Teoría de la Eficiencia Termodinámica Asintótica (TETA) Trabajo con IA
Description
[ESPAÑOL]
TETA unifica el Teorema de la Menor Energía por Microestado y el Principio de la Tasa de Costo Informacional en un marco evolutivo único. Postula ε(t)=1/η(t)=ΔI/J_F ∝ t^α y η(t)∝ t^-α con condición dη/dt<0. Se demuestran dos teoremas inéditos: Teorema de Liberación Energética (TLE) P_liberada=ΔI(η1-η2) y Teorema de Penalización (TPE) P_penalizada=ΔI(η2-η1). Se demuestra que para α≥1 la energía acumulada para tiempo infinito es finita (E_∞<∞), extendiendo la ventana cósmica de forma super-exponencial, superando límite Gibbons-Hawking de Dyson 1979.
Validación tri-dominio con datos reales:
- Blockchain 2018-2025 (8760 horas 2024): η de 3.85 a 3.62 mW/bit, α=0.085 incluyendo 2021 por honestidad científica, pendiente -0.0716 mW/bit/año, TLE 4.16 GW liberados en 2023, TPE -1.61 GW en 2021, -6.28 GW en 2024
- Bacteria E.coli (Neidhardt 1996, Lenski LTEE): α≈0.15
- CPU Koomey Law 1971-2024: α≈5.73>1, E_∞ finita, FLOPS/J duplica cada 1.57 años
DOI fundacional: https://doi.org/10.5281/zenodo.23604428
[ENGLISH]
Asymptotic Thermodynamic Efficiency Theory (TETA) unifies Lowest Energy per Microstate and Information Cost Rate. Postulates ε(t)=1/η(t)∝ t^α and η(t)∝ t^-α with dη/dt<0. Two novel theorems: Energy Release (ERT) and Penalty (EPT). For α≥1, accumulated energy for infinite time is finite, extending cosmic window super-exponentially beyond Dyson and Gibbons-Hawking limit. Tri-domain validation with real blockchain data 2018-2025 including 2021, E.coli, and Koomey's Law.
Files
Teoría de la Eficiencia Termodinámica Asintótica (TETA) 2026.pdf
Additional details
References
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