Quantum Photosynthesis as an Ordinative Collapse: A Functional Reinterpretation through the Technology of Expressions

Abstract

This paper introduces a functional reinterpretation of quantum photosynthesis through the framework of the Technology of Expressions (TE), a foundational system that unifies epistemology, semantics, and physics. Quantum photosynthesis, one of the most efficient energy transfer processes known in nature, has long puzzled researchers for its apparent ability to maintain quantum coherence within warm, noisy biological environments. Conventional explanations invoke statistical protection or environmental noise–assisted transport, yet none fully resolves why coherence persists and why efficiency reaches nearly 95\%.

The TE model reframes this phenomenon as an ordinative collapse rather than as the survival of a fragile quantum state. In this view, the photosynthetic complex functions as a coherent system that expresses the structured potential (coherent content) into explicit biochemical form (ATP/NADPH) through a geometrically and semantically ordered configuration. Efficiency is therefore not accidental, but the direct consequence of coherence between the identity of the receiver and the content being transferred.

A universal principle is proposed: in any ordered system, the transfer of coherent content occurs with efficiency proportional to the structural resonance between the receiving identity and the content itself, regardless of environmental noise. This principle is tested across disciplines—physics, biology, cognition, communication, and economics—revealing an isomorphic structure of coherence-dependent efficiency.

From this, TE derives a corrected form of the decoherence equation that introduces a coherence order parameter $C(I,B)$, quantifying the resonance between the biological instance and its coherent field. The model predicts that the collapse of photosynthetic efficiency is discontinuous, not gradual, when geometric coherence is perturbed, even under constant thermal conditions. Experimental designs are presented to falsify or confirm this prediction through controlled protein-geometry mutations and resonance mapping assays.

Beyond photosynthesis, the implications extend to quantum biology, coherence engineering, and artificial intelligence architectures that aspire to natural coherence under ambient conditions. TE thus offers both a unifying epistemic model and a falsifiable physical hypothesis: that order, not isolation, sustains coherence in living systems.