Tabla de Contenidos: “…CHAPTER 10: DEVELOPING INTEGRATION COMPETENCIES IN PEOPLE -- 10.1 Introduction -- 10.2 Identifying Integration Competencies -- 10.3 Developing Integration Competencies -- 10.4 Managing Integration Competencies -- 10.5 Summary -- 10.6 Discussion Questions -- 10.7 References -- Additional Resources -- CHAPTER 11: INTEGRATION THROUGHOUT THE PROGRAM LIFE CYCLE -- 11.1 Introduction -- 11.2 Integration and the Generic Life Cycle -- 11.3 Life Cycle Stages for Systems Engineering -- 11.4 Program Management Life Cycle Characteristics -- 11.5 Large‐Scale Infrastructure Programs -- 11.6 Life Cycle Integration -- 11.7 Leadership Styles for the Big Dig's Five Stages of Program Management -- 11.8 Summary -- 11.9 Discussion Questions -- 11.10 References -- Additional Resources -- CHAPTER 12: THE IMPACT OF EFFECTIVE INTEGRATION ON PROGRAM PERFORMANCE -- 12.1 Introduction -- 12.2 Program Performance -- 12.3 Measuring Integration in Programs -- 12.4 Integration as a Catalyst for Program Performance -- 12.5 Case Study: Electronic Support Upgrade for the Royal Australian Navy's Anzac Class Frigate -- 12.6 Summary -- 12.7 Discussion Questions -- 12.8 References -- Endnote -- PART III: DEVELOPING INTEGRATION COMPETENCIES IN YOUR ORGANIZATION -- CHAPTER 13: INTEGRATION MEANS CHANGE -- 13.1 Introduction: The Case for Change -- 13.2 The Need to Be Thoughtful about Change -- 13.3 Frameworks and Models for Change -- 13.4 Readiness Assessment -- 13.5 The Road Ahead and How to Prepare for It -- 13.6 Summary -- 13.7 Discussion Questions -- 13.8 References -- Additional Resources -- CHAPTER 14: SUCCESSFUL CHANGE PROGRAMS THAT IMPROVED INTEGRATION -- 14.1 Introduction -- 14.2 Redefining What Is Possible: The Marriage of Systems Engineering and Program Management at Lockheed Missiles &amp -- Space Company…”

Tabla de Contenidos: “…11 The Role of Cavitation in Creep-Fatigue Interaction -- 11.1 General -- 11.2 Empirical Principles for Development of Creep-Fatigue Damage -- 11.2.1 Fatigue and Creep Damage -- 11.2.2 Loops During Cyclic Loading -- 11.3 Deformation During Cyclic Loading -- 11.3.1 Basic Model for Hysteresis Loops -- 11.3.2 Application of the Cycling Model -- 11.4 Cavitation -- 11.4.1 Nucleation of Cavities -- 11.4.2 Cavity Growth -- 11.5 Summary -- References -- 12 Tertiary Creep -- 12.1 General -- 12.2 Empirical Models for Tertiary Creep and Continuum Damage Mechanics -- 12.2.1 Models for Tertiary Creep -- 12.2.2 Continuum Damage Mechanics (CDM) -- 12.3 Particle Coarsening -- 12.4 Dislocation Strengthening During Tertiary Creep -- 12.4.1 The Role of Substructure During Tertiary Creep -- 12.4.2 Accelerated Recovery Model -- 12.5 Necking -- 12.5.1 Hart's Criterion -- 12.5.2 Use of Omega Model -- 12.5.3 Basic Dislocation Model -- 12.5.4 Multiaxial Stress States -- 12.6 Summary -- References -- 13 Creep Ductility -- 13.1 Introduction -- 13.2 Empirical Ductility Models -- 13.3 Basic Ductility Methods -- 13.3.1 Brittle Rupture -- 13.3.2 Ductile Rupture -- 13.4 The Role of Multiaxiality -- 13.4.1 Diffusion Controlled Growth -- 13.4.2 Strain Controlled Growth -- 13.4.3 Growth Due to Grain Boundary Sliding (GBS) -- 13.4.4 Comparison of Models -- 13.5 Summary -- References -- 14 Extrapolation -- 14.1 Introduction -- 14.2 Empirical Extrapolation Analysis -- 14.2.1 Basic TTP Analysis -- 14.2.2 The ECCC Post-assessment Tests -- 14.2.3 Use of Neural Network (NN) -- 14.3 Error Analysis in Extrapolation -- 14.3.1 Model for Error Analysis -- 14.3.2 Error Analysis with PATs -- 14.3.3 Error Analysis with NN -- 14.4 Basic Modeling of Creep Rupture Curves -- 14.4.1 General -- 14.4.2 Secondary Creep Rate -- 14.4.3 Creep Strain Curves -- 14.4.4 Cavitation -- 14.4.5 Rupture Criteria…”

Tabla de Contenidos: “…-- 1.2 CLASSIFICATION OF SOLIDS -- 1.3 PROPERTIES OF SEMICONDUCTORS -- 1.3.1 Arrangement of Atoms -- 1.3.2 Intrinsic and Doped Semiconductors -- 1.3.3 Carriers in Intrinsic Semiconductors -- 1.3.4 Energy Band Formation -- 1.3.5 Properties of Intrinsic Semiconductors -- 1.3.6 Energy Band Diagrams -- 1.3.7 n-Type and p-Type Semiconductors -- 1.4 WHAT IS THE MOST ABUNDANT ARTIFACT ON EARTH? …”

Tabla de Contenidos: “…13.3 Steady State Space Model of the DC-DC buck Converter -- 13.4 Design Constraints of the DC-DC buck Converter -- 13.5 Results and Discussion -- 13.5.1 Solution Quality -- 13.5.2 Robustness -- 13.6 Conclusions -- References -- 14 A New Modified Iterative Transform Method for Solving Time-fractional Nonlinear Dispersive Korteweg-de Vries Equation -- 14.1 Introduction -- 14.2 Numerical Experiment -- 14.3 Some Preliminaries -- 14.3.1 Basics on Fractional Calculus -- 14.3.2 Conformable Sumudu Transform -- 14.4 Conformable New Iterative Transform Method -- 14.5 Illustrative Example -- 14.6 Conclusion -- Acknowledgments -- References -- 15 Application of Graph Theory in Search of Websites and Web Pages -- 15.1 Introduction -- 15.2 Materials and Methods -- 15.3 Solution Procedure -- 15.4 Results and Discussion -- 15.5 Conclusion -- References -- Index…”

Tabla de Contenidos: “…Business and finance -- 13.5. Summary -- 13.6. Postscript: Psychology -- References -- Chapter 14: Discussion, conclusions, and the future of data -- 14.1. …”

Tabla de Contenidos: “…CONTRAST -- 1.3.4. TOPIC -- 1.3.5. FOCUS -- 1.3.6. EXPRESSIVE AND CONVERSATIONAL TOOL -- 1.4. …”

Tabla de Contenidos: “…-- 12.3 Unternehmerische und unternehmenskulturelle Probleme -- 12.4 Technische Probleme und Probleme des Designprozesses -- 12.5 Furcht vor Over-Engineering‌ -- 12.6 Verbesserung der Abstraktion‌ durch Testen‌ -- 12.7 Die Macht der Abstraktion -- 12.8 Undichte Abstraktionen‌ -- 12.9 Geeignete Abstraktionen auswählen -- 12.10 Abstraktionen in der Anwendungsdomäne -- 12.11 Abstrakte zufällige Komplexität -- 12.12 Systeme und Code von ‌Drittanbietern isolieren -- 12.13 Immer das Verbergen von Informationen bevorzugen -- 12.14 Zusammenfassung -- Kapitel 13: Kopplung handhaben -- 13.1 Kosten von Kopplung -- 13.2 ‌Hochskalieren -- 13.3 Microservices‌ -- 13.4 Entkopplung kann mehr Code bedeuten‌ -- 13.5 Lose Kopplung ist nicht das Einzige, was wichtig ist -- 13.6 Lose Kopplung bevorzugen‌‌ -- 13.7 Wie unterscheidet sich dies von der Trennung von Zuständigkeiten?‌ …”

Tabla de Contenidos: “…8.2 Impulse Response of UWB Channel 219 -- 8.3 Frequency Selective Fading in UWB Channels 226 -- 8.4 Multiple Antenna Techniques 239 -- 8.5 Implications for LTE-A 243 -- 9 Wireless Body Area Network Channels 247 / Rob Edwards, Muhammad Irfan Khattak and Lei Ma -- 9.1 Introduction 247 -- 9.2 Wearable Antennas 249 -- 9.3 Analysis of Antennas Close to Human Skin 251 -- 9.4 A Survey of Popular On-Body Propagation Models 259 -- 9.5 Antenna Implants-Possible Future Trends 263 -- 9.6 Summary 265 -- Part III SIMULATION AND PERFORMANCE -- 10 Ray-Tracing Modeling 271 / Yves Lostanlen and Thomas Kurner -- 10.1 Introduction 271 -- 10.2 Main Physical Phenomena Involved in Propagation 272 -- 10.3 Incorporating the Influence of Vegetation 277 -- 10.4 Ray-Tracing Methods 280 -- 11 Finite-Difference Modeling 293 / Guillaume de la Roche -- 11.1 Introduction 293 -- 11.2 Models for Solving Maxwell's Equations 294 -- 11.3 Practical Use of FD Methods 298 -- 11.4 Results 303 -- 11.5 Perspectives for Finite Difference Models 308 -- 11.6 Summary and Perspectives 314 -- 12 Propagation Models for Wireless Network Planning 317 / Thomas Kurner and Yves Lostanlen -- 12.1 Geographic Data for RNP 317 -- 12.2 Categorization of Propagation Models 322 -- 12.3 Empirical Models 325 -- 12.4 Semi-Empirical Models for Macro Cells 326 -- 12.5 Deterministic Models for Urban Areas 332 -- 12.6 Accuracy of Propagation Models for RNP 339 -- 12.7 Coverage Probability 344 -- 13 System-Level Simulations with the IMT-Advanced Channel Model 349 / Jan Ellenbeck -- 13.1 Introduction 349 -- 13.2 IMT-Advanced Simulation Guidelines 350 -- 13.3 The IMT-Advanced Channel Models 357 -- 13.4 Channel Model Calibration 366 -- 13.5 Link-to-System Modeling for LTE-Advanced 371 -- 13.6 3GPP LTE-Advanced System-Level Simulator Calibration 379 -- 13.7 Summary and Outlook 385 -- 14 Channel Emulators for Emerging Communication Systems 389 / Julian Webber -- 14.1 Introduction 389 -- 14.2 Emulator Systems 390 -- 14.3 Random Number Generation 391.…”

Tabla de Contenidos: “…11.5 Experimental Design of an Adaptively Linearized UMTS Receiver -- 11.6 Experimental Results of an Adaptively Linearized UMTS Receiver -- 11.7 Conclusions -- III TRANSMITTER TECHNIQUES -- 12 Linearity and Efficiency Strategies for Next-Generation Wireless Communications (Lawrence Larson,Peter Asbeck, and Donald Kimball) -- 12.1 Introduction -- 12.2 Power Amplifier Function -- 12.3 Power Amplifier Efficiency Enhancement -- 12.4 Techniques for Linearity Enhancement -- 12.5 Conclusions -- 13 CMOS RF Power Amplifiers for Mobile Communications (Patrick Reynaert) -- 13.1 Introduction -- 13.2 Challenges -- 13.3 Low Supply Voltage -- 13.4 Average Efficiency, Dynamic Range, and Linearity -- 13.5 Polar Modulation -- 13.6 Distortion in a Polar-Modulated Power Amplifier -- 13.7 Design and Implementation of a Polar-Modulated Power Amplifier -- 13.8 Conclusions -- 14 Digitally Assisted RF Architectures: Two Illustrative Designs (Joel L. …”

Tabla de Contenidos: “…11 The Realization of Nanotechnology -- 11.1 Nanospeci cation -- 11.2 Standardization of Nanotechnology -- 11.3 Nanometrology -- 11.4 The Nanometrology Instrument Industry -- References -- Further Reading -- 12 The Business Environment -- 12.1 The Universality of Nanotechnology -- 12.2 The Radical Nature of Nanotechnology -- 12.3 Intellectual Needs -- 12.4 Company-University Collaboration -- 12.5 Clusters -- 12.6 Assessing Demand for Nanotechnology -- 12.6.1 Modeling -- 12.6.2 Judging Innovation Value -- 12.6.3 Anticipating Bene t -- 12.7 Technical and Commercial Readiness (Availability) Levels -- 12.8 Predicting Development Timescales -- 12.9 Patents -- 12.10 Generic Business Models -- 12.11 Why Nanotechnology Companies Often Fail -- References -- Further Reading -- 13 The Fiscal Environment of Nanotechnology -- 13.1 Sources of Funds -- 13.2 Private Investment -- 13.3 Government Funding -- 13.4 Endogenous Funding -- 13.5 Geographical Differences Between Nanotechnology Funding -- References -- Further Reading -- 14 The Safety of Nanofacture and Nanomaterials -- 14.1 Public Perception of the Safety of Nanoproducts -- 14.2 Evaluating Risk -- 14.3 Evaluating the Toxicity of Nanomaterials -- 14.4 Characteristic Features of Nano-Objects -- 14.5 Exposure -- 14.5.1 Occupational Exposure (During Nanofacture) -- 14.5.2 Public Exposure (During Use) -- 14.6 Penetrability and clearance -- 14.7 Hazard -- 14.8 Variability of Individual Response -- 14.9 Risks to Vital Ecosystems -- 14.10 "Natural" Exposure to Nanoparticles -- 14.11 A Rational Basis for Safety Measures -- 14.12 Bow Tie Diagrams -- References -- Further Reading -- 15 Regulation -- References -- Further Reading -- 16 Some Successful and Unsuccessful Nanotechnology Companies -- 16.1 NanoMagnetics -- 16.2 MesoPhotonics -- 16.3 Enact Pharma -- 16.4 Oxonica -- 16.5 NanoCo -- 16.6 Hyperion -- 16.7 CDT…”

Tabla de Contenidos: “…12.6 Small wind ensembles: studio or concert layout -- 13 Wind, brass, and percussion bands -- 13.1 A note about dynamic range and ear protection -- 13.2 Large wind ensembles -- 13.3 Classical brass ensemble -- 13.4 Brass band -- 13.5 Percussion ensembles -- 14 Organ -- 14.1 Brief introduction to the pipe organ -- 14.2 Doing a venue reconnoitre -- 14.3 Microphone choices, stands, and cable runs -- 14.4 Basic technique: straightforward organ layout -- 14.5 Organs with pipe divisions in several locations -- 14.6 Interesting acoustic effects and other awkward corners -- 14.7 Monitoring limitations -- 14.8 Communication: talk microphone -- 14.9 Noise -- 14.10 Electronic organs -- 14.11 Organ with orchestra: overdubbing or simultaneous recording -- 14.12 Organ pitch -- 14.13 Sampled organs -- 15 Choirs -- 15.1 General notes on microphone choice and placement -- 15.2 Choir spacing -- 15.3 Small choir -- 15.4 The choral society -- 15.5 Choral society with soloists and organ in concert -- 15.6 Antiphonal church choir -- 16 Solo voice, orchestra, and choir -- 16.1 Orchestra and choir -- 16.2 Orchestra and choir with stationary soloists -- 16.3 Recording live opera for cinema, DVD, TV, radio, or CD -- 16.4 Recording live opera at the Royal Opera House: microphone set-ups -- 16.5 Mixing opera to 5.1 surround for cinema -- Part III After the recording session -- 17 Mixing -- 17.1 Choosing and blending microphone sources into a static balance -- 17.2 Riding levels on ancillary microphones -- 17.3 Use of EQ and high-pass filters -- 17.4 Use of delays -- 17.5 Reverb: natural and artificial -- 17.6 Riding overall levels -- 18 Editing and post-production -- 18.1 Aims and philosophy of editing -- 18.2 Requirements of a classical editing system -- 18.3 Source-destination editing -- 18.4 Classical post-production workflow…”

Tabla de Contenidos: “…Introduction to Patterns for e-business -- 1.1 Role of the IT architect -- 1.2 The Patterns for e-business layered asset model -- 1.3 How to use the Patterns for e-business -- 1.3.1 Select a Business, Integration, or Composite pattern, or a Custom design -- 1.3.2 Selecting Application patterns -- 1.3.3 Review Runtime patterns -- 1.3.4 Review Product mappings -- 1.3.5 Review guidelines and related links -- 1.4 Summary -- Chapter 2. …”

Tabla de Contenidos: “…UCCnet -- 1.1 The challenge -- 1.2 What is UCCnet -- 1.3 Some important terms -- 1.3.1 GLOBALregistry and Item Registry -- 1.3.2 Global Location Number (GLN) -- 1.3.3 Global Trade Item Number (GTIN) -- 1.3.4 Target Market (TM) -- 1.3.5 UCCnet Key -- 1.4 Current item exchange -- 1.5 UCCnet proposed scenario -- 1.6 UCCnet messages -- 1.6.1 RCIR: Register Catalogue Item Registry -- 1.6.2 CI: Catalogue Item Document -- 1.6.3 CIP: Catalogue Item Publication -- 1.6.4 CIN: Catalogue Item Notification -- 1.6.5 CIC: Catalogue Item Confirmation -- 1.6.6 Query messages -- 1.7 UCCnet message structure -- 1.7.1 Envelope: transport layer -- 1.7.2 Transaction: Command layer -- 1.8 End-to-End flow -- 1.9 Advantage of Item Synchronization -- Chapter 2. …”

Tabla de Contenidos: “…WebSphere Information Integrator Content Edition V8.2.1 architecture -- 1.1 Introduction -- 1.2 WebSphere II Content Edition V8.2.1 architecture -- 1.2.1 Integration services -- 1.2.2 Federation services -- 1.2.3 Developer and end user services -- 1.3 WebSphere II Content Edition services -- 1.3.1 Configuration server -- 1.3.2 Logging server -- 1.3.3 RMI Proxy Connector server -- 1.3.4 Multi-Query Agent server -- 1.3.5 Session Pool server -- 1.3.6 Single Sign-On server -- 1.3.7 Service Monitor Web application -- 1.4 Typical federated query flow -- 1.4.1 Step 1: Provide query parameters -- 1.4.2 Step 2: Access SSO Server -- 1.4.3 Step 3: Access virtual repository or real data source -- 1.4.4 Step 4: Server result set created -- 1.4.5 Step 5: Post processing of server result set -- 1.5 Monitoring tools -- 1.5.1 Operating system -- 1.5.2 WebSphere Application Server -- 1.5.3 WebSphere Information Integrator Content Edition -- Chapter 2. …”

Tabla de Contenidos: “…. -- Replica of Bionic Nepenthes Peristome-like and Anti-Fouling Structures for Self-Driving Water -- and Raman-Enhancing Detection -- Reprinted from: Polymers 2022, 14, 2465, doi:10.3390/polym14122465 107 -- Ming-Ze Gao, Zhong-Yuan Li and Wei-Feng Sun -- Nonlinear Conductivity and Space Charge Characteristics of SiC/Silicone Rubber -- Nanocomposites -- Reprinted from: Polymers 2022, 14, 2726, doi:10.3390/polym14132726 121 -- Yu-Ruei Kung, Jing-Tang Su, Chiung-Cheng Huang, Yaoming Xiao and Jeng-Yu Lin -- Enhanced Thermal Stability of Mesoporous Carbon Microbeads-Based Lithium-Ion Batteries by -- Propargyl Methacrylate as Electrolyte Additive -- Reprinted from: Polymers 2022, 14, 4491, doi:10.3390/polym14214491 135 -- Chen-Hsin Lu, Ming-Ren Cheng, Sheng Chen, Wei-Lin Syu, Ming-Yen Chien and -- Kuan-Syun Wang et al. -- Flexible PDMS-Based SERS Substrates Replicated from Beetle Wings for Water Pollutant -- Detection -- Reprinted from: Polymers 2022, 15, 191, doi:10.3390/polym15010191 149 -- Nguyen-Phuong-Dung Tran, Chuan-Cheng Ting, Chien-Hong Lin and Ming-Chien Yang -- A Novel Approach to Increase the Oxygen Permeability of Soft Contact Lenses by Incorporating -- Silica Sol -- Reprinted from: Polymers 2020, 12, 2087, doi:10.3390/polym12092087 159 -- Yen-Ching Yang, Wei-Shen Huang, Shu-Man Hu, Chao-Wei Huang, Chih-Hao Chiu and -- Hsien-Yeh Chen -- Synergistic and Regulatable Bioremediation Capsules Fabrication Based on Vapor-Phased -- Encapsulation of Bacillus Bacteria and its Regulator by Poly-p-Xylylene -- Reprinted from: Polymers 2020, 13, 41, doi:10.3390/polym13010041 171 -- Chiu-Ming Chen, Shen-Mao Chen, Shiou-Fu Lin, Huang-Chien Liang and Chia-Chun Wu -- Clinical Efficacy of Polycaprolactone -Calcium Triphosphate Composite for Osteoconduction in -- Rabbit Bone Defect Model -- Reprinted from: Polymers 2021, 13, 2552, doi:10.3390/polym13152552 183 -- Carlos Humberto Valencia-Llano, Mois ́es A. …”

Tabla de Contenidos: “…Chapter 13 - Sustainability-focused Innovation13.1 Introduction13.2 Evolving Market Orientation Towards Sustainability - Gen Z 13.3 Sustainability - A New Secular Growth Driver 13.4 Success Stories - Sustainability Focused Innovation 13.4.1 The Procter & Gamble Company (P&G) 13.4.2 Patagonia 13.4.3 Braskem (Brazil)13.4.4 Colorifix (UK) 13.5 Concluding Remarks13.6 References Part VIII - Case StudiesCase 1: Amgen - Biosimilar Innovations - By Kavya Sivan Case 2: FedEx: Innovation Through Sustained Adaptability - By Alaina GregoryCase 3: Reliance Jio: From 4G to Digital Innovation - By Hursh MotwaniCase 4: Stryker Case Study: Design Thinking Response to COVID-19 - By Kyle Geiger Case 5: Whirlpool - A History of Sustained Innovation from Within - By Malik AbbasiCase 6: Apple's Swift: A Programming Language Innovation for the Future - By Maxwell CornellierCase 7: Microsoft: The Age of Nadella - By Serena Wang and Minnie SunCase 8: The Procter & Gamble Company - A Unique Innovation Approach - By Minnie Sun and Serena WangCase 9: Timberland - Sustainable Innovation - By Drew ArnsonCase 10: Zara-Inditex - Fast-Fashion Done Right - By Rocco PelàCase 11: Patagonia - Leader of a Sustainable Business - By Suzanna Yik Case 12: Amazon - Head in the Cloud: Transformation Through Leadership's Lens - By William McCroneCase 13: Ericsson's Innovation through M&A - By Derek KuoCase 14: Samsung's New Age Innovation Using Organization and Culture - By Derek KuoCase 15: Sun Pharma Industries - Innovation through Specialty acquisition strategy, technology, leadership, and culture - By Katie KuhlmanCase 16: Ecovative Design - Sustainable Business - By Daniel Meeks…”

Tabla de Contenidos: “…Importance of food quality analysis in relation to food safety and human health and COVID-19 in particular -- 1.1 Introduction -- 1.2 Importance of food quality analysis -- 1.3 Compositional analysis of foods -- 1.3.1 Moisture analysis -- 1.3.2 Fat analysis -- 1.3.3 Protein analysis -- 1.3.4 Carbohydrate analysis -- 1.3.5 Vitamin analysis -- 1.3.6 Mineral analysis -- 1.4 Chemical analysis of foods -- 1.4.1 pH analysis -- 1.4.2 Enzyme analysis -- 1.4.3 Food contaminants analysis -- 1.4.3.1 Pesticide analysis -- 1.4.3.2 Mycotoxin analysis -- 1.5 Importance of food analysis in relation to COVID-19 -- 1.5.1 Food safety management in COVID-19 era -- 1.5.2 SARS-CoV-2 virus analysis -- 1.6 Future prospects -- 1.7 Conclusions -- References -- 2. …”

Tabla de Contenidos: “…13.4 Four Investigation Priorities -- Gastropod Molluscs -- Nematode Worms -- Spiders -- Insect Larvae -- 13.5 Neither Sentience Candidates nor Investigation Priorities: Plants and Unicellular Organisms -- 13.6 Summary of Chapter 13 -- 14: Frontiers of Proportionality -- 14.1 Taking Invertebrates Seriously -- 14.2 Codes of Good Practice and Licensing Schemes -- 14.3 Against Octopus Farming -- 14.4 Towards Humane Slaughter -- 14.5 Summary of Chapter 14 -- Part V: Preparing for Artificial Sentience -- 15: Against Complacency -- 15.1 A Case against Complacency -- 15.2 Sources of Risk 1: Whole-Brain Emulation -- 15.3 Sources of Risk 2: Artificial Evolution -- 15.4 Sources of Risk 3: Minimal Implementations of Cognitive Theories of Consciousness -- 15.5 Summary of Chapter 15 -- 16: Large Language Models and the Gaming Problem -- 16.1 The Gaming Problem: When the System Knows the Criteria -- 16.2 Boxing the AI: Schneider and Turner's 'Artificial Consciousness Test' -- 16.3 The Need for Deep Computational Markers -- 16.4 Summary of Chapter 16 -- 17: The Run-Ahead Principle -- 17.1 Metzinger's Call for a Moratorium -- 17.2 A Moderate Alternative -- 17.3 Will We Soon Need an AI Welfare Law? …”

Tabla de Contenidos: “…Introduction, p.7; Aino Aalto, p.14; Rand Abdul Jabbar, p.15; Susi Aczel, p.16; Lindsey Adelman, p.17; Lani Adeoye, p.18; Ruth Adler Schnee, p.19; Anni Albers, p.20; Kawther Alsaffar, p.21; Jeannette Altherr, p.22; Karin Schou Andersen, p.23; Joyce Anderson, p.24; Carina Seth Andersson, p.25; Wendy Andreu, p.26; Antonia Astori, p.37; Jane Atfield, p.38; Gae Aulenti, p.29; Tamoko Azumi, p.30; Cleo Baldon, p.31; Lucia Bartolini, p.32; Stephanie Beamer, Crystal Ellis & Hillary Petrie, p.33; Dorothee Becker, p.34; Liisi Beckmann, p.35; Martine Bedin, p.36; Vivian Beer, p.37; Mercedes “Ched” Berenguer-Topacio, p. 38; Otti Berger, p.39; Susi Berger, p.40; Laelie Berzon & Lisa Vincitorio, p. 42; Nikita Bhate, p.43; Ilaria Bianchi, p. 44; Ayse Birsel, p.45; Aída Boal, p.47; Lina Bo Bardi, p.48; Cini Boeri, p.50; Hedwing Bollhagen, p.51; Marianne Brandt, p.52; Bec Brittain, p.53; Gegia Bronzini, p.54; Barbara Brown, p.55; Maria Bruun , p.56; Rachel Bullock & Molly Purnell, p.57; Marie Burgos, p.58; Louise Campbell, p.58; Gloria Caranica, p.60; Etel Carmona, p.61; Maddalena Casadei, p. 62; Anna Castelli Ferrieri, p.63; Carol Catalano, p.64 Jungyou Choi, p.65; Maria Chomentowska, p.66; Karen Clemmensen, p.67; Muriel Coleman, p.68; Kim Colin, p.69; Janete Costa, p.70; Matali Crasset, p.71; Ilse Crawford, p.72; Gabriella Crespi, p. 74; Raffaella Crespi, p.75; Veronica Dagnert & Helena Jonasson, p.76; Lucienne Day, p.77; Nada Debs, p.78; Qiyun Deng, p.79; Marie Dessuant, p.80; Freda Diamond, p.82; Friedl Dicker-Brandeis, p.84; Jane Dillon, p.85; Aïssa Dione, p.86; Nanna Ditzel, p.87; Helen Dryden, p.88; Helen Hughes Dulany, p.89; Nathalie Du Pasquier, p.90; Ray Eames, p.92; Kiki Van Eijk, p.94; Yeşim Eröktem, p. 95; Lisa Ertel, p.96; Felicia Ferrone , p.98; Andrea Flores & Lucía Soto, p.99; Marisa Forlani, p.100; Monica Förster, p.101; Carol Gay, p.102; Marion Geller, p.103; Ruth Hidegard Geyer-Raack, p.104; Emiliana Gonzalez & Jessie Young, p.105; Anne Krohn Graham, p.106; Johanna Grawunder, p.107; Eileen Gray, p.108; Rachel Griffin, p.110; Greta Grossman, p.111; Zaha Hadid , p.112; Virgina Hamill, p.114; Ineke Hans, p.115; Eszter Haraszty, p.116; Trix Haussmann, p. 117; Mette Hay, p. 118; Edith Heath, p. 119; Franca Helg, p. 120; Margarete Heymann-Löbenstein, p. 121; Franziska Hosken, p. 122, Rossana Hu, p. 123; Marialaura Rossiello Irvine, p. 124; Shinobu Ito, p. 125; Sophie Lou Jacobsen & Sarita Posada, p. 126; Grete Jalk, p. 127; Nata Janberidze & Keti Toloraia, p. 128; Ania Jaworska, p. 129; Hilda Jesse-Schmid, p. 130; Lisa Johansson-Pape, p. 131; Hella Jongerius, p. 132; Merve Kahraman, p. 134; Ilonka Karasz, p.135; Anna Karlin, p. 136; Bodil Kjær, p.137; Florence Knoll, p.138; Belle Kohan, p.139; Lucie Koldová, p.140; Ana Kraš, p.141; Teresa Kruszewska, p.142; Agata Kulik-Pomorska, p.143; Sofia Lagerkvist & Anna Lindgren, p.144; Claude Lalanne, p.145; Elisabeth Eyre de Lanux, p.146; Francesca Fanzavecchia, p.148; Estelle Laverne, p.149; Monling Lee, p.150; Olga Lee, p.151; Geke Lensink, p.152; Rosie Li, p.153; Francesca Lindh, p.154; Aljoud Lootah, p.155; Althea McNish, p.156; India Mahdavi, p.157; Rianne Makkink, p.158; Cecile Manz, p.159; Sabine Marcelis, p.160; Grethe Meyer, p.162; Hikaru Mori, p.163; Renate Müller, p.164; Ignacia Murtagh, p.165; Mira Nakashima, p.166; Paola Navone, p.167; Greta von Nessen, p.168; Stephanie Ng, p.169; Anna Maria Niemeyer, p.170; Libuše Niklová, p.172; Dina Nur Satti, p.173; Gunnel Nyman, p.174; Moyo Ogunseinde, p.175; Jay Sae Jung Oh, p.176; Ann Pamintuan, p.177; Luisa Parisi, p.178; Tamara Pérez, p.179; Maria Pergay, p.180; Charlotte Perriand, p.181; Clara Porset, p.182; Andrée Putman, p.183; Ingegerd Råman, p.184; Mary Ratcliffe, p.185; Samira Rathod, p.186; Noémi Raymond, p.187; Lilly Reich, p.188; Margaretha Reichardt, p.189; Sylvia Reid, p.190; Coco Reynolds, p. 191; Lucie Rie, p.192; Estefanía de Ros, p.193; Pipsan Saarinen-Swanson, p.194; Latifa Saeed, p.195; Mentalla Said & Jumana Taha, p.196; Clauda Moreira Salles, p.197; Maria Sanchez, p.198; Cynthia Sargent, p.199; Afra Scarpa, p.200; Bertha Schaefer, p.201; Zahara Schatz, p.202; Margarete Schütte-Lihotzky, p.203; Emma Schweinberger, p.204; Denise Scott Brown, p.205; Kazuyo Sejima, p.206; Inga Sempé, p.208; Mia Senekal, p.209; Mimi Shodeinde, p.210; Alma Siedhoff-Buscher, p.211; Jutta Sika, p.212; Trudi Sitterle, p.213; Alison Smithson, p.214; Sylvia Stave, p.215; Nanny Still, p.216; Gunta Stölzl, p.217; Marianne Straub, p.218; Marianne Strengell, p.219; Saša Štucin, p.220; Claudia Suarez Ahedo, p.221, Hiroko Takeda, p.222; Reiko Tanabe, p.223; Jacqueline Terpins, p.224; Faye Toogood, p.226; Helena Tynell, p.227; Patricia Urquiola, p.228; Mpho Vackier, p.229; Garance Vallée, p.230; Ionna Vautrin, p.131; Lella Vignelli, p.232; Nanda Vigo, p.233; Hisako Watanabe, p.234; Chen-Yen Wei, p.235; Donna Wilson, p.236; Esther Wood, p.237; Sohyun Yun, p.238; Utharaa Zacharias, p.239; Eva Zeisel, p.240; Sandrine Ébène de Zorzi, p.241; Timeline, p.244; Endnotes, p.256; Index, p.258…”

“…Basado en las entrevistas del autor a 135 productores de televisión para niños de 65 países, el libro analiza el papel que juega la televisión en las vidas de los jóvenes, y en concreto en el desarrollo de la identidad de género…”