Daniel Inocente

Space Architecture (eBook, ePUB)

Principles, Challenges, and Innovations

• Format: ePub

Produktbeschreibung

An exciting and authoritative discussion of the latest advances in the technology required for space travel and space exploration

In Space Architecture: Principles, Challenges, and Innovations, experienced architect and designer Daniel Inocente delivers a comprehensive exploration of the design and development of habitats and infrastructure required to support human life in space. The book offers readers a thorough description of the principles, challenges, and solutions currently animating discussions in this emerging field.

Beginning with an introduction that establishes the central importance of space architecture, Inocente explains the interdisciplinary nature of the field and demonstrates how integrated knowledge from engineering, architecture, environmental science, and psychology are coming together to build a spacefaring future for humanity.

Readers will also find:

• A thorough introduction to space habitat design, including discussions of pre-integrated, prefabricated, and in-situ derived habitats
• Comprehensive explorations of the environmental challenges posed by space and space travel, including microgravity, extreme temperatures, vacuum, and ionizing radiation
• Practical discussions of space destinations, like low-earth orbit, deep space, moons, and planets
• Complete treatments of mobility architecture, including surface mobility systems and lunar terrain vehicles

Perfect for both architecture and aerospace professionals, Space Architecture: Principles, Challenges, and Innovations will also benefit researchers with an interest in space architecture, students of architecture, aerospace engineering, or space studies, and laypeople enthusiastic about space travel and space exploration.

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Produktdetails

• Verlag: John Wiley & Sons
• Seitenzahl: 989
• Erscheinungstermin: 22. September 2025
• Englisch
• ISBN-13: 9781394318117
• Artikelnr.: 75518708

Autorenporträt

Daniel Inocente is a licensed architect and founder of Daniel Inocente Architecture (DIA), based in New York. He also serves as Professor of Practice in Architecture and Space Architecture at Arizona State University, where he leads design studios and technical seminars. Daniel brings a multidisciplinary approach to architecture, combining design innovation with technical expertise across a wide range of building types and scales.

Daniel's work reflects a modern, forward-thinking approach shaped by global experience across multiple sectors, including high-rise, cultural, residential, and transportation projects. Prior to founding DIA, he held senior roles on major international commissions, contributing to large-scale developments in North America, Europe, the Middle East, and Asia.

His professional career includes building partnerships with ESA, MIT, and universities, as well as working for NASA and as a Senior Space Architect at Blue Origin, where he brought architectural thinking to the design of next-generation habitats, mobility systems, and off-world infrastructure. Across all endeavors, Daniel approaches architecture as a synthesis of engineering, design, and human experience, seeking to create environments that are at once visionary and deeply responsive to context.

Inhaltsangabe

Foreword xiii
Preface xv
Introduction xvii
Space Architecture xviii
Chapter 1: Intro to Space Habitat Design 1
1.1 The Importance of Habitat Design in Space Missions 1
1.2 Pre- Integrated Habitats 3
1.3 Prefabricated Habitats 4
1.4 In Situ- Derived Habitats 6
1.5 Integration of Habitat Design Elements 7
1.6 Future Directions in Space Habitat Design 8
References 9
Chapter 2: Understanding Environmental Constraints 11
2.1 Environmental Constraints 11
2.2 The Human Element 12
2.3 Microgravity 13
2.4 Extreme Temperatures 14
2.5 Vacuum 15
2.6 Ionizing Radiation 16
2.7 GCR and SPE Radiation 17
2.8 Debris and Micrometeoroids 18
2.9 Terrain and Geology 19
2.10 Dust Mitigation 21
2.11 Long- Term Sustainability 22
2.12 Life Support Systems 23
2.13 Structural Resilience 24
2.14 Modular Design and Scalability 25
2.15 Energy Systems 26
2.16 Communication Systems 27
References 28
Chapter 3: Understanding Space Habitation 31
3.1 Key Considerations in Habitat Design 31
3.1.1 Structural Integrity and Modularity 31
3.1.2 Thermal Regulation 32
3.1.3 Radiation Protection 32
3.1.4 Environmental Control and Life Support Systems (eclss) 32
3.2 Human Factors in Habitat Design 33
3.2.1 Ergonomics and Space Utilization 33
3.2.2 Psychological Well- Being 33
3.2.3 Cultural and Social Dynamics 33
3.3 Sustainability and Resource Utilization 34
3.3.1 In Situ Resource Utilization (ISRU) 34
3.3.2 Renewable Energy Integration 35
3.3.3 Closed- Loop Systems 35
References 35
Chapter 4: Space Habitat Design 37
4.1 Overview of the Design Process 37
4.2 Conception and Initial Design 38
4.2.1 Mission Objectives and Requirements Gathering 38
4.2.2 Environmental Analysis and Site Selection 39
4.2.3 Concept Exploration and Ideation 39
4.2.4 Feasibility Studies and Trade- Off Analysis 39
4.3 Detailed Planning and System Integration 40
4.3.1 Architectural Design and Layout 40
4.3.2 System Integration for Habitat Functionality 40
4.3.3 Redundancy and Safety 40
4.3.4 Human Factors and Ergonomic Considerations 40
4.4 Systems Engineering and Material Selection 41
4.4.1 Material Selection for Structural Resilience 41
4.4.2 Radiation Shielding and Thermal Management 41
4.4.3 Adaptability and Sustainability 41
4.5 Prototyping, Testing, and Iteration 41
4.5.1 Prototyping for Design Validation 41
4.5.2 Testing in Simulated Space Environments 42
4.5.3 Iteration and Design Refinement 42
4.5.4 Integration Testing for Seamless Operation 43
4.6 Human in the Loop Testing 43
4.6.1 Principles of Human- inthe- Loop Testing (HITL) 43
4.6.2 Case Studies in HITL Testing 43
4.6.3 Benefits of HITL Testing 44
4.6.4 Challenges in HITL Testing 44
4.7 Manufacturing, Assembly, and Deployment 44
4.7.1 Precision in Manufacturing and Quality Control 44
4.7.2 Challenges in Assembly 44
4.7.3 Deployment Strategies 45
4.7.4 Sustainability Through in Situ Resource Utilization (isru) 45
References 46
Chapter 5: Destinations 47
5.1 Microgravity Environments 49
5.2 Low- Earth Orbit 50
5.3 Deep Space 52
5.4 Moon 53
5.5 Moon's Equatorial Regions 54
5.6 Moon's Polar Regions 55
5.7 Mars 57
5.8 Mars Equatorial Regions 58
5.9 Mars Polar Regions 60
5.10 Asteroids and Beyond 61
References 62
Chapter 6: Transportation 65
6.1 Launching Systems 65
6.2 Space Tug 67
6.3 Landers 68
6.4 Launch Scenarios 69
6.5 Orbital Refueling Systems 71
References 72
Chapter 7: Infrastructure 73
7.1 Launch Facilities 73
7.2 Mission Control 75
7.3 Power 75
7.4 Radiators 76
7.5 Pressurized Mobility 78
7.6 EVA Vehicles 79
7.7 Logistics 80
7.8 In Situ Resource Utilization 81
7.9 Communications 83
7.10 Crew Transport 84
References 85
Chapter 8: Identifying Habitat Architecture Requirements 87
8.1 Mission System Architecture 87
8.1.1 Concept of Operations 92
8.1.2 Mission Phases 94
8.1.3 Mission Components 97
8.2 Habitat Features 100
8.2.1 Galley and Food Systems 103
8.2.2 Waste Collections and Hygiene 104
8.2.2.1 Waste Management Systems 104
8.2.2.2 Hygiene Systems 104
8.2.2.3 Sustainable Hygiene Practices 105
8.2.2.4 Integration and Adaptability 105
8.2.3 Sleep Accommodation, Health, and Clothing 105
8.2.3.1 Sleep Accommodation 105
8.2.3.2 Health Monitoring and Support Systems 106
8.2.3.3 Clothing 106
8.2.3.4 Integration and Future Directions 107
8.2.4 Operational Supplies and Maintenance 107
8.2.4.1 Inventory and Supply Management 107
8.2.4.2 Maintenance and Repair Systems 108
8.2.4.3 Waste Management Integration 108
8.2.4.4 Future Directions 109
8.2.5 Work and Science Stations 109
8.2.5.1 Ergonomic and Modular Design 110
8.2.5.2 Integration of Scientific Equipment 110
8.2.6 Teleoperations 111
8.2.6.1 Remote Robotic Operations 111
8.2.6.2 Ground- Based Teleoperations 112
8.2.6.3 Integration with Habitat Systems 112
8.2.6.4 Advancements in Autonomy and Haptics 112
8.2.6.5 Applications for Planetary Exploration 113
8.2.7 Exercise 113
8.2.7.1 Advanced Exercise Equipment 113
8.2.7.2 Enhancing Motivation and Mental Engagement 114
8.2.7.3 Environmental Integration 114
8.2.8 Airlocks 115
8.2.9 Windows 116
8.2.10 Doors 116
8.3 Thermal Management Systems 118
8.3.1 Passive Thermal Control Methods 118
8.3.2 Active Thermal Control Methods 118
8.3.3 Passive and Active Thermal Control Methods 119
8.3.4 Thermal Insulation Materials 122
8.4 Power Generation and Distribution Systems 123
8.4.1 Solar Panels 124
8.4.2 Energy Storage Solutions 125
8 4 2 .1 L I T H I U M - I O N Batteries 125
8.4.2.2 Solid- State Batteries 125
8.4.2.3 Regenerative Fuel Cells 126
8.4.3 Nuclear Power Systems 126
8.5 Environmental Control and Life Support Systems 127
8.5.1 Air Revitalization 128
8.5.2 Water Recycling 129
8.5.3 Waste Management 130
8.5.4 Advanced Life Support and Closed Loop 132
8.5.5 Food Production 133
8.6 Volume Requirements and Layout Planning 134
8.6.1 NASA Standards for Habitable Volume 135
8.6.2 Multifunctional Spaces 136
8.6.3 Compact Storage Systems 136
8.6.4 Circulation Pathways 136
8.6.5 Modular and Scalable Design 137
8.6.6 Habitability Factors 138
8.6.6.1 Privacy and Personal Space 138
8.6.6.2 Natural Lighting and Aesthetics 138
8.6.6.3 Recreational and Social Spaces 139
8.6.6.4 Environmental Quality 139
8.6.6.5 Psychological and Social Factors 140
8.6.7 Functional Colocation 140
8.7 Environmental Protection 142
8.7.1 Micrometeoroids and Orbital Debris (MMOD) Protection 143
8.7.2 Window Protection 145
8.7.3 Instrument and Critical Element Protection 147
8.7.3.1 Thermal Protection 147
8.7.3.2 Radiation Shielding 147
8.7.3.3 Impact Protection 148
8.7.3.4 Monitoring and Diagnostics 148
8.8 Structures 149
8.8.1 Rigid Pressure Vessels 149
8.8.2 Soft Goods and Inflatable Structures 150
8.8.3 Composites in Structural Applications 150
8.8.4 Additive Manufacturing for Space Structures 151
8.8.5 Rigid Pressure Vessels 151
8.8.6 Soft Goods 152
8.8.7 Composites 154
8.8.8 Additive Manufacturing 156
8.8.9 Structural Penetrations 157
8.8.9.1 Types of Structural Penetrations 158
8.8.9.2 Design and Material Considerations 158
8.8.9.3 Ensuring Pressure Integrity and Safety 158
8.8.9.4 Real- Time Monitoring and Maintenance 159
8.8.9.5 Applications and Future Innovations 159
8.9 Mechanisms 160
8.9.1 Deployable Systems 162
8.9.2 Floor Structures 163
8.9.3 Hatches 165
8.10 Guidance, Navigation, and Control (GNC) 167
8.11 Radiation 169
8.11.1 Radiation Effects on Humans 172
8.11.1.1 DNA Damage and Cancer Risks 172
8.11.1.2 Central Nervous System (CNS) Impacts 173
8.11.1.3 Cardiovascular Risks 173
8.11.1.4 Bone Marrow and Hematopoietic Effects 174
8.11.2 Radiation Dose Limits and Shielding Requirements 174
8.11.3 Radiation Analysis 177
8.12 Extravehicular Activity (EVA) 178
8.12.1 Operational Challenges 179
8.12.2 Advancements in EVA Technology 180
8.12.3 Training and Preparation 180
8.13 Intra- Vehicular Activity (IVA) 181
References 184
Chapter 9: Defining Habitat Functional Design Features 189
9.1 Structural Design and Material Selection 190
9.1.1 Lightweight and High- Strength Materials 191
9.1.2 Innovative Sandwich Materials 192
9.1. 2 .1 H I G H -s T R E N G T H Fibers 193
9.1.2.2 Bioinspired and Biomimetic Materials 194
9.1.3 Structural Integrity in Microgravity 194
9.1.3.1 Flexible and Adaptive Structures 195
9.1.3.2 Structural Health and Monitoring Systems 196
9.2 Interior Layout and Configuration 197
9.2.1 Ergonomics 198
9.2.2 Storage Solutions 201
9.2.2.1 Modular Storage Systems 201
9.2.2.2 Multifunctional Furniture 202
9.2.2.3 Automated Storage Management 202
9.2.3 Crew Comfort and Well- Being 203
9.2.3.1 Functional Layout and Ergonomics 203
9.3 Deployment Mechanisms and Interfaces 206
9.3.1 Airlock Design 207
9.3.1.1 Advanced Airlock Types 207
9.3.2 Entry and Exit System 209
9.4 Radiation Protection Strategies 212
9.4.1 Shielding Materials 214
9.4.1.1 Polyethylene and Other Hydrogen- Rich Materials 214
9.4.1.2 Water as a Shielding Material 214
9.4.2 Layout Optimization for Radiation Protection 217
9.5 Interfaces and Controls 218
9.5.1 Human-Computer Interaction 219
9.5.2 Control Systems Integration 220
References 222
Chapter 10: Geometry and Spatial Design 227
10.1 Optimization of Space Utilization 227
10.1.1 Maximizing Usable Space in Habitats 230
10.1.2 Innovative Storage Solutions 231
10.2 Geometric Considerations for Habitability 233
10.2.1 The Impact of Shapes on Human Psychology 234
10.2.2 Cylindrical, Spherical, and Other Geometries in Habitat Design 236
10.3 Spatial Arrangement for Efficiency 238
10.3.1 Functional Zoning in Space Habitats 238
10.3.2 Designing for Movement and Flow 240
References 242
Chapter 11: Human Factors and Crew Systems 245
11.1 Crew Psychosocial Dynamics 247
11.2 Crew Interaction Spaces 248
11.3 Personal Space and Privacy Considerations 250
11.4 Exercise in Space 252
11.4.1 Important of Physical Activity 252
11.4.2 Exercise Equipment Design 254
11.5 Safety Protocols and Emergency Procedures 258
11.5.1 Contingency Planning 260
11.5.2 Fire Suppression Systems 263
11.6 Human- Centered Design Principles 266
11.6.1 Human- Machine Interfaces 267
11.6.2 Psychological Support Systems 267
11.7 Lighting and Environmental Enhancements 268
11.7.1 Circadian Rhythm Regulation 269
11.7.2 Virtual Windows and Natural Light Simulation 270
11.7.3 Electrical Lighting 273
11.8 Windows and Views 275
11.8.1 Psychological Impact of Views 276
11.8.2 Structural Considerations for Windows 277
References 280
Chapter 12: Galley, Food Storage, and Preparation 285
12.1 Food Preservation Techniques 286
12.1.1 Advanced Freezing and Drying Methods 287
12.1.2 Radiation for Food Sterilization 289
12.2 Meal Preparation in Microgravity 291
12.2.1 Cooking Technologies for Space 292
12.2.2 Packaging and Waste Management 294
12.3 Storage Solutions for Long- Duration Missions 296
12.3.1 Innovative Foods Storage Systems 296
References 297
Chapter 13: Mobility Architecture 301
13.1 Mobility Solutions 303
13.1.1 Surface Mobility Systems 304
13.1.1.1 Chassis and Structure 304
13.1.1.2 Power and Storage 309
13.1.1.3 Thermal Management 314
13.1.1.4 Wheels and Suspension 315
13.1.1.5 Avionics and Comms 318
13.1.1.6 Science Instruments and Robotics 320
13.1.1.7 Cameras and Lidar 325
13.1.1.8 EVA Suits and Crew Systems 327
13 .1.1. 9 M U L T I - G R a V I T Y Docking and Utilities Transfer 329
13.1.2 Lunar Terrain Vehicles (LTVs) 331
13.1.3 Pressurized Vehicles 331
13.1.4 Science Rovers 332
13.1.5 Logistics Vehicles 333
13.1.6 Surface Construction Vehicles 334
References 335
Chapter 14: Resource Management Technologies 341
14.1 Closed- Loop Life Support Systems 342
14.2 Resource Recycling and Reuse 346
14.2.1 Water Recovery and Management 346
14.2.2 Carbon Dioxide Recycling and Oxygen Production 349
14.2.3 Solid Waste Processing Techniques 351
14.3 Energy Efficiency Measures 354
14.3.1 Solar Energy Utilization Strategies 354
14.3.2 Thermal Energy Management for Efficiency 357
14.3.3 Energy Conservation Technologies and Practices 359
References 361
Chapter 15: Manufacturability and Assembly 367
15.1 Design for Manufacturing Principles 367
15.1.1 Reducing Complexity in Space Habitat Manufacture 368
15.1.2 Material Selection for Easier Manufacturing 372
15.2 In- Space Assembly Techniques 374
15.2.1 Robotic Assembly in Space 376
15.2.2 Human- Robot Collaboration for Construction 378
15.3 Modular Construction Approaches 379
15.3.1 Benefits of Modular Design in Space 381
15.3.2 Case Studies: Modular Structures on the ISS 382
References 387
Chapter 16: Advanced Materials and Technologies 391
16.1 Additive Manufacturing Techniques 393
16.1.1 3D Printing in Low Gravity: Methods and Materials 394
16.1.2 In Situ Resource Utilization (ISRU) for On- Demand Manufacturing 396
16.1.3 The Future of Additive Manufacturing in Space Construction 398
16.2 Smart Materials for Adaptive Systems 400
16.2.1 Self- Healing Materials for Damage Control 400
16.2.2 Shape Memory Alloys for Morphing Structures 402
16.2.3 Response Materials for Environmental Adaptation 403
16.3 Advanced Radiation Shielding Materials 405
16.3.1 New Developments in Radiation Shielding Technologies 406
16.3.2 Comparing Traditional and Emerging Materials for Radiation
Protection 408
16.3.3 Incorporating Shielding Materials into Habitat Design 410
References 412
Chapter 17: Infrastructure and Master Planning 419
17.1 Site Selection Criteria 419
17.1.1 Geological Stability 422
17.1.2 Access to Resources 424
17.2 Infrastructure Development 425
17.2.1 Power Generation and Distribution Networks 428
17.2.2 Communication Systems 430
17.3 Habitability Considerations 432
17.3.1 Lunar Dust Mitigation 433
17.3.2 Radiation Exposure Management 434
17.4 Integration with Lunar Environment 436
17.4.1 In Situ Resource Utilization 437
References 439
Chapter 18: Regulatory Compliance and Ethical Standards 445
18.1 International Space Law 447
18.1.1 Treaty on Principles Governing the Activities of States in the
Exploration and Use of Outer Space 449
18.1.2 Registration and Liability for Space Objects 451
18.1.3 The Legal Status of Astronauts 453
18.2 Ethical Considerations in Space Exploration 454
18.2.1 Planetary Protection and Contamination 455
18.2.2 The Ethics of Terraforming and Planetary Modification 456
18.3 Safety And Risk Management Protocols 458
18.3.1 Risk Assessment in Space Missions 459
18.3.2 Designing for Safety: Best Practices and Case Studies 462
18.3.3 Emergency Preparedness and Response in Space Environments 464
References 469
Chapter 19: Future Trends and Developments 475
19.1 Innovations in Space Habitat Design 477
19.1.1 Biomimicry in Space Architecture 477
19.1.2 Smart Habitats: Integrating AI and IoT 480
19.2 Next- Generation Space Habitats 482
19.2.1 Concepts for Deep Space Habitats 483
19.2.2 Expandable and Adaptive Habitat Technologies 487
19.3 Trends in Interplanetary Habitats 489
19.3.1 Mars Habitat Design and Challenges 491
References 493
Chapter 20: Conclusion 497
Glossary 503
Index 509