Quantum Time-Energy Theory (QTET) is an interdisciplinary scientific framework integrating quantum mechanics, temporal dynamics, regenerative systems biology, and coherence-based field theory.
Unlike prior models that treat time as a fixed or abstract dimension—such as Itzhak Bars’ Two-Time Physics, Lee Smolin’s evolving cosmologies, or McKenna’s novelty-based attractor theories—QTET proposes a structured and unifying hypothesis:
Time is not only measured—it is dynamically entangled with biological states, entropy gradients, and coherence fields.
Rooted in principles of quantum biology, information entropy, and non-equilibrium thermodynamics, QTET models timeline bifurcation as a function of systemic coherence. These temporal divergences—referred to as resonant or degraded branches—are influenced by measurable variables within biological and energetic systems.
QTET’s central contribution is its reinterpretation of time as a responsive field:
Responsive to coherence modulation
Predictive in structure under certain entropy conditions
Stabilizable through field alignment and regeneration protocols
This theoretical infrastructure enables testable models for applications including cryogenic coherence retention, regenerative feedback loops, entropy-inversion interventions, and timeline trajectory prediction.
Positioned at the intersection of quantum physics, cognitive systems modeling, and bioengineering, QTET offers a rigorously formulated lens through which entropy modulation, system repair, and time-field dynamics may be studied, simulated, and applied.
QTET redefines the fabric of time not as a passive backdrop, but as an active, modifiable system—opening new frontiers in physics, computation, and bioregenerative science.