Hacking Connected Charging Stations

Hacking Connected Charging Stations #

  • Thesis ID: 24-13
  • Research Proposal: Vulnerability Research on Connected Charging Stations for Electric Vehicles
  • Collaboration company/organization: EInRide

Abstract #

The widespread adoption of electric vehicles (EVs) has led to the rapid deployment of connected charging stations. These stations are integral to supporting the EV ecosystem, offering convenience and accessibility to users. However, their connectivity also presents significant cybersecurity challenges. This research aims to identify and analyze vulnerabilities in connected charging stations, assess their potential impacts, and propose robust mitigation strategies. By enhancing the security of these critical infrastructures, this study seeks to protect against potential cyber threats that could disrupt the EV charging network and compromise user safety.

Details

1. Introduction #

1.1 Background #

Electric vehicles (EVs) are becoming increasingly popular as a sustainable transportation option. To support this growth, connected charging stations have been widely deployed, offering convenient charging solutions. These stations are equipped with communication capabilities to enable remote management, user authentication, and payment processing. However, their connectivity also makes them susceptible to various cyber threats, potentially jeopardizing the integrity of the EV ecosystem.

1.2 Problem Statement #

The reliance on connected charging stations introduces cybersecurity risks that can be exploited by malicious actors. Vulnerabilities in these systems could lead to unauthorized access, data breaches, service disruptions, and even physical damage. This research aims to conduct a comprehensive vulnerability assessment of connected charging stations to identify security weaknesses, evaluate their impact, and develop effective mitigation strategies to enhance their security.

1.3 Objectives #

  1. To identify and analyze vulnerabilities in connected charging stations for electric vehicles.
  2. To evaluate the potential impacts of these vulnerabilities on the charging infrastructure and users.
  3. To propose and validate mitigation strategies to enhance the security of connected charging stations.
  4. To contribute to the broader understanding of cybersecurity in critical infrastructure.

2. Literature Review #

2.1 Connected Charging Stations for EVs #

Overview of the architecture, functionalities, and deployment of connected charging stations. Examination of their role in the EV ecosystem and the potential security implications.

2.2 Cybersecurity Challenges in Charging Stations #

Review of known cybersecurity challenges and vulnerabilities in connected charging stations, including unauthorized access, data breaches, and service disruptions. Analysis of existing security measures and their limitations.

2.3 Vulnerability Assessment Methodologies #

Detailed examination of methodologies and frameworks used for conducting vulnerability assessments in critical infrastructure. Review of techniques such as penetration testing, static and dynamic analysis, and risk assessment.

2.4 Mitigation Strategies and Best Practices #

Review of current mitigation strategies and best practices for enhancing the security of connected systems. Analysis of gaps in existing research and potential areas for improvement.

3. Research Methodology #

3.1 Phase 1: Preliminary Analysis #

  1. Requirement Analysis: Identification of the requirements and key components of connected charging stations.
  2. Literature Review: Comprehensive review of existing literature on charging station security and vulnerability assessment methodologies.

3.2 Phase 2: Vulnerability Identification #

  1. System Mapping: Detailed mapping of the system architecture and communication protocols of selected charging stations.
  2. Penetration Testing: Conducting penetration tests to identify potential security weaknesses and vulnerabilities in the charging stations.
  3. Static and Dynamic Analysis: Performing static and dynamic analysis of the charging station software and firmware to uncover vulnerabilities.

3.3 Phase 3: Impact Evaluation #

  1. Risk Assessment: Evaluating the severity and potential impact of identified vulnerabilities on the charging infrastructure and users.
  2. Scenario Analysis: Simulating potential attack scenarios to understand the practical implications of security breaches.

3.4 Phase 4: Mitigation Development #

  1. Mitigation Strategies: Developing technical solutions and best practices to address the identified vulnerabilities, including software patches, configuration changes, and enhanced security protocols.
  2. Implementation: Implementing the proposed mitigation strategies in a controlled environment.

3.5 Phase 5: Validation and Testing #

  1. Validation Testing: Conducting extensive testing to validate the effectiveness of the mitigation strategies.
  2. Re-evaluation: Performing a second round of vulnerability assessments to ensure the security measures are robust and effective.

4. Expected Outcomes #

  1. Comprehensive Vulnerability Report: Detailed documentation of identified vulnerabilities in connected charging stations, their potential impacts, and mitigation strategies.
  2. Enhanced Security Protocols: Development of improved security protocols and best practices for the deployment and management of connected charging stations.
  3. Academic Contributions: Publication of research findings in academic journals and conferences to contribute to the body of knowledge in critical infrastructure cybersecurity.
  4. Practical Guidelines: Providing actionable guidelines for manufacturers, operators, and users to ensure the secure deployment and use of connected charging stations.

5. Timeline #

PhaseDuration
Preliminary Analysis2 months
Vulnerability Identification4 months
Impact Evaluation1 week
Mitigation Development1 week
Validation and Testing1 week
Thesis Writing and Submission2 weeks

6. Conclusion #

This research aims to enhance the security of connected charging stations for electric vehicles by identifying and mitigating vulnerabilities. Through comprehensive vulnerability assessments, impact evaluations, and the development of robust mitigation strategies, this study will contribute to the security and resilience of critical EV infrastructure, ultimately supporting the safe and reliable operation of electric vehicles.

7. References #

  1. Literature on connected charging stations and their architecture.
  2. Research papers on cybersecurity challenges and vulnerabilities in critical infrastructure.
  3. Documentation on vulnerability assessment methodologies and penetration testing techniques.
  4. Existing studies on mitigation strategies and best practices for secure deployment of connected systems.
  5. Systematic survey of advanced metering infrastructure security: Vulnerabilities, attacks, countermeasures, and future vision
  6. Threat models for vulnerability analysis of IoT devices for Manipulation of Demand attacks
  7. Vulnerability analysis of an electric vehicle charging ecosystem