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• Part I: Spectroscopy.
• 1: Spectroscopy of molecular beams: an overview.
• 2: Magnetic and electric resonance spectroscopy.
• 3: Beam-maser spectroscopy.
• 4: Quantum amplifiers and oscillators.
• 5: Metrology with molecular beams.
• 6: Infrared laser spectroscopy.
• 7: Visible and UV spectroscopy: physical aspects.
• 8: Photofragment spectroscopy.
• 9: Fourier-transform microwave spectroscopy.
• 10: Fourier-transform methods: infrared. Part II: Surface Scattering.
• 11: General principles and methods.
• 12: Elastic scattering of atoms.
• 13: Rotational inelastic scattering.
• 14: Single phonon inelastic helium scattering.
• 15: Multiple phonon inelastic scattering.
• 16: Scattering from disordered surfaces.
• 17: Reactive scattering.
• (source: Nielsen Book Data)

• Part 1 Basic techniques: introduction, G.Scoles
• free jet sources, D.R.Miller
• low energy pulsed beam sources, W.R.Gentry
• other low energy beam sources, H.Pauly
• high energy beam sources, H.Pauly
• detection principles, D.Bassi
• ionization detectors - ion production and mass selection and ion detection, D.Bassi
• spectroscopic detection methods, U.Hefter and K.Bergmann
• accommodation, accumulation and other detection methods, M.Zen
• state selection by non-optical methods, J.Reuss
• state selection via optical methods, K. Bergmann
• velocity selection by mechanical methods, C.J.N.van den Meijdenberg
• velocity measurements via time of flight measurements, D.J.Auerbach
• molecular beams of clusters, S.Leutwyler and M.Kappes
• molecular beam epitaxy, K.Ploog
• molecular beams in high energy physics, U. Valbusa. Part 2 Molecular scattering: general principles and methods, U.Buck
• elastic scattering - integral cross sections, J.Biesen
• differential cross sections, U.Buck
• inelastic scattering - energy loss methods, U.Buck
• inelastic scattering - optical methods, P.J. Dagdigian
• reactive scattering - non-optical methods, Y.T.Lee
• - optical methods, P.J.Dagdigian, scattering experiments which state selectors, S.Stolte
• scattering experiments with laser excited beams, R.Duren
• experiments with spin polarized beams, S.Iannotta.
• (source: Nielsen Book Data)

This is the second volume of an advanced handbook on experimental molecular beam methods, in which seventeen specialists cover the areas of molecular beam spectroscopy and surface scattering. It is designed to be used both as a reference book in the laboratory and as a supplementary text for graduate courses in spectroscopy and gas-surface interactions. The text is split into two parts dealing with these two topics. The spectroscopy part introduces the special features connected with using beams in spectroscopy and then goes on to discuss the subject, going through the spectrum from low to high frequencies. The surface scattering part introduces general instrumentation problems, followed by a series of chapters in which elastic, rotationally inelastic, single-phonon, multi-phonon and chemical scattering are discussed. Scattering from non-ordered surfaces is covered separately. The emphasis throughout is on experimental methods, which includes discussions on data analysis and calibrations. Numerous examples of data are shown and to allow for the understanding of these the theory underlying the most common measurements is also presented.
(source: Nielsen Book Data)
This comprehensive handbook describes new experimental approaches for the growing number of chemists, physicists, and engineers working with atomic and molecular beams. With an emphasis on aspects of design, construction and proper data analysis, contributors explore many topics of microscopic chemical physics such as elastic, inelastic, and reactive molecular collisions, clusters, and free-standing jets. Also included are descriptions of experimental set-ups and examples of data obtained in molecular beam experiments, with clear explanations of their significance and importance. The book is a practical guide that will help in planning the structure of experiments and analysing their results.
(source: Nielsen Book Data)

• Preface. Part I - Theory. Structure and dynamics of clusters: an introduction (R.S. Berry). Structure and dynamics of clusters: phase equilibrium and phase changes (R.S. Berry). Size effects in clusters (J. Jortner et al). A structural approach to the analysis of clusters dynamics (F.G. Amar). Spectra, phase transitions and ``dynamical isomerizations'' of mixed van der Waals clusters (R.J. Leroy). The Car-Parrinello method and its application to microclusters (W. Andreoni). Simulation of metallic and impure van der Waals clusters (R. Kawai et al). Clusters of quantum liquids (S. Stringari). Fragmentation of clusters (X. Campi). Part II - Spectroscopy and Photodissociation. Infrared spectroscopy of large clusters (R.O. Watts). Infrared spectroscopy in and on argon clusters: surface and matrix spectroscopy in the gas phase (D.J. Levandier, M. Mengel and G. Scoles). Spectroscopy, reactivity and photodynamics of size-selected metal clusters (G. Delacretaz et al). Size-dependent properties in small metal and semiconductor clusters (M. Moscovits). Structures of metal clusters (W.D. Knight). Interaction between visible laser light and van der Waals clusters formed in free jet expansions: Raman induced photodissociation (T.D. Mark et al). Spectroscopy and dynamics of ``van der Waals'' cluster ions (D. Ray, N.E. Levinger and W.C. Lineberger). Photodetachment spectroscopy of negative cluster ions (S.T. Arnold et al). Excitation of free metal clusters (C. Brechignac and Ph. Cahuzac). Part III - Mass Spectroscopy Scattering and Chemical Properties. Electron diffraction studies of clusters produced in a free jet expansion (G. Torchet et al). Cluster properties from scattering experiments with atoms (U. Buch). Crossed molecular beam experiments on nitric oxide clusters (L. Beneventi et al). Helium clusters (J.P. Toennies). Solvated electron clusters (H. Haberland). Chemistry of carbon and silicon clusters (M.L. Mandich). Experimental studies of the chemistry of metal clusters (E.K. Parks and S.J. Riley). The unimolecular fragmentation of ion clusters (A.J. Stace). Molecular clusters isolated from aqueous solutions by adiabatic expansion of liquid jets: a new approach for molecular association in solutions (N. Nishi and K. Yamamoto).
• (source: Nielsen Book Data)

This volume of the Enrico Fermi Summer School proceedings is concerned with the chemical physics of atomic and molecular clusters of medium and large size which are defined as clusters too large to yield rotationally resolved spectra. In practice this means from trimers and tetramers up. By limiting the field a separation is made between the study of systems of well-known structures (for which the position of each of their fragments is well known) from systems that, because of their dynamical or ``fluid'' status or because of the too large number of components, have to be studied with methods which are intrinsically more statistic.
(source: Nielsen Book Data)