We address the existence of biological complexity within the context of Open System Cosmology. Standard thermodynamic arguments posit life as a statistical anomaly in a universe tending toward heat death. However, if the Universe is treated as an open system driven by a continuous flux of low-entropy energy (Pin) from an external manifold, the perspective shifts. According to the principle of Maximum Entropy Production (MEPP), matter in such non-equilibrium conditions self-organizes to maximize the rate of dissipation. We derive a "Spectral Dissipation Inequality" demonstrating that a biosphere produces entropy at a significantly higher rate than a sterile surface. Crucially, we propose that this efficiency relies on Environment-Assisted Quantum Transport (ENAQT). By linking the timescales of biological excitonic transfer to gravitational decoherence rates derived in geometric brane-world models, we argue that life has evolved to be "tuned" to the fundamental noise of the 5D Bulk geometry. Finally, we propose a thermodynamic solution to the Fermi Paradox: advanced intelligences are not explorers but "Super-Dissipators" that evolve towards thermodynamic equilibrium with the cosmic background (Dyson swarms), rendering them invisible. Life is identified not as a privileged observer, but as a necessary "exhaust valve" for the cosmological engine.
Giovanni Frisina (2026) studied this question.