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EV Charging Equity and Battery Recycling Pathways

Spatial distribution of electric vehicle infrastructure and circular lifecycle management of traction batteries constitute the dual foundation of sustainable urban mobility transitions. Achieving social equity requires mitigating spatial accessibility disparities across underserved demographics, whilst structured recycling pathways ensure the recovery of critical secondary raw materials and lessen ecological burdens. Integrating spatial equity frameworks with closed-loop end-of-life battery management aligns zero-emission transport strategies with broader environmental justice principles.

विषय और दायरा

Electric vehicle infrastructure networks and end-of-life traction battery management systems. — Socio-spatial allocation disparities in public charging stations and circular economic pathways for traction battery recycling.

वैज्ञानिक नवीनता

Synthesising spatial equity-by-design siting models with circular battery recycling and second-life cascading frameworks into a unified public infrastructure roadmap.

दस्तावेज़ विवरण

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Bachelor's Project

Degree:
EV Charging Equity and Battery Recycling Pathways

Author:

Group

First M. Last

Advisor:

Dr. First Last

City, 2026

Contents

Certificate of Originality
Abstract
Chapter 1. Theoretical Frameworks of Energy Equity and Circular Battery Lifecycles
1.1. Conceptual Dimensions of Transport Equity and Energy Accessibility
1.2. Principles of Circular Economy in Lithium-Ion Battery Lifecycles
1.3. Global Policy Frameworks for E-Mobility and Battery Stewardship
Chapter 2. Methodological Framework for Siting and Recycling Pathway Assessment
2.1. Multi-Criteria Evaluation Models for Charging Infrastructure Allocation
2.2. Comparative Assessment Protocols for Swapping versus Direct Charging Networks
2.3. End-of-Life Battery Material Recovery and Tracking Metrics
Chapter 3. Analytical Assessment of Charging Equity and Battery Recycling Systems
3.1. Spatial Disparities in Public Charging Access and Socio-Economic Equity
3.2. Grid Integration Constraints and Decentralised Power Demands
3.3. Closed-Loop Recycling Economics and Second-Life Repurposing Viability
Chapter 4. Strategic Pathways and Policy Implementation for Sustainable Mobility
4.1. Equity-by-Design Siting Guidelines for Urban and Rural Corridors
Introduction
Conclusion
Bibliography

Introduction

The global transition toward electrified road transport forms a core pillar of decarbonisation agendas and urban air quality improvement [2], [8]. However, real-world fleet conversion depends not only on vehicle technology but also on the balanced distribution of public charging infrastructure and sustainable lifecycle stewardship of energy storage systems [1], [3]. Without deliberate planning, charging networks risk reinforcing existing socio-spatial transport disparities [3].

Commercial market pressures tend to cluster high-speed charging facilities within affluent commercial corridors, leaving lower-income populations and multi-unit dwelling residents facing severe charging deserts and extended detours [3], [4]. Concurrently, the exponential growth in depleted lithium-ion battery packs generates severe hazardous waste concerns, demanding comprehensive recycling protocols, material recovery mechanisms, and standardized second-life battery applications to prevent environmental contamination and resource depletion [1], [7], [8].

This study synthesises spatial equity paradigms with circular economy frameworks to establish an integrated pathway for public charging networks and battery lifecycle management [1], [3]. Employing multi-criteria evaluation methods and comparative policy analysis, the investigation examines how equity-by-design siting models and regulated recycling streams operate symbiotically [1], [3], [8]. The findings provide actionable strategic insights for transport authorities, municipal urban planners, and environmental policymakers seeking socially equitable and resource-efficient electrification trajectories [2], [3].

3.1. Spatial Disparities in Public Charging Access and Socio-Economic Equity

Evaluating public charging infrastructure through an equity lens reveals significant structural imbalances between socio-economic groups and geographic sectors. As demonstrated in multi-objective siting research, conventional commercial allocation models prioritize high-traffic corridors and affluent suburban neighborhoods, which leaves multi-unit housing residents and lower-income commuters underserved and vulnerable to charging deprivation [3]. Siting methodologies focused purely on commercial cost efficiency capture only a narrow subset of socially optimal configurations, whereas equity-by-design frameworks explicitly minimize travel detours and enhance trip completion rates for marginalized travelers [3]. Furthermore, operational resilience in public transit corridors can be reinforced by integrating dual battery-swapping and standard charging systems, which reduces turnaround latency for commercial fleets while relieving localized grid pressure [1]. Such distributed infrastructure models must be harmonized with circular lifecycle governance, ensuring that high-utilization charging hubs serve as collection and diagnostics nodes for degraded lithium-ion cells [1], [8]. The convergence of equitable spatial access and closed-loop material stewardship transforms public charging hubs from isolated energy dispensers into integrated socio-ecological infrastructure assets [1], [3], [8].

References

  1. Electric Vehicles (EV) Infrastructure Pathways for Zambia: Trade-Off Between EV Battery Swapping & Charging Model vs Charging-Only Model
    Daniel Simwaba
    DOI लिंक
  2. Climate change mitigation efficiency of electric vehicle charging infrastructure in China: From the perspective of energy transition and circular economy
    Guijun Li, Tanxiaosi Luo, Yanqiu Song
    DOI लिंक
  3. Equity by Design in Electric Vehicle Charging Infrastructure Networks
    Yen-Chu Wu, Eleftheria Kontou
    DOI लिंक
  4. A Comprehensive Qualitative Analysis of Electric Vehicle Charging Infrastructures with Environmental Impacts in Bangladesh
    Nafisa Atia Salsabil, Rahat Redwan, Zarin Musarrat et al.
  5. Electric Vehicle Charging Infrastructure and Smart Grid Integration
    BEDİRHAN KÖKSOY
  6. Electric road vehicle battery charging systems and infrastructure
    B. Lunz, D.U. Sauer
  7. Integrative Electric Vehicle Pricing—Battery Recycling Mechanisms for Battery Swapping and Charging Modes_supp1-3677434.docx
    Jiuh-Biing Sheu
  8. Electric Vehicle (EV) Review: Bibliometric Analysis of Electric Vehicle Trend, Policy, Lithium-Ion Battery, Battery Management, Charging Infrastructure, Smart Charging, and Electric Vehicle-to-Everything (V2X)
    Ibham Veza, Mohd Syaifuddin, Muhammad Idris et al.

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