Distributed vs Centralized Generation

Distributing generation across many small sources trades efficiency for resilience; centralizing it does the reverse.

Two architectures

Power can be generated at a few large plants (centralized) or many small sources near the load (distributed). Centralized generation is efficient and easy to manage but creates concentrated targets and long transmission dependencies. Distributed generation is harder to coordinate but has no single point whose loss takes down everything.

For defense resilience, distribution is generally preferred because it removes concentrated single points of failure. A fusion generator sized for a single fixed installation fits the distributed model: power made where it is used, with no long transmission line to defend.

Modularity and scaling

Distributed architectures favor modular units that can be added incrementally. The burner (Aegis / MetroVolt) is conceived as unit-scale generation for a specific site rather than a central plant serving a region. This aligns with distributed-resilience thinking, though the machine remains a design-and-simulation study with open gates.

• Centralized = efficient but concentrated risk
• Distributed = resilient but harder to coordinate
• Site-scale fusion fits the distributed model
• No long transmission line to defend

Distribution also changes the consequence of a successful attack or fault. Against a central plant, one success is catastrophic; against a distributed set, one success is a degradation. This shifts an adversary's calculus, because disabling distributed generation requires many coordinated successes rather than one. The trade is coordination overhead: distributed systems need control and synchronization that a single plant does not, and that coordination itself must be made resilient so it does not reintroduce the single point of failure distribution was meant to remove.

Architecture choice is independent of whether the specific machine is ready; the burner is not yet.