Advertorial Article from the Handelsblatt Journal Security and Defense
Germany's challenge in the defense sector is less a procurement problem than a problem of availability. In the current security climate, much is said about budgets and quantities. However, the operational reality of military fleets paints a different picture: What is crucial is not only access to equipment, but also the ability to keep existing systems permanently operational.
Increasing operational demands are colliding with maintenance and logistics systems that were historically designed for stability and predictability. The result is long lead times, poor forecasting capabilities, and availability that falls short of expectations despite significant investments. Therefore, the crucial factor is not just the amount invested, but whether the system can actually translate those investments into operational readiness.
Why classical optimization is insufficient
In practice, the response is often process optimization: workflows are streamlined, capacities expanded, and projects redesigned. These measures are necessary, but fall short if the underlying system logic remains unchanged. In highly regulated environments, technical complexity, product variety, testing regimes, and supply chains all interact simultaneously. If these levels are not considered together, structural friction losses arise—regardless of the quality of individual processes.
Availability architecture as a crucial lever
What's often missing is a deliberate availability architecture. Not another project, but the targeted design of the coupling between technology, regulations, material flow, and decision-making logic. Availability becomes predictable because it no longer depends on the randomness of individual components. Interchangeability, clear identity logics, and integrated control models decouple operational readiness from individual bottlenecks.
Regulatory frameworks are not a disruptive factor, but rather an integral part of the system. Pricing regulations, testing requirements, and support logics must be integrated in such a way that they ensure quality without blocking operational flow.
Availability thus becomes a management responsibility. It is no longer a purely technical metric, but rather an expression of systemic control capability. In this context, leadership means designing systems in such a way that they remain effective under real-world conditions.
Operational readiness is not created at the end of the workbench, but in the architecture of the overall system.
