Smart City Assessment : A Novel Framework for Development and Evaluation of Smart Cities / Azzam Abu-Rayash.

Format:

Book

Author/Creator:

Abu-Rayash, Azzam, author.

Language:

English

Subjects (All):

Urban ecology (Sociology).

Sustainable urban development.

Physical Description:

1 online resource (264 pages)

Edition:

First edition.

Place of Publication:

Amsterdam, Netherlands : Elsevier, [2024]

Summary:

Smart City Assessment: A Novel Framework for Development and Evaluation of Smart Cities outlines a new assessment model for smart cities, including energy, environmental, and economic factors.

Contents:

Front Cover

Smart City Assessment

Smart City Assessment: A Novel Framework for Development and Evaluation of Smart Cities

Copyright

Contents

Preface

One - Fundamental aspects of smart cities, sustainability, and environment

1.1 Urban dynamics and global demographics

1.2 Defining smart cities

1.2.1 Smart city concept

1.2.2 Research and development in smart cities

1.2.3 Critical characteristics of smart cities

1.2.4 Objectives of smart cities

1.3 Sustainability in the urban context

1.3.1 Environmental challenges facing modern cities

1.3.2 The role of cities in addressing global environmental challenges

1.4 Energy consumption and demand in urban areas

1.4.1 Integrating renewables in city infrastructure

1.4.2 Case studies

1.4.2.1 Case study 1: Copenhagen, Denmark-The green energy transition

1.4.2.2 Case study 2: San Francisco, USA-Solar city initiative

1.4.2.3 Case study 3: Masdar City, UAE-A model for sustainable urban development

1.5 Technological innovations in urban development

1.5.1 Integration of technologies in urban functions

1.5.2 Challenges and opportunities in tech integration

1.5.2.1 Challenges in smart city development

1.5.2.2 Opportunities presented by smart city technologies

1.6 Urban transportation and mobility

1.6.1 Challenges in urban transportation

1.6.2 Smart solutions for urban mobility and traffic management

1.6.3 Case studies in smart urban transportation

1.6.4 Case studies of smart transportation systems

1.7 Trends and future directions

1.7.1 Predictions and trends for the future of smart cities

1.7.2 Emerging technologies and concepts in smart urban development

1.7.3 Creating sustainable and livable cities for the future

1.7.3.1 Strategies for sustainable and inclusive smart cities.

1.7.3.2 Role of policy, governance, and citizen engagement

1.8 Conclusion

1.8.1 Recap of key points

1.8.2 Final thoughts on the importance of smart cities

Two - Smart city modeling

2.1 Introduction to smart city assessments

2.2 Methodologies in smart city development

2.2.1 Different methodologies in smart city development

2.2.2 Importance of methodology selection

2.3 Composite indicators in smart city models

2.3.1 Guiding principles in constructing a composite indicator

2.3.2 Theoretical framework

2.3.3 Data selection

2.3.4 Data imputation

2.3.5 Multivariate analysis

2.3.6 Normalization

2.3.7 Weighting and aggregation

2.3.8 Robustness and sensitivity

2.3.9 Data integration

2.3.10 Linkage to other variables

2.3.11 Presentation and visualization

2.4 Comparative analysis using composite indicators

2.5 Critiquing smart city indicators

2.5.1 Environmental index

2.5.1.1 Air quality factor

2.5.1.2 Water quality factor

2.5.1.3 Waste management parameter

2.5.1.4 Ecosystem turnover factor

2.5.2 Economy index

2.5.2.1 Gross domestic product per capita parameter

2.5.2.2 Research and development expenditure and innovation factor

2.5.2.3 Unemployment factor

2.5.2.4 Gini coefficient parameter

2.5.3 Society index

2.5.3.1 Educational level parameter

2.5.3.2 Poverty Factor

2.5.3.3 Equity subindex

2.5.3.4 Healthcare subindex

2.5.4 Governance index

2.5.4.1 Government effectiveness factor

2.5.4.2 Government technology parameter

2.5.4.3 Public participation factor

2.5.4.4 Corruption rate factor

2.5.5 Energy index

2.5.5.1 Energy Efficiency Factor

2.5.5.2 Exergy efficiency factor

2.5.5.3 Clean energy utilization parameter

2.5.5.4 Energy storage factor

2.5.5.5 Energy cost factor

2.5.6 Infrastructure index.

2.5.6.1 Technology infrastructure factor

2.5.6.2 Green space parameter

2.5.6.3 Smart device penetration factor

2.5.6.4 Water resources parameter

2.5.7 Transportation index

2.5.7.1 Transport efficiency factor

2.5.7.2 Technology integration factor

2.5.7.3 Traffic congestion parameter

2.5.7.4 Accessibility parameter

2.5.8 Health index

2.5.8.1 Strengths and weaknesses of indicators

2.6 Interdependencies in smart city indicators

2.6.1 Interdependencies impacting city planning and outcomes

2.7 Composite index development for smart cities

2.7.1 Integrated design and environmental impact

2.7.2 Energy performance optimization

2.7.3 Sustainable development and eco-friendly infrastructure

2.7.4 Economic growth and financial success

2.7.5 Engaging society and developing ownership

2.7.6 Integration of information and communication technology

2.7.7 Endorsing entrepreneurial innovation and development

2.7.8 Continuous education for human resources

2.7.9 Developing satisfactory and efficient transportation services

2.7.10 Continuous assessment and evolution of governance systems

2.7.11 Examples of successful composite indicator indexes

2.7.12 Case studies on indicator selection

2.8 Smart city solutions: From theory to practice

2.8.1 Case studies

2.8.1.1 Singapore

2.8.1.2 Barcelona

2.8.1.3 Stockholm

2.8.1.4 Dubai

2.8.1.5 Amsterdam

2.8.1.6 New York City

2.9 Conclusion

2.9.1 Key takeaways from smart city modeling

2.9.2 Future directions in smart city modeling and assessments

Three - Socioeconomic domains

3.1 Introduction to socioeconomic domains in smart cities

3.1.1 Smart economy and its ripple effects

3.1.2 Smart society: A reflection of urban well-being

3.1.3 Smart governance: The glue binding the framework

3.1.4 The interconnected tapestry.

3.1.5 Statistical insights and future trajectories

3.1.6 Challenges and opportunities

3.1.7 Conclusion

3.2 The smart economy: Automation, innovation, and growth

3.2.1 Defining the smart economy

3.2.2 Economic growth through innovation

3.2.3 The role of automation and system optimizations

3.2.4 Impact on unemployment and social equity

3.2.5 Case studies

3.3 The Smart Society: Backbone of urban development

3.3.1 The societal impact on urban infrastructure and technological advancements

3.3.2 Case studies

3.3.2.1 Singapore: A model of citizen engagement and digital inclusivity

3.3.2.2 Barcelona: Catalyzing economic and social innovation

3.3.2.3 Amsterdam: Advancing sustainability and community engagement

3.3.2.4 Stockholm: Setting standards in sustainable living

3.3.2.5 Seoul: Enhancing quality of life through technology

3.4 The smart governance domain

3.4.1 Exploring smart governance and its role in urban planning

3.4.2 The essence of smart governance

3.4.3 Government effectiveness and technology integration

3.4.4 Public participation in urban governance

3.4.5 The impact of policies at various government levels

3.4.6 Tourism and security as governance indicators

3.4.7 Challenges and opportunities in smart governance

3.4.8 Understanding the essence of smart urbanization

3.4.8.1 Inclusive stakeholder engagement

3.4.8.2 Establishing clear achievable goals

3.4.8.3 Promoting public-private partnerships

3.4.8.4 Citizen-centric approach and community empowerment

3.4.8.5 Leveraging data and technology wisely

3.4.8.6 Focus on sustainability and resilience

3.4.8.7 Fostering innovation and creativity

3.4.8.8 Continuous learning and adaptation

3.4.9 Conclusion

3.5 Successful implementation of smart governance models: Case studies.

3.5.1 Singapore's Smart Nation Initiative

3.5.2 Barcelona's Smart City Transformation

3.5.3 Amsterdam's collaborative approach

3.5.4 Stockholm: Pioneering sustainability

3.5.5 Conclusion

3.6 Challenges and considerations in developing socioeconomic domains

3.6.1 Future directions in socioeconomic domains of smart cities

3.7 Conclusion: Socioeconomic domains in smart cities

3.7.1 Key insights from the chapter

3.7.2 Final thoughts on the importance of socioeconomic domains in smart cities

Four - Physical and technological domains

4.1 Energy: The lifeline of smart cities

4.1.1 Infrastructure: The backbone of urban development

4.1.2 Transportation: The mobility core of smart cities

4.1.3 Environmental considerations: The green aspect of urban living

4.1.4 Technology: The digital fabric of urban life

4.1.5 Water resources: The essence of urban sustainability

4.1.6 Conclusion

4.2 Energy systems in smart cities

4.2.1 The role of energy in city life

4.2.2 Challenges of energy management in urban areas

4.2.3 Innovative energy sources and systems in smart cities

4.2.4 Conclusion

4.2.5 Case studies

4.2.5.1 Innovative energy systems in smart cities

4.2.5.2 Renewable and alternative energy sources

4.2.5.3 Energy efficiency and sustainability in urban settings

4.2.5.4 Integration of smart energy technologies

4.2.5.5 Conclusion

4.3 Urban infrastructure: Backbone of smart cities

4.3.1 Diverse facets of urban infrastructure

4.3.2 Assessing the impact of infrastructure on urban life

4.3.3 Innovative smart infrastructure solutions

4.3.4 Supporting energy and commodity demands

4.3.5 Conclusion

4.4 Environmental considerations in smart cities

4.4.1 The essence of a smart environment

4.4.2 Sustainable practices in urban settings.

4.4.3 Technological innovations for environmental conservation.

Notes:

Includes bibliographical references and index.

Description based on publisher supplied metadata and other sources.

Description based on print version record.

ISBN:

0-443-14142-8

OCLC:

1452591125