• Printed Text 1. Fundamentals of Quantitative Design and Analysis 2. Memory Hierarchy Design 3. Instruction-Level Parallelism and Its Exploitation 4. Data-Level Parallelism in Vector, SIMD, and GPU Architectures 5. Multiprocessors and Thread-Level Parallelism 6. The Warehouse-Scale Computer 7. Domain Specific Architectures A. Instruction Set Principles B. Review of Memory Hierarchy C. Pipelining: Basic and Intermediate Concepts Online D. Storage Systems E. Embedded Systems F. Interconnection Networks G. Vector Processors H. Hardware and Software for VLIW and EPIC I. Large-Scale Multiprocessors and Scientific Applications J. Computer Arithmetic K. Survey of Instruction Set Architectures L. Advanced Concepts on Address Translation M. Historical Perspectives and References.
• (source: Nielsen Book Data)9780128119051 20180312

Computer Architecture: A Quantitative Approach, Sixth Edition has been considered essential reading by instructors, students and practitioners of computer design for over 20 years. The sixth edition of this classic textbook is fully revised with the latest developments in processor and system architecture. It now features examples from the RISC-V (RISC Five) instruction set architecture, a modern RISC instruction set developed and designed to be a free and openly adoptable standard. It also includes a new chapter on domain-specific architectures and an updated chapter on warehouse-scale computing that features the first public information on Google's newest WSC. True to its original mission of demystifying computer architecture, this edition continues the longstanding tradition of focusing on areas where the most exciting computing innovation is happening, while always keeping an emphasis on good engineering design.
(source: Nielsen Book Data)9780128119051 20180312

• Part I. The technology: Blockchains, bitcoin, and decentralized computing platforms
• Characteristics of blockchains
• Part II. Blockchains, finance, and contracts: Digital currencies and decentralized payment systems
• Smart contracts as legal contracts
• Smart securities and derivatives
• Part III. Blockchains and information systems: Tamper-resistant, certified, and authenticated data
• Resilient and tamper-resistant information systems
• Part IV. Organizations and automation: The future of organizations
• Decentralized autonomous organizations
• Blockchain of things
• Part V. Regulating decentralized, blockchain-based systems: Modes of regulation
• Code as law.

Blockchain technology enables the creation of decentralized currencies, decentralized applications powered by smart contracts, self-executing digital agreements, and intelligent assets that can be controlled over the Internet. Blockchains also enable the development of new governance systems with more democratic or participatory decision-making, and decentralized (autonomous) organizations that can operate over a network of computers without any human intervention. These applications have led many to compare the blockchain to the Internet, with accompanying predictions that this technology will shift the balance of power away from centralized authorities in the field of communications, business, and even politics or law. Blockchain and the Law explores the benefits and drawbacks of this emerging decentralized technology and argues that its widespread deployment will lead to expansion of what we term lex cryptographia: rules administered through self-executing smart contracts.-- Provided by publisher.

Introduces deep learning systems using the powerful Keras library and its R language interface. The book builds your understanding of deep learning through intuitive explanations and practical examples.

• Introduction
• Principles of integrated design
• Site selection and facility layout
• Modeling for design and operation of biological water resource recovery processes
• Facility hydraulics and pumping
• Odor and air emissions management
• Support systems
• Materials of construction and corrosion control
• Preliminary treatment
• Primary treatment
• Biofilm reactor technology and design
• Suspended-growth treatment processes
• Integrated biological treatment
• Physical and chemical processes for advanced wastewater treatment
• Sidestream treatment
• Natural systems
• Disinfection
• Introduction to solids management
• Storage and transport
• Chemical conditioning
• Solids thickening
• Dewatering
• Stabilization
• Thermal processing
• Use and disposal of residuals and biosolids.

• A Note from the Series Editor xiii About the Authors xv Foreword xvii Preface xxiii Acknowledgments xxvii INTRODUCTION 1 1 Pressing Issues for Engineering Education and the Engineering Profession 3 1.1 A Mismatched Curriculum 3 1.2 Responsibility that Emerges from the Transformative Power of Engineering 7 1.3 Inquiring into the Framing of Benefits and Constraints 9 1.4 Transitioning from Weak to Robust Sustainability 9 1.5 Fostering Inclusive Excellence 10 1.6 Engaging Emerging Interest Groups 11 2 Research Methods 12 3 Theoretical Frameworks 13 4 Engineering for Social Justice 14 4.1 Emerging Organizations Provide New Opportunities 15 4.2 Calls from Engineering Education Leaders 16 4.3 Emerging Scholarship on Engineering and Social Justice 18 5 Engineering for Social Justice Criteria 19 5.1 Listening Contextually to Develop Trust and Empathy 21 5.2 Identifying Structural Conditions 23 5.3 Acknowledging Political Agency and Mobilizing Power 24 5.4 Increasing Opportunities and Resources 26 5.5 Reducing Imposed Risks and Harms 27 5.6 Enhancing Human Capabilities 28 5.7 Engineering and Social Justice Criteria Combined 30 6 Guidelines for Engineering for Social Justice Implementation 31 6.1 Cradle-to-Grave Analysis 31 6.2 Transcending Temporal Delimitations 33 6.3 Culling Multiple Perspectives 33 7 Further Chapters 34 7.1 Ideologies and Mindsets that Render Social Justice Invisible or Irrelevant 34 7.2 Engineering Design 35 7.3 Engineering Sciences 36 7.4 Humanities/Social Science Courses for Engineering Students 36 7.5 E4SJ as Catalyst for Inclusive Excellence in Engineering 37 7.6 Conclusion 37 8 Benefits of E4SJ Approach 37 References 38 1 SOCIAL JUSTICE IS OFTEN INVISIBLE IN ENGINEERING EDUCATION AND PRACTICE 45 1.1 Generic Barriers to Rendering Social Justice Visible 46 1.1.1 Normalcy 46 1.1.2 Superiority 47 1.1.3 Unconscious Biases 47 1.1.4 Personal and Broader Societal Framing 48 1.2 Engineering-Specific Barriers to Rendering Social Justice Visible: Ideologies 49 1.2.1 Technical Social Dualism 50 1.2.2 Depoliticization 52 1.2.3 Meritocracy 55 1.3 Engineering-Specific Barriers to Rendering Social Justice Visible: Mindsets 56 1.3.1 Centrality of Military and Corporate Organizations 57 1.3.2 Uncritical Acceptance of Authority 58 1.3.3 Technical Narrowness 59 1.3.4 Positivism and the Myth of Objectivity 59 1.3.5 Willingness to Help and Persistence 60 References 63 2 ENGINEERING DESIGN FOR SOCIAL JUSTICE 67 2.1 Why Engineering Design Matters 69 2.1.1 Why Design Resembles Actual Engineering Practice Yet Has Limitations 70 2.1.2 Why Design is an Important Yet Undervalued Component of Engineering Education 71 2.2 Engineering for Social Justice: Criteria for Engineering Design Initiatives 71 2.2.1 Listening Contextually 74 2.2.2 Identifying Structural Conditions 78 2.2.3 Acknowledging Political Agency and Mobilizing Power 79 2.2.4 Increasing Opportunities and Resources 82 2.2.5 Reducing Imposed Risks and Harms 85 2.2.6 Enhancing Human Capabilities 86 2.3 Social Justice Criteria Combined 88 2.4 Benefits of Integrating SJ in Design 89 2.5 Limitations of Social Justice Criteria 95 Appendix 2.A Engineering for Social Justice Self-Assessment Checklist 98 Appendix 2.B Design for Social Justice Charrette 100 Acknowledgments 102 References 102 3 SOCIAL JUSTICE IN THE ENGINEERING SCIENCES 107 3.1 Why are the Engineering Sciences the Sacred Cow of the Engineering Curriculum? 108 3.1.1 Engineering Sciences as Shapers of Engineering Identity 108 3.1.2 Pedagogical Tradition in the Engineering Sciences 112 3.2 Why Social Justice is Inherent in Engineering Sciences Course Content 114 3.3 Making Social Justice Visible without Compromising Technical Excellence 116 3.3.1 Social Justice Definition 116 3.3.2 E4SJ Criteria 119 3.4 Examples of Making SJ Visible in the Engineering Sciences 120 3.4.1 E4SJ Criteria Engaged in Introduction to Feedback Control Systems 120 3.4.2 E4SJ Criteria Engaged in Continuous-Time Signals and Systems 127 3.4.3 E4SJ Criteria Engaged in Mass and Energy Balances 128 3.5 Challenges of Integrating Social Justice into the Engineering Sciences 132 3.5.1 Accreditation 132 3.5.2 Student Attitude 133 3.5.3 Faculty Attitude 133 3.6 Opportunities Associated with Integrating Social Justice 135 3.6.1 Student Perspectives on Opportunities 136 3.6.2 Teaching and Scholarship Opportunities for Faculty 139 3.7 Author Narratives on Challenges and Opportunities 141 3.7.1 IFCS Reflection by Dr. Johnson 141 3.7.2 CTSS Reflection by Dr. Huff 142 3.7.2.1 CTSS Follow-Up Reflection by Dr. Huff 143 3.7.3 Mass and Energy Balances Reflection by Dr. Riley 144 3.8 Conclusion 145 Appendix 3.A IFCS Case Study Matrix. The Case Study Options are Mapped to Technical and Social Justice Learning Objectives 146 Appendix 3.B SJ Integration Issues. For Future IFCS Course Iterations, the Key SJ Integration Issues and Their Potential Solutions are Explored 147 Acknowledgments 149 References 149 4 HUMANITIES AND SOCIAL SCIENCES IN ENGINEERING EDUCATION: FROM IRRELEVANCE TO SOCIAL JUSTICE 155 4.1 Humanities and Social Sciences, the Engineering Curriculum, and the Distancing of Engineering Education from Pressing Social Problems 157 4.2 The Cold War, the Anti-Technology Movement, and a Marginalized HSS 160 4.2.1 Humanities and Social Sciences in 1960s and 1970s Engineering Education 161 4.2.2 The Emergence and Evolution of STS 162 4.3 It Is Time: Integration of Engineering and Social Justice Through the HSS The Historical Convergence of ABET 2000 and More 163 4.3.1 Changes in the Institutional Landscape 165 4.3.2 Changes in the Scholarly Landscape 166 4.4 Emerging Curricular Innovations 168 4.5 Engineering and Social Justice at Colorado School of Mines 170 4.5.1 Background 170 4.5.2 Description of the Course Engineering and Social Justice 171 4.5.3 Course Learning Outcomes 172 4.6 Intercultural Communication at Colorado School of Mines 173 4.6.1 Course Background 174 4.6.2 Course Description 174 4.6.3 Learning Outcomes 177 4.7 Document Design and Graphics at Utah State 177 4.7.1 Course Background 178 4.7.2 Course Description 178 4.7.3 Learning Outcomes 179 4.8 Benefits and Limitations 182 4.8.1 Benefits 182 4.8.2 Limitations 183 Appendix 4.A Privilege Walk Questions 184 Appendix 4.B Privilege by Numbers Activity 187 Appendix 4.C Intercultural Communication Foundational Questions 188 Acknowledgments 189 References 190 5 TRANSFORMING ENGINEERING EDUCATION AND PRACTICE 197 5.1 Practical Guidelines: From Problem Space to Program Space 199 5.1.1 E4SJ in the Problem Space 199 5.1.2 E4SJ in the Course Space 202 5.1.3 E4SJ in Boundary Spaces 206 5.1.4 E4SJ in the Program Space 207 5.2 Broader Implications of E4SJ-Infused Transformations 208 5.2.1 Changing Who Becomes an Engineer 208 5.2.2 Changing the Culture of Engineering 211 5.2.3 From a Culture of Disengagement to One of Greater Public Engagement 215 5.3 Identity Challenges and Inspirations 217 5.3.1 Engineering Student Identity Issues 217 5.3.2 Engineering Faculty Identity Issues 223 Appendix 5.A Assignment and Examples of Problem Rewrites 228 References 237 6 CONCLUSION: MAKING SOCIAL JUSTICE VISIBLE AND VALUED 243 6.1 Engineering Justice into Your Career 244 6.1.1 Recognizing Barriers and Opportunities to Making E4SJ Visible 245 6.1.2 Developing Creative Framing on the Road to Tenure and Promotion 246 6.1.3 Engaging Other Stakeholders and Building a Community of Practice 250 6.1.4 Supporting Students interested in E4SJ Beyond the Classroom 250 6.1.5 Enacting E4SJ Outside the Home Institution 252 6.2 Future E4SJ Research Directions 253 6.2.1 Longitudinal Studies 253 6.2.2 Vehicles for Giving Voice to Marginalized Groups 255 References 255 Index 259.
• (source: Nielsen Book Data)9781118757307 20180226

Shows how the engineering curriculum can be a site for rendering social justice visible in engineering, for exploring complex socio-technical interplays inherent in engineering practice, and for enhancing teaching and learning Using social justice as a catalyst for curricular transformation, Engineering Justice presents an examination of how politics, culture, and other social issues are inherent in the practice of engineering. It aims to align engineering curricula with socially just outcomes, increase enrollment among underrepresented groups, and lessen lingering gender, class, and ethnicity gaps by showing how the power of engineering knowledge can be explicitly harnessed to serve the underserved and address social inequalities. This book is meant to transform the way educators think about engineering curricula through creating or transforming existing courses to attract, retain, and motivate engineering students to become professionals who enact engineering for social justice. Engineering Justice offers thought-provoking chapters on: why social justice is inherent yet often invisible in engineering education and practice; engineering design for social justice; social justice in the engineering sciences; social justice in humanities and social science courses for engineers; and transforming engineering education and practice. In addition, this book: Provides a transformative framework for engineering educators in service learning, professional communication, humanitarian engineering, community service, social entrepreneurship, and social responsibilityIncludes strategies that engineers on the job can use to advocate for social justice issues and explain their importance to employers, clients, and supervisorsDiscusses diversity in engineering educational contexts and how it affects the way students learn and develop Engineering Justice is an important book for today s professors, administrators, and curriculum specialists who seek to produce the best engineers of today and tomorrow.
(source: Nielsen Book Data)9781118757307 20180226

• I. Developing Perspective 1. A Modern View of the Universe 2. Discovering the Universe for Yourself 3. The Science of Astronomy II. Key Concepts for Astronomy 4. Making Sense of the Universe: Understanding Motion, Energy, and Gravity 5. Light: The Cosmic Messenger III. Learning from Other Worlds 6. Formation of the Solar System 7. Earth and the Terrestrial Worlds 8. Jovian Planet Systems 9. Asteroids, Comets, and Dwarf Planets: Their Nature, Orbits, and Impacts 10. Other Planetary Systems: The New Science of Distant Worlds IV. Stars 11. Our Star 12. Surveying the Stars 13. Star Stuff 14. The Bizarre Stellar Graveyard V. Galaxies and Beyond 15. Our Galaxy 16. A Universe of Galaxies 17. The Birth of the Universe 18. Dark Matter, Dark Energy, and the Fate of the Universe VI. Life on Earth and Beyond 19. Life in the Universe.
• (source: Nielsen Book Data)9780134446431 20171227

For one-semester courses in astronomy. A practical introduction to Astronomy with an emphasis on critical thinking about our place in the universe This 8th Edition of Essential Cosmic Perspective provides readers without science backgrounds with a streamlined, cutting-edge introduction to astronomy. Built on a strong tradition of effective pedagogy and coverage, the text focuses on skill-building and includes group work exercises that require active participation. Dedicated to bringing an understanding of the universe, its scientific basis and its relevance to our lives, each chapter is written to specific learning goals that build an ideal learning path for readers. Aiming to foster a lifelong learning experience, the authors focus on key concepts, providing big picture context, promoting conceptual understanding, and preferring plain language to jargon. The 8th Edition incorporates the latest scientific updates in the field of astronomy and includes new features that reinforce critical thinking and excite readers' curiosity. New features such as Extraordinary Claims engage readers by presenting extraordinary claims about the universe and how they were either supported or debunked as scientists collected more evidence, reinforcing the process of science and how scientists think critically to evaluate them. My Cosmic Perspective establishes a personal connection between readers and the cosmos as they learn to think critically about the meaning of what they learn in their astronomy studies and beyond. Designed and written for a one semester course, this text shares many of the strengths of its more comprehensive best-selling sibling, The Cosmic Perspective. Also available with Mastering Astronomy Mastering (TM) Astronomy is the leading online homework, tutorial, and assessment system, designed to improve results by engaging students with vetted, interactive content. Instructors ensure students arrive ready to learn by assigning new Interactive Prelecture videos that give students exposure to key concepts before class and open classroom time for active learning or deeper discussions of topics. With Learning Catalytics (TM) instructors can expand on key concepts and encourage student engagement during lecture through questions answered individually or in pairs and groups. Students further master concepts through book-specific Mastering Astronomy assignments, which provide hints and answer-specific feedback that build problem-solving skills. Mastering Astronomy now features Virtual Astronomy Labs, providing assignable online laboratory activities that use Stellarium and Interactive Figures. Note: You are purchasing a standalone product; Mastering (TM) Astronomy does not come packaged with this content. Students, if interested in purchasing this title with Mastering Astronomy, ask your instructor for the correct package ISBN and Course ID. Instructors, contact your Pearson representative for more information. If you would like to purchase both the physical text and Mastering Astronomy, search for: 0134516338 / 9780134516332 Essential Cosmic Perspective Plus Mastering Astronomy with eText, The -- Access Card Package Package consists of: 0134509293 / 9780134509297 Mastering Astronomy with Pearson eText -- ValuePack Access Card -- for Essential Cosmic Perspective, The0134446437 / 9780134446431 Essential Cosmic Perspective, The.
(source: Nielsen Book Data)9780134446431 20171227

• PREFACE Chapter 1 - Introduction to experimental designPART I - Statistical principles on design of experiments Chapter 2 - One-factor designs and the analysis of variance Chapter 3 - Some further considerations on one-factor design and ANOVA Chapter 4 - Multiple-comparison testingChapter 5 - Orthogonality, orthogonal decomposition, and their role in modern experimental designPART II - Identifying active factors Chapter 6 - Two-factor cross-classification designs Chapter 7 - Nested, or hierarchical, designs Chapter 8 - Designs with three or more factors: Latin-square and related designsPART III - Studying factors' effects (suggestion) Chapter 9 - Two-level factorial designs Chapter 10 - Confounding/blocking in 2k designsChapter 11 - Two-level fractional-factorial designs Chapter 12 - Designs with factors at three levels Chapter 13 - Introduction to Taguchi methodsPART IV - Regression analysis, surface designs, and other topicsChapter 14 - Simple regression Chapter 15 - Multiple and step-wise regression Chapter 16 - Introduction to Response-Surface Methodology Chapter 17 - Introduction to mixture design and triangular surfacesChapter 18 - Literature on experimental design and discussion of some topics not covered in the text.
• (source: Nielsen Book Data)9783319645827 20180416

This text introduces and provides instruction on the design and analysis of experiments for a broad audience. Formed by decades of teaching, consulting, and industrial experience in the Design of Experiments field, this new edition contains updated examples, exercises, and situations covering the science and engineering practice. This text minimizes the amount of mathematical detail, while still doing full justice to the mathematical rigor of the presentation and the precision of statements, making the text accessible for those who have little experience with design of experiments and who need some practical advice on using such designs to solve day-to-day problems. Additionally, an intuitive understanding of the principles is always emphasized, with helpful hints throughout.
(source: Nielsen Book Data)9783319645827 20180416

• Preface xv About the Author xix 1 Electrons, Photons, and Phonons 1.1 Selected Concepts of Quantum Mechanics 1.1.1 The dual nature of the photon 1.1.2 The dual nature of the electron 1.1.3 Electrons in confined environments 1.2 Selected Concepts of Statistical Mechanics 1.2.1 Thermal motion and thermal energy 1.2.2 Thermal equilibrium 1.2.3 Electron statistics 1.3 Selected Concepts of Solid-State Physics 1.3.1 Bonds and bands 1.3.2 Metals, insulators, and semiconductors 1.3.3 Density of states 1.3.4 Lattice vibrations: phonons 1.4 Summary 1.5 Further reading Problems 2 Carrier Statistics in Equilibrium 2.1 Conduction and Valence Bands-- Bandgap-- Holes 2.2 Intrinsic Semiconductor 2.3 Extrinsic Semiconductor 2.3.1 Donors and acceptors 2.3.2 Charge neutrality 2.3.3 Equilibrium carrier concentration in a doped semiconductor 2.4 Carrier Statistics in Equilibrium 2.4.1 Conduction and valence band density of states 2.4.2 Equilibrium electron concentration 2.4.3 Equilibrium hole concentration 2.4.4 np product in equilibrium 2.4.5 Location of Fermi level 2.5 Summary 2.6 Further Reading Problems 3 Carrier Generation and Recombination 3.1 Generation and Recombination Mechanisms 3.2 Thermal Equilibrium: Principle of Detailed Balance 3.3 Generation and Recombination Rates in Thermal Equilibrium 3.3.1 Band-to-band optical generation and recombination 3.3.2 Auger generation and recombination 3.3.3 Trap-assisted thermal generation and recombination 3.4 Generation and Recombination Rates Outside Equilibrium 3.4.1 Quasi-neutral low-level injection-- recombination lifetime 3.4.2 Extraction-- generation lifetime 3.5 Dynamics of Excess Carriers in Uniform Situations 3.5.1 Example 1: Turn-on transient 3.5.2 Example 2: Turn-off transient 3.5.3 Example 3: A pulse of light 3.6 Surface Generation and Recombination 3.7 Summary 3.8 Further Reading Problems 4 Carrier Drift and Diffusion 4.1 Thermal Motion 4.1.1 Thermal velocity 4.1.2 Scattering 4.2 Drift 4.2.1 Drift velocity 4.2.2 Velocity saturation 4.2.3 Drift current 4.2.4 Energy band diagram under electric field 4.3 Diffusion 4.3.1 Fick's first law 4.3.2 The Einstein relation 4.3.3 Diffusion current 4.4 Transit Time 4.5 Nonuniformly Doped Semiconductor in Thermal Equilibrium 4.5.1 Gauss' law 4.5.2 The Boltzmann relations 4.5.3 Equilibrium carrier concentration 4.6 Quasi-Fermi Levels and Quasi-Equilibrium 4.7 Summary 4.8 Further Reading Problems 5 Carrier Flow 5.1 Continuity Equations 5.2 Surface Continuity Equations 5.2.1 Free surface 5.2.2 Ohmic contact 5.3 Shockley Equations 5.4 Simplifications of Shockley Equations to One-Dimensional Quasi-Neutral Situations 5.5 Majority-Carrier Situations 5.5.1 Example 1: Semiconductor bar under voltage 5.5.2 Example 2: Integrated resistor 5.6 Minority-Carrier Situations 5.6.1 Example 3: Diffusion and bulk recombination in a "long" bar 5.6.2 Example 4: Diffusion and surface recombination in a "short" bar 5.6.3 Length scales of minority carrier situations 5.7 Dynamics of Majority-Carrier Situations 5.8 Dynamics of Minority-Carrier Situations 5.8.1 Example 5: Transient in a bar with S = â 5.9 Transport in Space-Charge and High-Resistivity Regions 5.9.1 Example 6: Drift in a high-resistivity region under external electric field 5.9.2 Comparison between SCR and QNR transport 5.10 Carrier Multiplication and Avalanche Breakdown 5.10.1 Example 7: Carrier multiplication in a high-resistivity region with uniform electric field 5.11 Summary 5.12 Further Reading Problems 6 PN Junction Diode 6.1 The Ideal PN Junction Diode 6.2 Ideal PN Junction in Thermal Equilibrium 6.3 Current-Voltage Characteristics of The Ideal PN Diode 6.3.1 Electrostatics under bias 6.3.2 I-V characteristics: qualitative discussion 6.3.3 I-V characteristics: quantitative models 6.4 Charge-Voltage Characteristics of Ideal PN Diode 6.4.1 Depletion charge 6.4.2 Minority carrier charge 6.5 Equivalent Circuit Models of The Ideal PN Diode 6.6 Nonideal and Second-Order Effects 6.6.1 Short diode 6.6.2 Space-charge generation and recombination 6.6.3 Series resistance 6.6.4 Breakdown voltage 6.6.5 Nonuniform doping distributions 6.6.6 High-injection effects 6.7 Integrated PN Diode 6.7.1 Isolation 6.7.2 Series resistance 6.7.3 High-low junction 6.8 Summary 6.9 Further Reading Problem 7 Schottky Diode and Ohmic Contact 7.1 The Ideal Schottky Diode 7.2 Ideal Schottky Diode in Thermal Equilibrium 7.2.1 A simpler system: a metal-metal junction 7.2.2 Energy band lineup of metal-semiconductor junction 7.2.3 Electrostatics of metal-semiconductor junction in equilibrium 7.3 Current-Voltage Characteristics of Ideal Schottky Diode 7.3.1 Electrostatics under bias 7.3.2 I-V characteristics: qualitative discussion 7.3.3 I-V characteristics: thermionic emission model 7.4 Charge-Voltage Characteristics of Ideal Schottky Diode 7.5 Equivalent Circuit Models for The Ideal Schottky Diode 7.6 Nonideal and Second-Order Effects 7.6.1 Series resistance 7.6.2 Breakdown voltage 7.7 Integrated Schottky Diode 7.8 Ohmic Contacts 7.8.1 Lateral ohmic contact: transmission-line model 7.8.2 Boundary conditions imposed by ohmic contacts 7.9 Summary 7.10 Further Reading Problems 8 The Si Surface and the Metal-OxideSemiconductor Structure 8.1 The Semiconductor Surface 8.2 The Ideal Metal-Oxide-Semiconductor Structure 8.3 The Ideal Metal-Oxide-Semiconductor Structure at Zero Bias 8.3.1 General relations for the electrostatics of the ideal MOS structure 8.3.2 Electrostatic of the MOS structure under zero bias 8.4 The Ideal Metal-Oxide Semiconductor Structure Under Bias 8.4.1 Depletion 8.4.2 Flatband 8.4.3 Accumulation 8.4.4 Threshold 8.4.5 Inversion 8.4.6 Summary of charge-voltage characteristics 8.5 Dynamics of The MOS Structure 8.5.1 Quasi-static C-V characteristics 8.5.2 High-frequency C-V characteristics 8.5.3 Deep depletion 8.6 Weak Inversion and The Subthreshold Regime 8.7 Three-Terminal MOS Structure 8.8 Summary 8.9 Further Reading Problems 9 The "Long" Metal-Oxide-Semiconductor Field-Effect Transistor 9.1 The Ideal MOSFET 9.2 Qualitative Operation of The Ideal MOSFET 9.3 Inversion Layer Transport in The Ideal MOSFET 9.4 Current-Voltage Characteristics of The Ideal MOSFET 9.4.1 The cut-off regime 9.4.2 The linear regime 9.4.3 The saturation regime 9.4.4 DC large-signal equivalent-circuit model of ideal MOSFET 9.4.5 Energy band diagrams 9.5 Charge-Voltage Characteristics of The Ideal MOSFET 9.5.1 Depletion charge 9.5.2 Inversion charge 9.6 Small-Signal Behavior of Ideal MOSFET 9.6.1 Small-signal equivalent circuit model of ideal MOSFET 9.6.2 Short-circuit current-gain cut-off frequency, fT, of ideal MOSFET in saturation 9.7 Nonideal Effects in MOSFET 9.7.1 Body effect 9.7.2 Effect of back bias 9.7.3 Channel-length modulation 9.7.4 The subthreshold regime 9.7.5 Source and drain resistance 9.8 Summary 9.9 Further Reading Problems 10 The "Short" Metal-Oxide-Semiconductor Field-Effect Transistor 10.1 MOSFET Short-Channel Effects: Transport 10.1.1 Mobility degradation 10.1.2 Velocity saturation 10.2 MOSFET Short-Channel Effects: Electrostatics 10.2.1 Threshold voltage dependence on gate length: VT rolloff 10.2.2 Threshold voltage dependence on VDS: drain-induced barrier lowering (DIBL) 10.2.3 Subthreshold swing dependence on gate length and VDS 10.3 MOSFET Short-Channel Effects: Gate Stack Scaling 10.3.1 Gate capacitance 10.3.2 Gate leakage current 10.4 MOSFET High-Field Effects 10.4.1 Electrostatics of velocity saturation region 10.4.2 Impact ionization and substrate current 10.4.3 Output conductance 10.4.4 Gate-induced drain leakage 10.5 MOSFET Scaling 10.5.1 The MOSFET as a switch 10.5.2 Constant field scaling of the ideal MOSFET 10.5.3 Constant voltage scaling of the ideal MOSFET 10.5.4 Generalized scaling of short MOSFETs 10.5.5 MOSFET scaling: a historical perspective 10.5.6 Evolution of MOSFET design 10.6 Summary 10.7 Further Reading Problems 11 The Bipolar Junction Transistor 11.1 The Ideal BJT 11.2 Current-Voltage Characteristics of The Ideal BJT 11.2.1 The forward-active regime 11.2.2 The reverse regime 11.2.3 The cut-off regime 11.2.4 The saturation regime 11.2.5 Output I-V characteristics 11.3 Charge-Voltage Characteristics of Ideal BJT 11.3.1 Depletion charge 11.3.2 Minority carrier charge.
• (source: Nielsen Book Data)9780134670904 20171218

A modern take on microelectronic device engineering Microelectronics is a 50-year-old engineering discipline still undergoing rapid evolution and societal adoption. Integrated Microelectronic Devices: Physics and Modeling fills the need for a rigorous description of semiconductor device physics that is relevant to modern nanoelectronics. The central goal is to present the fundamentals of semiconductor device operation with relevance to modern integrated microelectronics. Emphasis is devoted to frequency response, layout, geometrical effects, parasitic issues and modeling in integrated microelectronics devices (transistors and diodes). In addition to this focus, the concepts learned here are highly applicable in other device contexts. This text is suitable for a one-semester junior or senior-level course by selecting the front sections of selected chapters (e.g. 1-9). It can also be used in a two-semester senior-level or a graduate-level course by taking advantage of the more advanced sections.
(source: Nielsen Book Data)9780134670904 20171218

Give students a rigorous, complete, and integrated treatment of the mechanics of materials -- an essential subject in mechanical, civil, and structural engineering. This leading text, Goodno/Gere's MECHANICS OF MATERIALS, 9E, examines the analysis and design of structural members subjected to tension, compression, torsion, and bending -- laying the foundation for further study.
(source: Nielsen Book Data)9781337093347 20170227

• Cheap changes everything
• The magic of prediction
• Why it's called intelligence
• Data is the new oil
• The new division of labor
• Unpacking decisions
• The value of judgment
• Taming complexity
• What machines can learn
• Fully automated decision-making
• Deconstructing workflows
• Decomposing decisions
• Job redesign
• AI in the C-suite
• When AI transforms your business
• Managing AI risk
• Beyond business.

"What does AI mean for your business? Read this book to find out." -- Hal Varian, Chief Economist, Google Artificial intelligence does the seemingly impossible, magically bringing machines to life--driving cars, trading stocks, and teaching children. But facing the sea change that AI will bring can be paralyzing. How should companies set strategies, governments design policies, and people plan their lives for a world so different from what we know? In the face of such uncertainty, many analysts either cower in fear or predict an impossibly sunny future. But in Prediction Machines, three eminent economists recast the rise of AI as a drop in the cost of prediction. With this single, masterful stroke, they lift the curtain on the AI-is-magic hype and show how basic tools from economics provide clarity about the AI revolution and a basis for action by CEOs, managers, policy makers, investors, and entrepreneurs. When AI is framed as cheap prediction, its extraordinary potential becomes clear. Prediction is at the heart of making decisions under uncertainty. Our businesses and personal lives are riddled with such decisions. Prediction tools increase productivity--operating machines, handling documents, communicating with customers. Uncertainty constrains strategy. Better prediction creates opportunities for new business structures and strategies to compete. Penetrating, fun, and always insightful and practical, Prediction Machines follows its inescapable logic to explain how to navigate the changes on the horizon. The impact of AI will be profound, but the economic framework for understanding it is surprisingly simple.
(source: Nielsen Book Data)9781633695672 20180423

• Elementary materials science concepts
• Electrical and thermal conduction in solids
• Elementary quantum physics
• Modern theory of solids
• Semiconductors
• Semiconductor devices
• Dielectric materials and insulation
• Magnetic properties and superconductivity
• Optical properties of materials.

• Administration
• Building planning
• Fire protection
• Means of egress
• Accessibility
• Building envelope, structural systems, and construction materials
• Building services, special devices, and special conditions.

"This convenient, easy-to-use resource provides a comprehensive analysis of notable changes since the 2015 International Building Code, including the origins, implications, and real-world applications of those changes. Covering updates to both structural and non-structural provisions of the IBC, the text presents an analysis of affected code sections, highlighting modifications to the existing language with strikethroughs and underlines. Each update also features a brief explanation, detailed illustrations, and thoughtful discussion of the changes' significance, so you can interpret the code's technical jargon and understand its practical applications to real-world scenarios. With its attention to detail, logical organization, and thorough, yet concise coverage, SIGNIFICANT CHANGES TO THE INTERNATIONAL BUILDING CODE, 2018 Edition, is an ideal resource to help you transition from the 2015 IBC."-- Amazon.com.

• 1. INTRODUCTION. Structural Design. Loads. Building Codes. Design Specifications. Structural Steel. Standard Cross-Sectional Shapes. Problems. 2. CONCEPTS IN STRUCTURAL STEEL DESIGN. Design Philosophies. American Institute of Steel Construction Specification. Load Factors, Resistance Factors, and Load Combinations for LRFD. Safety Factors and Load Combinations for ASD. Probabilistic Basis of Load and Resistance Factors. Steel Construction Manual. Design Computations and Precision. Problems. 3. TENSION MEMBERS. Introduction. Tensile Strength. Effective Area. Staggered Fasteners. Block Shear. Design of Tension Members. Threaded Rods and Cables. Tensions Members in Roof Trusses. Pin-Connected Members. Problems. 4. COMPRESSION MEMBERS. Introduction. Column Theory. AISC Requirements. Local Stability. Tables for Compression Members. Design. More on Effective Length. Torsional and Flexural-Torsional Buckling. Built-Up Members. Problems. 5. BEAMS. Introduction. Bending Stress and the Plastic Moment. Stability. Classification of Shapes. Bending Strength of Compact Shapes. Bending Strength of Noncompact Shapes. Summary of Moment Strength. Deflection. Design. Manual Table 6-2 for Beam Analysis and Design. Floor and Roof Framing Systems. Holes in Beams. Open-Web Steel Joists. Beam Bearing Plates and Column Base Plates. Biaxial Bending. Bending Strength of Various Shapes. Problems. 6. BEAM-COLUMNS. Definition. Interaction Formulas. Methods of Analysis for Required Strength. The Moment Amplification Method. Braced Versus Unbraced Frames. Members in Braced Frames. Members in Unbraced Frames. Design of Beam-Columns. Trusses with Top-Chord Loads Between Joints. Problems. 7. SIMPLE CONNECTIONS. Introduction. Bolted Shear Connections: Failure Modes. Bearing Strength, Spacing, and Edge-Distance Requirements. Shear Strength. Installation of High-Strength Bolts. Slip-Critical and Bearing-Type Connections. Design Examples. High-Strength Bolts in Tension. Combined Shear and Tension in Fasteners. Welded Connections. Fillet Welds. Problems. 8. ECCENTRIC CONNECTIONS. Examples of Eccentric Connections. Eccentric Bolted Connections: Shear Only. Eccentric Bolted Connections: Shear Plus Tension. Eccentric Welded Connections: Shear Only. Eccentric Welded Connections: Shear Plus Tension. Moment-Resisting Connections. Column Stiffeners and Other Reinforcement. End-Plate Connections. Concluding Remarks. Problems. 9. COMPOSITE CONSTRUCTION. Introduction. Shored Versus Unshored Construction. Effective Flange Width. Steel Headed Stud Anchors. Design. Deflections. Composite Beams with Formed Steel Deck. Tables for Composite Beam Analysis and Design. Continuous Beams. Composite Columns. Problems. 10. PLATE GIRDERS. Introduction. General Considerations. AISE Requirements for Proportions of Plate Girders. Flexural Strength. Shear Strength. Bearing Stiffeners. Design. Problems. APPENDIX: PLASTIC ANALYSIS AND DESIGN. Introduction. AISC Requirements. Analysis. Design. Concluding Remarks. REFERENCES. ANSWERS TO SELECTED PROBLEMS. INDEX.
• (source: Nielsen Book Data)9781337094740 20170925

Learn the fundamentals of structural steel design with STEEL DESIGN's unique emphasis on the design of members and their connections. With this best-selling book, you can learn LRFD (Load and Resistance Factor Design) or ASD (Allowable Stress Design), depending on how your course is taught. You will master the application of fundamental principles for design procedures, as well as for practical design. You will also study the theory behind these procedures, which further strengthens your engineering knowledge. While this market-leading book is ideal for your junior-and senior-level steel design class, later chapters are also useful for graduate courses. The book functions as a valuable ongoing reference tool for success in your career as a practicing engineer.
(source: Nielsen Book Data)9781337094740 20170925