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American Journal of Applied Science and Technology

Peer Reviewed | Open Access | E-ISSN: 2771-2745
Published Article

Socio-Technical Resilience and High-Reliability Organizing: A Comparative Synthesis of Healthcare Safety Paradigms and Site Reliability Engineering

Socio-Technical Resilience and High-Reliability Organizing: A Comparative Synthesis of Healthcare Safety Paradigms and Site Reliability Engineering

  • Arpit Whitmore
    Department of Systems Engineering and Organizational Behavior, Stanford University, United States of America
High-Reliability Organizations Site Reliability Engineering Patient Safety Human Factors

The pursuit of systemic reliability has emerged as a cornerstone of modern high-stakes environments, spanning from the critical bedside of patient care to the distributed architectures of global cloud computing. This research article provides a comprehensive synthesis of two seemingly disparate yet philosophically aligned domains: healthcare patient safety and Site Reliability Engineering (SRE). By examining the foundational tenets of High-Reliability Organizations (HROs), human factors engineering, and proactive risk mitigation strategies, this study explores how organizations sustain performance in the face of inevitable complexity and human fallibility. The research draws upon seminal healthcare safety literature, including the "To Err is Human" paradigm, and contemporary SRE principles such as error budgets, chaos engineering, and blameless post-mortems. Through an extensive theoretical elaboration, the article argues that reliability is not a static state of "zero failure" but a dynamic capability rooted in socio-technical resilience. Key methodologies, including in situ simulations, Failure Modes and Effects Analysis (FMEA), and chaos engineering as a learning framework, are evaluated for their capacity to foster "Just Culture" and psychological safety. The findings suggest that while technical building blocks-such as automated failovers and smart maintenance-are essential, the ultimate determinant of reliability is the human-centered organizational model that prioritizes preoccupation with failure and deference to expertise. This synthesis offers a unified framework for cross-industry learning, proposing that the structural and cultural adaptations required to protect five million lives in healthcare are fundamentally isomorphic to the principles required to manage planetary-scale cloud infrastructure.

 

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