Toward a Decisive Test of Energy Conservation in Driven Nonequilibrium Electromagnetic Systems: Residual Work, Entropy Accounting, and EVRT-Class Anomaly Criteria

This work establishes a stringent experimental and thermodynamic framework for evaluating whether driven nonequilibrium electromagnetic systems can produce persistent residual energy or mechanical output beyond conventional energy accounting. Building on prior work in Emergent Vacuum Response Theory (EVRT), the study defines a complete energy-budget formalism incorporating stored electromagnetic energy, mechanical output, loss channels, and uncertainty propagation. A central focus is the definition of a residual power term evaluated within an uncertainty-bounded framework. The paper introduces explicit criteria under which a measured residual would be considered statistically and experimentally significant, including reproducibility, null-test validation, environmental decoupling, scaling behavior, and independent replication. Thermodynamic consistency is enforced through entropy accounting and calorimetric validation, ensuring that any observed effect is interpreted within the constraints of established physical laws. The objective is not to assert violations of conservation principles, but to define the precise experimental conditions under which such claims could be meaningfully evaluated. This work provides a conservative, falsifiable pathway for testing extreme claims in nonequilibrium electromagnetic systems while maintaining strict adherence to measurement rigor and thermodynamic consistency.