Device Lab at the Biohacking Village - Closing the Trust Deficit: More than a decade of Applied Research in Medical Device Security Collaboration, A Scalable Model for Collaborative Security in Critical Infrastructure Ecosystems

Malicious actors across various operational levels and geographical regions are increasingly exploiting the vulnerabilities of unsecured medical devices to achieve financial gain and geopolitical leverage. Addressing these threats effectively necessitates a dedicated environment and an expert community focused on practical training. The Biohacking Village (BHV) fulfills this requirement, leveraging twelve years of operational experience, over 150 coordinated vulnerability disclosures, and a 40% improvement in remediation efficiency. Through a retrospective, the authors illustrate how BHV’s integrated framework, which encompasses ethical hacking, structured vulnerability disclosure, multi-stakeholder engagement, and digital twin validation, mitigates the fundamental trust deficit between manufacturers and security researchers. Historically, this deficit has impeded the proactive identification and resolution of vulnerabilities. In contrast to traditional security methodologies that analyze medical devices in isolation, BHV adopts a holistic ecosystem perspective, integrating infrastructure, human factors, and regulatory compliance. This research presents a pragmatic framework designed to eliminate persistent barriers and cultivate an ecosystem of shared responsibility. We examine BHV’s transition from a DEF CON initiative to a global standard for collaborative defense, offering a scalable model for healthcare and related critical infrastructure sectors. This model posits that proactive security is a strategic necessity for patient safety, regulatory adherence, and market differentiation, serving as a template for industry-wide adoption. Consequently, this paper advocates for the BHV as a replicable, evidence-based model for converting adversarial interactions into strategic partnerships within critical infrastructure security, providing effective methodologies for addressing cyber-related healthcare vulnerabilities.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-20
DOI
https://doi.org/10.5281/zenodo.19674129
Primary Topic
Physical Unclonable Functions (PUFs) and Hardware Security
Type
article
Field-Weighted Citation Impact
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article

Device Lab at the Biohacking Village - Closing the Trust Deficit: More than a decade of Applied Research in Medical Device Security Collaboration, A Scalable Model for Collaborative Security in Critical Infrastructure Ecosystems

Xavier‐Lewis Palmer, Jay Radcliffe, David Nathans, Janine Medina et al.
Zenodo (CERN European Organization for Nuclear Research)
Physical Unclonable Functions (PUFs) and Hardware Security
article

Device Lab at the Biohacking Village - Closing the Trust Deficit: More than a decade of Applied Research in Medical Device Security Collaboration, A Scalable Model for Collaborative Security in Critical Infrastructure Ecosystems

Xavier‐Lewis Palmer, Jay Radcliffe, David Nathans, Janine Medina, Tom VanNorman, Caleb Davis, Danny "Danhammer" Hetzel
article en

Abstract

Malicious actors across various operational levels and geographical regions are increasingly exploiting the vulnerabilities of unsecured medical devices to achieve financial gain and geopolitical leverage. Addressing these threats effectively necessitates a dedicated environment and an expert community focused on practical training. The Biohacking Village (BHV) fulfills this requirement, leveraging twelve years of operational experience, over 150 coordinated vulnerability disclosures, and a 40% improvement in remediation efficiency. Through a retrospective, the authors illustrate how BHV’s integrated framework, which encompasses ethical hacking, structured vulnerability disclosure, multi-stakeholder engagement, and digital twin validation, mitigates the fundamental trust deficit between manufacturers and security researchers. Historically, this deficit has impeded the proactive identification and resolution of vulnerabilities. In contrast to traditional security methodologies that analyze medical devices in isolation, BHV adopts a holistic ecosystem perspective, integrating infrastructure, human factors, and regulatory compliance. This research presents a pragmatic framework designed to eliminate persistent barriers and cultivate an ecosystem of shared responsibility. We examine BHV’s transition from a DEF CON initiative to a global standard for collaborative defense, offering a scalable model for healthcare and related critical infrastructure sectors. This model posits that proactive security is a strategic necessity for patient safety, regulatory adherence, and market differentiation, serving as a template for industry-wide adoption. Consequently, this paper advocates for the BHV as a replicable, evidence-based model for converting adversarial interactions into strategic partnerships within critical infrastructure security, providing effective methodologies for addressing cyber-related healthcare vulnerabilities.

Zenodo (CERN European Organization for Nuclear Research)
National Security Agency (US), BioTracking (United States) (US), SecurAcath (United States) (US), Children’s Village (US), InterPhases Solar (United States) (US), Evotec (United States) (US)
Partnerships for the goals
Openalex Percentile: Top 5%
Physical Unclonable Functions (PUFs) and Hardware Security
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