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Federated learning, trustworthy AI and cyberdefense research, focused on systems that are robust, privacy-preserving and useful in security operations.

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  2. Federated Learning, Trustworthy AI & Cyberdefense Research
  3. CyberBrain: Cybersecurity in BCI for Advanced Driver Assistance
CYBERBRAIN

CyberBrain: Cybersecurity in BCI for Advanced Driver Assistance

Cybersecurity framework for Brain-Computer Interface systems in automotive applications

A comprehensive cybersecurity framework for Brain-Computer Interface systems in advanced driver assistance scenarios, focusing on detecting and preventing cyberattacks on the BCI lifecycle.

CyberBrain: Cybersecurity in BCI for Advanced Driver Assistance
University of Murcia/2023 — 2025
CybersecurityBrain-Computer InterfaceCybersecurity

The CyberBrain project is a pioneering research initiative focused on identifying and mitigating cybersecurity risks within Brain-Computer Interfaces (BCI). This project was a winning proposal in the 2020 Call for Research Projects organized by Bitbrain, a leading neurotechnology company specializing in BCI systems.

Project Overview

With the increasing integration of direct neural interfaces in both medical and consumer applications, the vulnerability surface of BCI devices has expanded significantly. These systems provide direct access to highly sensitive neural data, making them critical targets for novel cyber threats.

CyberBrain aims to design and implement a comprehensive cybersecurity framework specifically tailored for BCI systems, with a particular focus on advanced driver assistance scenarios that utilize Bitbrain's neurotechnology products.

Cybersecurity Challenges in BCI

The cybersecurity of Brain-Computer Interfaces poses unique and critical challenges compared to traditional IT systems:

  1. Interception and Manipulation: Brain signals can potentially be intercepted during transmission or, more critically, manipulated by malicious actors to alter the functioning of the BCI system.
  2. Privacy Breaches: Neural data contains intimate neurophysiological signatures. Unauthorized access can lead to severe privacy violations, exposing personal health information, cognitive states, or user intent.
  3. Unauthorized Control: In scenarios where BCIs control critical infrastructure or vehicles (such as advanced driver assistance systems), compromised BCI commands could lead to physical harm.
  4. Neuro-Security Vulnerabilities: Attackers could theoretically inject crafted stimuli to influence a user's cognitive state or decisions.

Objectives and Methodology

The main objective of CyberBrain is to systematically address these challenges by providing a structured framework capable of detecting cyberattacks affecting the entire BCI lifecycle.

1. Vulnerability Analysis

The project begins by thoroughly analyzing the vulnerabilities inherent in standard BCI architectures and specifically within Bitbrain's hardware and software ecosystems.

2. Threat Modeling and Simulation

CyberBrain designs and deploys a set of advanced cyberattacks targeting three challenging use cases. These use cases integrate Bitbrain products directly into an advanced driver-assistance scenario, representing a high-stakes environment where BCI security is critical to physical safety.

3. Countermeasure Development

Based on the identified vulnerabilities and the simulated attack vectors, the project proposes and tests a robust list of countermeasures to defend against interference, data exfiltration, and control hijacking.

4. Metrics Framework

A crucial outcome of CyberBrain is the definition of targeted metrics capable of measuring the impact of cyberattacks on BCI systems in real-time. This framework ensures that any disruption to the BCI lifecycle can be quantified and addressed programmatically.

Impact and Future Directions

The findings, proposed countermeasures, and developed software from the CyberBrain project directly benefit Bitbrain by enhancing the security posture of their neurotechnology portfolio. Furthermore, the project contributes significantly to the broader BCI and cybersecurity communities through public documents, papers, and software releases.

By addressing the critical gap in neuro-security, CyberBrain establishes a foundational layer of protection necessary for the secure adoption of BCI technologies in complex, real-world applications like automotive driver assistance and beyond.


The CyberBrain Project was a winning proposal in Bitbrain's 2020 Call for Research Projects.

Methodology

  • Lifecycle analysis of vulnerabilities affecting BCI systems in connected automotive settings.
  • Design of realistic cyberattacks and countermeasures for advanced driver assistance integrations.
  • Evaluation framework to measure security impact across Bitbrain-based use cases.
  • Applied cybersecurity guidance for emerging BCI products with limited prior literature.

Key Metrics

3

Targeted use cases

Advanced driver assistance scenarios built around Bitbrain products

2 years

Project duration

Applied research on BCI cybersecurity

BCI

Protected lifecycle

From vulnerability analysis to countermeasure definition

Collaborating Team

Bitbrain Technologies

Industry partner

Provides the BCI product context and applied deployment scenarios explored by the project.

University of Murcia

Academic partner

Leads the cybersecurity analysis, experimental design, and evaluation framework for the initiative.

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