The Proof-of-Power Wall concept from Jason P. Lowery’s SOFTWAR introduces a cybersecurity model where control signals must carry proof of computational work to be accepted.

By rejecting signals that lack this proof, the system ensures that every authorized command comes with a cost, reducing the risk of exploitation.

Adjusting the difficulty of the proof-of-power process allows the system to maintain a secure operating environment by dynamically increasing or decreasing the computational burden as needed.

If threats rise, the system can require more proof, making unauthorized access increasingly expensive and impractical.

This idea follows a fundamental principle seen in nature—survival requires continuous investment. Organisms, organizations, and now digital systems must expend resources to maintain security.

Just as The Proof-of-Power Wall concept presents a cybersecurity model where only control signals that bear computational proof-of-power are accepted, effectively filtering out unauthorized or malicious attempts to influence a system.

This approach directly applies to securing critical infrastructure, such as power grids, against cyber-physical threats.

By requiring a cost to send control signals, the system prevents low-cost, high-frequency attacks that could otherwise compromise essential operations.

The difficulty of the proof-of-power process can be adjusted dynamically, increasing security as threats evolve while maintaining a functional level of efficiency for legitimate operations.

The broader implications of this model align with recent U.S. policy shifts. On March 7, 2025, the White House issued an order establishing a Strategic Bitcoin Reserve, recognizing Bitcoin’s role as a scarce and secure asset similar to “digital gold.”

This move signals a growing acknowledgment of Bitcoin’s underlying proof-of-work mechanism as a tool for national security, reinforcing the idea that computationally expensive security models can provide a higher level of systemic resilience.

The Proof-of-Power Wall builds on these principles by applying the same economic constraints that make Bitcoin secure to the digital defense of critical infrastructure.

The diagram emphasizes the contrast between traditional control systems—where low-cost, easily exploitable signals can manipulate power grids—and a proof-of-power model that demands a computational investment.

In this framework, Bitcoin mining itself can serve as a protective mechanism, ensuring that only signals backed by verifiable work can interact with the system.

By making attacks prohibitively expensive while keeping legitimate operations efficient, proof-of-power creates a self-regulating security layer that aligns with broader national efforts to reinforce digital and physical security.

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