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Geospatial analysis and modelling of urban structure and dynamics

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  • Cover

  • Geospatial Analysis and Modelling of Urban Structure and Dynamics

    • The GeoJournal Library

    • ISBN 9048185718

    • Foreword

      • A Coming of Age: Geospatial Analysis and Modelling in the Early Twenty First Century

    • Acknowledgments

    • Authors Biographies

      • Editors

      • Contributors

    • Contents

    • Contributors

  • Part 1: Introduction

    • Geospatial Analysis and Modeling of Urban Structure and Dynamics: An Overview

      • 1.1 GIS = GISystems, GIScience, GIServices and GIStudies

      • 1.2 Individual-Based Data Capture for Modeling Urban Structure and Dynamics

      • 1.3 Modeling Urban Complexity and Hierarchy

      • 1.4 Simulating and Modeling Urban Transportation Systems

      • 1.5 Analyzing and Modeling Urban Growth, Urban Changes and Impacts

      • 1.6 Studying Other Urban Problem Using Geospatial Analysis and Modeling

      • 1.7 Conclusion

      • References

  • Part 2: Individual-Based Data Capture for Modeling Urban Structure and Dynamics

    • High-Resolution Geographic Data and Urban Modeling: The Case of Residential Segregation

      • 2.1 Introduction

      • 2.2 The Potential Implications of High Resolution Data for Socio-geographic Research

      • 2.3 Simulation of Social Residential Segregation

      • 2.4 Discussion and Conclusions

      • References

    • Space Syntax and Pervasive Systems

      • 3.1 Introduction

      • 3.2 Space Syntax

        • 3.2.1 Operationalisation

          • 3.2.1.1 Axial Maps

          • 3.2.1.2 Metrics

        • 3.2.2 Data Collection and Observation

          • 3.2.2.1 Data Sources

          • 3.2.2.2 Gatecounts

          • 3.2.2.3 Static Snapshots

          • 3.2.2.4 Trails

        • 3.2.3 Empirical Results

        • 3.2.4 Criticism

      • 3.3 Pervasive Systems and Space Syntax

      • 3.4 Case Studies

        • 3.4.1 Space Syntax and Application Development

        • 3.4.2 Space Syntax as an Explanatory Tool

        • 3.4.3 Space Syntax as a Modelling Tool

      • 3.5 Conclusion and Ongoing Work

      • References

    • Decentralized Spatial Computing in Urban Environments

      • 4.1 Introduction

      • 4.2 Related Work

        • 4.2.1 The City in Flux

        • 4.2.2 Decentralized Spatial Computing

        • 4.2.3 Safeguarding Privacy

      • 4.3 Protecting Privacy with DeSC

        • 4.3.1 An LBS Scenario

        • 4.3.2 Experimental Methodology

      • 4.4 Experiment #1: Quality of Service versus Level of Privacy

      • 4.5 Experiment #2: Communication Network Effects

      • 4.6 Experiment #3: Goal Directed Movement

      • 4.7 Experiment #4: Push and Pull Queries

      • 4.8 Conclusions and Outlook

      • References

  • Part 3: Modeling Urban Complexity and Hierarchy

    • Network Cities: A Complexity-Network Approach to Urban Dynamics and Development

      • 5.1 Introduction

      • 5.2 Methodology

      • 5.3 The Model

      • 5.4 Analysis

        • 5.4.1 The Parameter PV0

        • 5.4.2 The Parameter beta

        • 5.4.3 The Parameter PT

      • 5.5 Conclusions

      • References

    • Scaling Analysis of the Cascade Structure of the Hierarchy of Cities

      • 6.1 Introduction

      • 6.2 Models and Principles

        • 6.2.1 Mathematical Models

        • 6.2.2 Basic Principles

      • 6.3 Data Processing Methods and Empirical Evidences

        • 6.3.1 City Classification Based on Urban Numbers

        • 6.3.2 City Classification Based on Population Sizes

      • 6.4 Applications and Discussions

        • 6.4.1 Symmetry Analysis of the Two Classification Results for Regional Studies

        • 6.4.2 Analysis of Spatial Interactions in Urban Studies

        • 6.4.3 Town Classification in the Small-Scaled Region

      • 6.5 Concluding Remarks

      • 6.6 Appendix

        • 6.6.1 The Concept of ``City'' in China at Present

        • 6.6.2 The Equivalence Relation Between the 2n Rule and the Rank-Size Rule with an Exponent -1

      • References

  • Part 4: Simulating and Modeling Urban Transportation Systems

    • The Dilemma of On-Street Parking Policy: Exploring Cruising for Parking Using an Agent-Based Model

      • 7.1 Introduction

      • 7.2 Parking Models

      • 7.3 The PARKAGENT Model

        • 7.3.1 Infrastructure GIS

        • 7.3.2 Driver Agents and Their Behavior

        • 7.3.3 Driver's Decision to Park on the Way to Destination

        • 7.3.4 Cruising for Parking

        • 7.3.5 Algorithm of Car Following

        • 7.3.6 Technical Characteristics of the Model

      • 7.4 Non-spatial (Point) Model of Parking

      • 7.5 Cruising for Commercial Parking

      • 7.6 Cruising Threshold

      • 7.7 Effects of Space on Cruising

        • 7.7.1 Equal Arrival and Egress Rates

        • 7.7.2 When the Point Approximation Becomes Sufficient?

      • 7.8 Conclusions

      • References

    • Multiscale Modeling of Virtual Urban Environments and Associated Populations

      • 8.1 Introduction

      • 8.2 Our VUE Design Pattern

        • 8.2.1 Locations

        • 8.2.2 Transport Network

        • 8.2.3 Places/Transport Network Relationships

        • 8.2.4 Illustration

      • 8.3 Example of Creating a Multiscale VUE: The Case of Quebec-City

      • 8.4 The Synthetic Population of Quebec-city

        • 8.4.1 Estimation of Non-spatial Attributes

        • 8.4.2 Allocation of Spatial Attributes

      • 8.5 TransNetSIM: Using the Meso-VUE with Associated Synthetic Population for Simulating Travel Activities

        • 8.5.1 Pre-processing Data for TransNetSIM

        • 8.5.2 Simulation of Trips Using TransNetSIM

        • 8.5.3 TransNetSIM's Performance

      • 8.6 Conclusion

      • References

    • Imageability and Topological Eccentricity of Urban Streets

      • 9.1 Introduction

      • 9.2 Topology of Urban Street Networks and Imageability

      • 9.3 The Tel Aviv Street Network: Structural Qualities and Imageability

      • 9.4 Conclusion

      • References

    • A Spatial Analysis of Transportation Convenience in Beijing: Users' Perception Versus Objective Measurements

      • 10.1 Introduction

      • 10.2 Literature Review

        • 10.2.1 Urban Transportation and City Livability

        • 10.2.2 UrbanTransportation Studies in China

      • 10.3 Data Used for This Study

        • 10.3.1 Residents' Perception of Transportation Convenience

        • 10.3.2 Objective Measurements for Beijing's Urban Transportation

      • 10.4 Methodology and Procedure

        • 10.4.1 Subjective Scores for Urban Transportation Convenience

        • 10.4.2 Objective Scores for Urban Transportation Convenience

        • 10.4.3 Link the Perceived Transportation Convenience with the Measured

      • 10.5 Analysis of Results

      • 10.6 Discussion and Conclusions

      • References

    • Object-Oriented Data Modeling of an Indoor/Outdoor Urban Transportation Network and Route Planning Analysis

      • 11.1 Introduction

      • 11.2 Network Data Models

        • 11.2.1 Modeling Multi-Modal Networks

        • 11.2.2 3D Network Modeling

      • 11.3 Modeling Transportation Networks in Urban Environments

        • 11.3.1 Modeling Movement Inside Buildings

          • 11.3.1.1 Conceptualizing the Floor Network

          • 11.3.1.2 Modeling Movement Between Floors

        • 11.3.2 Modeling Movement Outside Buildings

          • 11.3.2.1 Modeling Multiple Modes

            • Street Network

            • Bus Routes

            • Walkways

            • Modeling Transfers Between Modes

      • 11.4 Data Model Implementation

        • 11.4.1 FloorNetwork

        • 11.4.2 ExitPoints

        • 11.4.3 FloorTurns

        • 11.4.4 WalkWays

        • 11.4.5 Streets

        • 11.4.6 CampusBusRoutes

        • 11.4.7 CampusBusStops

        • 11.4.8 ParkingLotEntrance

        • 11.4.9 Sidewalk_Busroute_Transfer

        • 11.4.10 Streets_Walkways_Transfer

        • 11.4.11 Creating the Network Dataset

      • 11.5 Developing a 3D Path-Finding Application

        • 11.5.1 Results from Path-Finding Analysis

          • 11.5.1.1 Determining the Least-Effort Route Inside a Building

          • 11.5.1.2 Determining a Least-Effort Route Between Two Buildings

          • 11.5.1.3 Determining an ``All-Inside'' Least-Effort Route Between Two Buildings

      • 11.6 Conclusions

      • References

  • Part 5: Analyzing and Modeling Urban Grown, Urban Changes and Impacts

    • Integration of Remote Sensing with GIS for Urban Growth Characterization

      • 12.1 Introduction

      • 12.2 Integrating Remote Sensing and GIS for Urban Growth Research

      • 12.3 The Case Study Site

      • 12.4 Data Acquisition, Processing and Analysis

        • 12.4.1 Data Acquisition and Assemblage

        • 12.4.2 Image Processing of Remotely Sensed Data

        • 12.4.3 Change Detection

        • 12.4.4 Spatial Statistical Analysis

        • 12.4.5 Predictive Modeling and Simulation

      • 12.5 Urban Spatial Growth

      • 12.6 Urban Growth and Landscape Change Driving Forces

        • 12.6.1 High-Density Urban Use

        • 12.6.2 Low-Density Urban Use

      • 12.7 Future Urban Growth Scenario Simulation

      • 12.8 Conclusions

      • References

    • Evaluating the Ecological and Environmental Impact of Urbanization in the Greater Toronto Area through Multi-Temporal Remotely Sensed Data and Landscape Ecological Measures

      • 13.1 Introduction

      • 13.2 Method

        • 13.2.1 Study Area

        • 13.2.2 Data Sets

        • 13.2.3 Landscape Ecological Measures

      • 13.3 Results and Analysis

      • 13.4 Conclusions

      • References

    • Modeling Urban Effects on the Precipitation Component of the Water Cycle

      • 14.1 Introduction and Motivation

      • 14.2 Historical and Current Perspectives on the Urban Rainfall Effects

      • 14.3 Modeling Studies of the Urban Rainfall Effect

      • 14.4 Atlanta and Houston Case Studies

        • 14.4.1 Atlanta

          • 14.4.1.1 Model Configuration and Approach

          • 14.4.1.2 Results

        • 14.4.2 Houston

          • 14.4.2.1 Configuration and Approach

          • 14.4.2.2 Results

      • 14.5 Recommendations to Improve Model Studies of the Urban Rainfall Effect

      • 14.6 Current and Future Advances in Modeling Urban Effects on Precipitation

      • References

    • Interpolating a Consumption Variable for Scaling and Generalizing Potential Population Pressure on Urbanizing Natural Areas

      • 15.1 Introduction

      • 15.2 Scales of Urbanization

      • 15.3 Approach for the Analysis

        • 15.3.1 Related Literature

        • 15.3.2 Study Area

        • 15.3.3 Data Sources and Analysis

      • 15.4 Results

      • 15.5 Conclusions

      • References

    • Modeling Cities as Spatio-Temporal Places

      • 16.1 Introduction

      • 16.2 Time and Spatio-Temporal Modeling

      • 16.3 Spatio-Temporal Ontology for Places

      • 16.4 A Spatio-Temporal Model for Places

        • 16.4.1 Some Modeling Issues

          • 16.4.1.1 Vagueness and Identity

          • 16.4.1.2 Granularity of Space, Time, and Processes

        • 16.4.2 Spatio-Temporal Place Model

      • 16.5 Analyzing Spatio-Temporal Relationship

      • 16.6 Discussions and Future Research

      • References

  • Part 6: Studying Other Urban Problems Using Geospatial Analysis and Modeling

    • Geospatial Analysis and Living Urban Geometry

      • 17.1 Introduction

      • 17.2 Networks of Urban Space in a Living City

      • 17.3 Geospatial Analysis and ``Urban Seeding''

      • 17.4 Useful and Useless Urban Space

      • 17.5 Urban Complexity and Modular Decomposition

      • 17.6 Three Different Metaphors for a City

      • 17.7 Do We Wish to Connect to Our Neighbor?

      • 17.8 Respecting and Re-creating Complex Urban Fabric

      • 17.9 The Problem of Designing the City's Periphery

      • 17.10 Spatio-Temporal Scale Jumps and Their Implications

      • 17.11 Spontaneous Settlements: What We Can Learn from Them

      • 17.12 Conclusion

      • References

    • Analyzing Spatial Patterns of Late-Stage Breast Cancer in Chicago Region: A Modified Scale-Space Clustering Approach

      • 18.1 Late-Stage Breast Cancer and Risk Factors

        • 18.1.1 Data and Methods

      • 18.2 Modified Scale-Space Clustering Method (MSSC)

      • 18.3 Analyzing Late-Stage Breast Cancer Data in Chicago with the MSSC Method

        • 18.3.1 Clustering Process by the MSSC Method

        • 18.3.2 Visualizing Local Maxima

        • 18.3.3 Level of Convergence

        • 18.3.4 Spatial Regression

      • 18.4 Discussion

      • 18.5 Summary

      • References

    • Influence of Job Accessibility on Housing Market Processes: Study of Spatial Stationarity in the Buffalo and Seattle Metropolitan Areas

      • 19.1 Introduction

      • 19.2 Literature Review

        • 19.2.1 Research Strategies

        • 19.2.2 Empirical Challenges

      • 19.3 Methodology

        • 19.3.1 Job Accessibility Measures

        • 19.3.2 Factor Analysis

        • 19.3.3 Hedonic Modeling

      • 19.4 Results

        • 19.4.1 Study Area

        • 19.4.2 Job Accessibility

        • 19.4.3 Dimensions of Housing Markets

        • 19.4.4 Global Regression

        • 19.4.5 Local Regression

      • 19.5 Conclusions

      • References

    • How do Socioeconomic Characteristics Interact with Equity and Efficiency Considerations? An Analysis of Hurricane Disaster Relief Goods Provision

      • 20.1 Introduction

      • 20.2 Background and Literature

        • 20.2.1 Efficiency Versus Equity?

        • 20.2.2 Accessibility, Hurricane Relief Service Provision, and Transportation

      • 20.3 Relief Distribution System Architectures

        • 20.3.1 Model Overview

      • 20.4 Analysis and Results

        • 20.4.1 Study Area and Data

        • 20.4.2 Computational Environment and Analytical Setting

          • 20.4.2.1 Measuring Transport Costs from Neighborhoods to Distribution Centers

        • 20.4.3 Efficiency and Equity Analysis

          • 20.4.3.1 Equity analysis with the p-center problem

          • 20.4.3.2 Efficiency Analysis with the p-median Problem

          • 20.4.3.3 Comparisons of p-median and p-center Results

          • 20.4.3.4 Exploring Service Differences Across Income Groups

      • 20.5 Discussion and Conclusions

      • References

    • Visualizing and Diagnosing Coefficients from Geographically Weighted Regression Models

      • 21.1 Introduction

      • 21.2 Methods

        • 21.2.1 Geographically Weighted Regression

        • 21.2.2 Diagnostic Tools

        • 21.2.3 Visualization Tools

      • 21.3 Census Undercount in Franklin County, Ohio

      • 21.4 Conclusion

      • References

  • Epilog

    • Why Does Location Matter?

    • The World is Flat (and Rural)

    • Looking Forward

    • References

  • Index

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