Thermodynamic Phase-Coherent Distributed Ledger Computing A Logical Grounding Architecture for Entropy Management and Synchronization

Abstract

This paper proposes a thermodynamic architecture for distributed ledger computing based on the concepts of Logical Grounding and phase-coherent synchronization. Conventional computing dissipates computational entropy as waste heat and relies on amplitude-based control and clock synchronization, which limits energy efficiency and scalability. The proposed framework treats unused computational resources as logical entropy sinks and redirects entropy flow through potential gradients into these regions. The absorbed signals are transformed into deep resonance signals that maintain global synchronization via phase coherence rather than amplitude control. By combining logical grounding, negative-pressure information circulation, and phase-coherent synchronization engines, the architecture suggests a new entropy-aware computing paradigm that may improve energy efficiency, distributed scalability, and system resilience in large-scale computing environments.