Understanding Drivers of Electrification of Transportation Systems in a Commercial Context
eBook - PDF

Understanding Drivers of Electrification of Transportation Systems in a Commercial Context

The Case of Vehicle-to-Grid Applications in Electrified Fleets

  1. 207 pages
  2. English
  3. PDF
  4. Available on iOS & Android
eBook - PDF

Understanding Drivers of Electrification of Transportation Systems in a Commercial Context

The Case of Vehicle-to-Grid Applications in Electrified Fleets

About this book

The mitigation of global climate change poses one of the major challenges of the twenty-first century. Governments all around the world have set ambitious climate- and energy- specific targets that shape the development of the energy and transportation sectors. Increasing the share of renewable energies in the energy mix and substituting conventional vehicles with electric vehicles (EVs) at the same time poses significant challenges for the power grid. The coupling of the energy and transportation sectors offers a promising increase in energy efficiency, as the EVs' batteries can be used as storage for the provision of utility services by supplying power to the grid for stabilization. This is known as the vehicle-to-grid (V2G) application. Thus, suitable V2G applications can contribute to the security of energy supply while at the same time promoting electrified transportation and the integration of renewables. These applications are especially efficient in a commercial context, where the capacities of several batteries can easily be aggregated. This thesis investigates the role of IS for the electrification and V2G integration of commercial fleets. Four studies were conducted and are compiled in this dissertation that demonstrate the feasibility and provide guidelines for incorporating commercial electrified fleets as an active component of the energy economic value chain. The understanding gained enables viewing fleet electrification and V2G integration as IS enabled amplification of the energy economic value chain towards ecological sustainability.

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Information

Year
2022
eBook ISBN
9783736967052
Print ISBN
9783736977051
Edition
1

Table of contents

  1. Acknowledgements
  2. Abstract
  3. Table of Contents
  4. List of Figures
  5. List of Tables
  6. List of Abbreviations
  7. A. Foundations
  8. I. Introduction
  9. I.1 Motivation
  10. I.2 Research Gap and Research Questions
  11. I.3 Structure of the Thesis
  12. I.4 Research Positioning and Design
  13. I.5 Anticipated Contributions and Implications
  14. II. Research Background
  15. II.1 Green Information Systems
  16. II.2 The Advent of Energy Informatics
  17. II.3 IS for Sustainable Mobility and Transportation
  18. II.4 Vehicle-to-Grid Applications in the context of containerterminals – Case Study FRESH
  19. B. Studies on Electrification of Commercial TransportationSystems
  20. I. Assessing the Status Quo
  21. 1. Study 1: Yesterday, Today, and Tomorrow –Perspectives on Green Information Systems ResearchStreams
  22. 1.1 Introduction
  23. 1.2 Literature Reviews on Green IS
  24. 1.3 Research Approach
  25. 1.4 Results and Findings
  26. 1.5 Development of Research Directions
  27. 1.6 Conclusion
  28. II. Research in Vehicle-to-Grid Applications
  29. 1. Study 2: Smart Grid in Container Terminals –Systematization of Cost Drivers for Using BatteryCapacities of Electric Transport Vehicles for GridStability
  30. 1.1 Introduction
  31. 1.2 Research Background
  32. 1.3 Setting
  33. 1.4 Research Approach
  34. 1.5 Results and Findings
  35. 1.6 Discussion
  36. 1.7 Limitations and Future Research
  37. 1.8 Conclusion
  38. 2. Study 3: Two-sided Sustainability: Simulating BatteryDegradation in Vehicle-to-Grid Applications withinAutonomous Electric Port Transportation
  39. 2.1 Introduction
  40. 2.2 Battery Degradation Models
  41. 2.3 Research Approach
  42. 2.4 Data
  43. 2.5 Simulation Results
  44. 2.6 Discussion and Implications
  45. 2.7 Conclusion
  46. III. Furthering Fleet Electrification
  47. 1. Study 4: (I Can’t Get No) Electrification – A Qualitative-Empirical Study on Electrification of TransportationFleets
  48. 1.1 Introduction
  49. 1.2 Research Background
  50. 1.3 Research Approach
  51. 1.4 Results
  52. 1.5 Discussion
  53. 1.6 Conclusion
  54. C. Contributions
  55. I. Findings and Results
  56. I.2 Findings through Research in Vehicle-to-GridApplications
  57. I.3 Findings for Furthering Fleet Electrification
  58. I.4 Synthesis of Findings: A Conceptualization of ISEnabledExtension of the Energy Economic Value Chain
  59. II. Implications
  60. II.1 Implications for Research
  61. II.2 Implications for Practice
  62. III. Limitations and Opportunities for Future Research
  63. III.1 Limitations
  64. III.2 Opportunities for Future Research
  65. IV. Concluding Remarks
  66. References
  67. Appendix
  68. Appendix A. Overview of the Author’s Individual StudyContribution
  69. Appendix B. Overview Further Published Studies
  70. Appendix C. Curriculum Vitae