The Death of Classical Physics and the Rise of a Frame by Frame Reality

So These guys Jesse Daniel Brown, Anton Fedotov, And Zac Zacharia - have been working on a project to create a simulation theory that the universe is made of frames- they are now citing some famous papers that show how photons travel through things and sometimes, the photns leave those atom clouds before they should- like a car going into a tunnel, but you see it leaving before it enters-
and how in a new discovery, scientists showed that in Nature performs endergonic reactions by coupling them with exergonic ones. This mechanism underlies the uptake and flow of energy in biochemical networks, enabling its use to achieve specific structures and functions crucial for living systems.

Jesse, Anton, and zac say that these results which have been verified, show we are living in this frame by frame universe.
Fedotov wants to show that we are also experiencing hideen resonance, which Jesse agrees is happening as a result of the Frame by Frame characteristics of each tagged pixel being able to be encoded with resonance tags that affect certain particles in range

If classical physicists attempt to prove these findings without invoking simulation-like or dynamic frameworks, they face a formidable uphill battle. The negative time results [arXiv:2409.03680 (quant-ph)]( https://arxiv.org/abs/2409.03680# ) coupled with light-driven control
[Chem(24)Paper] ( https://www.cell.com/chem/fulltext/S2... ) point to phenomena that classical physics cannot fully explain without fundamentally rethinking its principles. These breakthroughs force the adoption of new paradigms, integrating computational, quantum, and simulation-based ideas to account for the observed behaviors.

Frame-by-Frame Universe & Metatagged Data
The foundational concept of a discrete universe where every “frame” updates particle metadata is explored in:
[ResearchHubPaper]( https://www.researchhub.com/paper/857... )
Integration and Refinement of Digital Physics, Unifying Quantum and Classical with a Discrete Framework: A Formal Approach to Subparticles, Angular Momentum, and Finite-Density Black Holes
Jesse Daniel Brown, PhD- FbF
/ jessedanielbrown1980

and Anton Fedotov, B.A. - hidden resonances
/ anvifedotov
(December 22, 2024)
Coming Soon: Version 2 -
Stay tuned for Version 2 of the in-depth Frame-by-Frame paper, recently submitted for publication to Quantum Dynamics Journal. (Apparently, some journals prefer to avoid upheavals that might force them to retract traditional works—so be prepared for exciting, cutting-edge theoretical developments!)

And Version 3 with Hyperdimensional Computing and Zac Zacharia / zac-zacharia-14088397

Credits & Further Reading
Classical Physics Just Died
If classical physicists attempt to prove these findings without invoking simulation-like or dynamic frameworks, they face a formidable uphill battle. The negative time results [arXiv:2409.03680 (quant-ph)]( https://arxiv.org/abs/2409.03680# ) coupled with light-driven control
[Chem(24)Paper] ( https://www.cell.com/chem/fulltext/S2... ) point to phenomena that classical physics cannot fully explain without fundamentally rethinking its principles. These breakthroughs force the adoption of new paradigms, integrating computational, quantum, and simulation-based ideas to account for the observed behaviors.

Frame-by-Frame Universe & Metatagged Data
The foundational concept of a discrete universe where every “frame” updates particle metadata is explored in:
[ResearchHubPaper]( https://www.researchhub.com/paper/857... )
Integration and Refinement of Digital Physics, Unifying Quantum and Classical with a Discrete Framework: A Formal Approach to Subparticles, Angular Momentum, and Finite-Density Black Holes

In this thought-provoking episode, we explore a groundbreaking theory that reimagines our universe as a computational framework. Inspired by the work of Jesse Daniel Brown and Anton Fedotov, we dive into their model of a universe composed of discrete "space-time pixels," each imbued with meta-tags—digital blueprints that define the properties and behaviors of particles.

Discover how this framework offers fresh insights into quantum entanglement, the evolution of the cosmos, and the nature of reality itself. From the concept of a cyclical "Big Bounce" to the revolutionary implications for computing, medicine, and beyond, this deep dive bridges the realms of quantum mechanics, classical physics, and digital simulation.

Join us as we decode the possibilities of a universe where information reigns supreme and uncover what it means for our understanding of consciousness, technology, and the future of science.