Search results for """ "A New Vision for CenterBased Engineering Research""

Book SynopsisThe first comprehensive history of MIT's Center for Advanced Visual Studies (CAVS), told through personal accounts and groundbreaking artwork.In 1967, in a time of student unrest, the Massachusetts Institute of Technology did the unexpected: it established the first academic center for research and collaboration in art, science, and technology. The Center for Advanced Visual Studies (CAVS) brought artists to the MIT campus with radical expressions of a rapidly evolving technological era.The brainchild of founding director Gyorgy Kepes, CAVS sought to repair the distance between practitioners of art and engineering within the halls of MIT. The scientist may be an extra brain to the artist, and the engineer may be an extra arm to the artist, whereas the artist can be an extra eye to the scientist and engineer,” said long-time director Otto Piene in Centerbeam, a 1978 film about a CAVS collaboration. As a breeder of new art forms and future-oriented artistic

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Book SynopsisProcess engineering emerged at the beginning of the 20th Century and has become an essential scientific discipline for the matter and energy processing industries. Its success is incontrovertible, with the exponential increase in techniques and innovations. Rapid advances in new technologies such as artificial intelligence, as well as current societal needs – sustainable development, climate change, renewable energy, the environment – are developments that must be taken into account in industrial renewal. Process Engineering Renewal 2 focuses on research in process engineering, which is partly overshadowed by the sciences that contribute to its development. The external constraints of this interface science must be seen in relation to conservation, sustainable development, global warming, etc., which are linked to current success and the difficulty of taking risks in research.Table of ContentsForeword ix Preface xiii Introduction xxix Chapter 1. From “Autonomous” Research to Societal Solutions 1 1.1. Positioning of process engineering 3 1.2. A forced transition 9 Chapter 2. Highly “Autonomous” Research 21 2.1. Intensification 23 2.1.1. Reminders on microfluidics 24 2.1.2. Applications 28 2.2. Additive manufacturing 31 2.3. Nanotechnologies 39 Chapter 3. Externally Stimulated Research 43 3.1. Chemistry and process engineering 45 3.2. Biotechnologies – bioprocess engineering 46 3.3. Impacts of digital technology 48 3.4. Product engineering 54 3.5. Materials and process engineering 57 3.6. Biomimicry and process engineering 60 3.6.1. Emergence of biomimetic concepts in PE 63 3.6.2. Applicability of biomimicry 64 3.7. Complexity and process engineering 64 3.7.1. Between complication and complexity 65 3.7.2. Complexity “quite simply” 66 3.7.3. To start the debate 67 Chapter 4. Research in Response to Societal Questions 73 4.1. General framework 76 4.2. Some additional elements 86 4.2.1. Some additions and considerations 87 4.3. Energies 91 4.3.1. Biomass 96 4.3.2. Electrochemistry, photochemistry 99 4.3.3. Storage of electrical energy 100 4.3.4. Processes related to negative greenhouse gas emissions 104 4.3.5. Energy and raw materials 106 4.3.6. Consequences in terms of a low-carbon industry 106 4.4. Life Cycle Assessment (LCA) 108 4.4.1. Life Cycle Assessment limitations 109 4.4.2. Life Cycle Assessment methodology 109 4.4.3. Environmental mechanism: cause-and-effect chain (Becaert 2010) 111 Chapter 5. Non-Exhaustive List of Possible Actions in Process Engineering 115 5.1. Process engineering under constraints stimulating upstream research 117 5.2. Methodological development and paradigms 125 5.3. Challenges and innovations 126 5.4. Possible science behind the application 128 Chapter 6. Consequences and Attempting to Reach an Operative Conclusion 131 6.1. A provisional assessment 133 6.1.1. Consolidating knowledge 136 6.1.2. Developing a sense of belonging, creativity and innovation 137 6.2. A possible operational conclusion 140 6.2.1. A little reflection on PE research 144 Appendix 1. Process Engineering in the French National Strategy and in “Horizon Europe” 151 Appendix 2. Reminders on Artificial Intelligence 181 Appendix 3. Between Process and Environmental Engineering 205 References 223 Index 283

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Book SynopsisSystems engineering is an interdisciplinary field of engineering that focuses on how to design and manage complex engineering projects over their life cycles. Issues such as reliability, logistics, coordination of different teams, evaluation measurements, and other disciplines become more difficult when dealing with large, complex projects. Systems engineering deals with work-processes, optimization methods, and risk management tools in such projects. In this book, the authors discuss putting systems engineering into practice and the model-based systems engineering paradigm; education of military engineers and managers with a systems perspective at the Air Force Institute of Technology; simulation of the separation of industrially important hydrocarbon mixtures by different distillation techniques using Mathematica; enterprise transformation and addressing individual perceptual and behavioural biases as scaling fractals to create emergent state changes; and the application and validation of systems engineering methods and techniques.

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Book SynopsisHelping to define and inform this growing field, this rich multidisciplinary volume is an ideal reference for graduate students and researchers. It draws on the social sciences, engineering, and computing, as well as on contemporary learning research examining how technology affects learners and learning environments, and social context in learning.Table of ContentsForeword; Introduction; 1. Chronological and ontological development of engineering education as a field of scientific inquiry Jeff Froyd and Jack Lohmann; 2. Learning theories for engineering education practice and research Wendy Newstetter and Marilla Svinicki; 3. Situative framework for engineering learning research Aditya Johri, Barbara M. Olds and Kevin O'Connor; 4. The social nature of representational engineering knowledge Wolff-Michael Roth; 5. Conceptual change and misconceptions in engineering education: curricular-, measurement-, and theoretically focused approaches Ruth Streveler, Shane Brown, Geoffrey Herman and Devlin Monfort; 6. Engineers as problem solvers David Jonassen; 7. Professional engineering work R. Stevens, Aditya Johri and Kevin O'Connor; 8. Problem-based and project-based learning in EE - merging models Anette Kolmos and Eric De Graaff; 9. Case studies in engineering Claire Davis and Aman Yadav; 10. Curriculum design in the middle years Susan Lord and John Chen; 11. Engineering design education Cindy Atman, Jim Borgford-Parnell, Janet McDonnell, Ozgur Eris and Monica Cardella; 12. Adaptive expertise and knowledge fluency in design and innovation Ann McKenna; 13. Learning disciplinary ideas and practices through engineering design Janet Kolodner and Kristen Wendell; 14. Engineering identity Karen Tonso; 15. Studying the career pathways of engineers: an illustration with two datasets Sheri Sheppard, Shannon Gilmartin, Samantha Brunhaver and Anthony Antonio; 16. Retention and persistence in engineering education Gary Lichtenstein, Helen Chen, Karl Smith and Theresa Maldonado; 17. Social justice and inclusion: women and minorities in engineering Donna Riley, Amy Slaton and Alice Pawley; 18. Community engagement in engineering education as a way to increase inclusiveness Chris Swan, Kurt Paterson and Angela Bielefeldt; 19. Translating research to widespread practice in engineering education Tom Litzinger and Lisa Lattuca; 20. Research-guided teaching practices: engineering threshold concepts as an approach to curriculum renewal Caroline Baillie and Sally Male; 21. Engineering instruction development: programs, best practices, and recommendations Rich Felder, Rebecca Brent and Michael Prince; 22. Understanding disciplinary cultures: the first step to cultural change Elizabeth Godfrey; 23. Preparing engineering educators for engineering education research Maura Borrego and Ruth Streveler; 24. Studying teaching and learning in undergraduate engineering programs: conceptual frameworks to guide research on practice Lisa Lattuca and Tom Litzinger; 25. Design-based research in engineering education: current steps and next steps Anthony E. Kelly; 26. Quantitative and mixed-methods research: approaches and limitations Barbara Moskal and Teri Reed-Rhoades; 27. Framing qualitative methods in engineering education research: established and emerging methodologies Jenni Case and Greg Light; 28. Conducting interpretive research in engineering education Aditya Johri; 29. The science and design of assessment in engineering education Jim Pellegrino, L. V. DiBello and Sean Brophy; 30. Engineering communication M. Paretti, L. McNair and J. Leydens; 31. Use of technology in engineering education K. Madhavan and E. Lindsay; 32. Global and international issues in engineering education A. Johri and B. Jesiek; 33. Engineering ethics B. Barry and J. Herkert; 34. The normative contents of engineering formation: engineering studies G. Downey; 35. Interdisciplinarity in engineering practice N. Nerssesian and W. Newstetter; Conclusion.

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Book Synopsis.- 1 Metamaterials Technology Development: From Fundamental Research to Applications..- 2 Temporal Graph Processing in Databases: Challenges and Solutions..- 3 Isogeometric Finite Elements: Motivation, Implementation and Applications..- 4 Integration Of Flexible Electronics in Automotive Infotainment Bezel, etc.

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Book SynopsisTrade Review"Many contributions to this unusual collection are from scholars in the humanities, who nevertheless bring interesting material to bear on areas of experimental biology and biotechnology. . .. Especially interesting is the contribution charting the rise and decline of Michael Crichton's 1969 novel The Andromeda Strain as a frequent reference for scientists, politicians, journalists, and the public when discussing extraterrestrial contamination and genetic engineering (by Luis Campos) . . .. The contributions considered as a whole make this a generally informative if controversial volume. Recommended." * Choice *"Focusing on the impacts of engineering on topics as varied as laboratory techniques and geopolitical policy, the collection achieves expansiveness in subject and coherence in argument, a rare accomplishment for an edited volume… Nature Remade is well written and well edited. The volume’s wide range of topics covered contributes to its broad appeal, while its thoughtful structure binds seemingly disparate essays together nicely. Such histories are timely as the life sciences increasingly approach problems, from genome editing to climate control, from an engineering perspective." * Science *"Engineering applied to biology provokes fascination and apprehension. This essay collection explores that tension on scales ranging from molecules to people to planet, across eras and cultures. The editors—three historians and a biologist—aim to show that every effort at remaking nature 'inescapably occurs in a particular social and political milieu.' Original examples include orange cultivation in Palestinian identity and the African American scholars who explored 'black eugenics.'" * Nature *“From rats and pigs to oranges and rice, humans have been engineering life in the field and in the laboratory for centuries. Like all engineering, this remaking of life has been accompanied by ideals and visions of possible futures, some sublime, others menacing. The informed ensemble of essays in Nature Remade takes this visioneering seriously by exploring a diverse set of activities around control of nature, knowing as making, and the envisioning of biological futures. As the reader travels the planet, moving from contested fruit groves in Palestine to Cold War nuclear test sites in the Pacific, one encounters a superb set of histories that reconnoiters the shifting boundaries between engineering, science, and art.” -- W. Patrick McCray, University of California, Santa Barbara, author of "Making Art Work: How Cold War Engineers and Artists Forged a New Creative Culture"“Once again, the contributors to the Convening Science: Discovery at the Marine Biological Laboratory series have crafted an illuminating volume that advances historical understanding of the life sciences. Whether manipulating life at the level of the molecule, cell, organism, population, ecosystem, or entire planet, biologist-engineers and allied researchers can dream big but must consider multiple constraints when designing, implementing, and maintaining projects meant to solve perceived problems. Like traditional engineers, they must also cultivate strong stakeholder relationships, deploy technologies appropriately, try to anticipate failure, and learn from unintended outcomes. By analyzing a diverse array of twentieth- and twenty-first-century initiatives, both actualized and envisioned, the authors of Nature Remade make a strong collective case for interpreting experimental biology through an engineering lens.” -- Christine Keiner, Rochester Institute of Technology, author of "Deep Cut: Science, Power, and the Unbuilt Interoceanic Canal"Table of ContentsContents Introduction: Engineering Life, Envisioning Worlds Luis A. Campos, Michael R. Dietrich, Tiago Saraiva, and Christian C. Young PART 1: Control 1 Knowing and Controlling: Engineering Ideals and Gene Drive for Invasive Species Control in Aotearoa New Zealand Christian H. Ross 2 A Tale of Two Rats Anita Guerrini 3 Cloning as Rooting: Cultivating Oranges and the Jewish Settlement of Palestine Tiago Saraiva 4 Harvesting Hogzillas: Feral Pigs and the Engineering Ideal Abraham Gibson PART 2: Knowing as Making 5 Design and Narrative in the History of DNA Analysis and Synthesis Dominic J. Berry 6 Behavioral Engineering and the Problems of Animal Misbehavior Edmund Ramsden 7 Engineering Spaces for the Biological Effects of Fission Joshua McGuffie 8 A Matter of Taste: Making Artificial Silkworm Food in Twentieth-Century Japan Lisa Onaga 9 Cybernetics without the Cyborg: Biological Modernism(s) in Biomimetics and Biomimicry Richard Fadok PART 3: Envisioning 10 Strains of Andromeda: The Cosmic Potential Hazards of Genetic Engineering Luis A. Campos 11 Engineering Human Nature in the Genome Age: A Long View Nathaniel Comfort 12 Engineering Uplift: Black Eugenics as Black Liberation Ayah Nuriddin 13 Terraforming Planets, Geoengineering Earth James Rodger Fleming 14 Resurrecting the Sublime Alexandra Daisy Ginsberg Notes List of Contributors Index

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Book SynopsisA synthesis of nearly 2,000 articles to help make engineers better educators While a significant body of knowledge has evolved in the field of engineering education over the years, much of the published information has been restricted to scholarly journals and has not found a broad audience.Trade Review"…a convenient, well-organized compendium of what…literature has revealed, drawing on both American and English-language international journals…highly recommended." (CHOICE, April 2006)Table of ContentsPart I. Aims and Objectives (Outcomes) and Their Screening 1 Chapter 1. Curriculum Design, Implementation and Evaluation 3 Chapter 2. Aims and Objectives (Outcomes) 19 Chapter 3. Philosophy and Sociology and the Aims of the Engineering Curriculum 53 Chapters 4. Concepts and Principles (Rules) 91 Chapter 5. Learning Strategies and Learning Styles 119 Chapter 6. Human Development 153 Part II. The Curriculum and Its Paradigms in Practice 175 Chapter 7. Curriculum Change and Changing the Curriculum 177 Chapter 8. Interdisciplinary and Integrated Studies 199 Chapter 9. From Projects to Problem-Based Learning 221 Part III. Problem Solving, Creativity, and Design 241 Chapter 10. Problem Solving 243 Chapter 11. Creativity 261 Chapter 12. Design 283 Part IV. Introduction to Chapters 13 and 14. The Lecture 317 Chapter 13. Cooperative Learning and Teamwork 321 Chapter 14. Other Instructional Practices and the New Technologies 353 Chapter 15. Assessment and Evaluation 391 Chapter 16. The Formal Assessment of Student Learning: Alternative Assessment 417 Chapter 17. Attrition and Retention 443 Epilogue 459 Author Index 465 Subject Index 483

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Book SynopsisThe major themes for this book are intelligent materials; sensing and control of adaptive systems; applications to aerospace engineering. Every chapter is written by a global leader in their field and provides insights into the future directions of this field, setting the agenda for future research in adaptive structures.Table of ContentsList of Contributors xi Preface xvii 1 Adaptive Structures for Structural Health Monitoring 1Daniel J. Inman and Benjamin L. Grisso 1.1 Introduction 1 1.2 Structural Health Monitoring 4 1.3 Impedance-Based Health Monitoring 6 1.4 Local Computing 8 1.5 Power Analysis 11 1.6 Experimental Validation 13 1.7 Harvesting, Storage and Power Management 18 1.7.1 Thermal Electric Harvesting 19 1.7.2 Vibration Harvesting with Piezoceramics 22 1.8 Autonomous Self-healing 25 1.9 The Way Forward: Autonomic Structural Systems for Threat Mitigation 27 1.10 Summary 29 Acknowledgements 30 References 30 2 Distributed Sensing for Active Control 33Suk-Min Moon, Leslie P. Fowler and Robert L. Clark 2.1 Introduction 33 2.2 Description of Experimental Test Bed 35 2.3 Disturbance Estimation 36 2.3.1 Principal Component Analysis 36 2.3.2 Application of PCA: Case Studies 37 2.3.3 Combining Active Control and PCA to Identify Secondary Disturbances 40 2.4 Sensor Selection 43 2.4.1 Model Estimation 45 2.4.2 Optimal Sensor Strategy 45 2.4.3 Experimental Demonstration 48 2.5 Conclusions 55 Acknowledgments 56 References 56 3 Global Vibration Control Through Local Feedback 59Stephen J. Elliott 3.1 Introduction 59 3.2 Centralised Control of Vibration 61 3.3 Decentralised Control of Vibration 63 3.4 Control of Vibration on Structures with Distributed Excitation 67 3.5 Local Control in the Inner Ear 76 3.6 Conclusions 84 Acknowledgements 85 References 85 4 Lightweight Shape-Adaptable Airfoils: A New Challenge for an Old Dream 89L.F. Campanile 4.1 Introduction 89 4.2 Otto Lilienthal and the Flying Machine as a Shape-Adaptable Structural System 91 4.3 Sir George Cayley and the Task Separation Principle 93 4.4 Being Lightweight: A Crucial Requirement 95 4.5 Coupling Mechanism and Structure: Compliant Systems as the Basis of Lightweight Shape-Adaptable Systems 104 4.5.1 The Science of Compliant Systems 104 4.5.2 Compliant Systems for Airfoil Shape Adaptation 113 4.5.3 The Belt-Rib Airfoil Structure 115 4.6 Extending Coupling to the Actuator System: Compliant Active Systems 118 4.6.1 The Need for a Coupled Approach 118 4.6.2 Solid-State Actuation for Solid-State Deformability 120 4.6.3 Challenges and Trends of Structure–Actuator Integration 123 4.7 A Powerful Distributed Actuator: Aerodynamics 125 4.7.1 The Actuator Energy Balance 125 4.7.2 Balancing Kinematics by Partially Recovering Energy from the Flow 125 4.7.3 Active and Semi-Active Aeroelasticity 126 4.8 The Common Denominator: Mechanical Coupling 127 4.9 Concluding Remarks 128 Acknowledgements 129 References 129 5 Adaptive Aeroelastic Structures 137Jonathan Cooper 5.1 Introduction 137 5.2 Adaptive Internal Structures 142 5.2.1 Moving Spars 143 5.2.2 Rotating Spars 147 5.3 Adaptive Stiffness Attachments 152 5.4 Conclusions 159 5.5 The Way Forward 160 Acknowledgements 161 References 162 6 Adaptive Aerospace Structures with Smart Technologies – A Retrospective and Future View 163Christian Boller 6.1 Introduction 163 6.2 The Past Two Decades 165 6.2.1 SHM 167 6.2.2 Shape Control and Active Flow 170 6.2.3 Damping of Vibration and Noise 173 6.2.4 Smart Skins 176 6.2.5 Systems 177 6.3 Added Value to the System 179 6.4 Potential for the Future 185 6.5 A Reflective Summary with Conclusions 186 References 187 7 A Summary of Several Studies with Unsymmetric Laminates 191Michael W. Hyer, Marie-Laure Dano, Marc R. Schultz, Sontipee Aimmanee and Adel B. Jilani 7.1 Introduction and Background 191 7.2 Room-Temperature Shapes of Square [02/902]T Cross-Ply Laminates 193 7.3 Room-Temperature Shapes of More General Unsymmetric Laminates 198 7.4 Moments Required to Change Shapes of Unsymmetric Laminates 200 7.5 Use of Shape Memory Alloy for Actuation 206 7.6 Use of Piezoceramic Actuation 210 7.7 Consideration of Small Piezoceramic Actuators 216 7.8 Conclusions 228 References 228 8 Negative Stiffness and Negative Poisson’s Ratio in Materials which Undergo a Phase Transformation 231T.M. Jaglinski and R.S. Lakes 8.1 Introduction 231 8.2 Experimental Methods 234 8.2.1 Material Preparation 234 8.3 Composites 236 8.3.1 Theory 236 8.3.2 Experiment 237 8.4 Polycrystals 238 8.4.1 Theory 238 8.4.2 Experimental Results 239 8.5 Discussion 244 References 244 9 Recent Advances in Self-Healing Materials Systems 247M.W. Keller, B.J. Blaiszik, S.R. White and N.R. Sottos 9.1 Introduction 247 9.1.1 Microcapsule-Based Self-Healing 248 9.1.2 Critical Issues for Microencapsulated Healing 250 9.2 Faster Healing Systems – Fatigue Loading 251 9.3 Smaller Size Scales 253 9.4 Alternative Materials Systems – Elastomers 256 9.5 Microvascular Autonomic Composites 258 9.6 Conclusions 259 References 260 10 Adaptive Structures – Some Biological Paradigms 263Julian F.V. Vincent 10.1 Introduction 263 10.2 Deployment 264 10.3 Turgor-Driven Mechanisms 266 10.3.1 The Venus Fly Trap 270 10.3.2 Previous Theories 271 10.3.3 Background to an Elastic Model 271 10.3.4 The Trigger 273 10.4 Dead Plant Tissues 274 10.5 Morphing and Adapting in Animals 276 10.6 Sensing in Arthropods – Campaniform and Slit Sensilla 277 10.7 Developing an Interface Between Biology and Engineering 279 10.7.1 A Catalogue of Engineering 279 10.7.2 Challenging Engineering with Biology 280 10.7.3 Adaptive Structures – The TRIZ Route 282 10.7.4 Materials and Information 283 10.8 Envoi 285 Acknowledgements 285 References 285 Index 289

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Book SynopsisMechanical engineering is an engineering discipline that applies the principles of physics and materials science for analysis, design, manufacturing, and maintenance of mechanical systems. This book presents current research in the field of mechanical engineering, including the fatigue and residual stresses during welding of titanium alloys; aircraft engineering and bird strike analysis; modelling to predict ultra-low cycle fatigue fracture of steel bridges; marine engine emissions and the fatigue behaviour of composites processed by resin transfer moulding processes.

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Book SynopsisExploring the findings of the conference entitled 'System-based Vision for Strategic and Creative Design', this text focuses around the following key themes:· systemic framework - the capacity to survey all aspects and connections of any problem and its solution· creative work - the challenge to develop something new· design - a method to improve the world and make it better With the main objective of the conference being to define the knowledge and technologies needed in the design and development of project processes able to produce competitive, 'green' and consumer-friendly structures, the text also clearly relates to the development and use of quality materials, as well as to excellence in construction management, and to reliable measurement and testing methods.

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Book SynopsisLearn how to plan for success with this hands-on guide to conducting high-quality engineering research. Plan and implement your next project for maximum impact: step-by-step instructions cover every stage in engineering research, from the identification of an appropriate research topic through to the successful presentation of results. Improve your research outcomes: discover essential tools and methods for producing high-quality, rigorous research, including statistical analysis, survey design, and optimisation techniques. Research with purpose and direction: clear explanations, real-world examples, and over 50 customisable end-of-chapter exercises, all written with the practical and ethical considerations of engineering in mind. A unique engineering perspective: written especially for engineers, and relevant across all engineering disciplines, this is the ideal book for graduate students, undergraduates, and new academics looking to launch their research careers.Table of Contents1. Introduction to engineering research; 2. Literature search and review; 3. Developing a research plan; 4. Statistical analysis; 5. Optimisation techniques; 6. Survey research methods; 7. Research presentation; 8. The path forward; Appendix A. Matlab plot functions; Appendix B. Excel plot functions.

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Book SynopsisThis book includes high-quality research papers presenting the latest advances in aerospace and related engineering fields. The papers are organized according to six broad areas (i) Aerospace Propulsion, (ii) Space Research, Avionics and Instrumentation, (iii) Aerodynamics Wind Tunnel and Computational fluid dynamics (CFD), (iv) Structural Analysis and Finite Element Method (FEM), (v) Materials, Manufacturing and Air Safety and (vi) Aircraft Environmental and Control System and Stability, making it easy for readers to find the information they require. Offering insights into the state of the art in aerospace engineering, the original research presented is valuable to academics, researchers, undergraduate and postgraduate students as well as professionals in industry and R&D. The clearly written book can be used for the validation of data, and the development of experimental and simulation techniques as well as other mathematical approaches.

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Book SynopsisFundamental of Nuclear Engineering is derived from over 25 years of teaching undergraduate and graduate courses on nuclear engineering. The material has been extensively class tested and provides the most comprehensive textbook and reference on the fundamentals of nuclear engineering.Table of Contents1 Atomic and Nuclear Theory 9 1.1 Historical Review 9 1.2 Models of the Nucleus 10 2 Nuclear Reactor Design and Physics 53 2.1 Overall Concept and Description of Nuclear Reactors 53 2.2 Neutron Diffusion 71 2.3 Slowing Down of Neutrons 75 2.4 Criticality and the Steady State 86 2.5 Advanced Reactor Physics 96 3 Nuclear Reactor Dynamics and Control 120 3.1 Overview of Reactor Kinetics Behaviour 120 3.2 Point Reactor Model and the Inhour Equation 125 3.3 Reactor Control 138 3.4 Nuclear Fuel Management 146 4 Nuclear Reactor Materials and Fuel Engineering 174 4.1 Nuclear Reactor Materials 174 4.2 Fuel Production 202 4.3 Fuel Element Thermal Performance 218 4.4 Fuel Chemistry 240 4.5 Fuel Restructuring 248 4.6 Fission Product Behaviour 252 4.7 Fuel Performance 285 5 Thermal Hydraulics 314 5.1 Choice of Coolant 314 5.2 Definitions and Simple Two-Phase Flow Relationships 315 5.3 Two-Phase Flow 318 5.4 Pressure Drop 343 5.5 Heat Transfer 380 6 Nuclear Reactor Safety 573 6.1 Reactor Licensing and Regulation 573 6.2 General Principles of Reactor Safety 586 6.3 Engineered Safety Features 590 6.4 Reactor Safety Analysis 597 6.5 Reliability and Risk Assessment 619 6.6 Nuclear Reactor Accidents 624 6.7 Radiation Dose Calculations 640 6.8 Nuclear Emergency Response 659 6.9 Fission Product Release and Severe Core Damage Phenomena 669 7 Health Physics and Radiation Protection 711 7.1 Interaction of Radiation with Matter 711 7.2 Health Physics and Radiation Protection 730 7.3 Biological Effects of Radiation 763 7.4 Radiation Protection 779 7.5 Contamination Treatment 788 7.6 Space Radiation 788 Appendix 1 Physical Constants and Conversion Factors 811 Appendix 2 Table of Atomic Mass Excesses 813 Appendix 3 Some Values of Nuclear Spins and Parities 900 Appendix 4 Reactor Physics Parameters 903 Appendix 5 Physical and Biological Data for Radionuclides 905 Appendix 6 Cross-Sections of Some Radionuclides 907 Appendix 7 Properties of Elements and Some Molecules 909 Appendix 8 Isotopic Cross-Sections 913 Appendix 9 Direct and Cumulative Thermal Fission Product Yields for Various Fissile Isotopes 926 Index 943

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Book SynopsisMaster the core concepts and applications of foundation analysis and design with Das' best-selling PRINCIPLES OF FOUNDATION ENGINEERING, SI, 10th Edition. A must-have resource in your engineering education, this edition is specifically written for undergraduate civil engineering students like you to provide an ideal balance between today's most current research and practical field applications. Dr. Das, a renowned author in the field of geotechnical engineering, emphasizes how to develop the critical judgment you need to properly apply theories and analysis to the evaluation of soils and foundation design. A new chapter discusses the uplift capacity of shallow foundations and helical anchors. This edition provides more worked-out examples and figures than any other book of its kind, along with new learning objectives and illustrative photos that help you focus on the skills most critical for success as a civil engineer. WebAssign's digital resources are also available for review and reinforcement.Table of ContentsIntroduction. 1. Introduction. Geotechnical Engineering. Foundation Engineering. Soil Exploration. Ground Improvement. Solution Methods. Numerical Modeling. Empiricism. Literature. References. Part I: GEOTECHNICAL PROPERTIES AND SOIL EXPLORATION. 2. Geotechnical Properties of Soil. Introduction. Grain-Size Distribution. Size Limits for Soil. Weight-Volume Relationships. Relative Density. Atterberg Limits. Liquidity Index. Activity. Soil Classification Systems. Hydraulic Conductivity of Soil. Steady-State Seepage. Effective Stress. Consolidation. Calculation of Primary Consolidation Settlement. Time Rate of Consolidation. Range of Coefficient of Consolidation, cv. Degree of Consolidation Under Ramp Loading. Shear Strength. Unconfined Compression Test. Comments on Friction Angle, ��'. Correlations of Undrained Shear Strength, cu. Sensitivity. Summary. Problems. References. 3. Natural Soil Deposits and Subsoil Exploration. Introduction. Natural Soil Deposits. Soil Origin. Residual Soil. Gravity-Transported Soil. Alluvial Deposits. Lacustrine Deposits. Glacial Deposits. Aeolian Soil Deposits. Organic Soil. Some Local Terms for Soil. Subsurface Exploration. Purpose of Subsurface Exploration. Subsurface Exploration Program. Exploratory Borings in the Field. Procedures for Sampling Soil. Split-Spoon Sampling and Standard Penetration Test. Sampling with a Scraper Bucket. Sampling with a Thin-Walled Tube. Sampling with a Piston Sampler. Observation of Water Tables. Vane Shear Test. Cone Penetration Test. Pressuremeter Test (PMT). Dilatometer Test. Iowa Borehole Shear Test. K0 Stepped-Blade Test. Coring of Rocks. Preparation of Boring Logs. Geophysical Exploration. Subsoil Exploration Report. Summary. Problems. References. Part II: SOIL IMPROVEMENT. 4. Soil Improvement and Ground Modification. Introduction. General Principles of Compaction. Empirical Relationships for Compaction. Field Compaction. Compaction Control for Clay Hydraulic Barriers. Vibroflotation. Blasting. Precompression. Sand Drains. Prefabricated Vertical Drains. Lime Stabilization. Cement Stabilization. Fly-Ash Stabilization. Stone Columns. Sand Compaction Piles. Dynamic Compaction. Jet Grouting. Deep Mixing. Summary. Problems. References. Part III: FOUNDATION ANALYSIS. 5. Shallow Foundations: Ultimate Bearing Capacity. Introduction. General Concept. Terzaghi���s Bearing Capacity Theory. Factor of Safety. Modification of Bearing Capacity Equations for Water Table. The General Bearing Capacity Equation. Other Solutions for Bearing Capacity, Shape, Depth, and Inclination Factors. Case Studies on Ultimate Bearing Capacity. Effect of Soil Compressibility. Scale Effect on Ultimate Bearing Capacity. Eccentrically Loaded Foundations. Ultimate Bearing Capacity Under Eccentric Loading-One-Way Eccentricity. Bearing Capacity of a Continuous Foundation Subjected to Eccentrically Inclined Loading. Summary. Problems. References. 6. Ultimate Bearing Capacity of Shallow Foundations: Special Cases. Introduction. Bearing Capacity of Foundation on Anisotropic Sand. Bearing Capacity of Continuous Foundation Subjected to Normal Load. Foundation Supported by a Soil with a Rigid Base at Shallow Depth. Foundations on Layered Clay. Bearing Capacity of Layered Soil: Stronger Soil Underlain by Weaker Soil. Bearing Capacity of Layered Soil: Weaker Soil Underlain by Stronger Soil. Continuous Foundation on Weak Clay with a Granular Trench. Closely Spaced Foundations-Effect on Ultimate Bearing Capacity. Bearing Capacity of Foundations on Top of a Slope. Bearing Capacity of Foundations on a Slope. Seismic Bearing Capacity and Settlement in Granular Soil. Foundations on Rock. Ultimate Bearing Capacity of Wedge-Shaped Foundation. Summary. Problems. References. 7. Vertical Stress Increase in Soil. Introduction. Stress Due to a Concentrated Load. Stress Due to a Circularly Loaded Area. Stress Due to a Line Load. Stress Below a Vertical Strip Load of Finite Width and Infinite Length. Stress Below a Horizontal Strip Load of Finite Width and Infinite Length. Symmetrical Vertical Triangular Strip Load on the Surface. Vertical Stress Increase Below a Flexible Circular Area-Parabolic and Conical Loading. Stress Below a Rectangular Area. Average Vertical Stress Increase Due to a Rectangularly Loaded Area. Average Vertical Stress Increase Below the Center of a Circularly Loaded Area. Stress Increase under an Embankment. Westergaard's Solution for Vertical Stress Due to a Point Load. Stress Distribution for Westergaard Material. Summary. Problems. References. 8. Settlement of Shallow Foundations. Introduction. Elastic Settlement of Shallow Foundation on Saturated Clay. Elastic Settlement in Granular Soil. Settlement Based on the Theory of Elasticity. Improved Equation for Elastic Settlement. Settlement of Sandy Soil: Use of Strain Influence Factor. Settlement of Foundation on Sand Based on Standard Penetration Resistance. Settlement Based on Pressuremeter Test (PMT). Settlement Estimation Using the L1 - L2 Method. Consolidation Settlement. Primary Consolidation Settlement Relationships. Three-Dimensional Effect on Primary Consolidation Settlement. Settlement Due to Secondary Consolidation. Field Load Test. Presumptive Bearing Capacity. Tolerable Settlement of Buildings. Improvement of Soil for Shallow Foundation Construction. Summary. Problems. References. 9. Mat Foundations. Introduction. Combined Footings. Common Types of Mat Foundations. Bearing Capacity of Mat Foundations. Differential Settlement of Mats. Field Settlement Observations for Mat Foundations. Compensated Foundation. Structural Design of Mat Foundations. Summary. Problems. References 10. Uplift Capacity of Shallow Foundations and Helical Anchors. Introduction. Foundations on Granular Soil. Foundations on Cohesive Soil. General Dimensions of a Helical Anchor. Geometrical Parameters, Failure Mode in Sand, and Ultimate Load Determination. Deep Helical Anchors in Sand. Helical Anchors in Clay (�� = 0 Condition). Summary. Problems. References. 11. Pile Foundations. Introduction. Pile Materials. Continuous Flight Auger (CFA) Piles. Estimating Pile Length. Installation of Piles. Load Transfer Mechanism. Equations for Estimating Pile Capacity. Meyerhof's Method for Estimating Qp. Janbu���s Method-Estimation of Qp. Vesic's Method for Estimating Qp. Coyle and Castello's Method for Estimating Qp in Sand. Correlations for Calculating Qp with SPT and CPT Results in Granular Soil. Frictional Resistance (Qs) in Sand. Comparison of Theory with Field Load Test Results (Granular Soil). Frictional (Skin) Resistance in Clay. Ultimate Capacity of Continuous Flight Auger Pile. Point Bearing Capacity of Piles Resting on Rock. Pile Load Tests. Elastic Settlement of Piles. Laterally Loaded Piles. Pile-Driving Formulas. Pile Capacity for Vibration-Driven Piles. Wave Equation Analysis. Negative Skin Friction. Group Piles. Group Efficiency. Ultimate Capacity of Group Piles in Saturated Clay. Elastic Settlement of Group Piles. Consolidation Settlement of Group Piles. Piles in Rock. Summary. Problems. References. 12. Drilled Shaft Foundations. Introduction. Types of Drilled Shafts. Construction Procedures. Other Design Considerations. Load Transfer Mechanism. Estimation of Load-Bearing Capacity. Load-Bearing Capacity in Granular Soil. Load-Bearing Capacity in Granular Soil Based on Settlement. Load-Bearing Capacity in Clay. Load-Bearing Capacity in Clay Based on Settlement. Settlement of Drilled Shafts at Working Load. Lateral Load-Carrying Capacity-Characteristic Load and Moment Method. Drilled Shafts Extending into Rock. Summary. Problems. References. 13. Foundations on Difficult Soil. Introduction. Collapsible Soil. Definition and Types of Collapsible Soil. Physical Parameters for Identification. Procedure for Calculating Collapse Settlement. Foundations in Soil Not Susceptible to Wetting. Foundations in Soil Susceptible to Wetting. Expansive Soils. General Nature of Expansive Soil. Unrestrained Swell Test. Swelling Pressure Test. Classification of Expansive Soil on the Basis of Index Tests. Foundation Considerations for Expansive Soil. Construction on Expansive Soil. Sanitary Landfills. General Nature of Sanitary Landfills. Settlement of Sanitary Landfills. Summary. Problems. References. Part IV: LATERAL EARTH PRESSURE AND EARTH-RETAINING STRUCTURES. 14. Lateral Earth Pressure. Introduction. Lateral Earth Pressure at Rest. Active Pressure. Rankine Active Earth Pressure. A Generalized Case for Rankine Active Pressure-Granular Backfill. Rankine Active Pressure with Vertical Wall Backface and Inclined c'-��' Soil Backfill. Coulomb's Active Earth Pressure. Active Earth Pressure for Translation of Retaining Wall-Granular Backfill. Lateral Earth Pressure Due to Surcharge. Active Earth Pressure for Earthquake Conditions-Granular Backfill. Active Earth Pressure for Earthquake Condition (Vertical Backface of Wall and c'-��' Backfill). Passive Pressure. Rankine Passive Earth Pressure. A Generalized Case for Rankine Passive Pressure-Granular Backfill. Coulomb's Passive Earth Pressure. Comments on the Failure Surface Assumption for Coulomb���s Pressure Calculations. Caquot and Kerisel Solution for Passive Earth Pressure (Granular Backfill). Solution for Passive Pressure by Shields and Tolunay (1973) (Granular Backfill). Summary. Problems. References. 15. Retaining Walls. Introduction. Gravity and Cantilever Walls. Proportioning Retaining Walls. Application of Lateral Earth Pressure Theories to Design. Equivalent Fluid Method for Determination of Earth Pressure. Stability of Retaining Walls. Check for Overturning. Check for Sliding Along the Base. Check for Bearing Capacity Failure. Construction Joints and Drainage from Backfill. Comments on Design of Retaining Walls. Gravity Retaining-Wall Design for Earthquake Conditions. Mechanically Stabilized Retaining Walls. Soil Reinforcement. Considerations in Soil Reinforcement. General Design Considerations. Retaining Walls with Metallic Strip Reinforcement. Step-by-Step-Design Procedure Using Metallic Strip Reinforcement. Retaining Walls with Geotextile Reinforcement. Retaining Walls with Geogrid Reinforcement-General. Design Procedure for Geogrid-Reinforced Retaining Wall. Summary. Problems. References. 16. Sheet-Pile Walls. Introduction. Construction Methods. Cantilever Sheet-Pile Walls. Cantilever Sheet Piling Penetrating Sandy Soils. Special Cases for Cantilever Walls Penetrating a Sandy Soil. Cantilever Sheet Piling Penetrating Clay. Special Cases for Cantilever Walls Penetrating Clay. Anchored Sheet-Pile Walls. Free Earth Support Method for Penetration of Sandy Soil. Design Charts for Free Earth Support Method (Penetration into Sandy Soil). Moment Reduction for Anchored Sheet-Pile Walls Penetrating into Sand. Computational Pressure Diagram Method for Penetration into Sandy Soil. Field Observations for Anchor Sheet-Pile Walls. Free Earth Support Method for Penetration of Clay. Anchors. Holding Capacity of Anchor Plates in Sand. Holding Capacity of Anchor Plates in Clay (�� = 0 Condition). Ultimate Resistance of Tiebacks. Summary. Problems. References. 17. Braced Cuts. Introduction. Braced-Cut Analysis Based on General Wedge Theory. Pressure Envelope for Braced-Cut Design. Pressure Envelope for Cuts in Layered Soil. Tschebotarioff���s Pressure Envelopes. Design of Various Components of a Braced Cut. Case Studies of Braced Cuts. Bottom Heave of a Cut in Clay. Stability of the Bottom of a Cut in Sand. Lateral Yielding of Sheet Piles and Ground Settlement. Summary. Problems. References. Answers to Problems. Index.

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Book SynopsisThis two-volume set focuses on the chemistry and physics of engineering materials that have potential for applications in several disciplines of engineering and science. Contributions range from new methods to novel applications of existing methods.Volume 1 addresses modern analytic methodologies while Volume 2 focuses on the limitations, properties, and models of materials. The collection of topics in these volumes reflect the diversity of recent advances in chemistry and physics of engineering materials with a broad perspective that will be useful for scientists as well as for graduate students and engineers. This new two-volume set presents leading-edge research from around the world.

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Book SynopsisThe first edition of Caroline Whitbeck's Ethics in Engineering Practice and Research focused on the difficult ethical problems engineers encounter in their practice and in research. In many ways, these problems are like design problems: they are complex, often ill defined; resolving them involves an iterative process of analysis and synthesis; and there can be more than one acceptable solution. In the second edition of this text, Dr Whitbeck goes above and beyond by featuring more real-life problems, stating recent scenarios and laying the foundation of ethical concepts and reasoning. This book offers a real-world, problem-centered approach to engineering ethics, using a rich collection of open-ended case studies to develop skill in recognizing and addressing ethical issues.Trade Review'I am very enthusiastic about Dr Whitbeck's effort to help us think effectively and somewhat pragmatically about professional ethics. Everyone, professionals in particular, must expect ethically-complex situations to arise … This book will help seasoned professionals clarify their approach to their own behavior, and this book can profoundly affect those who face a messy situation for the first time.' Woodie C. Flowers, from the Foreword for the first edition'Dr Whitbeck draws the useful analogy between ethical problems and engineering design problems … a well written book.' Engineering Science Education Journal'Whitbeck has written a valuable book, regardless of the reader's penchant for general philosophy or cases. Practitioners will find the time invested to get through it well repaid.' ASME International'This fine textbook in engineering ethics will be useful for courses in engineering ethics, and as a supplementary resource for engineering and science instructors who wish to infuse attention to ethics into their courses. It will also interest students of philosophical ethics who wish to consider a refreshing approach to case-based, 'applied' ethics.' Metaphysics, Epistemology, and TechnologyTable of ContentsPart I. Values and the Evaluation of Acts in Engineering: Introduction to Ethical Reasoning and Engineering Ethics: 1. Professional practice in engineering; 2. Two examples of professional behavior: Roger Boisjoly and William Lemessurier; Part II. Engineering Responsibility: 3. Ethics as design - doing justice to moral problems; 4. Central professional responsibilities of engineers; 5. Computers, software, and digital information; 6. Rights and responsibilities regarding intellectual property; 7. Workplace rights and responsibilities; Part III. Responsible Research Conduct: 8. Ethics in the changing domain of research; 9. Responsible authorship and credit in engineering and scientific research; Part IV. The Future of Engineering: 10. Responsibility for the environment; 11. End use and 'macro' issues.

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Book SynopsisAn authoritative guide to the theory and practice of static and dynamic structures analysis Static and Dynamic Analysis of Engineering Structures examines static and dynamic analysis of engineering structures for methodological and practical purposes. In one volume, the authors ? noted engineering experts ? provide an overview of the topic and review the applications of modern as well as classic methods of calculation of various structure mechanics problems. They clearly show the analytical and mechanical relationships between classical and modern methods of solving boundary value problems. The first chapter offers solutions to problems using traditional techniques followed by the introduction of the boundary element methods. The book discusses various discrete and continuous systems of analysis. In addition, it offers solutions for more complex systems, such as elastic waves in inhomogeneous media, frequency-dependent damping and membranes of arbitraryTable of ContentsAbout the Authors xi Preface xiii Introduction xv Chapter 1: Methods of Dynamic Design of Structural Elements 1 1.1 The Method of Separation Variables 1 1.2 The Variational Methods 7 1.3 Integral Equations and Integral Transforms Methods 11 1.4 The Finite Element Method 17 1.5 The Finite Difference Method 25 1.6 The Generalized Method of Integral Transformation 27 1.7 The Method of Delta-Transform 44 1.8 The Generalized Functions in Structural Mechanics 63 1.9 General Approaches to Constructing Boundary Equations, and Standardized Form of Boundary Value Problems 67 1.10 The Relationship of Green’s Function with Homogeneous Solutions of the Method of Initial Parameters 80 1.11 The Spectral Method of Boundary Elements 83 1.12 The Compensate Loads Method 89 Chapter 2: Boundary Elements Methods (BEM) in the Multidimensional Problems 93 2.1 The Integral Equations of Boundary Elements Methods 93 2.2 The Construction of Boundary Equations by the Delta-Transformation Technique 103 2.3 The Equivalence of Direct and Indirect BEM 114 2.4 The Spectral Method of Boundary Elements (SMBE) in Multidimensional Problems 118 2.5 The Problems Described by the Integro-Differential System of Equations 124 Chapter 3: Oscillation of Bars and Arches 131 3.1 The Nonlinear Oscillations of Systems with One Degree of Freedom 131 3.2 The Nonlinear Oscillations of Systems with Multiple-Degrees-of-Freedom 141 3.3 The Nonlinear Oscillations of Systems with Distributed Mass 154 3.3.1 Simply Supported Beams 156 3.3.2 Beams With Built-in Ends 157 3.3.3 Beams With One End Hinged Support and Another End Built-in Support 157 3.3.4 The Cantilever Beam 158 3.4 The Oscillations of the Beam of the Variable Cross-sections 161 3.5 The Optimum Design of the Bar 167 3.6 The Oscillations of Flexural-Shifted (Bending-Shifted) Bars Under the Seismic Impacts 170 3.7 Oscillations of Circular Rings and Arches 176 3.8 The Free Oscillations of System “Flexible Arch-Rigid Beam” 182 3.9 The Results of Dynamic Testing Model of Combined System Rigid-beam and Flexible Arch 195 3.10 The Oscillations of the Combined System Taking into Account its Extent at a Given Harmonic Motion Base 207 3.11 The Determination of the Reactions of Multiple Spans Frame Bridges, Extended Buildings, and Structures Taking into Account the Initial Phase of Passing (Propagation) of the Seismic Wave 224 Chapter 4: Oscillation of Plates and Shells 243 4.1 The Design of the Cantilever Plate of Minimal Mass Working on the Shift with the Assigned Fundamental Frequency 243 4.2 The Experimental and Theoretical Research of Oscillation of a Cantilever Plate with Rectangular Openings 254 4.3 The Oscillations (Vibrations) of Spherical Shells 262 4.4 The Application of the Spectral Method of Boundary Element (SMBE) to the Oscillation of the Plates on Elastic Foundation 265 Chapter 5: The Propagation of Elastic Waves and Their Interaction with the Engineering Structures 271 5.1 The Propagation of Seismic Waves in the Laminar Inhomogeneous Medium 271 5.2 Diffraction of Horizontal Waves on the Semi-cylindrical Base of Structure 277 5.3 Method of Calculation of the Lining of Tunnels to Seismic Resistance 285 5.4 A Study of the Action of Seismic Wave on the Rigid Ring Located in the Half-plane 298 5.5 Calculations of Underground Structures with Arbitrary Cross-section under Seismic Action Impact 306 Chapter 6: The Special Features of the Solution of Dynamic Problems by the Boundary Element Methods (BEM) 315 6.1 One Method of Calculation: The Hilbert Transform and its Applications to the Analysis of Dynamic System 315 6.2 Construction of Green’s Function for Bases Having Frequency-Dependent Internal Friction 324 6.3 The Green’s Functions of Systems with the Frequency-Independent Internal Friction 332 6.4 The Numerical Realization of Boundary Element Method (BEM) 342 6.5 The Construction of the Green’s Function of the Dynamic Stationary Problem for the Elasto-Viscous Half-Plane 351 Chapter 7: The Questions of the Static and Dynamic Analysis of Structures on an Elastic Foundation 365 7.1 The Kernel of the Generalized Model of Elastic Foundation (Base) 378 7.2 The Determination of the Characteristics of the Generalized (Unified, Integrated) Model of the Elastic Foundation (Base) 393 7.3 Contact Problem for the Rigid Die, Lying on the Generalized Elastic Base 397 7.4 On One Method of Calculation of Structures on an Elastic Foundation 404 7.5 The Calculation of the (Non-isolated) Beams and Plates, Lying on an Elastic Foundation, Described by the Generalized Model 408 7.6 The Forced Oscillations of a Rectangular Plate on an Elastic Foundation 415 7.7 The Calculation of the Membrane of Arbitrary Shape on an Elastic Foundation 428 Appendix A: Certificate of Essential Building Data 443 Appendix B: Contact Stresses on the Sole of the Circular Die and the Sole of the Plane Die 455 B.1 Contact Stresses on the Sole of the Circular Die. 455 B.2 Contact Stresses on the Sole of the Plane Die. 457 References 459 Index 483

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Book SynopsisThis book is an ideal resource for those making the transition from graduate student to new faculty member in engineering and science. Developed through years of use with new faculty, it tackles the two themes that will be constant in a young faculty member’s career: teaching and research. The book first distills the abundant literature that has already been published on teaching, covering student learning and course planning, conducting discussions and lecturing, creating exams and assignments, and working with teaching assistants. Bringing together guidance gained from numerous seminars, discussions, and interviews, and the little existing in current literature on starting and conducting scientific research, the next section includes assembling research teams, supervising graduate research, getting research funding, writing research papers, reviewing research proposals, presenting results, and conducting graduate seminar programs. The book features practical chapter exercises that apply concepts, and it concludes with an extensive bibliography. It will be of help to any faculty member embarking on a teaching and research career in higher education in the sciences.Table of ContentsAbout the Authors. Foreword. Acknowledgements. Preface. Part I: Teaching. 1. Characteristics of Student Learning. 2. Planning a Course. 3. Conducting Discussions. 4. Lecturing. 5. Preparing Activities for Students: Exams and Assignments. 6. Working with Teaching Assistants. Part II: Research. 7. Supervising Graduate Research. 8. Getting Funding for Research Projects. 9. Writing Research papers. 10. Reviewing research Proposals and Papers. 11. Presenting Talks on Research results. 12. Conducting Graduate Seminar Programs. Bibliography. Index.

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Book Synopsis

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Book SynopsisDr Caroline Whitbeck offers a real-world, problem-centered approach to engineering ethics, using a rich collection of open-ended case studies to develop skill in recognizing and addressing ethical issues.Trade Review'I am very enthusiastic about Dr Whitbeck's effort to help us think effectively and somewhat pragmatically about professional ethics. Everyone, professionals in particular, must expect ethically-complex situations to arise … This book will help seasoned professionals clarify their approach to their own behavior, and this book can profoundly affect those who face a messy situation for the first time.' Woodie C. Flowers, from the Foreword for the first edition'Dr Whitbeck draws the useful analogy between ethical problems and engineering design problems … a well written book.' Engineering Science Education Journal'Whitbeck has written a valuable book, regardless of the reader's penchant for general philosophy or cases. Practitioners will find the time invested to get through it well repaid.' ASME International'This fine textbook in engineering ethics will be useful for courses in engineering ethics, and as a supplementary resource for engineering and science instructors who wish to infuse attention to ethics into their courses. It will also interest students of philosophical ethics who wish to consider a refreshing approach to case-based, 'applied' ethics.' Metaphysics, Epistemology, and TechnologyTable of ContentsPart I. Values and the Evaluation of Acts in Engineering: Introduction to Ethical Reasoning and Engineering Ethics: 1. Professional practice in engineering; 2. Two examples of professional behavior: Roger Boisjoly and William Lemessurier; Part II. Engineering Responsibility: 3. Ethics as design - doing justice to moral problems; 4. Central professional responsibilities of engineers; 5. Computers, software, and digital information; 6. Rights and responsibilities regarding intellectual property; 7. Workplace rights and responsibilities; Part III. Responsible Research Conduct: 8. Ethics in the changing domain of research; 9. Responsible authorship and credit in engineering and scientific research; Part IV. The Future of Engineering: 10. Responsibility for the environment; 11. End use and 'macro' issues.

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Book SynopsisContrary to popular mythology, the designs of favorable products and successful systems do not appear suddenly, or magically. This second edition of Engineering Design demonstrates that symbolic representation and related problem-solving methods, offer significant opportunities to clarify and articulate concepts of design to lay a better framework for design research and design education. Artificial Intelligence (AI) provides a substantial body of material concerned with understanding and modeling cognitive processes. This book adopts the vocabulary and a paradigm of AI to enhance the presentation and explanation of design. It includes concepts from AI because of their explanatory power and their utility as possible ingredients of practical design activity. This second edition has been enriched by the inclusion of recent work on design reasoning, computational design, AI in design, and design cognition, with pointers to a wide cross section of the current literature.Trade Review'Dym and Brown present a useful resource to bring any design engineer interested in AI, or AI computer scientist interested in design, up to speed on the fundamentals of the field. This new edition also hints at emerging ideas from his active area of research. A very nice book, Engineering Design demonstrates how AI can impact the research and practice of engineering design.' Jonathan Cagan, George Tallman and Florence Barrett Ladd Professor of Engineering, Carnegie Mellon University'The original edition provided the basis for a profound understanding of engineering design using concepts from artificial intelligence. In the second edition, Clive Dym and David Brown have, in a masterful manner, made a good book better. This edition brings together newly developed concepts in artificial intelligence and cognitive science to enhance our understanding of design. If you want to understand engineering design there is no better place to start than this book.' John S. Gero, Research Professor, Krasnow Institute for Advanced Study, formerly Director, Key Centre of Design Computing and Cognition, University of SydneyPraise for the first edition: '[Dym] has done an excellent job of describing the design process, both the psychological processes of the designer and the interaction between the human designer and the design tools that are now available and becoming available to assist (or collaborate) in the task. The book is a valuable contribution to the design literature and should be of great use as a solid introduction to the field.' Herbert A. Simon, Nobel Laureate, Professor, Carnegie Mellon UniversityPraise for the first edition: 'Clive Dym combines ideas and methods from engineering design and artificial intelligence to demonstrate persuasively that design in its full creative sense can be approached computationally with important practical consequence. This places engineering design in a research context that has long been lacking. Many prospects for a useful, formal understanding of design and the design process follow where few were available before. Dym not only provides basic insights about design, but also points the way to future work that will surely impact the design process.' George Stiny, University of California, Los AngelesPraise for the first edition: 'A very scholarly work, and primarily of value to those interested in the philosophy of the study of design.' ChoicePraise for the first edition: 'Surprisingly for a work in engineering which is typically male-oriented, Dym uses a gender-neutral writing style - a feature especially appreciated by this reviewer. Also appreciated was the helpful index of topics, names, and people mentioned in the book.' Maxine S. Cohen, IEEE SpectrumPraise for the first edition: 'The book does a great job in explaining how AI holds the key to representing design. Overall, the book is highly recommended for anyone who is interested in attaining a complete picture of the field.' Ankur Mehta, Yale ScientificTable of Contents1. Framing the issues; 2. Engineering design; 3. Characterizing the design process; 4. Taxonomies of engineering design; 5. Representing designed artifacts; 6. Representing design processes; 7. Where do we go from here?

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Book SynopsisThe Routledge International Handbook of Practice-Based Research presents a cohesive framework with which to conduct practice-based research or to support, manage and supervise practice-based researchers. It has been written with an inclusive approach, with the intention of presenting deep and meaningful knowledge for the benefit of all readers.This handbook has been designed to present specific detail of practice-based research by outlining its shared traits with all forms of research and to highlight its core distinguishing features into a cohesive, principled and methodical approach. To this end, the handbook is presented in five sections: 1. Practice-Based Research, 2. Knowledge, 3. Method, 4. The Practice-Based PhD and 5. Practitioner Voices. Each section begins with a leading chapter that outlines each of the distinct areas as they relate to practice-based research. This is followed by a series of contributing chapters that discuss pertinent themes in more detai

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Book SynopsisBolstered by new standards and new initiatives to promote STEM education, engineering is making its way into the school curriculum. This comprehensive introduction will help elementary educators integrate engineering into their classroom, school, or district in age-appropriate, inclusive, and engaging ways.

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Book SynopsisThis updated version of one of the most popular and widely used CCPS books provides plant design engineers, facility operators, and safety professionals with key information on selected topics of interest. The book focuses on process safety issues in the design of chemical, petrochemical, and hydrocarbon processing facilities. It discusses how to select designs that can prevent or mitigate the release of flammable or toxic materials, which could lead to a fire, explosion, or environmental damage. Key areas to be enhanced in the new edition include inherently safer design, specifically concepts for design of inherently safer unit operations and Safety Instrumented Systems and Layer of Protection Analysis. This book also provides an extensive bibliography to related publications and topic-specific information, as well as key information on failure modes and potential design solutions.Trade Review“I highly recommend it to process design engineers, project engineers, facility operators, and process safety/loss prevention specialists who will find it very useful." (Process Safety Progress, 1 November 2012) “While detailed engineering designs are outside the scope of the book, the authors provide extensive references to assist designers who wish to go beyond safety philosophy to the specifics of a particular safety system design.” (Chemical Engineering Progress, 1 August 2012)Table of ContentsAcronyms and Abbreviations xv Glossary xxi Acknowledgments xxxiii Foreward xxxv Preface xxxvii 1. Introduction 1 1.1 Engineering Design for Process Safety Through the Life Cycle of the Facility 2 1.2 Regulatory Review / Impact on Process Safety 5 1.3 Who Will Benefit From These Guidelines? 7 1.4 Organization of this Book 7 1.5 Other CCPS Resources 9 1.6 References 10 2. Foundational Concepts 13 2.1 Understanding the Hazard 14 2.2 Risk-Based Design 21 2.3 Intentional Unsteady State Condition Evaluation 27 2.4 Unintentional Unsteady State Issues 31 2.5 Non-Linearity of the Design Process 33 2.6 References 36 3. Basic Physical Properties / Thermal Stability Data 39 3.1 Basic Physical Properties 39 3.2 Flammability Data 40 3.3 Reactivity / Thermal Stability Data 47 3.4 References 60 4. Analysis Techniques 63 4.1 Hazard Identification 63 4.2 Hazard Analysis Techniques 94 4.3 Risk Assessment 108 4.4 Reliability / Maintainability Analysis 118 4.5 References 119 5. General Design 123 5.1 Safeguarding Strategies 123 5.2 Inherently Safer Design 128 5.3 Basic Process Control Systems 132 5.4 Instrumented Safety Systems 135 5.5 Process Design / Process Chemistry 135 5.6 Plant Siting and Layout 137 5.7 Materials of Construction 140 5.8 Corrosion 143 5.9 Civil / Structural / Support Design 146 5.10 Thermal Insulation 150 5.11 Human Factors in Design 155 5.12 Site Security Issues 158 5.13 References 161 6. Equipment Design 165 6.1 Vessels 167 6.2 Reactors 183 6.3 Mass Transfer Equipment 194 6.4 Heat Transfer Equipment 204 6.5 Dryers 214 6.6 Fluid Transfer Equipment 223 6.7 Solid-Fluid Separators 236 6.8 Solids Handling and Processing Equipment 244 6.9 Fired Equipment 256 6.10 Piping and Piping Components 266 6.11 Material Handling and Warehousing 291 6.12 Utility Systems 305 7. Protection Layers 315 7.1 Ignition Control 316 7.2 Instrumented Safety Systems 325 7.3 Pressure / Vacuum Relief Systems 332 7.4 Equipment Isolation / Blowdown 340 7.5 Effluent Disposal Systems 342 7.6 Emergency Response Alarm Systems 350 7.7 Fire Protection 357 7.8 Deflagration / Detonation Arresters 363 7.9 Explosion Suppression 366 7.10 Specialty Mitigation Systems 369 7.11 Effluent Handling / Post-Release Mitigation / Waste Treatment Issues 372 7.12 References 374 8. Documentation to Support Process Safety 379 8.1 Process Knowledge Management 379 8.2 Engineering Design Package 384 8.3 Operating / Maintenance Procedures 385 8.4 Asset Integrity / Reliability / Predictive Maintenance Data 389 8.5 References 390

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Book SynopsisThis book is a contribution to the definition of a model based system engineering (MBSE) approach, designed to meet the objectives laid out by the INCOSE. After pointing out the complexity that jeopardizes a lot of system developments, the book examines fundamental aspects of systems under consideration. It goes on to address methodological issues and proposes a methodic approach of MBSE that provides, unlike current practices, systematic and integrated model-based engineering processes. An annex describes relevant features of the VHDL-AMS language supporting the methodological issues described in the book.Table of ContentsLIST OF FIGURES AND TABLE xi ACKNOWLEDGEMENTS xvii FOREWORD xxi Dominique LUZEAUX INTRODUCTION. GOALS OF PROPERTY MODEL METHODOLOGY xxv PART 1. FUNDAMENTALS 1 Chapter 1. General Systems Theory 3 1.1. Introduction 3 1.2. What is a system? 4 1.3. Systems, subsystems and levels 9 1.4. Concrete and abstract objects 11 1.5. Properties 12 1.5.1. Material and formal properties 12 1.5.2. Accidental and essential properties, laws and types 13 1.5.3. Dispositions, structural and behavioral properties 17 1.5.4. Resulting and emerging properties 18 1.6. States, event, process, behavior and fact 20 1.7. Systems of interest 23 CHAPTER 2. TECHNOLOGICAL SYSTEMS 25 2.1. Introduction 25 2.2. Definition of technological systems 25 2.2.1. Artificial autotelic and heterotelic systems 27 2.2.2. Technical-empirical and technological systems 27 2.2.3. Purpose of a technological system 28 2.3. Function, behavior and structure of a technological system 30 2.4. Intended and concomitant effects of a technological system 34 2.5. Modes, mode switching and states 36 2.5.1. Modes of operation 36 2.5.2. Mode switching 36 2.5.3. Operating states 37 2.6. Errors, faults and failures 37 2.7. “The human factor” 39 CHAPTER 3. KNOWLEDGE SYSTEMS 41 3.1. Introduction 41 3.2. Knowledge and its bearers 42 3.3. Intersubjective knowledge 44 3.4. Concepts, propositions and conceptual knowledge 45 3.5. Objective and true knowledge 47 3.6. Scientific and technological knowledge 50 3.6.1. Fundamental sciences 51 3.6.2. Applied sciences and technology 53 3.6.3. Operative technological rules 53 3.6.4. Substantive technological rules 55 3.7. Knowledge and belief 56 CHAPTER 4. SEMIOTIC SYSTEMS AND MODELS 59 4.1. Introduction 59 4.2. Signs and systems of signs 60 4.3. Nomological propositions and law statements 65 4.4. Models, object models, theoretical models and simulation 66 4.5. Representativeness of models and the expressiveness of languages 71 4.5.1. Representativeness of models 71 4.5.2. Expressiveness of a language 73 PART 2. METHODS 77 CHAPTER 5. ENGINEERING PROCESSES 79 5.1. Introduction 79 5.2. Systems engineering process 81 5.2.1. General framework 81 5.2.2. Design process 83 5.2.3. Safety assessment process 88 5.2.4. Requirement and assumption validation 90 5.2.5. Verification of the implementation regarding requirements 91 5.2.6. Managing configurations 92 5.2.7. Process (quality) assurance, certification and coordination with authorities 93 CHAPTER 6. DETERMINING REQUIREMENTS AND SPECIFICATION MODELS 95 6.1. Introduction 95 6.2. Specifications and requirements 98 6.3. Text-based requirements and subjectivity 100 6.4. Objectifying requirements and assumptions through property-based requirements 102 6.4.1. Definition 102 6.4.2. Examples 104 6.4.3. Typology and sources of PBR 106 6.5. Conjunction and comparison of property-based requirements 110 6.5.1. Comparison of two PBRs 111 6.5.2. Conjunction of two PBRs 112 6.6. Interpreting text-based requirements 114 6.6.1. Example 1: FAR29.1303(b) flight and navigation instruments 115 6.6.2. Example 2: FAR29.951(a) Fuel systems – General 119 6.7. Conclusion: specification models and concurrent assertions 121 CHAPTER 7. DESIGNING SOLUTIONS AND DESIGN MODELS 127 7.1. Introduction 127 7.2. Deriving requirements 128 7.3. Basic system model of a type of systems 131 7.4. Dynamic design models of a type of systems 133 7.4.1. Behavioral design model (BDM) 133 7.4.2. Equation-based design models (EDMs) 139 7.5. Derivation and allocation of the system’s behavioral requirements 141 7.6. Static design models 142 7.6.1. Composite system model 142 7.6.2. Structural design model 145 7.6.3. Allocation of BDM components to SDM components 146 7.7. Derivation and allocation of system requirements 146 7.8. The end of the design process and the realization 148 CHAPTER 8. VALIDATING REQUIREMENTS AND ASSUMPTIONS 151 8.1. Introduction 151 8.2. The validation process according to the ARP4754A 152 8.2.1. Goal of the validation 152 8.2.2. Means of validation 154 8.3. The validation process according to the property model methodology 156 8.3.1. Goal of the validation 157 8.3.2. Means of validation 158 8.3.3. Exactness of a system specification model 160 8.3.4. Validating the derivation of system requirements 161 8.3.5. Scenarios and validation cases, efforts and rigor in validation 162 8.4. Conclusion 167 CHAPTER 9. VERIFYING THE IMPLEMENTATION STEP BY STEP 169 9.1. Introduction 169 9.2. The verification process according to the ARP4754A 170 9.2.1. Goal of the verification 170 9.2.2. Verification methods 170 9.3. The verification process according to the property model methodology 173 9.3.1. Objects to be verified 173 9.3.2. Goal of the verification 174 9.3.3. Verifying the design 175 9.3.4. Verifying the other products of implementation 179 9.3.5. The contract theorem 181 9.4. Conclusion 181 CHAPTER 10. SAFETY ENGINEERING 183 10.1. Introduction 183 10.2. The safety assessment process according to the ARP4754A 184 10.2.1. Goal of safety assessment process 184 10.2.2. Means to assess safety 185 10.3. The safety assessment process according to the property model methodology (PMM) 191 10.3.1. Errors, faults and failures 191 10.3.2. FHA and interpretation of the 1309(b)(2)(i) requirements as PBRs 193 10.3.3. PASA/PSSA and deriving safety requirements 200 10.3.4. Simulation and validation of the derived safety requirements 204 10.3.5. Simulation and verification of the failure prevention mechanisms 206 10.3.6. Reliability design models 207 10.3.7. Safety theorem: validating additional requirements 208 10.4. Conclusion 211 CHAPTER 11. PROPERTY MODEL METHODOLOGY DEVELOPMENT PROCESS 213 11.1. Introduction 213 11.2. Early phase of a system development, preliminary studies 213 11.3. Steps of the industrial development of a type of systems 215 11.4. Initial step: highest level system specification 216 11.4.1. Initial step general approach 217 11.4.2. Establishing a specification model of the type of systems 218 11.5. Design steps: descending and iterative design of the building blocks down to the lowest level blocks 226 11.5.1. Design step of a non-terminal block 227 11.5.2. Behavioral design step of a terminal block 229 11.5.3. End of the design step 231 11.6. Realization step of the lowest level building blocks 231 11.7. Integration and installation steps 232 11.8. Conclusion 233 APPENDIX 235 BIBLIOGRAPHY 253 INDEX 261

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Book SynopsisThis book provides a complete and clear introduction to the use of adhesives to form load-bearing joints in bridges, civil engineering and building structures. Recent advances in adhesive technology have led to a rapid growth in the use of adhesives in load-bearing joints in civil engineering applications such as buildings and bridges.Trade Review'The book is helpful in in advising on material selection for concrete repair … be of most practical assistance to the engineer or technologist.' Construction and Building MaterialsTable of ContentsPart I. Adhesives and Adhesion: 1. Introduction; 2. Adhesive classification and properties; 3. Adhesion and surface pretreatment; 4. Adhesive joints; 5. Specification, fabrication and quality control; Part II. Applications: 6. Applications in repair and strengthening; 7. Applications in new construction; 8. Potential new developments; Appendix; References; Index.

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Book SynopsisThe range of fibre-reinforced polymer (FRP) applications in new construction, and in the retrofitting of existing civil engineering infrastructure, is continuing to grow worldwide. Furthermore, this progress is being matched by advancing research into all aspects of analysis and design. The Second International Conference on FRP Composites in Civil Engineering (CICE 2004) provided an international forum for the scientific community to exchange ideas and develop future directions in this rapidly developing field.The papers included in these proceedings cover a wide range of FRP applications in civil engineering and represent the contributions from nine keynote speakers, four invited speakers and over a hundred contributed papers, from over twenty countries.Table of ContentsPrefaceMessage from the President of IIFC CICE 2004 Organising Committee CICE 2004 International Advisory Committee IIFC Council IIFC Advisory Committee IIFC Executive Committee Keynote papersSessions: FRP research in China (special session) FRP research in Italy (special session) FRP research in the Middle East (special session) FRP research in Southeast Asia (special session) Long-term monitoring (special session) Materials and products Confinement of concrete in compression Bond and interfacial stresses between FRP and concrete Flexural strengthening of concrete beams and slabs Debonding failure in FRP strengthened beams Shear and torsional strenghtening of concrete beams Strenghtening of concrete columns and walls Strenghtening of beam-column joints Strenghtening of masonry and timber structures Strenghtening of steel structures Concrete structures reinforced or prestressed with FRP Hybrid FRP structures All FRP structures Durability Practical applications

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Book SynopsisBIOFLUIDS MODELING The first book offering analytical and modern computational solutions to important biofluids problems, such as non-Newtonian flows in blood vessels, clogged arteries and veins, bifurcated arteries and veins, arbitrary stent geometries, tissue properties prediction, and porous media Darcy flow simulation in large-scale organ analysis, this is a must-have for any library. This book introduces new methods for biofluids modeling and biological engineering. The foregoing subjects are treated rigorously, with all modeling assumptions stated and solutions clearly derived. But that's not all. Key supporting physics-based ideas, algorithmic details, and software design interfaces are equally emphasized, in order to support our overriding objective of getting the anatomical and clinical information that physicians need. Importantly, this volume provides a self-contained exposition that includes all required biological concepts, plus the background preparTable of ContentsPreface xv Acknowledgements xix Dedication xxi 1 Fluid Physics in Circulatory Systems – Problems, Analogies and Methods 1 1.1 Basic Biological Notions and Fluid-Dynamical Ideas 3 1.2 Quantitative Modeling Perspectives 16 1.3 Preview of Complicated but Simple Boundary Value Problem Solutions 24 1.4 References 27 2 Math Models, Differential Equations and Numerical Methods 29 2.1 Presentation Approach 31 2.2 Diffusion Processes, Partial Differential Equations and Formulation Development 34 2.3 Boundary-Conforming Curvilinear Grid Generation 41 2.4 Finite Difference Solutions Made Easy – Iterative Methods, Programming and Source Code Details 63 2.5 References 98 3 Hagen-Poiseuille Extensions – Real Flow Effects and General Bifurcations 100 3.1 Blood Rheology and Overview 101 3.2 Newtonian Flow in Simple Bifurcations 112 3.3 Theory – Complicated Arteries with Chained Bifurcations 120 3.4 Network with Arbitrary Number of Bifurcations 122 3.5 Bifurcated Newtonian Flow in Noncircular Clogged Blood Vessels 123 3.6 References 125 4 Non-Newtonian Flow in Circular Conduits and Networks 127 4.1 Power Law Fluids with Inlet Flow Rate Prescribed 130 4.2 Herschel-Bulkley Fluids and Yield Stress 141 4.3 Newtonian and Herschel-Bulkley Examples 149 4.4 References 154 5 Flows in Clogged Arteries and Veins 155 5.1 Hagen-Poiseuille Revisited – Rectangular Coordinates 157 5.2 Non-Newtonian Power Law Circular Pipe Flow in Rectangular Coordinates 164 5.3 Clinical Implications for Pressure Gradient and Viscous Shear Stress 167 5.4 Evolutionary Approaches for Complicated Geometries 168 5.5 A Detailed Clog Flow Computation 175 5.6 References 182 6 Square Stents, Centrifugal Effects, Pulsatile Flow, Clogged Bifurcations and Axial Variations 183 6.1 Stent Geometry Effects on Volume Flow Rate 183 6.2 General Formulations and Solutions for Complicated Geometries and Arbitrary Fluids 200 6.3 Centrifugal Force Influence on Volume Flow Rate 204 6.4 Unsteady Pulsatile Flow Model for Complicated Duct Cross-Sections 214 6.5 Bifurcated Conduits with Newtonian Flow in Clogged Geometric Cross-sections 220 6.6 Modeling Axial Variations with Pseudo-Three- Dimensional Method 221 6.7 Modeling Transient Wall Effects 223 6.8 Steady Bifurcated Newtonian Flows With Arbitrary Clogs, A Numerical Example 225 6.9 References 233 7 Tissue Properties from Steady and Transient Syringe Pressure Analysis 234 7.1 Importance of Compressibility, Permeability, Anisotropy, Pressure and Porosity in Medical Applications 236 7.2 Geoscience Perspectives and Background 246 7.3 Formation Testing in Petroleum Well Logging 249 7.4 Operational Guidelines to Biofluids Pressure Testing 255 7.5 Intelligent Syringe Fundamentals 263 7.6 Mathematical Models for Porous Media Flow 286 7.7 References 374 8 Artery, Capillary and Vein Interactions in Anisotropic Heterogeneous Porous Tissue Flows 380 8.1 Qualitative Review of the Circulatory System 383 8.2 Porous Media Flows in the Geosciences and in Biofluids Applications 389 8.3 Electrical and Biological Analogies 393 8.4 References 407 9 Geoscience Ideas in Biofluids Modeling 408 9.1 Multisim Background and Biofluids Applications 414 9.2 Running Multisim 421 9.3 Closing Remarks 447 9.4 References 449 Cumulative References 450 About the Authors 460 Index 461

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Book SynopsisThe Routledge International Handbook of Constructivist Grounded Theory in Educational Research provides a comprehensive overview of the state of the art in Constructivist Grounded Theory (CGT) methodology, including core grounded theory tenets and processes as well as constructivist âadaptationsâ. It features CGT research from across the education sector, including studies based in primary schooling, post-primary (second-level) schooling, and higher education.Across 5 parts and 20 chapters, the book makes explicit how CGT techniques and processes were implemented in the field, the way(s) in which challenges were navigated, and how educational researchers aligned their research processes to constructivist principles. It offers exemplars of good practice by educational researchers from Australia, Ireland, Italy, Norway, Sweden, Switzerland, the UK, and the USA. The Handbook synthesises learning from the experiences of CGT researchers in education to establish a framework of guidance for early career and more experienced researchers. Additionally, it directly interrogates and considers how to address challenges in the implementation of high-quality CGT and looks to the future of the methodology in educational research.This Handbook provides guidance and education-specific examples to doctoral students and researchers who wish to use or are using CGT in educational research. It will also be of significant interest to qualitative researchers in other disciplines like sociology, psychology, and nursing.

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Book SynopsisRock mechanics is the theoretical and applied science of the mechanical behaviour of rock and rock masses. Rock mechanics, as applied in mining, petroleum, and civil engineering practice, is concerned with the application of the principles of engineering mechanics to the design of the rock structures. This book examines the hydraulic characterisation of fractured rocks, with specific reference to the fluid flow in single fractures, the interpretation of hydraulic tests, the geometrical characterisation and modelling of fracture networks. An appropriate model for the fluid flow and transport in fractured formations is based on these items. Indications are also given about the best strategy to undertake in order to set up this model. This book develops the conditions, criteria, basic approaches and test case results for establishing the elastic compliance tensor, hydraulic permeability tensor, and numerical techniques for investigating stress effect on hydraulic behaviour of fractured rocks. The correlation between the fracture aperture and size (represented by trace length) is also examined. In addition, the role of CO2 saturated water on the fracturing behaviour of rock samples and the geomaterials geotechnical parameter changes after subjection to environmental solutions are examined.

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Book SynopsisDiscover the essential components of two market-leading engineering texts in one powerful combined book. FUNDAMENTALS OF GEOTECHNICAL ENGINEERING, 5E offers a concise blend of critical information from Braja Das' market leading PRINCIPLES OF GEOTECHNICAL ENGINEERING and PRINCIPLES OF FOUNDATION ENGINEERING. This valuable, cohesive book focuses on the fundamental concepts of both soil mechanics and foundation engineering without the distraction of excessive details or cumbersome alternatives. A wealth of worked-out examples and useful supporting figures help you master key concepts and gain essential problem-solving skills. Prestigious authors Das and Sivakugan carefully balance today's most current research with practical field applications in a proven approach that has made Das' books undisputed leaders in the field. Accompanying resources, including MindTap, further reinforce the key geotechnical engineering skills you need.Table of Contents1. GEOTECHNICAL ENGINEERING ��� FROM THE BEGINNING. Geotechnical Engineering Prior to the 18th Century. Pre-classical Period of Soil Mechanics (1700���1776). Classical Soil Mechanics ��� Phase I (1776���1856). Classical Soil Mechanics ��� Phase II (1856���1910). Modern Soil Mechanics (1910���1927). Geotechnical Engineering after 1927. End of an Era. 2. SOIL DEPOSITS ��� ORIGIN, GRAIN-SIZE, AND SHAPE. Rock Cycle and the Origin of Soil. Soil Deposits--General. Residual Soil. Gravity Transported Soil. Alluvial Deposits. Lacustrine Deposits. Glacial Deposits. Aeolian Soil Deposits. Organic Soil. Soil���Grain Size. Clay Minerals. Specific Gravity (Gs). Mechanical Analysis of Soil. Sieve Analysis. Hydrometer Analysis. Effective Size, Uniformity Coefficient, and Coefficient of Gradation. Grain Shape. 3. WEIGHT-VOLUME RELATIONSHIPS AND PLASTICITY. Weight���Volume Relationships. Relationships among Unit Weight, Void Ratio, Moisture Content, and Specific Gravity. Relationships among Unit Weight, Porosity, and Moisture Content. Various Unit Weight Relationships. Relative Density. Consistency of Soil. Activity. Liquidity Index. Plasticity Chart. 4. SOIL CLASSIFICATION. AASHTO Soil Classification System. Unified Classification System (USCS), Visual Identification of Soils. 5. SOIL COMPACTION. Compaction ��� General Principles. Standard Proctor Test. Factors Affecting Compaction. Modified Proctor Test. Empirical Relationships. Field Compaction. Specifications for Field Compaction. Determination of Field Unit Weight after Compaction. Effect of Compaction on Cohesive Soil Properties. Other Ground Improvement Methods. 6. HYDRAULIC CONDUCTIVITY. Bernoulli's Equation. Darcy's Law. Hydraulic Conductivity. Laboratory Determination of Hydraulic Conductivity. Empirical Relations for Hydraulic Conductivity. Equivalent Hydraulic Conductivity in Stratified Soil. Permeability Test in the Field by Pumping from Wells. 7. SEEPAGE. Laplace's Equation of Continuity. Flow Nets. Seepage Calculation from a Flow Net. Flow Nets in Anisotropic Soil. 8. STRESSES IN A SOIL MASS. EFFECTIVE STRESS CONCEPT. Stresses in Saturated Soil without Seepage. Stresses in Saturated Soil with Seepage. Seepage Force. Heaving in Soil Due to Flow around Sheet Piles. VERTICAL STRESS INCREASE DUE TO VARIOUS TYPES OF LOADING. Stress Caused by a Point Load. Vertical Stress Caused by a Line Load. Vertical Stress Below a Uniformly Loaded Circular Area. Vertical Stress Caused by a Rectangularly Loaded Area. 9. CONSOLIDATION. Fundamentals of Consolidation. One-Dimensional Laboratory Consolidation Test. Void Ratio���Pressure Plots. Normally Consolidated and Overconsolidated Clays. Effect of Disturbance on Void Ratio���Pressure Relationship. Calculation of Settlement from One-Dimensional Primary Consolidation. Compression Index (Cc) and Swell Index (Cs). Settlement from Secondary Consolidation. Time Rate of Consolidation. Coefficient of Consolidation. Calculation of Primary Consolidation Settlement under a Foundation. Skempton���Bjerrum Modification for Consolidation Settlement. Effects of Initial Excess Pore Pressure Distribution of U-Tv Relationship. Construction Time Correction of Consolidation Settlement. 10. SHEAR STRENGTH OF SOIL. Mohr���Coulomb Failure Criteria. Inclination of the Plane of Failure Caused by Shear. LABORATORY DETERMINATION OF SHEAR STRENGTH PARAMETERS. Direct Shear Test. Triaxial Shear Test. Consolidated���Drained Test. Consolidated���Undrained Test. Unconsolidated���Undrained Test. Unconfined Compression Test on Saturated Clay. Selection of Shear Strength Parameters. Sensitivity and Thixotropy of Clay. Anisotropy in Undrained Shear Strength. 11. GROUND IMPROVEMENT. CHEMICAL STABILIZATION. Lime Stabilization. Cement Stabilization. Fly���Ash Stabilization. MECHANICAL STABILIZATION. Vibroflotation. Dynamic Compaction. Blasting. Precompression. Sand Drains. 12. SUBSURFACE EXPLORATION. Subsurface Exploration Program. Exploratory Borings in the Field. Procedures for Sampling Soil. Split���Spoon Sampling and Standard Penetration Test. Sampling with Thin Wall Tube. Observation of Water Levels. Vane Shear Test. Cone Penetration Test. Pressuremeter Test (PMT). Dilatometer Test. Coring of Rocks. Preparation of Boring Logs. Geophysical Exploration. Soil Exploration Report. Field Instrumentation. 13. SLOPE STABILITY. Factor of Safety. Stability of Infinite Slopes. Finite Slopes. Analysis of Finite Slope with Circularly Cylindrical Failure Surface--General. Mass Procedure of Stability Analysis (Circularly Cylindrical Failure Surface). Method of Slices. Bishop's Simplified Method of Slices. Analysis of Simple Slopes with Steady���State Seepage. Mass Procedure for Stability of Clay Slopes with Earthquake Forces. 14. LATERAL EARTH PRESSURE. Earth Pressure at Rest. Rankine's Theory of Active and Passive Earth Pressures. Diagrams for Lateral Earth Pressure Distribution against Retaining Walls. Rankine's Active Pressure with Sloping Granular Backfill. Coulomb's Earth Pressure Theory-- Retaining Walls with Friction. Passive Pressure Assuming Curved Failure Surface in Soil. 15. RETAINING WALLS, BRACED CUTS, AND SHEET PILE WALLS. RETAINING WALLS. Retaining Walls--General. Proportioning Retaining Walls. Application of Lateral Earth Pressure Theories to Design. Check for Overturning. Check for Sliding along the Base. Check for Bearing Capacity Failure MECHANICALLY STABILIZED EARTH RETAINING WALLS. Mechanically Stabilized Earth. General Design Considerations. Retaining Walls with Metallic Strip Reinforcement. Step���by���Step Design Procedure Using Metallic Strip Reinforcement. Retaining Walls with Geotextile Reinforcement. Retaining Walls with Geogrid Reinforcement. BRACED CUTS. Braced Cuts--General. Lateral Earth Pressure in Braced Cuts. Soil Parameters for Cuts in Layered Soil. Design of Various Components of a Braced Cut. Heave of the Bottom of a Cut in Clay. Lateral Yielding of Sheet Piles and Ground Settlement. SHEET PILE WALLS. Cantilever Sheet Pile Wall in Granular Soils (c' = 0). Cantilever Sheet Pile Walls in Cohesive Soils. Anchored Sheet Pile Wall. Deadman Anchor ��� A Simplified Approach. 16. SHALLOW FOUNDATIONS ��� BEARING CAPACITY. Ultimate Bearing Capacity of Shallow Foundations--General Concepts. Terzaghi's Ultimate Bearing Capacity Theory. Modifications to Terzaghi's Bearing Capacity Equation. Modification of Bearing Capacity Equations for Water Table. The Factor of Safety. Eccentrically Loaded Foundations. Reduction Factor Method for Eccentrically Loaded Strip Foundations on Granular Soil. Shallow Foundation under Eccentrically Inclined Load. Foundations with Two���Way Eccentricity. Ultimate Bearing Capacity with Earthquake Condition. Mat Foundations--Common Types. Bearing Capacity for Mat Foundations. Compensated Foundations. 17. SETTLEMENT OF SHALLOW FOUNDATIONS. Elastic Settlement of Foundations on Saturated Clay Soils (��s = 0.5). Elastic Settlement Based on Theory of Elasticity. Range of Material Parameters for Computing Elastic Settlement. Improved Method for Settlement Calculation in Granular Soil. Settlement of Sandy Soil: Use of Strain Influence Factor. Allowable Bearing Pressure for Spread Footings in Sand Based on Settlement Consideration. Allowable Bearing Pressure for Mat Foundation in Sand. Effects of Water Table Rise on Elastic Settlement in Granular Soils. 18. PILE FOUNDATIONS. Need for Pile Foundations. Types of Piles and Their Structural Characteristics. Estimation of Pile Length. Installation of Piles. Load Transfer Mechanism. Equations for Estimation of Pile Capacity. Load Carrying Capacity of Pile Point, Qp. Frictional Resistance, Qs. Allowable Pile Capacity. Load���Carrying Capacity of Pile Point Resting on Rock. Elastic Settlement of Piles. Pile Load Tests. Pile���Driving Formulas. Negative Skin Friction. Group Piles ��� Efficiency. Elastic Settlement of Group Piles. Consolidation Settlement of Group Piles. 19. DRILLED SHAFTS. Types of Drilled Shafts. Construction Procedures. Estimation of Load??��Bearing Capacity. Drilled Shafts in Sand���Net Ultimate Load. Drilled Shafts in Clay���Net Ultimate Load. Settlement of Drilled Shafts at Working Load. Load���Bearing Capacity Based on Settlement. 20. LOAD AND RESISTANCE FACTOR DESIGN (LRFD). Design Philosophy. Allowable Stress Design (ASD). Limit State Design (LSD) and Partial Safety Factors. APPENDIX A: GEOSYNTHETICS.

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Book SynopsisThis book review series presents current trends in modern biotechnology. The aim is to cover all aspects of this interdisciplinary technology where knowledge, methods and expertise are required from chemistry, biochemistry, microbiology, genetics, chemical engineering and computer science.Volumes are organized topically and provide a comprehensive discussion of developments in the respective field over the past 3-5 years. The series also discusses new discoveries and applications. Special volumes are dedicated to selected topics which focus on new biotechnological products and new processes for their synthesis and purification.In general, special volumes are edited by well-known guest editors. The series editor and publisher will however always be pleased to receive suggestions and supplementary information. Manuscripts are accepted in English.Table of ContentsScale up/scale down of bioreactors.- Process optimization and scale-up using omics analysis.- Perturbation experiments: Experimental approaches for metabolic pathway analysis.- Cell Processing Engineering for Mammalian Cells.- Dry biorefinery process development and bioreactor design for lignocellulose utilization.- Photobioreactor for algal culture.- Novel Hydrogen Detection Apparatus along with Bioreactor Systems.- Self-inducing reactor.

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Book SynopsisThis edited book presents scientific results of the 20th IEEE/ACIS International Conference on Software Engineering Research, Management, and Applications (SERA2022) held on May 25, 2022, in Las Vegas, USA. The aim of this conference was to bring together researchers and scientists, businessmen and entrepreneurs, teachers, engineers, computer users and students to discuss the numerous fields of computer science and to share their experiences and exchange new ideas and information in a meaningful way. Research results about all aspects (theory, applications and tools) of computer and information science and to discuss the practical challenges encountered along the way and the solutions adopted to solve them. The conference organizers selected the best papers from those papers accepted for presentation at the conference. The papers were chosen based on review scores submitted by members of the program committee and underwent further rigorous rounds of review. From this second round of review, 12 of the conference’s most promising papers are then published in this Springer (SCI) book and not the conference proceedings. We impatiently await the important contributions that we know these authors will bring to the field of computer and information science.Table of ContentsExamining the Factors that Influence Customers’ Intention to Use Smartwatches in Malaysia Using UTAUT2 Model.- Generating Adversarial Robust Defensive CAPTCHA (GARD-CAPTCHA) in Convolutional Neural Networks.- A Deep Learning Approach for Lantana Camara Weed Detection and Localization in the Natural Environment.- Modeling Concretizations in Software Design.- A Practical Style Guide and Templates Repository for Writing Effective Use Cases.- Label Correction of Sound Data with Label Noise Using Self Organizing Map.- Evaluation Method of Enterprise Cybersecurity.- A Multi-model Multi-task Learning System for Hurricane Genesis Prediction.- Development of Autonomous Driving Adaptive Simulation System Using Deep Learning Process Model.- An OCL Implementation for Model-Driven Engineering of C++.- Improving Students’ Readiness Toward the Labor Market Through Customized Learning.- Assessing Software Fault Risk with Machine Learning.

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Book SynopsisThe classic introduction to engineering optimization theory and practice--now expanded and updated Engineering optimization helps engineers zero in on the most effective, efficient solutions to problems. This text provides a practical, real-world understanding of engineering optimization. Rather than belaboring underlying proofs and mathematical derivations, it emphasizes optimization methodology, focusing on techniques and stratagems relevant to engineering applications in design, operations, and analysis. It surveys diverse optimization methods, ranging from those applicable to the minimization of a single-variable function to those most suitable for large-scale, nonlinear constrained problems. New material covered includes the duality theory, interior point methods for solving LP problems, the generalized Lagrange multiplier method and generalization of convex functions, and goal programming for solving multi-objective optimization problems. A practical, hands-on referTable of ContentsPreface. 1 Introduction to Optimization. 1.1 Requirements for the Application of Optimization Methods. 1.2 Applications of Optimization in Engineering. 1.3 Structure of Optimization Problems. 1.4 Scope of This Book. References. 2 Functions of a Single Variable. 2.1 Properties of Single-Variable Functions. 2.2 Optimality Criteria. 2.3 Region Elimination Methods. 2.4 Polynomial Approximation or Point Estimation Methods. 2.5 Methods Requiring Derivatives. 2.6 Comparison of Methods. 2.7 Summary. References. Problems. 3 Functions of Several Variables. 3.1 Optimality Criteria. 3.2 Direct-Search Methods. 3.3 Gradient-Based Methods. 3.4 Comparison of Methods and Numerical Results. 3.5 Summary. References. Problems. 4 Linear Programming. 4.1 Formulation of Linear Programming Models. 4.2 Graphical Solution of Linear Programs in Two Variables. 4.3 Linear Program in Standard Form. 4.5 Computer Solution of Linear Programs. 4.5.1 Computer Codes. 4.6 Sensitivity Analysis in Linear Programming. 4.7 Applications. 4.8 Additional Topics in Linear Programming. 4.9 Summary. References. Problems. 5 Constrained Optimality Criteria. 5.1 Equality-Constrained Problems. 5.2 Lagrange Multipliers. 5.3 Economic Interpretation of Lagrange Multipliers. 5.4 Kuhn-Tucker Conditions. 5.5 Kuhn-Tucker Theorems. 5.6 Saddlepoint Conditions. 5.7 Second-Order Optimality Conditions. 5.8 Generalized Lagrange Multiplier Method. 5.9 Generalization of Convex Functions. 5.10 Summary. References. Problems. 6 Transformation Methods. 6.1 Penalty Concept. 6.2 Algorithms, Codes, and Other Contributions. 6.3 Method of Multipliers. 6.4 Summary. References. Problems. 7 Constrained Direct Search. 7.1 Problem Preparation. 7.2 Adaptations of Unconstrained Search Methods. 7.3 Random-Search Methods. 7.4 Summary. References. Problems. 8 Linearization Methods for Constrained Problems. 8.1 Direct Use of Successive Linear Programs. 8.2 Separable Programming. 8.3 Summary. References. Problems. 9 Direction Generation Methods Based on Linearization. 9.1 Method of Feasible Directions. 9.2 Simplex Extensions for Linearly Constrained Problems. 9.3 Generalized Reduced Gradient Method. 9.4 Design Application. 9.5 Summary. References. Problems. 10 Quadratic Approximation Methods for Constrained Problems. 10.1 Direct Quadratic Approximation. 10.2 Quadratic Approximation of the Lagrangian Function. 10.3 Variable Metric Methods for Constrained Optimization. 10.4 Discussion. 10.5 Summary. References. Problems. 11 Structured Problems and Algorithms. 11.1 Integer Programming. 11.2 Quadratic Programming. 11.3 Complementary Pivot Problems. 11.4 Goal Programming. 11.5 Summary. References. Problems. 12 Comparison of Constrained Optimization Methods. 12.1 Software Availability. 12.2 A Comparison Philosophy. 12.3 Brief History of Classical Comparative Experiments. 12.4 Summary. References. 13 Strategies for Optimization Studies. 13.1 Model Formulation. 13.2 Problem Implementation. 13.3 Solution Evaluation. 13.4 Summary. References. Problems. 14 Engineering Case Studies. 14.1 Optimal Location of Coal-Blending Plants by Mixed-Integer Programming. 14.2 Optimization of an Ethylene Glycol-Ethylene Oxide Process. 14.3 Optimal Design of a Compressed Air Energy Storage System. 14.4 Summary. References. Appendix A Review of Linear Algebra. A.1 Set Theory. A.2 Vectors. A.3 Matrices. A.3.1 Matrix Operations. A.3.2 Determinant of a Square Matrix. A.3.3 Inverse of a Matrix. A.3.4 Condition of a Matrix. A.3.5 Sparse Matrix. A.4 Quadratic Forms. A.4.1 Principal Minor. A.4.2 Completing the Square. A.5 Convex Sets. Appendix B Convex and Concave Functions. Appendix C Gauss-Jordan Elimination Scheme. Author Index. Subject Index.

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Book SynopsisPat Thomson is Professor of Education in the School of Education at the University of Nottingham, UK. A former headteacher, she works with teachers and artists using action research and ethnographic approaches. Her research focuses on arts, learning and change in educational, gallery, museum and community settings. Christine Hall is Professor of Education in the School of Education at The University of Nottingham, UK. Formerly a secondary school teacher, she has worked in teacher education for the last 20 years supervising numerous students and teachers on school-based research projects. Her research is on literacy and the arts in schools.Trade ReviewThe authors are generous with their suggested further reading and because of the geographical lens offered these are likely to give the reader references that many educational researchers will be unfamiliar with. The quality and depth of the approaches that the authors suggest make me particularly confident in the robustness of these qualitative data generation approaches. However, the authors do not shy away from the quantitative data that can be generated through national databases. A rich picture of one school can be generated if their advice about place-based research is followed. Overall, this book has much to be commended on and I highly recommend it to any researcher involved in school-based research. * International Journal of Research and Method in Education *Pat Thomson and Chris Hall’s imaginative, informed and innovative methodology text book is a must for anyone, from novice to expert, studying any aspect of schools. This is a book to transform both your approach to research and your thinking about schools - and indeed their communities - with new ideas and practical illustrations. * Liz Todd, Professor of Educational Inclusion, University of Newcastle, UK *Patricia Thomson and Christine Hall use the literature on space, time and place in combination with that on place-based research projects to provide a map for the field. They write with a deep understanding of a wide range of theory and a commitment to ethical research methods and practices. Their map covers the field of place-based research, offering a clear framework and the necessary know-how. Accessible, interesting and rigorous their work inspires an interest in schools as places, and in place-based methods for researching, understanding and representing them. * Hilary Janks, Emeritus Professor, Wits University, South Africa *This book inspires me to do school research, and to do it well. It takes seriously the many entangled factors – people, places, structures, ideas, experiences, feelings – that make a school, demonstrating the ‘specificity, particularity and complexity to the near-universal experience of being in school’ and showing us what we might do with this as researchers. The book addresses a sophisticated reader who is able to make her/his own decisions and research plans, but still offers structured insights for thinking practically about how to research schools. It is also a compelling and pleasurable read. After this book, it will be difficult to think of school research that does not engage deeply with the place of a school. * Deborah Youdell, Professor of Sociology of Education, University of Birmingham, UK *This book is a very useful resource to a beginner school-based researcher. It provides useful advice on various practical aspects of conducting research in schools and outlines some theoretical and methodological foundations and approaches to conducting research with human participants. * Oksana Afitska, University of Sheffield, UK *This is an excellent student book suitable for both undergraduate and postgraduate students interested in research in schools. Although the focus is on place based methods and there are appropriate and helpful articulations of place and space theory, this book usefully provides a number of practical approaches and a range of references for the reader to follow up. If the mark of a good book is that the reader is left wanting to find out more, this work succeeds (and it is my favourite book of the year!). * Dr ML White, University of East London, UK *Table of ContentsList of Figures List of Tables Acknowledgements Series Editor's Preface Glossary of Research Methods and Approaches Introducing the book 1. Studying a School 2. Getting Into the School 3. Getting to Know the Neighbourhood 4. Reading the School 5. Living with the School 6. Multiple Perspectives on the School 7. Analysing Complex Data Sets 8. Writing the School Appendix Bibliography Index

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Book SynopsisTable of ContentsBiographies xv Contributors List xvii Foreword xxi Preface xxiii Section 1 Sociotechnical System Types 1 1 Introduction to the Human Systems Engineering Framework 3Holly A. H. Handley 1.1 Introduction 3 1.2 Human-Centered Disciplines 3 1.3 Human Systems Engineering 4 1.4 Development of the HSE Framework 5 1.5 HSE Applications 7 1.6 Conclusion 9 References 9 2 Human Interface Considerations for Situational Awareness 11Christian G. W. Schnedler and Michael Joy 2.1 Introduction 11 2.2 Situational Awareness: A Global Challenge 12 2.3 Putting Situational Awareness in Context: First Responders 13 2.4 Deep Dive on Human Interface Considerations 14 2.5 Putting Human Interface Considerations in Context: Safe Cities 15 2.6 Human Interface Considerations for Privacy-Aware SA 16 Reference 17 3 Utilizing Artificial Intelligence to Make Systems Engineering More Human 19Philip S. Barry and Steve Doskey 3.1 Introduction 19 3.2 Changing Business Needs Drive Changes in Systems Engineering 20 3.3 Epoch 4: Delivering Capabilities in the Sociotechnical Ecosystem 21 3.3.1 A Conceptual Architecture for Epoch 4 22 3.3.2 Temporal Sociotechnical Measures 22 3.3.3 Systems Engineering Frameworks 23 3.3.3.1 Sociotechnical Network Models 23 3.3.3.2 Digital Twins 23 3.4 The Artificial Intelligence Opportunity for Building Sociotechnical Systems 24 3.5 Using AI to Track and Interpret Temporal Sociotechnical Measures 25 3.6 AI in Systems Engineering Frameworks 25 3.7 AI in Sociotechnical Network Models 26 3.8 AI-Based Digital Twins 27 3.9 Discussion 27 3.10 Case Study 30 3.11 Systems Engineering Sociotechnical Modeling Approach 31 3.11.1 Modeling the Project 33 3.12 Results 36 3.13 Summary 38 References 39 4 Life Learning of Smart Autonomous Systems for Meaningful Human-Autonomy Teaming 43Kate J. Yaxley, Keith F. Joiner, Jean Bogais, and Hussein A. Abbass 4.1 Introduction 43 4.2 Trust in Successful Teaming 45 4.3 Meaningful Human-Autonomy Teaming 46 4.4 Systematic Taxonomy for Iterative Through-Life Learning of SAS 47 4.5 Ensuring Successful SAS 51 4.6 Developing Case Study: Airborne Shepherding SAS 53 4.7 Conclusion 57 Acknowledgment 58 References 58 Section 2 Domain Deep Dives 63 5 Modeling the Evolution of Organizational Systems for the Digital Transformation of Heavy Rail 65Grace A. L. Kennedy, William R. Scott, Farid Shirvani, and A. Peter Campbell 5.1 Introduction 65 5.2 Organizational System Evolution 66 5.2.1 Characteristics of Organizational Systems 66 5.2.2 The Organization in Flux 67 5.2.3 Introducing New Technologies 68 5.3 Model-Based Systems Engineering 70 5.4 Modeling Approach for the Development of OCMM 71 5.4.1 Technology Specification 72 5.4.2 Capture System Change 73 5.4.3 Capture Organizational Changes 73 5.4.4 Manage Organization Change 73 5.4.5 Analyze Emergent System 73 5.5 Implementation 74 5.5.1 User Portals 75 5.5.2 OCMM Metamodel 75 5.6 Case Study: Digital Transformation in the Rail Industry 78 5.6.1 Technology Specification 79 5.6.2 Capture System Change 79 5.6.3 Capture Organization Changes 80 5.6.4 Organization Change Management 84 5.6.5 Analyze Emergent System 85 5.6.5.1 Situation Awareness 85 5.6.5.2 Workload Analysis 90 5.7 OCMM Reception 91 5.8 Summary and Conclusions 94 References 94 6 Human Systems Integration in the Space Exploration Systems Engineering Life Cycle 97George Salazar and Maria Natalia Russi-Vigoya 6.1 Introduction 97 6.2 Spacecraft History 98 6.2.1 Mercury/Gemini/Apollo 98 6.2.2 Space Shuttle 100 6.2.3 International Space Station 101 6.2.4 Orion Spacecraft 101 6.3 Human Systems Integration in the NASA Systems Engineering Process 103 6.3.1 NASA Systems Engineering Process and HSI 103 6.4 Mission Challenges 108 6.4.1 Innovation and Future Vehicle Designs Challenge 108 6.4.2 Operations Challenges 109 6.4.3 Maintainability and Supportability Challenges 110 6.4.4 Habitability and Environment Challenges 110 6.4.5 Safety Challenges 110 6.4.6 Training Challenges 111 6.5 Conclusions 111 References 112 7 Aerospace Human Systems Integration: Evolution over the Last 40 Years 113Guy André Boy 7.1 Introduction 113 7.2 Evolution of Aviation: A Human Systems Integration Perspective 114 7.3 Evolution with Respect to Models, Human Roles, and Disciplines 116 7.3.1 From Single-Agent Interaction to Multi-agent Integration 116 7.3.2 Systems Management and Authority Sharing 117 7.3.3 Human-Centered Disciplines Involved 118 7.3.4 From Automation Issues to Tangibility Issues 119 7.4 From Rigid Automation to Flexible Autonomy 120 7.5 How Software Took the Lead on Hardware 122 7.6 Toward a Human-Centered Systemic Framework 123 7.6.1 System of Systems, Physical and Cognitive Structures and Functions 123 7.6.2 Emergent Behaviors and Properties 125 7.6.3 System of Systems Properties 126 7.7 Conclusion and Perspectives 126 References 127 Section 3 Focus on Training and Skill Sets 129 8 Building a Socio-cognitive Evaluation Framework to Develop Enhanced Aviation Training Concepts for Gen Y and Gen Z Pilot Trainees 131Alliya Anderson, Samuel F. Feng, Fabrizio Interlandi, Michael Melkonian, Vladimir Parezanović, M. Lynn Woolsey, Claudine Habak, and Nelson King 8.1 Introduction 131 8.1.1 Gamification Coupled with Cognitive Neuroscience and Data Analysis 132 8.1.2 Generational Differences in Learning 133 8.2 Virtual Technologies in Aviation 134 8.2.1 Potential Approaches for Incorporating Virtual Technologies 135 8.3 Human Systems Engineering Challenges 136 8.4 Potential Applications Beyond Aviation Training 137 8.5 Looking Forward 137 Acknowledgement 137 References 138 9 Improving Enterprise Resilience by Evaluating Training System Architecture: Method Selection for Australian Defense 143Victoria Jnitova, Mahmoud Efatmaneshnik, Keith F. Joiner, and Elizabeth Chang 9.1 Introduction 143 9.2 Defense Training System 144 9.2.1 DTS Conceptualization 144 9.2.2 DTS as an Extended Enterprise Systems 144 9.2.3 Example: Navy Training System 145 9.2.3.1 Navy Training System as a Part of DTS 145 9.2.3.2 Navy Training System as a Part of DoD 145 9.3 Concept of Resilience in the Academic Literature 147 9.3.1 Definition of Resilience: A Multidisciplinary and Historical View 147 9.3.2 Definition of Resilience: Key Aspects 147 9.3.2.1 What? (Resilience Is and Is Not) 147 9.3.2.2 Why? (Resilience Triggers) 159 9.3.2.3 How? (Resilience Mechanisms and Measures) 160 9.4 DTS Case Study Methodology 169 9.4.1 DTS Resilience Measurement Methodology 169 9.4.2 DTS Architecture 169 9.4.3 DTS Resilience Survey 172 9.4.3.1 DTS Resilience Survey Design 172 9.4.3.2 DTS Resilience Survey Conduct 172 9.5 Research Findings and Future Directions 176 References 177 10 Integrating New Technology into the Complex System of Air Combat Training 185Sarah M. Sherwood, Kelly J. Neville, Angus L. M. T. McLean, III, Melissa M. Walwanis, and Amy E. Bolton 10.1 Introduction 185 10.2 Method 187 10.2.1 Data Collection 187 10.2.2 Data Analysis 188 10.3 Results and Discussion 190 10.3.1 Unseen Aircraft Within Visual Range 191 10.3.2 Unexpected Virtual and Constructive Aircraft Behavior 193 10.3.3 Complacency and Increased Risk Taking 194 10.3.4 Human–Machine Interaction 195 10.3.5 Exercise Management 196 10.3.6 Big Picture Awareness 197 10.3.7 Negative Transfer of Training to the Operational Environment 198 10.4 Conclusion 199 Acknowledgments 202 References 202 Section 4 Considering Human Characteristics 205 11 Engineering a Trustworthy Private Blockchain for Operational Risk Management: A Rapid Human Data Engineering Approach Based on Human Systems Engineering 207Marius Becherer, Michael Zipperle, Stuart Green, Florian Gottwalt, Thien Bui-Nguyen, and Elizabeth Chang 11.1 Introduction 207 11.2 Human Systems Engineering and Human Data Engineering 207 11.3 Human-Centered System Design 208 11.4 Practical Issues Leading to Large Complex Blockchain System Development 208 11.4.1 Human-Centered Operational Risk Management 208 11.4.2 Issues Leading to Risk Management Innovation Through Blockchain 209 11.4.3 Issues in Engineering Trustworthy Private Blockchain 209 11.5 Framework for Rapid Human Systems–Human Data Engineering 210 11.6 Human Systems Engineering for Trustworthy Blockchain 210 11.6.1 Engineering Trustworthy Blockchain 210 11.6.2 Issues and Challenges in Trustworthy Private Blockchain 212 11.6.3 Concepts Used in Trustworthy Private Blockchain 213 11.6.4 Prototype Scenario for Trusted Blockchain Network 214 11.6.5 Systems Engineering of the Chain of Trust 214 11.6.6 Design Public Key Infrastructure (PKI) for Trust 215 11.6.6.1 Design of Certificate Authority (CA) 215 11.6.6.2 Design the Trusted Gateways 216 11.6.6.3 Involving Trusted Peers and Orderers 217 11.6.6.4 Facilitate Trust Through Channels 217 11.7 From Human System Interaction to Human Data Interaction 219 11.8 Future Work for Trust in Human Systems Engineering 219 11.8.1 Software Engineering of Trust for Large Engineered Complex Systems 219 11.8.2 Human-Centered AI for the Future Engineering of Intelligent Systems 220 11.8.3 Trust in the Private Blockchain for Big Complex Data Systems in the Future 220 11.9 Conclusion 221 Acknowledgment 222 References 222 12 Light’s Properties and Power in Facilitating Organizational Change 225Pravir Malik 12.1 Introduction 225 12.2 Implicit Properties and a Mathematical Model of Light 226 12.3 Materialization of Light 230 12.3.1 The Electromagnetic Spectrum 231 12.3.2 Quantum Particles 232 12.3.3 The Periodic Table and Atoms 233 12.3.4 A Living Cell 235 12.3.5 Fundamental Capacities of Self 237 12.4 Leveraging Light to Bring About Organizational Change 239 12.5 Summary and Conclusion 243 References 243 Section 5 From the Field 245 13 Observations of Real-Time Control Room Simulation 247Hugh David with an editor introduction by Holly A. H. Handley 13.1 Introduction 247 13.1.1 What Is a “Real-Time Control Room Simulator”? 247 13.1.2 What Is It Used For? 247 13.1.3 What Does It Look Like? 248 13.1.4 How Will They Develop? 249 13.2 Future General-Purpose Simulators 249 13.2.1 Future On-Site Simulators 250 13.3 Operators 251 13.4 Data 252 13.5 Measurement 252 13.5.1 Objective Measures 253 13.5.1.1 Recommended 253 13.5.1.2 Not Recommended 253 13.5.2 Subjective Measures 254 13.5.2.1 Recommended 255 13.5.2.2 Not Recommended 255 13.6 Conclusion 257 Disclaimer 257 References 257 14 A Research Agenda for Human Systems Engineering 259Andreas Tolk 14.1 The State of Human Systems Engineering 259 14.2 Recommendations from the Chapter Contributions 260 14.2.1 Data and Visualization Challenges 260 14.2.2 Next-Generation Computing 261 14.2.3 Advanced Methods and Tools 262 14.2.4 Increased Integration of Social Components into System Artifacts 263 14.3 Uniting the Human Systems Engineering Stakeholders 263 14.3.1 Transdisciplinary Approach 264 14.3.2 Common Formalisms 265 14.3.3 Common Metrics 266 14.4 Summary 266 Disclaimer 267 References 267 Index 271

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Book SynopsisReal-world reservoirs are layered, heterogeneous and anisotropic, exposed to water and gas drives, faults, barriers and fractures. They are produced by systems of vertical, deviated, horizontal and multilateral wells whose locations, sizes, shapes and topologies are dictated on the fly, at randomby petroleum engineers and drillers at well sites. Wells may be pressure or rate-constrained, with these roles re-assigned during simulation with older laterals shut-in, newer wells drilled and brought on stream, and so on. And all are subject to steady and transient production, each satisfying different physical and mathematical laws, making reservoir simulation an art difficult to master and introducing numerous barriers to entry. All of these important processes can now be simulated in any order using rapid, stable and accurate computational models developed over two decades. And what if it were further possible to sketch complicated geologies and lithologies, plus equally complexTable of ContentsPreface ix Acknowledgements xiii 1 Reservoir Modeling – Background and Overview 1 Overview 1 Reservoir modeling landscape 1 Reflections on simulation and modeling 2 Reservoir Flow Algorithms for Petroleum Engineers 3 Multisim™ Features – Advanced Interactive Reservoir Modeling 8 Reservoir description 9 Well system modeling 9 Additional simulator features 9 Simple Wells to Multilateral Systems for Laymen 10 Advanced Graphics for Color Display 17 Tracer Movement in Three-Dimensional Reservoirs 21 2 Mathematical Modeling Ideas, Numerical Methods and Software 25 Overview and Background 25 Formulation errors 25 I/O problems 26 Fundamental Issues and Problems 26 Numerical stability 27 Inadequacies of the von Neumann test 28 Convergence 28 Physical resolution 29 Direct solvers 29 Modern simulation requirements 30 Pressure constraints 32 Flow rate constraints 32 Object-oriented geobodies 33 Plan for remaining sections 33 Governing Equations and Numerical Formulation 33 Steady flows of liquids 33 Difference equation formulation 34 The iterative scheme 35 Modeling well constraints for liquids 36 Steady and unsteady nonlinear gas flows 38 Steady gas flows 39 Well constraints for gas flows 40 Transient, compressible flows 42 Compaction, consolidation and subsidence 44 Boundary conforming grids 45 Stratigraphic meshes for layered media 46 Modeling wellbore storage 47 Early 1990s Validation Calculations 48 Simulation capabilities 48 Data structures and programming 49 Example 2-1. Convergence acceleration, two deviated horizontal gas wells in a channel sand 49 Example 2-2. Dual-lateral horizontal completion in a fractured, dipping, heterogeneous, layered formation 53 Example 2-3. Stratigraphic grids, drilling dome-shaped structures 56 Example 2-4. Simulating-while-drilling horizontal gas wells through a dome-shaped reservoir 58 Example 2-5. Modeling wellbore storage effects and compressible borehole flow transients 64 3 Simulation Capabilities – User Interface with Basic Well 71 Example 3-1. Single vertical well, user interface and menu structure for steady flow 71 Example 3-2. Volume flow rate constraint at a well 91 Example 3-3. Pressure constraint and transient shut-in 94 Example 3-4. Heterogeneities, anisotropy and multiple wells 110 Example 3-5. Reversing well constraints – consistency check 128 Example 3-6. Changing farfield boundary conditions 131 Example 3-7. Fluid depletion in a sealed reservoir 135 Example 3-8. Depletion in rate constrained well in sealed reservoir 147 Example 3-9. Steady flow from five spot pattern 148 Example 3-10. Drilling additional wells while simulating 153 4 Vertical, Deviated, Horizontal and Multilateral Well Systems 175 Overview, 175 Example 4-1. Multilateral and vertical wells in multilayer media 176 Example 4-2. Dual lateral with transient operations 204 Example 4-3. Producer and injector conversions 239 Example 4-4. Production with top and bottom drives 265 Example 4-5. Transient gas production from dual horizontal with wellbore storage effects 275 5 Well Models and Productivity Indexes 290 Radial vs 3D modeling - loss of wellbore resolution 290 Analogies in computational aerodynamics 291 Curvilinear grids in reservoir simulation 293 Productivity index modeling 295 References 296 Index 308 About the Author 312 Professional interests 312 Scientific book publications 313 United States patents 314 Recent patent applications 315 International and domestic patents 315 Journal articles and conference publications 318 Multisim‘ Software Order 326 Features 326 Licensing options 327 Disclaimer 328

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Book Synopsis

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Book SynopsisThis open access textbook introduces the emerging field of Development Engineering and its constituent theories, methods, and applications. It is both a teaching text for students and a resource for researchers and practitioners engaged in the design and scaling of technologies for low-resource communities. The scope is broad, ranging from the development of mobile applications for low-literacy users to hardware and software solutions for providing electricity and water in remote settings. It is also highly interdisciplinary, drawing on methods and theory from the social sciences as well as engineering and the natural sciences.The opening section reviews the history of “technology-for-development” research, and presents a framework that formalizes this body of work and begins its transformation into an academic discipline. It identifies common challenges in development and explains the book’s iterative approach of “innovation, implementation, evaluation, adaptation.” Each of the next six thematic sections focuses on a different sector: energy and environment; market performance; education and labor; water, sanitation and health; digital governance; and connectivity. These thematic sections contain case studies from landmark research that directly integrates engineering innovation with technically rigorous methods from the social sciences. Each case study describes the design, evaluation, and/or scaling of a technology in the field and follows a single form, with common elements and discussion questions, to create continuity and pedagogical consistency. Together, they highlight successful solutions to development challenges, while also analyzing the rarely discussed failures. The book concludes by reiterating the core principles of development engineering illustrated in the case studies, highlighting common challenges that engineers and scientists will face in designing technology interventions that sustainably accelerate economic development.Development Engineering provides, for the first time, a coherent intellectual framework for attacking the challenges of poverty and global climate change through the design of better technologies. It offers the rigorous discipline needed to channel the energy of a new generation of scientists and engineers toward advancing social justice and improved living conditions in low-resource communities around the world.Table of ContentsPart I: A New Discipline: Development Engineering.-Chapter 1: The Role Of Technology In Development.- Chapter 2: The Development Engineering Framework: Innovate, Evaluate, Scale.-Chapter 3: Asking the Right Questions.-Part II: Water, Sanitation and Health.-Chapter 4: Advances In Water and Health Technologies.-Chapter 5: Case Study: Electrochemical Arsenic Remediation, India (Innovation).-Chapter 6: Case Study: Information For Intermittent Water Supply, India (Evaluation).-Chapter 7: Case Study: Mobile Phone Diagnostic Microscopy, Vietnam/Cameroon (Innovation, Scale).-Part III: Governance.- Chapter 8: Technologies for Governance And Accountability.-Chapter 9: Case Study: Sensors For Aid Accountability, Rwanda (Evaluation, Scale).-Chapter 10: Case Study: High Resolution Development Indicators, Afghanistan (Evaluation, Scale).-Chapter 11: Case Study: Monitoring For Elections And Public Service Delivery, Kenya (Evaluation, Scale).-Part IV: Energy and Resources.-Chapter 12: Advances in Energy & Environmental Technologies.-Chapter 13: Case Study: Economic Impacts Of Rural Electrification, Kenya (Evaluation, Scale).-Chapter 14: Case Study: Cool Joule: Flexible Energy Loads, Nicaragua (Innovation, Evaluation).-Chapter 15: Case Study: Cookstove Monitoring and Use In East Africa (Innovation, Evaluation).-Part V: Information.-Chapter 16: Information and Communications Technology For Development.-Chapter 17: Case Study: Community Cellular Networks, Philippines (Innovation, Evaluation).-Chapter 18: Case Study: ICT Solutions To Bring Telemedicine To Rural India (Innovation).-Chapter 19: Case Study: Platforms For Development Data (ODK/Mezuri) (Innovation, Scale).-PART VI: Markets (Incorporates Agriculture).-Chapter 20: Technologies To Improve Market Performance.-Chapter 21: Case Study: Ag Market Information Platforms, India (Innovation, Evaluation, Scale).-Chapter 22: Case Study: Agricultural Trading Platforms, Uganda (Innovation, Evaluation).-Chapter 23: Case Study: Inventory And Supply Chain Tracking, Sri Lanka (Evaluation).-PART VII: Human Capital (Incorporates Labor).-Chapter 24: Increasing the Productivity of Human Capital.-Chapter 25: Case Study: Electronic Job Search Platforms, India (Evaluation, Scale).-Chapter 26: Case Study: Customized E-Learning Innovations, India (Evaluation).-Chapter 27: Case Study: TBD (Evaluation).-PART VIII: Conclusion.-Chapter 28: Promising Directions in Development Engineering.

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Book SynopsisThe scope of engineering seismology includes geotechnical site investigations for buildings and engineering infrastructures, such as dams, levees, bridges, and tunnels, landslide and active- fault investigations, seismic microzonation, and geophysical investigations of historic buildings. These projects require multidisciplinary participation by the geologist, geophysicist, and geotechnical and earthquake engineers. A key objective of this book (SEG Investigations in Geophysics Series No. 17) by Öz Yilmaz is to encourage the specialists from these disciplines to apply the seismic method to solve the many challenging engineering problems they face. The broader scope of engineering seismology also includes exploration of earth resources, including groundwater exploration, coal and mineral exploration, and geothermal exploration. While focusing on the application of the seismic method to geotechnical site investigations, this book includes many case studies in all of the applications of engineering seismology.

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Book SynopsisEngineering Measurements – Methods and Intrinsic Errors provides a valuable insight into the equipment and methods generally used in taking measurements, and helps engineers avoid or minimize the inaccuracies that can arise even when using highly accurate instruments. Many of the commonly used measurement methods are described, together with their pitfalls and problems. The authors also incorporate plenty of useful, practical examples. Although there are a number of very good texts already available on the subject of engineering measurements, most are quite theoretical and few are written by practising engineers in industry. Those written by industrialists often concentrate only on their specific subject area. There does not appear to be a general text covering theoretical and practical aspects of engineering measurements, and in particular covering the areas of errors and pitfalls associated with taking these measurements. This book is designed to fill the gap, and incorporates knowledge obtained from years of practical experience in industry and R&D by the authors and the various contributors. Engineering Measurements – Methods and Intrinsic Errors is highly readable, practical, and comprehensive. Any engineer involved in measurement, whether in manufacturing and process control, development, troubleshooting, or research, will find this guide a helpful everyday tool.Table of ContentsAcknowledgements Foreword by Peter Polak Authors' Preface Chapter 1 Introduction 1 Chapter 2 The Human Element 5 Chapter 3 Position, Speed, and Acceleration Measurement 17 Chapter 4 Force, Torque, Stress, and Pressure Measurement 35 Chapter 5 Temperature Measurement 53 Chapter 6 Fluid Flow Measurement 71 Chapter 7 Electrical Measurements and Instrumentation 97 Chapter 8 Measuring Properties of Materials 115 Chapter 9 Surface Profile, Friction, and Wear Measurements 137 Chapter 10 Internal Combustion Engine Testing 151 Chapter 11 Computers 159 References 175 Appendix Definitions of Instrument Terms 179 Index 183

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Book SynopsisWritten through the eyes of an engineer, this book offers readers an introduction to the field that looks at how engineers apply science and technology to solve problems facing society. It first focuses on how engineers represent and solve engineering problems and then describes some of the different kinds of mathematical models that are used.Table of ContentsPart I: THE ENGINEERING MINDSET. 1 Engineering and Society. 1.1 Introduction. 1.2 The Engineering Method. 1.3 Networks and Systems. 1.4 Engineering Disciplines and Majors. 1.5 Engineering and Computing. Problems. 2 Organization and Representation of Engineering Systems. 2.1 WhatWe Think About HowWe Think. 2.2 Concept Maps. 2.3 Representation and Design. 2.4 Example:Water Supply for Rural Communities in Developing Nations. Problems. 3 Learning and Problem Solving. 3.1 Introduction. 3.2 Expertise and The Learning Process. 3.3 What Do You Know? Levels of Understanding. 3.4 Getting Good Results from Your Learning Efforts. 3.5 A Framework for Problem Solving. 3.6 How Much CO Does a Typical Passenger Car Produce? 3.7 Planning Larger Projects. 3.8 Heuristics. Problems. Part II MODEL-BASED DESIGN. 4 Laws of Nature and Theoretical Models. 4.1 Engineering Models. 4.2 Evolution of Theory. 4.3 Models of Motion. 4.4 Modeling the "Spring of Air". 4.5 The Birth of the Piston Engine. 4.6 The Science of Thermodynamics. 4.7 Conservation of Mass. 4.8 Analysis Example: The Internal Combustion Engine. 4.9 Design Example: The Handpump. Problems. 5 Data Analysis and Empirical Models. 5.1 Introduction. 5.2 Theory and Data. 5.3 Empirical Models. 5.4 Using Statistics to Quantify Uncertainty. 5.5 Trade Studies: Evaluating Tradeoffs Between Design Variables. Problems. 6 Modeling Interrelationships in Systems: Lightweight Structures. 6.1 Introduction. 6.2 The Statics Perspective. 6.3 The Materials Perspective. 6.4 Putting It All Together. 6.5 Example: A Trade Study of Strength versus Weight in a Truss. Problems. 7 Modeling Interrelationships in Systems: Digital Electronic Circuits. 7.1 Introduction. 7.2 Computing Machines. 7.3 Digital Circuits from the Symbolic and Logical Perspective. 7.4 Digital Circuits from the Electronics Perspective. 7.5 Putting It All Together: Design of an Inverter. Problems. 8 Modeling Change in Systems. 8.1 Introduction. 8.2 Predicting the Future: Accumulation of Change. 8.3 Launching a Softball. 8.4 Running Out of Gas. Problems. Part III PROBLEM SOLVING WITH MATLAB. 9 Getting Started with MATLAB. 9.1 Your First MATLAB Session. 9.2 Examples. Problems. 10 Vector Operations in MATLAB. 10.1 Introduction. 10.2 Basic Operations. 10.3 Simple Two-Dimensional Plots and Graphs. 10.4 Statistics. Problems. 11 Matrix Operations in MATLAB. 11.1 Basic Operations. 11.2 Parameter Sweeps Over Two Variables. 11.3 Plotting 3-Dimensional Data. 11.4 Matrix Arithmetic. 11.5 Solving Systems of Linear Equations. Problems. 12 Introduction to Algorithms and Programming In MATLAB. 12.1 Algorithms, Flow Charts, and Pseudocode. 12.2 MATLAB Functions. 12.3 Conditional Selection Statements. 12.4 Loops or Repetition Statements. 12.5 Examples of Functions, Conditionals, and Loops. 12.6 Accumulation of Change. Problems. Appendix A Problem Solving Process. Appendix B Bloom's Taxonomy: Levels of Understanding. Appendix C Engineering Societies and Professional Organizations. Appendix D Systems of Units. D.1 The SI System. D.2 Non-SI Units and Conversion Factors. Bibliography. Index.

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Book SynopsisThe Second International Conference on Structural Engineering Mechanics and Computation was held in Cape Town, South Africa in 2004. Its mission was 'To review and share the latest developments, and address the challenges that the present and the future pose'.This book contains its key findings with contributions from academics, researchers and practitioners in the broad fields of structural mechanics, associated computation and structural engineering. Their work builds a clear picture of recent achievements in the advancement of knowledge and understanding in these areas. This text therefore covers all aspects of structural mechanics and is broken down into 36 sections which communicate the latest discoveries and developments across the following areas: * vibration, dynamics, impact response, soil-structure interaction and damage mechanics* numerical modeling and computational methods* practical aspects of the analysis, design, and construction of structures - Specific classes of structures such as shells, plates, frames, bridges, buildings, lightweight structures, space structures and foundation structures* a variety of construction materials ranging from the traditional timber, masonry, concrete, steel and glass, to recent innovations encompassing high-performance composites, ceramics, high-strength concrete, fibre-reinforced concrete, stainless steel and smart alloys.The large number of high-quality papers presented and the wide spectrum of relevant topics covered, as well as the great diversity of nationalities represented by the participants, bring the reader up to speed with developments on a global scale.Table of ContentsCommittees of the SEMC 2004 International Conference 1. Keynote papers: Structural damage and lifetime estimates by nonlinear FE simulation; Structural use of aluminium alloys in civil engineering; Structural health monitoring of large-scale bridges: Research & experience 2. Invited papers 3. Industrial shell structures and buckling of shells 4. Laminated composite plates and shells 5. Other plate and shell problems 6. Wind turbine structures 7. Lightweight, space, cable and membrane structures 9. Vibration and dynamic analysis 10. Vibration and seismic control 11. Seismic response of structures & seismic design 12. Structural health monitoring and damage detection 13. Soil-structure interaction 14. Tunnels, retaining walls and foundation structures 15. Loading on structures 16. Structural safety and reliability 17. Structural optimization and computer-aided design 18. Numerical methods, formulations & modelling 19. Composites, ceramics and material modelling 20. Damage mechanics and modelling of materials and solids 21. Plastic analysis and non-linear modelling 22. Impact resistance and crashworthiness 23. Brick and masonry structures 24. Historic structures and structural assessment 25. Timber structures and connections 26. Steel structures (general) and composite construction 27. Steel frames 28. Steel connections 30. Behavior of steel structures in fire 31. Concrete and construction materials 32. Housing, low-cost construction & construction technology 33. High-strength and fibre-reinforced concrete 34. Analysis of concrete structures 35. Design of concrete structures 36. Repair & strengthening of concrete structures & FRP applications

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