Thermodynamic Convergence in Deep Time: A Constraint-First Reframing of Persistent Technological Systems

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Abstract

This paper develops a constraint-first framework for evaluating the long-term persistence of technological systems under thermodynamic limits. Beginning from finite energy flux, irreversible entropy production, component degradation, finite signal speed, and duration-weighted survival, it derives conditions under which maintenance burden scales superlinearly with energetic throughput. If maintenance scaling is superlinear, high-dissipation configurations become structurally fragile over gigayear timescales. Repeated selection suppresses variance in bulk energy-integrated observables while leaving orthogonal structural dimensions comparatively unconstrained. Increased sensitivity in a single energetic metric…

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Topics & keywords

Keywords
  • Observable
  • Entropy (arrow of time)
  • Scaling
  • Work (physics)
  • Convergence (economics)
  • Metric (unit)
  • Selection (genetic algorithm)
  • Component (thermodynamics)
UN Sustainable Development Goals
  • Affordable and clean energy
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