches should be pursued in all conceivable channels, at the LHC and at future colliders. [ABSTRACT FROM AUTHOR]
- Full text
View/download PDF
-
den Heijer, Casper D. J., Hoebe, Christian J. P. A., van Liere, Geneviève A. F. S., van Bergen, Jan E. A. M., Cals, Jochen W. L., Stals, Frans S., and Dukers-Muijrers, Nicole H. T. M.
- BMC Infectious Diseases; 4/20/2017, Vol. 17, p1-10, 10p, 1 Diagram, 3 Charts, 1 Graph
- Subjects
-
NEISSERIA gonorrhoeae, SEXUALLY transmitted diseases, ANTIBIOTICS, CHLAMYDIA trachomatis, GYNECOLOGISTS, DIAGNOSIS, CHLAMYDIA infection diagnosis, GENITOURINARY disease diagnosis, GONORRHEA diagnosis, CLINICS, GENITOURINARY diseases, GONORRHEA, DISEASES in men, NEISSERIA, PHARYNGEAL diseases, PHYSICIANS, GENERAL practitioners, CROSS-sectional method, and RECTAL diseases
- Abstract
-
Background: Gonorrhoea, caused by Neisseria gonorrhoeae (NG), can cause reproductive morbidity, is increasingly becoming resistant to antibiotics and is frequently asymptomatic, which shows the essential role of NG test practice. In this study we wanted to compare NG diagnostic testing procedures between different STI care providers serving a defined geographic Dutch region (280,000 inhabitants).Methods: Data on laboratory testing and diagnosis of urogenital and extragenital (i.e. anorectal and oropharyngeal) NG were retrieved from general practitioners (GPs), an STI clinic, and gynaecologists (2006-2010). Per provider, we assessed their contribution regarding the total number of tests performed and type of populations tested, the proportion of NG positives re-tested (3-12 months after treatment) and test-of-cure (TOC, within 3 months post treatment).Results: Overall, 17,702 NG tests (48.7% STI clinic, 38.2% GPs, 13.1% gynaecologists) were performed during 15,458 patient visits. From this total number of tests, 2257 (12.7%) were extragenital, of which 99.4% were performed by the STI clinic. Men were mostly tested at the STI clinic (71%) and women by their GP (43%). NG positivity per visit was 1.6%; GP 1.9% (n = 111), STI clinic 1.7% (n = 131) and gynaecology 0.2% (n = 5). NG positivity was associated with Chlamydia trachomatis positivity (OR: 2.06, 95% confidence interval: 1.46-2.92). Per anatomical location, the proportion of NG positives re-tested were: urogenital 20.3% (n = 36), anorectal 43.6% (n = 17) and oropharyngeal 57.1% (n = 20). NG positivity among re-tests was 16.9%. Proportions of NG positives with TOC by anatomical location were: urogenital 10.2% (n = 18), anorectal 17.9% (n = 7) and oropharyngeal 17.1% (n = 6).Conclusions: To achieve best practice in relation to NG testing, we recommend that: 1) GPs test at extragenital sites, especially men who have sex with men (MSM), 2) all care providers consider re-testing 3 to 12 months after NG diagnosis and 3) TOC is performed following oropharyngeal NG diagnosis in settings which provide services to higher-risk men and women (such as STI clinics). [ABSTRACT FROM AUTHOR]
- Full text
View/download PDF
-
Cornelius, Mary L, Herlihy, Megan V, Vinyard, Bryan T, Weber, Donald C, and Greenstone, Matthew H
- Journal of Economic Entomology; Apr2021, Vol. 114 Issue 2, p590-596, 7p
- Subjects
-
STINKBUGS, BROWN marmorated stink bug, PREDATION, HEMIPTERA, SPECIES, and LANDSCAPES
- Abstract
-
This study evaluated parasitism and predation on sentinel egg masses of three stink bug species, the spined soldier bug, Podisus maculiventris (Say), the brown stink bug, Euschistus servus (Say), and the invasive brown marmorated stink bug (BMSB), Halyomorpha halys (Stål), in ornamental landscapes composed of either native or exotic plants. This study also compared the species composition of parasitoids attacking two native stink bug species (P. maculiventris and E. servus) with those attacking the invasive BMSB on the same tree species in the same habitat. Overall, egg parasitism and predation were much higher on the two native stink bug species compared with BMSB, with an average parasitism rate of 20.6% for E. servus , 12.7% for P. maculiventris , and only 4.2% for H. halys and an average predation rate of 8.2% for E. servus, 17.7% for P. maculiventris, and 2.3% for H. halys. Egg predation was also significantly higher on P. maculiventris than on E. servus eggs. Eight parasitoid species attacked sentinel stink bug eggs in the ornamental landscaped plots. Trissolcus euschisti (Ashmead) (Hymenoptera: Scelionidae) was the predominant parasitoid for all three stink bug species. There were no significant differences in parasitism and predation rates on any of the stink bug species between native and exotic plots. Therefore, there is no evidence that ornamental landscapes composed of native plants increased parasitism or predation rates of sentinel egg masses of two native stink bug species or the invasive BMSB, compared with those composed entirely of exotic plants. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Arribas, Scar J. and Remon, Nuria
- Subjects
-
Biodiversity, Taxonomy, Animalia, Chordata, Reptilia, Squamata, Lacertidae, Iberolacerta, Iberolacerta monticola, and Iberolacerta monticola astur arribas & gal��n
- Abstract
-
Iberolacerta monticola astur Arribas & Gal��n ssp. nov. (��ig. 9 ���l 2) Synonymy/Chresonymy: Lacerta monticola (partim); Salvador, 1984, Lacerta monticola Boulenger, 1905. Iberische Gebirgseidechse. In B��hme, W. (ed.): Handbuch der Reptilien und Amphibien Europas. pp 276���289. Aula Verlag. Wiesbaden (from El Tambar��n, Le��n, Spain). H��l��type. (MNCN 44652) (ex ��A0908l 509). An adult male (��ig. 9 E) fr��m Salientes (Palaci��s del Sil, Leon, Spain). White cardb��ard label attached t�� the right f��relimb (hand-written)∶ La P��za del Puert��. Salientes (Le). l 5 - vIII- 2009. 0 9. A red plastic label (Dym�� ��) attached t�� left hindlimb (in white letters and relief) "H��L������PUS". ��scar Arribas leg. In the MNCN c��llecti��n (Muse�� Naci��nal de Ciencias Naturales. Madrid, Spain). Paratypes ∶ (23 males and 43 females). ��en males and ten females fr��m Salientes and El ��ambaron (Palaci��s del Sil, Leon, Spain), 7 -vIII- 2008 (��A0808070l-l0, 0 3, l0-l 9). ��hree males and six females fr��m Salientes (Palaci��s del Sil, Leon, Spain) l 5 -vIII- 2009 (��A0908l 502 -08,l0). ��ne male and three females fr��m M��lar de M��ntrand�� (Palaci��s del Sil, Leon, Spain), 5 -vIII- 2006 (��A0608050l-04). ��w�� females fr��m El ��ambaron (Palaci��s del Sil, Leon, Spain), 9 -vII- 2007 and l 7 -vIII- 2008 (��A0707090l, ��A0808l 707). ��ne male and f��ur females fr��m Brana de Pena vendimia (Palaci��s del Sil, Leon, Spain), l 4 -vIII- 2009 (��A0908l 40 l-05). ��ne male and tw�� females fr��m C��llad�� de ��cidiell��-Arc��s del Agua (Iguena, Leon, Spain), l 4 -vII- 2009 (��A0907l 40 l- 03). ��ne male and tw�� females fr��m L��s Bay��s-valdel��s�� (Murias de Paredes, Leon, Spain), l 2 -vII- 20 l0 (��Al007l 20 l-03). ��ne male and tw�� females fr��m Ri��lag�� de Babia (San Emilian�� de Babia, Leon, Spain), 28 - vII- 20 l0 (��Al007280l-03). ��ne male and three females fr��m Sierra de las ��iendas, P��sada de ��mana (Murias de Paredes, Leon, Spain), l0 & 27 -vII- 20 l0 (��Al007l00l-03; ��Al007290l). ��hree females fr��m M��rtera de la vie��a-El Suspiron (Murias de Paredes, Leon, Spain), 9 -vIII- 2008 (��A0808090l-03). ��ive males and six females fr��m Sierra de villabandin (Murias de Paredes, Leon, Spain), 8 -vIII- 2008 (��A0808080l-ll). All paratypes with red plastic labels (Dym�� ��) with white letters in relief "PARA����PUS" attached t�� their left hindlimbs. Six paratypes are cleared and alizarin-stained f��r b��ne study. Eight paratypes in the MNCN (Madrid) (MNCN 44653-44660; ex-��A08080708-l0,l 4 -l 6, l 8 and l 9, fr��m Salientes, Leon; f��ur males and f��ur females), f��ur in NHMW (vienna) (NHMW 39207 - 392 l0; ex-��A0908l 50 l-04; fr��m Salientes, Leon; tw�� males and tw�� females), and the remaining in ��scar Arribas study c��llecti��n, that will be dep��sited in future in a Spanish public c��llecti��n. ����p��genetypes (sensu Chakrabarty 20 l0)∶ Sequences ��f Genbank are expressed in ��able l. Cyt b: HQ 234900 (Salientes and L��s Bay��s), JN048500 (Ri��lag�� de Babia, La Canada =villabandin and ��iendas), JN048502 (La Canada =villabandin). CR: HQ 234877 - 79 (Salientes and L��s Bay��s), E��l 2 l 835 (Ri��lag�� de Babia, La Canada = villabandin, and Suspiron). Micr��satellite data are in Dryad∶ d��i∶l 0.506 l���dryad.rh05d. Diagnosis. A relatively large Iberolacerta, especially characterized am��ng NW Iberian Iberolacerta by the f��ll��wing characters∶ L��w number ��f c��llar scales, high number ��f transversal ventral plate r��ws, l��wer c��unts ��f 4 th -t��e subdigital lamellae, relative l��w frequency ��f c��ntact am��ng r��stral and internasal plates (��nly in near a third ��f specimens c��ntact clearly). P��st��cular usually separated fr��m parietal plate. N�� c��ntact between supranasal and l��real plates. High number ��f axillary blue ��celli. Dark pigmentati��n in ventral plates less extended. Males with sh��rter hind and f��relegs. Relatively l��nger pilei (especially in males). Greater maseteric and smaller tympanic plates. Less transverse ventral scale r��ws (in males) and smaller anal plate. High c��unts ��f premaxillary, maxillary and dentary teeth. Squam��sal b��ne regularly arched. Males with 26 (rarely 25) and females with 27, 28 ��r 29 presacral vertebrae. Partial mit��ch��ndrial DNA sequences f��r the Cyt b gene (398 bp) present a genetic distance ��f 5 % t�� I. galani, 5.2 ��� 5.3 % t�� I. martinezricai and 3.5 % (l 4 mutati��ns) t�� I. monticola s. str. Nuclear (Micr��satellites) distances t�� I. galani are 0.64 (NML-II) t�� 0.82 (NML-I), and t�� I. monticola s. str. l.07 (NML-I) t�� l. 2 (NML-II), being smaller t�� the f��rmer due t�� the past intr��gressi��n. Internal Nei's distance (micr��satellites) between NML-I and NML-II is small (D = 0.243). Description of holotype. An adult male with regenerated tail and a very distinctive bifurcate tail tip (��ig. 9 E). Bi��metry∶ Sn��ut-vent length (SvL)∶ 65.ll mm; ����relimb length (��LL)∶ 20.56 mm; Hindlimb length (HLL)∶ 3 l. 57mm; Pileus length (PL)∶ l 5.94mm; Pileus width (PW)∶ 7.5 lmm; Parietal length (PaL)∶ 5.77mm; Masseteric scale diameter (DM)∶ 3.l 3mm; ��ympanic scale diameter (D��)∶ l. 79mm; Anal width (AW)∶ 4.24mm, and Anal length (AL)∶ 2.24mm. Rati��s∶ ��LL���SvL (relative f��relimb length; "��LL index")∶ 0.3 l 577; HLL ���SvL (relative hindlimb length, " HLL index")∶ 0.48487; PL���PW (pileus shape, "Pileus index")∶ 2.l 225; DM���PaL (relative masseteric plate size, "Masseteric index")∶ 0.54246; D�����PaL (relative tympanic size, "��ympanic index")∶ 0.3 l02; AL���AW (anal plate surface, "Anal f��rm index")∶ 0.52830 l 9; and AS ���SvL (Variability. Bi��metric and scalati��n values ��f I. m. astur ssp. n��v. and c��mparis��n with the ��ther Iberolacerta species fr��m the NW Iberian Peninsula are sh��wn in ��ables 2 (males) and 3 (females). Pictures ��f I. m. astur ssp. n��v. fr��m different p��pulati��ns are in ��ig. 9 A���H and l0 A���H. C��ncerning certain singular scalati��n characters, fr��m 63 lizards studied, 8 exhibit an azyg��s scale between prefr��ntals (l 2.7 % ��f t��tal specimens). ��his pr��p��rti��n varies am��ng l��calities∶ in the numer��us Salientes sample (l��c. l��� 8 in ��ig. lA) is present in the ll.l % (5 ��ut ��f 45), whereas in S��uth villabandin (l��c. l 4 in ��ig. lA) reaches a 27.2 % (3 ��ut ��f ll). N��ne ��f the S�� de las ��iendas-Suspiron ��r Babia (l��c. 9 ���ll and l 5 in ��ig. lA, respectively) specimens studied presented this an��maly (7 studied in t��tal). variability in the c��l��rati��n ��f breeding males (��ig. 9 A���D)∶ In life, d��rsal tract fr��m green (28 A 6) t�� yell��wish-green (29 A 7) [8 G�� 8.0��� 6.4 t�� 7.5 G�� 8.0��� 8.7] and t�� greenish grey (28 B 2) [5 G�� 8.0��� 0.8] in the vermiculated m��rph, all them during the breeding peri��d (in Salientes area) (��ig. 9 C). ��utside breeding peri��d (��ig. 9 �����G, ��ig. l0 ��), as the h��l��type, with d��rsal tract grayish-��range (6 B 5) [5 ��R 7.5 ��� 3.9] base c��l��r, less green in general, even yell��wish gray (3 D 2) [4.5 �� 8.l���l. 2]. D��rsal tract with irregular d��ts, slightly transverse, aligned t��wards the d��rsum center, leaving clearer gr��und t��ne (with��ut black) areas t��ward sides. Alternatively, there can be tw�� paravertebral r��ws ��f d��ts, aligned and als�� slightly transverse, nearly c��ntacting with the c��stal (temp��ral) bands. ��ld males are usually m��re pigmented, with irregular black d��ts acr��ss all the wide ��f the d��rsal tract, even c��alescing am��ng them when bigger. Sides (c��stal ��r temp��ral band) in all adult males reticulated in black, united t�� the c��stal-inferi��r line, and incl��sing clearer ��celli inside (��r blue in the axilar area). Upper temp��ral band edge scall��ped, very irregular. Sh��ulder ��celli vivid blue (22 A 8)[5 PB 4.5 ���l 4.2] in number ��f l t�� 5 (usually 2 ��r m��re frequently three), highly reflective in Uv light (Arribas 20 l 2; ph��t�� 20). ventral punctuati��n well devel��ped in the tw�� ��uterm��st ventral ranges (��ig. 9 B, D). ��hr��at and venter light yell��w (sulphur yell��w) (lA 5) [lG�� 8.9 ��� 6.2], yell��w (2 A 6) [8.5 �� 8.8 ��� 8.4], ��r greenish yell��w (lA 7) [lG�� 8.8 ���l 0.4] ��r a gradati��n fr��m yell��wish green (29 A 8) [7 G����� 7.7 ���ll. 3] t�� pale green (29 A 3) [6 G����� 8.9 ��� 2.l] fr��m inside t�� ��utside the ventral ranges, ��r (30 A 2) greenish white [lG����� 9.l���l.l]. Rarely yell��wish white (lA 2)[9 ����� 9.l���l. 3] ��r yell��wish white pale (2 A 2)[7 ����� 9.l���l. 3] in the vermiculated m��rph (��ig. 9 D). ��he blue maculae in the ��uterm��st ventral ranges are highly reflective in Uv. variability in the c��l��rati��n in ��emales (��ig. 9 I ���K, ��ig. l0 C, E���G)∶ D��rsum pale yell��w (3 A 3) [5.5 �� 9.0��� 2.8], cream (4 A 3) [3 �� 8.9 ��� 2.8], dull yell��w (3 B 3) [5.5 �� 8.0��� 2.6], yell��wish gray (3 D 2) [4.5 �� 8.l���l. 2] ��r yell��wish white (2 A 2) [6 �� 8.l���l. 2]. Presumable aged (bigger) females with medium-small d��ts aligned in the middle ��f the d��rsum (with��ut f��rming tw�� paravertebral bands), usually leaving clear areas at the sides ��f the d��rsal tracts. Alternatively, the d��ts are greater and c��alesce, but with��ut f��rming a netw��rk as in males, are n��t transversely ��riented, m��re r��unded and with��ut c��ntacting with the temp��ral bands (except in very ��ld females). ����ung females are perhaps the m��st variable sex���age categ��ry∶ s��me with few and small p��ints in the middle ��f d��rsum, m��re widespread in the neck and first third ��f the back; s��me with tw�� centered paravertebral r��ws; s��me with irregular vermiculated marks, ��r even slightly transverse but with��ut c��vering all the d��rsal tract except in the first third ��f the b��dy. In s��me mid-gr��wn females, the c��stal (temp��ral) band can appear very faintly reticulated. ��emp��ral bands unif��rm, with a black slightly serrated upper b��rder but fairly less than in males, and with diffuse limits in the l��wer parts. ��he rest ��f the temp��ral band, bel��w the black upper limit, is br��wn and unif��rm (n��t reticulated), clearer in t��ne than in males. ��r��m 0 t�� 4 axillar blue ��celli (numbers ��f ��ne and tw�� equally frequent, 3 and 4 excepti��nal). Bel��w the temp��ral bands, the clear lateral-inferi��r line can be visible and f��rmed by faint small clear d��ts, and the dark inferi��r band can be als�� visible and c��mp��sed ��f small dark d��ts. ventral parts (��ig.l0 D, H) fairly unif��rm, ��nly with single and small p��ints in the ��uterm��st ventral ranges, as well as s��me scarce blue p��ints, highly reflective under Uv light. Mid-gr��wn females usually lack ventral dark punctuati��n in the ��uterm��st ventral ranges. Belly pigmented in light yell��w (2 A 5) [8.5 �� 8.9 ��� 6.2], yell��w (2 A 6) [8.5 �� 8.8 ��� 8.4], ��r yell��wish white (lA 2) [9 �� 9.l���l. 3]. In s��me individuals, the wh��le ��uterm��st ventral ranges are bluish white (23 A 2) [2.5 PB 8.6 ���l. 8] ��r pale turqu��ise (24 A 3) [6.5 B 8.2 ��� 2.l]. Hatchlings and y��ung specimens (l st and 2 nd calendar years) (��ig. 9 H)∶ ��here is sexual dim��rphism in the hatchlings, as in ��ther species ��f the I. monticola gr��up. Dark pattern is similar t�� the adults ��ne, but m��re reduced. Specimens with small d��rsal p��ints and slightly reticulated temp��ral bands are males, whereas d��rsal tracts with few ��r barely discernible marks and fairly h��m��gene&omic
Published as part of Arribas, Scar J. & Remon, Nuria, 2014, A new mountain lizard from Montes de Le��n (NW Iberian Peninsula): Iberolacerta monticola astur ssp. nov. (Squamata: Lacertidae), pp. 201-236 in Zootaxa 3796 (2) on pages 219-226, DOI: 10.11646/zootaxa.3796.2.1, http://zenodo.org/record/252873
{"references":["Salvador, A. (1984) Lacerta monticola Boulenger, 1905. Iberische Gebirgseidechse. In Bohme, W. (Ed.), Handbuch der Reptilien und Amphibien Europas. Aula Verlag, Wiesbaden, pp 276 - 289.","Boulenger, G. A. (1905) A contribution to our knowledge of the varieties of the wall lizard (Lacerta muralis). Transactions of the Zoological Society of London, 17 (4), 351 - 437. Plates XXII - XXIX.","Jalut, G., Belet, J. M, Garcia de Celis, A., Redondo, J. M., Bonnet, L., Valero, B., Moreno, A., Villar, L., Fontugne, M., Dedoubat, J. J., Gonzalez Samperiz, P., Santos, L. & Vidal Romani, J. R. (2004) Reconstruccion paleoambiental de los ultimos 35.000 anos en el NW de la peninsula Iberica: la laguna de Villaseca (Leon). Geotemas, 6 (5), 105 - 108.","Arribas, O., Carranza, S. & Odierna, G. (2006) Description of a new endemic species of mountain lizard from Northwestern Spain: Iberolacerta galani sp. nov. (Squamata: Lacertidae). Zootaxa, 2240, 1 - 55.","Walker, R. (2002) Walking in the Cordillera Cantabrica. A mountaineering guide. Cicerone, Cumbria, 342 pp."]}
-
Zahid, Muhammad and Ahmad, Imtiaz
- Pakistan Journal of Zoology; 2011, Vol. 43 Issue 3, p549-554, 6p
- Abstract
-
The article highlights a study which examined the characteristics and phylogenetic relationships of the myrocheine stink bug genus Ennius Stål, with special reference to its species Ennius monteironis Distant. The bug's metathoracic scent auricle, female genitalia and male genitalia including inflated aedeagus were investigated. The Ennius species belonged to the Myrochea Stål subclade, under the Myrocheini Stål genus and Kyrtalus genera. The Ennius was found to be predominantly Ethiopian in distribution.
- Full text View on content provider's site
-
Ntonifor, N. N. and Jackai, L. E. N.
- Journal of Applied Entomology; Jan1996, Vol. 120 Issue 1-5, p439-443, 5p, 3 Charts, 4 Graphs
- Subjects
-
INSECT host plants, SOYBEAN diseases & pests, COWPEA, COREIDAE, LEGUME diseases & pests, SEED pods, and INSECT food
- Abstract
-
Suitability of the pods of cowpea ( Vigna unguiculata (L.) Walp) and soybean ( Glycine max (L.) Merrill) as food for Clavigralla tomentosicollis was determined in the laboratory using development, food substitution and host switch experiments. On soybean pods, nymphs survived for 8 days and adults for 12 days; on cowpea, all nymphal instars developed into adults and lived for 80-100 days. Teneral adults that were switched from cowpea to soybean lost weight, while adults that were moved from soybean to cowpea gained weight with slight differences between the sexes. The shortest critical survival threshold (duration with at least 50% survival) of adults on cowpea was greater than the longest on soybean. The likelihood of C. tomentosicollis exploiting soybean as a trophic niche in areas of tropical Africa where production of this crop is on the increase and usually contiguous with cowpea production, is discussed. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Pezzini, Daniela T, DiFonzo, Christina D, Finke, Deborah L, Hunt, Thomas E, Knodel, Janet J, Krupke, Christian H, McCornack, Brian, Michel, Andrew P, Philips, Christopher R, Varenhorst, Adam J, Wright, Robert J, and Koch, Robert L
- Journal of Economic Entomology; Aug2019, Vol. 112 Issue 4, p1722-1731, 10p
- Subjects
-
PLANT phenology, STINKBUGS, SOYBEAN farming, SOYBEAN diseases & pests, and HEMIPTERA
- Abstract
-
Stink bugs (Hemiptera: Pentatomidae) are an increasing threat to soybean (Fabales: Fabaceae) production in the North Central Region of the United States, which accounts for 80% of the country's total soybean production. Characterization of the stink bug community is essential for development of management programs for these pests. However, the composition of the stink bug community in the region is not well defined. This study aimed to address this gap with a 2-yr, 9-state survey. Specifically, we characterized the relative abundance, richness, and diversity of taxa in this community, and assessed phenological differences in abundance of herbivorous and predatory stink bugs. Overall, the stink bug community was dominated by Euschistus spp. (Hemiptera: Pentatomidae) and Chinavia hilaris (Say) (Hemiptera: Pentatomidae). Euschistus variolarius (Palisot de Beauvois) (Hemiptera: Pentatomidae), C. hilaris and Halyomorpha halys (Stål) (Hemiptera: Pentatomidae) were more abundant in the northwestern, southeastern and eastern parts, respectively, of the North Central Region of the United States. Economically significant infestations of herbivorous species occurred in fields in southern parts of the region. Species richness differed across states, while diversity was the same across the region. Herbivorous and predatory species were more abundant during later soybean growth stages. Our results represent the first regional characterization of the stink bug community in soybean fields and will be fundamental for the development of state- and region-specific management programs for these pests in the North Central Region of the United States. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
KOONA, P., OSISANYA, E. O., JACKAI, L. E. N., TAMO, M., REEVES, J., and D'A. HUGHES, J.
- Insect Science & Its Application; 03/01/2002, Vol. 22 Issue 1, p1-7, 7p
-
Arias MC, Arnoux E, Bell JJ, Bernadou A, Bino G, Blatrix R, Bourguet D, Carrea C, Clamens AL, Cunha HA, d'Alençon E, Ding Y, Djieto-Lordon C, Dubois MP, Dumas P, Eraud C, Faivre B, Francisco FO, Françoso E, Garcia M, Gardner JP, Garnier S, Gimenez S, Gold JR, Harris DJ, He G, Hellemans B, Hollenbeck CM, Jing S, Kergoat GJ, Liu B, McDowell JR, McKey D, Miller TL, Newton E, Pagenkopp Lohan KM, Papetti C, Paterson I, Peccoud J, Peng X, Piatscheck F, Ponsard S, Reece KS, Reisser CM, Renshaw MA, Ruzzante DE, Sauve M, Shields JD, Solé-Cava A, Souche EL, Van Houdt JK, Vasconcellos A, Volckaert FA, Wang S, Xiao J, Yu H, Zane L, Zannato B, Zemlak TS, Zhang C, Zhao Y, Zhou X, and Zhu L
Molecular ecology resources [Mol Ecol Resour] 2012 May; Vol. 12 (3), pp. 570-2. Date of Electronic Publication: 2012 Mar 26.
- Subjects
-
Biota, DNA Primers genetics, Databases, Genetic, Ecology methods, Microsatellite Repeats, and Polymorphism, Single Nucleotide
- Abstract
-
This article documents the addition of 473 microsatellite marker loci and 71 pairs of single-nucleotide polymorphism (SNP) sequencing primers to the Molecular Ecology Resources Database. Loci were developed for the following species: Barteria fistulosa, Bombus morio, Galaxias platei, Hematodinium perezi, Macrocentrus cingulum Brischke (a.k.a. M. abdominalis Fab., M. grandii Goidanich or M. gifuensis Ashmead), Micropogonias furnieri, Nerita melanotragus, Nilaparvata lugens Stål, Sciaenops ocellatus, Scomber scombrus, Spodoptera frugiperda and Turdus lherminieri. These loci were cross-tested on the following species: Barteria dewevrei, Barteria nigritana, Barteria solida, Cynoscion acoupa, Cynoscion jamaicensis, Cynoscion leiarchus, Cynoscion nebulosus, Cynoscion striatus, Cynoscion virescens, Macrodon ancylodon, Menticirrhus americanus, Nilaparvata muiri and Umbrina canosai. This article also documents the addition of 116 sequencing primer pairs for Dicentrarchus labrax.
(© 2012 Blackwell Publishing Ltd.)
- Full text View on content provider's site
-
SERDYŃSKA, JOANNA
- Builder (1896-0642); 2022, Vol. 296 Issue 3, p70-73, 4p
- Abstract
-
Copyright of Builder (1896-0642) is the property of PWB MEDIA Zdzieblowski sp.j. and its content may not be copied or emailed to multiple sites or posted to a listserv without the copyright holder's express written permission. However, users may print, download, or email articles for individual use. This abstract may be abridged. No warranty is given about the accuracy of the copy. Users should refer to the original published version of the material for the full abstract. (Copyright applies to all Abstracts.)
-
Withers, Toni M., Allen, Geoff R., Todoroki, Christine L., Pugh, Andrew R., and Gresham, Belinda A.
- Entomologia Experimentalis et Applicata; Jan2021, Vol. 169 Issue 1, p97-110, 14p
- Subjects
-
BIOLOGICAL weed control, BIOLOGICAL pest control agents, CHRYSOMELIDAE, BEETLES, HYMENOPTERA, and EUCALYPTUS
- Abstract
-
The solitary larval endoparasitoid Eadya daenerys Ridenbaugh (Hymenoptera: Braconidae) is a proposed biocontrol agent of Paropsis charybdis Stål (Coleoptera: Chrysomelidae, Chrysomelinae), a pest of eucalypts in New Zealand. Eadya daenerys oviposition behaviour was examined in two assay types during host range testing, with the aim of improving ecological host range prediction. No‐choice sequential and two‐choice behavioural observations were undertaken against nine closely related species of New Zealand non‐target beetle larvae, including a native beetle, introduced weed biocontrol agents, and invasive paropsine beetles. No behavioural measure was significantly different between no‐choice and two‐choice tests. In sequential no‐choice assays the order of first presentation (target–non‐target) had no significant effect on the median number of attacks or the attack rate while on the plant. Beetle species was the most important factor. Parasitoids expressed significantly lower on‐plant attack rates against non‐targets compared to target P. charybdis larvae. The median number of attacks was always higher towards target larvae than towards non‐target larvae, except for the phylogenetically closest related non‐target Trachymela sloanei (Blackburn) (Coleoptera: Chrysomelidae, Chrysomelinae). Most non‐target larvae were disregarded upon contact, which suggests that the infrequent attack behaviour observed by two individual E. daenerys against Allocharis nr. tarsalis larvae in two‐choice tests and the frass of Chrysolina abchasica (Weise) was probably abnormal host selection behaviour. Results indicate that E. daenerys is unlikely to attack non‐target species apart from Eucalyptus‐feeding invasive paropsines (Chrysomelinae). Non‐lethal negative impacts upon less preferred non‐target larvae are possible if E. daenerys does attack them in the field; however, this is likely to be rare. [ABSTRACT FROM AUTHOR]
- Full text View on content provider's site
-
Gao, Cuiqing, Kondorosy, Előd, and Bu, Wenjun
- Subjects
-
Biodiversity, Taxonomy, Animalia, Arthropoda, Insecta, Hemiptera, and Lygaeidae
- Abstract
-
Gao, Cuiqing, Kondorosy, Előd, Bu, Wenjun (2013): A Review Of The Genus Arocatus From Palaearctic And Oriental Regions (Hemiptera: Heteroptera: Lygaeidae). Raffles Bulletin of Zoology 61 (2): 687-704, DOI: http://doi.org/10.5281/zenodo.5352740
{"references":["Ashlock, P. D., 1957. An investigation of the taxonomic value of the phallus in the Lygaeidae (Hemiptera-Heteroptera). Annals of the Entomological Society of America, 50: 407-426.","Aukema, B., J. M. Bruers & G. Viskens, 2007. Nieuwe en zeldzame Belgische wantsen II (Hemiptera: Heteroptera). Bulletin van de Koninklijke Belgische Vereniging voor Entomologie, 143: 83-91.","Aukema, B. & D. J. Hermes, 2009. Nieuwe en interessante Nederlandse Wantsen III (Hemiptera: Heteroptera). Nederlandse Faunistische Mededelingen, 31: 53-88.","Aukema, B., W. Rabitsch & C. Rieger, 2013. Catalogue of the Heteroptera of the Palaearctic Region. VI. Supplement. The Netherlands Entomological Society, Amsterdam. xxiii + 629 pp.","Austin, R. A., 2006. Entomology Section report for 2005. Report and Transactions of la Societe Guernesiaise, 25: 785-798.","Barclay, M., 2007. Some observations and thoughts on the Platanus feeding Arocatus 'roeselii ' (Lygaeidae) established in London. Het News, 10: 8-9.","Barndt, D., 2008. Contributions on the occurence of Arocatus-species and Salda littoralis (Linnaeus, 1758) (Heteroptera: Lygaeidae et Saldidae) in Brandenburg and Berlin (Germany). Markische Entomologische Nachrichten, 10: 187-194.","Bianchi, Z. & O. Stepanovicova, 2003. Some notes on the occurrence of Arocatus genus (Heteroptera, Lygaeidae) in Slovakia. Folia faunistica Slovaca, 8: 75-77.","Breddin, G., 1900. Nova studia Hemipterologica. Deutsche Entomologische Zeitschrift, 1: 161-185.","Breddin, G., 1907. Berytiden und Myodochiden von Ceylon aus der Sammelausbeute von Dr. W. Horn (Rhynch. het.). Deutsche Entomologische Zeitschrift, 6: 34-47.","Bu, W. J., Q. Xie & L. Y. Zheng, 2001. Hemiptera: Lygaeidae, Malcidae, Berytidae. In: Wu, H. & C. W. Pan (eds.), Insects of Tianmushan National Nature Reserve. Science Press, Beijing. Pp. 270-274.","Cagatay, N., 1995. Lygaeinae of Turkey (Heteroptera, Lygaeidae). Acta Entomologica Musei Nationalis Pragae, 44: 167-179.","Carayon, J., 1989. Arocatus roeseli hote des platanes a Paris (Hem. Lygaeidae). L'Entomologiste, 45: 311-313.","Cassis, G. & G. F. Gross, 2002. Hemiptera: Heteroptera (Pentatomomorpha). In: Houston, W. W. K. & A. Wells, (eds.), Zoological Catalogue of Australia. Vol. 27.3B. CSIRO Publishing, Melbourne. xiv + 737 pp.","China, W. E., 1925. The Hemiptera collected by Prof. J. W. Gregory's expedition to Yunnan, with synonymic notes on allied species. Annals and Magazine of Natural History, 16: 449-485.","Cui, J. X., W. Z. Cai, L. Sun & J. S. Wang, 1999. Heteroptera: Lygaeidae. Fauna and Taxonomy of insects in Henan, 3: 57-71.","Deckert, J., 1991. Zur Morphologie und systematischen Stellung von Microcaenocoris nanus Breddin, 1900 (Heteroptera, Lygaeinae). Deutsche Entomologische Zeitschrift, 38: 365-368.","Distant, W. L., 1879. Descriptions of new species of Hemiptera collected by Dr. Stoliczka during the Forsyth expedition to Kashgar in 1873-4. Transactions of the Royal Entomological Society of London, 1879: 121-126.","Distant, W. L., 1904. The Fauna of British India, including Ceylon and Burma. Rhynchota, vol. II (Heteroptera) [first part]. Taylor & Francis, London. 242 pp.","Distant, W. L., 1906. Oriental Heteroptera. Annales de la Societe entomologique Belgique, 50: 405-417.","Distant, W. L., 1918. Contribution to a further knowledge of the rhynchotal family Lygaeidae. Annals and Magazine of Natural History, 1: 416-424.","Distant, W. L., 1920. Rhynchota from New Caledonia. Annals and Magazine of Natural History, 6: 143-164.","Dong, J. Z., L. Y. Zheng & C. Chen, 1997. Hemiptera: Lygaeidae. In: Yang, X. K. (ed.), Insects of the Three Gorge Reservoir Area of Yangtze River. Chongqing Publishing House, Chongqing. Pp. 238-249.","Dutto, M. & A. Carapezza, 2011. Correlazione fra infestazioni domestiche da Arocatus melanocephalus (Hemiptera: Lygaeidae) e condizioni meteorologiche. Analisi di un caso in Piemonte. Naturalista Valtellinese - Atti Museo Civico di Storia naturale Morbegno, 22: 65-69.","Esaki, T., 1952. Hemiptera: Heteroptera. In: Esaki, T., T. Ishii, T. Kawamura, S. Kinoshita, S. Kuwayama, T. Shiraki, S. Uchida & H. Yuasa (eds.), Iconographia Insectorum Japonicorum. Editio secunda, reformata. Hokuryukan, Tokyo. Pp. 179-270.","Eversmann, E., 1837. Insecta Wolgam Fluvium inter et Montes Uralenses observata. Bulletin de la Societe Imperiale des Naturalistes de Moscou, 10: 33-39.","Fabricius, J. C., 1798. Supplementum Entomologiae Systematicae. Hafniae, Proft et Storch. 572 pp.","Fent, M. & N.Aktac, 2008.Anmerkungen zu einigen im Adultstadium uberwinternden Heteropteren und ihren Uberwinterungsplatzen in der (Turkischen) Provinz Edirne. Heteropteron, 28: 11-15.","Ferracini, C. & A. Alma, 2008. Arocatus melanocephalus a hemipteran pest on elm in the urban environment. Bulletin of Insectology, 61: 193-194.","Fieber, F. X., 1860. Die europaischen Hemiptera. Halbflugler (Rhynchota Heteroptera). Gerold's Sohn, Wien. Pp. i-vi, 1-112.","Friess, T., 2000. Beitrag zur Kenntnis der an Grau-, Grun- und Schwarzerlen (Alnus spp.) vorkommenden Heteropteren in Sudosterreich (Steiermark, Karnten). Beitrage zur Entomofaunistik, 1: 57-71.","Gaedike, H., 1971. Katalog der in den Sammlungen des ehemaligen Deutschen Entomologischen Institutes aufbewahrten Typen - V. Heteroptera. Beitrage zur Entomologie, 21: 79-159.","Gil, R., B. Lis & M. Kadej, 2011. Arocatus longiceps Stal (Hemiptera: Heteroptera: Lygaeidae) - nowy dla fauny Polski gatunek pluskwiaka oraz inne pluskwiaki roznoskrzydle zimujace pod kora platanow we Wroclawiu (Dolny Slask). Heteroptera Poloniae - Acta Faunistica, 3: 25-35.","Goricke, P., 2008. Zum Auftreten von Arocatus longiceps Stal, 1872 (Lygaeidae) und Vorkommen von Cephalocteus scarabaeoides (Fabricius, 1803) (Cydnidae) an der Atlantikkuste Portugals. Heteropteran, 28: 27.","Hamid,A. & K. Meher, 1973. The genera of Lygaeinae (Heteroptera: Lygaeidae) in West Pakistan. Pakistan Journal of Science and Industrial Research, 16: 35-38.","Hamid, A. & K. Meher, 1976. The Lygaeinae (Heteroptera: Lygaeidae) of Pakistan. Pakistan Journal of Science and Industrial Research, 19: 217-232.","Hoffmann, H.-J., 2003. Ein Massenvorkommen von Arocatus in der Schweiz. Heteropteron, 17: 27-28.","Hoffmann, H.-J., 2008. Auf Platanen: Nur Arocatus longiceps oder doch auch A. Roeselii? Heteropteron, 26: 24-29.","Hoffmann, H.-J., 2012. Versuche einer gentechnischen Differenzierung Platanen-bewohnender Wanzen der Gattung Arocatus (Heteroptera, Lygaeidae). Heteropteron, 37: 23-26.","Hoffmann, H.-J. & L. Terme, 2012. Zum Erstnachweis und Massenvorkommen der Ulmenwanze Arocatus melanocephalus (Fabricius, 1798) (Heteroptera, Lygaeidae) in Dortmund / Nordrhein-Westfalen. Heteropteron, 38: 27-30.","Horvath, G., 1889. Notes synonymiques et geographiques sur les Hemipteres palearctiques. Revue d'Entomologie, 8: 325-331.","Horvath, G., 1914. Miscellanea Hemipterologica XIII-XXVII. Annales historico-naturales Musei nationalis hungarici, 12: 623-660.","Hua, L. Z., 2000. List of Chinese insects. Vol. 1. Zhongshan University Press, Guangzhou. 448 pp.","Ishikawa, T., M. Takai & T. Yasunaga (eds.), 2012. A Field Guide to Japanese Bugs: Terrestrial Heteropterans. Vol. 3. Zenkoku Noson Kyoiku Kyokai, Publishing Co., Ltd., Tokyo. 576 pp.","Jakovlev, V. E., 1881. Contributions to the fauna of Heteroptera of Russia and the neighbouring countries. V-VIII. Bulletin de la Societe des Naturalistes de Moscou, 56: 194-214. (Text in Russian and German).","Jakovlev, V. E., 1889. Zur Hemipteren-Fauna Russlands und der angrenzenden Lander. Horae Societatis Entomologicae Rossicae, 24: 311-348.","Jia, Y. X., G. J. Yang, T. H. Hu & J. F. Wang, 2011. Analysis of the Fauna Composition of Hemiptera in Helan Mountain Nature Reserve in Ningxia. Journal of Ningxia University (Natural Science Edition), 32: 389-394.","Kiritshenko,A. N. & I. M. Kerzhner, 1980. Terrestrial Heteroptera of the Mongolian People's Republic. IV. Lygaeidae, 1. Nasekomye Mongolii, 7: 69-84. (Text in Russian).","Kment, P. & J. Bryja, 2001. New and interesting records of true bugs (Heteroptera) from the Czech Republic and Slovakia. Klapalekiana, 37: 231-248.","Kondorosy, E., 1997. Tovabbi uj poloskafajok a magyar faunaban (Heteroptera). (Further bug species, new to the fauna of Hungary (Heteroptera)). Folia Entomologica Hungarica, 58: 249-251. (Text in Hungarian).","Kumar, R., 1968. Aspects of the morphology and relationships of the superfamilies Lygaeoidea, Piesmatoidea and Pyrrhocoroidea (Hemiptera: Heteroptera). Entomologist's Monthly Magazine, 103(1967): 251-261.","Li, C. A., T. W. Cao & R. Wang, 2007. Hemiptera (Tingidae, Miridae, Lygaeidae and Coreidae) in Shanxi Province. Journal of Shanxi Agricultural Sciences, 35(8): 29-32.","Lindberg, H., 1934. Verzeichnis der von R. Malaise im Jahre 1930 bei Vladivostok gesammelten Heteropteren. Notulae Entomologicae, 14: 1-23.","Linnavuori, R. E., 2007. Studies on the Lygaeidae s. lat. (Heteroptera) of Gilan and the adjacent provinces in northern Iran. Acta Entomologica Musei Nationalis Pragae, 47: 57-75.","Linnavuori, R. E., 2011. Studies on the Cimicomorpha and Pentatomomorpha (Hemiptera: Heteroptera) of Khuzestan and the adjacent provinces of Iran. Acta Entomologica Musei Nationalis Pragae, 51: 21-48.","Liu, G. Q. & L. Y. Zheng, 1992. Hemiptera: Lygaeidae. In: Hunan Provincial Forestry Department, Iconography of Forest Insects in Hunan China. Hunan Science and Technology Press, Changsha. Pp. 266-276.","Liu, X. R., 1996. The investigation and study of insects resource from Jiaohe town of Area. Journal of Jilin Teachers College, 17: 36-38.","Maistrello, L., L. Lombroso, E. Pedroni, A. Reggiani & S. Vanin, 2006. Summer raids of Arocatus melanocephalus (Heteroptera: Lygaeidae) in urban buildings in Northern Italy: Is climate change to blame? Journal of Thermal Biology, 31: 594-598.","Mayr, G. L., 1865. Diagnosen neuer Hemipteren II. Verhandlungen der Zoologisch-Botanischen Gesellschaft in Wien, 15: 429-446.","Misja, K., 1973. Rezultate te studimit te gjysmekraheforteve (Hemiptera) te vendit tone. (Les resultats de l'etude des Hemipteres en Albanie). Buletin i Shkencave te Natyres, 1-2: 131-151. (Text in Albanian, French summary).","Montandon, A. L., 1893. Lygaeides exotiques. Notes et descriptions d'especes nouvelles. Annales de la Societe entomologique de Belgique, 37: 399-406.","Nau, B. & N. Straw, 2007. Arocatus roeselii established in Britain? Het News, 9: 8.","Nonnaizab, 1999. Insects of Inner Mongolia China. Inner Mongolia people's Publishing House, Hohhot. 506 pp.","Nonnaizab & J. L. Li, 2005. List of Lygaeidae (Hemiptera- Heteroptera) from Inner Mongolia and Description of New Records of China. Journal of Inner Mongolia Normal University (Natural Science Edition), 34: 84-92.","Pedroni, E., L. Maistrello, P. Boldrini, A. Micciarelli Sbrenna & G. Sbrenna, 2008. Metathoracic scent glands in female adults of Arocatus melanocephalus (Heteroptera: Lygaeidae). Bulletin of Insectology, 61: 173-175.","Pericart, J., 1998. Designation de lectotypes et paralectotypes pour des Lygaeidae Palearctiques et commentaires (Heteroptera). 4. Les types des auteurs russes. Revue Francaise d' Entomologie (N.S.), 19: 123-129.","Pericart, J., 1999a. Hemipteres Lygaeidae Euro-Mediterraneens Vol 1. Faune de France, 84A. Federation Francaise des Societes de Sciences Naturelles, Paris. 468 pp.","Pericart, J., 1999b. Reconnaissance de types de divers Lygaeidae et Berytidae Est- palearctiques, Afrotropicaux et Orientaux (Heteroptera). Revue Francaise d'Entomologie (N.S.), 21: 77-86.","Pericart, J., 2001. Lygaeidae. In: Aukema, B. & C. Rieger (eds.), Catalogue of the Heteroptera of the Palaearctic Region. Vol. 4. Netherland Entomological Society, Amsterdam. Pp. 35-220.","Picco, L., 1920. Descrizione di tre nuove specie di Emitteri dell'ltalia centrale. Bollettino della Societa Zoologica Italiana, 4: 99-107.","Protic, L., 2001. Catalogue of the Heteroptera fauna of Yugoslav countries. Part Two. Prirodnjacki Muzej u Beogradu, Posebna Izdanja, 39: 1-272.","Putshkov, V. G., 1969. Vypusk 2: Ligeidi. In: Fauna Ukraini, Tom 21, Kiev. 388 pp., pl. 210. (Text in Ukrainian).","Reggiani, A., E. Pedroni & L. Maistrello, 2005. Infestazioni da Arocatus melanocephalus (Fabricius, 1798) (Heteroptera, Lygaeidae) nella citta di Modena. Atti della Societa dei naturalisti e matematici di Modena, 136: 119-125.","Ribes, J. & S. Pagola-Carte, 2008. Arocatus longiceps Stal, 1872, primera cita para la Peninsula Iberica (Hemiptera: Heteroptera: Lygaeidae). Boletin Sociedad Entomologica Aragonesa, 42: 353-354.","Rieger, C., 2008. Kurze Bemerkungen zu Arocatus und zu Kleidocerys. Heteropteron, 28: 29.","Schilling, P. S., 1829. Hemiptera Heteroptera Silesiae systematice disposuit. Beitrage zur Entomologie, Breslau, 1: 34-92.","Scott, J., 1874. On a collection of Hemiptera Heteroptera from Japan. Descriptions of various new genera and species. Annals and Magazine of Natural History, Series 4, 14: 289-304, 426-452.","Scudder, G. G. E., 1968. Air-borne Lygaeidae (Hemiptera) trapped over the Atlantic, Indian and pacific Oceans, with the description of a new species of Appolonius Distant. Pacific Insects, 10: 155-160.","Slater, A., 1978. Taxonomic notes on Lygaeinae from Australia and neighbouring areas (Heteroptera: Lygaeidae). Annals of the Entomological Society of America, 71: 854-858.","Slater,A., 1985. A Taxonomic Revision of the Lygaeinae of Australia (Heteroptera: Lygaeidae). The University of Kansas Science Bulletin, 52: 301-481.","Slater, J. A., 1964a. A Catalogue of the Lygaeidae of the World. Vol.1. Waverly Press, Baltimore, MD. 778 pp.","Slater, J. A., 1964b. Hemiptera (Heteroptera): Lygaeidae. South African Animal Life, 10: 15-228.","Slater, J. A., 1972. The Lygaeidae of Upemba National Park (Hemiptera: Heteroptera). Parc National de L'Upemba.- Mission G. F. de Witte, 72: 17-81.","Slater, J. A. & J. E. O'Donnell, 1995. A Catalogue of the Lygaeidae of the World (1960-1994). New York Entomological Society, New York. 410 pp.","Spinola, M., 1837. Essai sur les insects Hemipteres L. ou Rhyngotes F. et a la section des Heteropteres Duf., Graviers, Geneva. 383 pp.","Stal, C., 1859. Hemiptera. Species novas descripsit. In: Kongliga Svenska Fregatten Eugenies resa omkring Jorden under befal af C. A. Virgin aren 1851-1853. Volume 2. Norstedt & Soner, Stockholm. Pp. 219-298.","Stal, C., 1867. Analecta Hemipterologica. Berliner Entomologische Zeitschrift, 10: 151-172, 381-394.","Stal, C., 1872. Genera Lygaeidarum Europae disposuit. Ofversigt af Kungliga Vetenskapsakademiens Forhandlingar, 29: 37-62.","Stal, C., 1874. Enumeratio Hemipterorum. Bidrag till en forteckning ofver alla hittils kanda Hemiptera, jemte systematisca meddelanden. 4. Kungliga Svenska Vetenskapsakademiens Handlingar, 12: 1-186.","Stehlik, J. L. & K. Hradil, 2000. Arocatus longiceps Stal in the Czech Republic too (Lygaeidae, Heteroptera). Acta Musei Moraviae, Scientiae Biologicae (Brno), 85: 351-353.","Stepanovicova, O., 2003. First record from Arocatus melanocephalus (Heteroptera, Lygaeidae) from Slovakia. Entomological Problems, 33: 30.","Stichel, W., 1957. Lygaeidae: Lygaeinae. In: Stichel, W. (ed.), Illustrierte Bestimmungstabellen der Wanzen. II. Europa. (Hemiptera-Heteroptera Europae). Vol. IV. Berlin-Hermsdorf. Pp. 60-96.","Stichel, W., 1959. Liste der Palaarktischen Hemiptera-Heteroptera. In: Stichel, W. (ed.), Illustrierte Bestimmungstabellen der Wanzen. II. Europa. (Hemiptera-Heteroptera Europae)Vol. IV, Berlin-Hermsdorf. Pp. 303-352.","Vinokurov, N. N., E. V. Kanyukova & V. B. Golub, 2010. Catalogue of Heteroptera of the Asian Part of Russia. Nauka, Novosibirsk. 320 pp. (Text in Russian).","Xie, Q., J. L. Li, X. Q. Shi & W. J. Bu, 2009. Lygaeoidea. In: Liu, G. Q. & W. J. Bu (eds.), Heteroptera (Hemiptera) The Fauna of Hebei, China. China Agricultural Science and Technology Press, Beijing. Pp. 332-372.","Ye, J. L., 2009. Notes on Hemiptera from Songyang County, Zhejiang Province, China. Jiangxi Plant Protection, 32: 51-58.","Zhang, S., D. M. Han, J. Fang, X. Wan & J. Fan, 2008. The fauna and diversity of Heteroptera insects in Yaoluoping Nature Reserve. Chinese Bulletin of Entomology, 45: 799-805.","Zheng, L. Y. & H. G. Zou, 1981. Lygaeidae. In: Hsiao, T. Y., S. Z. Ren, L. Y. Zheng, X. L. Jing, H. G. Zou & S. L. Liu (eds.), A Handbook for the Determination of the Chinese Hemiptera- Heteroptera. Vol. 2. Science Press, Beijing. Pp. 1-115."]}
-
den Heijer, Casper D. J., van Liere, G. A. F. S., Hoebe, C. J. P. A., van Bergen, J. E. A. M., Cals, J. W. L., Stals, F. S., and Dukers-Muijrers, N. H. T. M.
- Sexually Transmitted Infections; May2016, Vol. 92 Issue 3, p211-217, 7p, 1 Diagram, 2 Charts, 1 Graph
- Subjects
-
CHLAMYDIA, CHLAMYDIA infections, SEXUALLY transmitted diseases, CHLAMYDIA trachomatis, DIAGNOSIS of genitalia diseases, DIAGNOSIS of bacterial diseases, CHLAMYDIA infection diagnosis, SEXUALLY transmitted disease diagnosis, ANUS, BACTERIAL diseases, CERVIX uteri, DEMOGRAPHY, MULTIVARIATE analysis, POISSON distribution, RECTUM, URETHRA, VAGINA, LOGISTIC regression analysis, SOCIOECONOMIC factors, CROSS-sectional method, BACTERIURIA, and OROPHARYNX
- Abstract
-
Objectives: To evaluate and compare Chlamydia trachomatis (CT) diagnostic test practices of different sexually transmitted infection (STI) care providers in 16-29 year olds from one defined geographic Dutch region (280,000 inhabitants). Both number and proportion of positive CT tests (ie, test positivity) were assessed, and factors associated with these outcomes.Methods: Data on laboratory testing and diagnosis of urogenital, anorectal and oropharyngeal CT between 2006 and 2010 were retrieved from general practitioners (GPs), gynaecologists, an STI clinic and a population-based chlamydia screening programme. Multivariable regression analyses explored associations between age, sex, test year, socio-economic status (SES) and STI care provider and the outcomes being the number of tests and test positivity.Results: Overall, 22,831 tests were performed (1868 positive; 8.2%). Extragenital (ie, anorectal and oropharyngeal) tests accounted for 4% of all tests (7.5% positive) and were almost exclusively (99%) performed by the STI clinic. STI clinics tested most men (37.2% of all tested men), whereas GPs tested most women (29.9% of all tested women). GPs and STI clinics accounted for 73.3% (1326/1808) of urogenital CT diagnoses. In women, the number of tests increased with age, whereas test positivity decreased for all STI care providers. Lower SES was associated with higher test positivity in GP and gynaecology patients.Conclusions: STI clinics performed most CT tests in men, whereas GPs performed most CT tests in women. GPs and STI clinics accounted for the majority of positives. Extragenital CT testing is rarely performed outside the STI clinic and needs to be promoted, especially in men who have sex with men. [ABSTRACT FROM AUTHOR]
Catalog
Books, media, physical & digital resources
Guides
Course- and topic-based guides to collections, tools, and services.
1 - 100
Next