Executive Summary
This article presents a comprehensive approach to Asset Management (AM) for air vehicle systems, integrating concepts like Integrated Vehicle Health Management (IVHM), Digital Twins (DT), and Cyber-Physical Systems (CPS). It proposes a framework and platform concept, AIF/A, to unify these technologies for enhanced decision support in military and civilian aviation. The goal is to improve system availability, readiness, and operational efficiency through model-driven and data-driven maintenance and logistics across the entire lifecycle.
Why It Matters
This document is crucial for defense analysts as it details advanced asset management strategies for military air vehicles, including UAS, which directly impacts operational readiness, maintenance costs, and strategic capabilities in modern warfare. Understanding these concepts is vital for assessing future air power effectiveness and logistical resilience.
Key Takeaways
- Effective Asset Management (AM) for air vehicles is critical for operational excellence, especially for complex Cyber-Physical Systems (CPS) and military UAS.
- Integrated Vehicle Health Management (IVHM) and Digital Twin (DT) technologies are central to predicting and optimizing asset performance, enabling condition-based maintenance.
- The increasing complexity of air operations, including manned-unmanned teaming and multi-domain integration, drives new demands for robust, cyber-secure, and distributed AM solutions.
- The article highlights the need for information and service exchange between adjacent air operations domains, including civil business management and military Command and Control (C2).
Strategic Relevance
This paper directly addresses the strategic importance of maintaining high operational readiness and reducing lifecycle costs for military air assets, including increasingly complex UAS fleets. By detailing advanced AM, IVHM, and Digital Twin concepts, it provides insights into how defense forces can enhance their air power capabilities, optimize maintenance, and ensure interoperability in dynamic operational environments, directly impacting force projection and sustainment.