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  • Formaat: 246 pages
  • Ilmumisaeg: 26-Feb-2013
  • Kirjastus: National Academies Press
  • Keel: eng
  • ISBN-13: 9780309278256

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For thousands of years, the underground has provided humans refuge, useful resources, physical support for surface structures, and a place for spiritual or artistic expression. More recently, many urban services have been placed underground. Over this time, humans have rarely considered how underground space can contribute to or be engineered to maximize its contribution to the sustainability of society. As human activities begin to change the planet and population struggle to maintain satisfactory standards of living, placing new infrastructure and related facilities underground may be the most successful way to encourage or support the redirection of urban development into sustainable patterns. Well maintained, resilient, and adequately performing underground infrastructure, therefore, becomes an essential part of sustainability, but much remains to be learned about improving the sustainability of underground infrastructure itself.



At the request of the National Science Foundation (NSF), the National Research Council (NRC) conducted a study to consider sustainable underground development in the urban environment, to identify research needed to maximize opportunities for using underground space, and to enhance understanding among the public and technical communities of the role of underground engineering in urban sustainability.



Underground Engineering for Sustainable Urban Development explains the findings of researchers and practitioners with expertise in geotechnical engineering, underground design and construction, trenchless technologies, risk assessment, visualization techniques for geotechnical applications, sustainable infrastructure development, life cycle assessment, infrastructure policy and planning, and fire prevention, safety and ventilation in the underground. This report is intended to inform a future research track and will be of interest to a broad audience including those in the private and public sectors engaged in urban and facility planning and design, underground construction, and safety and security.

Table of Contents



Front Matter Summary 1 Introduction 2 The Evolution of and Factors Affecting Underground Development 3 Contributions of Underground Engineering to Sustainable and Resilient Urban Development 4 Health and Safety Underground 5 Lifecycle Sustainability, Costs, and Benefits of Underground Infrastructure Development 6 Innovative Underground Technology and Engineering for Sustainable Development 7 Institutional, Educational, Research, and Workforce Capacity Appendixes Appendix A: Committee and Staff Biographies Appendix B: Open Session Meeting Agendas Appendix C: Interdisciplinary Underground Engineering Practice
Summary 1(16)
1 Introduction
17(20)
Defining Underground Infrastructure
19(1)
Sustainability
20(3)
Hazard and Risk
23(1)
A Brief History of Underground Occupation
23(6)
Potential Benefits and Challenges Associated with Developing Underground Space
29(3)
Human Factors Affecting Underground Development
32(1)
Report Organization
33(1)
References
34(3)
2 THE EVOLUTION OF AND FACTORS AFFECTING UNDERGROUND DEVELOPMENT
37(30)
Expansion of the Underground in the Past Century
38(1)
Engineering the Underground for Sustainability
39(3)
Policy, Economic, and Human Behavioral Drivers that Influence Decision Making
42(7)
Cross-Systems Interdependencies
49(4)
Consequences of Incomplete Planning
53(4)
Planning and Governance for Sustainability
57(3)
Long-Term Management of the Underground
60(1)
References
61(6)
3 CONTRIBUTIONS OF UNDERGROUND ENGINEERING TO SUSTAINABLE AND RESILIENT URBAN DEVELOPMENT
67(38)
The Broad View: The Urban Setting as a System of Systems
68(19)
Hazards, Security, and Resilience of Urban Areas
87(11)
References
98(7)
4 HEALTH AND SAFETY UNDERGROUND
105(20)
Human Factor Engineering
106(2)
Managing Safety through Regulation
108(2)
Hazards to Human Health
110(2)
Security from Violence
112(4)
International Underground Tunnel Safety Codes
116(1)
Emergency Response Challenges
117(4)
Increasing Comfort and Maximizing Safety
121(1)
References
121(4)
5 LIFECYCLE SUSTAINABILITY, COSTS, AND BENEFITS OF UNDERGROUND INFRASTRUCTURE DEVELOPMENT
125(20)
Lifecycle Sustainability Assessment
126(2)
Lifecycle Economic Benefits and Costs
128(7)
Lifecycle Environmental Benefits and Costs
135(1)
Social Benefits and Costs
136(3)
Research Needs for Lifecycle Costs and Benefits
139(1)
References
140(5)
6 INNOVATIVE UNDERGROUND TECHNOLOGY AND ENGINEERING FOR SUSTAINABLE DEVELOPMENT
145(42)
Evolution of Technology
146(3)
Technologies for Underground Site Characterization
149(7)
Technologies for Design
156(4)
Technologies for Underground Construction
160(10)
Technologies for Effective Asset Management
170(8)
Technologies That Promote Sustainability and Resilience
178(4)
References
182(5)
7 INSTITUTIONAL EDUCATIONAL, RESEARCH, AND WORKFORCE CAPACITY
187(22)
Coordinated Formal Planning
188(4)
Technological Leadership
192(3)
An Educational Framework
195(2)
Improving Performance
197(2)
Advancing Technology for Sustainability
199(1)
Lifecycle Approaches
200(3)
User Safety and Comfort
203(2)
Final Thoughts
205(1)
References
206(3)
APPENDIXES
A Committee and Staff Biographies
209(8)
B Open Session Meeting Agendas
217(4)
C Interdisciplinary Underground Engineering Practice
221