2.2 KiB
KDA Physics: Thermodynamic Energy Recovery# KDA Physics
Authors: Research Stack Team Date: April 2026 Domain: TTM Layer A (Compression/Routing) + Physics OTOM Version: 2.2
References: See 00_Master_References.md for complete source mapping
Abstract
The KDA (Kinetic-Dynamic-Atomic) Physics framework models shock physics and energy recovery for sovereign energy systems. It establishes the theoretical foundations for Maxwell's Demon efficiency in compression systems. The physics framework is now extended with geometric structure folding (Torus-Menger-Horn) for energy flow optimization and Mass Number gates for thermodynamic admissibility.
1. Introduction
KDA Physics addresses the thermodynamic limits of computational compression, treating information processing as a physical process subject to Landauer's principle.
2. Shock Physics
2.1 Pressure Piling (Sequential Shock Amplification)
P(i) = P_0 \cdot \chi^i \quad (\chi \approx 1.63)
Sequential shock amplification through the KDA stack.
2.2 Hugoniot Temperature
T_{\text{peak}} = T_0 \cdot \left(\frac{P_{\text{peak}}}{P_0}\right)^{0.65}
Non-isentropic shock heating relationship.
2.3 Pressure Ionization
\alpha(P) = 1 - e^{-k(P - P_{\text{MIT}})}
Insulator-to-metal transition probability.
3. Energy Recovery
3.1 Net Efficiency
\eta_{\text{net}} = \frac{W_{\text{rec}} - W_{\text{erasure}}}{W_{\text{in}}}
3.2 Q-Factor (Global Energy Balance)
Q = \frac{E_{\text{flash}} + E_{\text{enthalpy}} + E_{\text{recovered}} - W_{\text{demon}}}{E_{\text{work}} + E_{\text{loss}}} > 1.0
4. Landauer Bound
W_{\text{erasure}} \geq k_B T \ln(2)
Per bit erasure at T_{\text{peak}} \approx 13,446 K.
5. Implementation
Location:
core/intrinsic/formalisms/9_KDA_Equation_Manifest.md11_KDA_Material_Manifest.md4_KDA_Plasma_Hysteresis_Device.md
Lean 4 Modules:
ThermodynamicSort.leanLandauerCompression.lean
6. References
- Landauer, R. (1961). Irreversibility and heat generation in computing.
- Bennett, C.H. (1982). Thermodynamics of computation.
- Research Stack, OTOM Ontology v2.2.