A corrected version 2.0 is in preparation; the lattice-gate claim does not survive longer simulations.
92 changes since version 1.0.
I'm an independent researcher in quantum biology. I ask which quantum effects can survive in warm, wet, living matter, and I test each claim with calculations anyone can rerun: structures, molecular dynamics and quantum chemistry, set against systems where the answer is already measured. My current work follows how proteins move light energy between aromatic amino acids. I publish in the open, corrections included: when a longer simulation overturns one of my own claims, the new version says so. I also build Synthesis Lab, the tool these papers are written with.
Electronic coherence in proteins is widely expected to vanish at physiological temperature: the environment is too warm, too wet and too noisy. We test that expectation on one aromatic pair, phenylalanines F169 and F202 of α-tubulin, whose rings sit 4.76 Å apart in the…
Collective quantum phenomena such as superradiance were long considered exclusive to cryogenic or highly engineered environments. Recent nanophotonic work broadens the picture: chiral orbital lasing in twisted bilayer metasurfaces and architecture-dependent ring currents in…
A corrected version 2.0 is in preparation; the lattice-gate claim does not survive longer simulations.
92 changes since version 1.0.
First public version. DOI 10.5281/zenodo.23858971.
2 changes since version 2.0.1. DOI 10.5281/zenodo.23574067.
First public version.