Including molecular-dynamics-derived structural variability substantially reduces the maximal superradiant enhancement of modelled microtubule tryptophan networks relative to an ordered 1JFF reference lattice.

The finding comes from the modelling lineage that produced the superradiance argument in the first place, which makes it credible against interest: including molecular-dynamics-derived structural variability substantially reduces the maximal superradiant enhancement relative to an ordered reference lattice. ORCH-E080 records the accompanying fact that quantum yield nonetheless stays above 0.14 across the lengths examined, which is why the two things must be kept apart — a modest yield trend survives disorder, and the large cooperative radiative gain does not. It is provisionally rather than well supported because it is a single computational study, with disorder sampled from simulation rather than measured in a living cell.

Computational atomistic modeling by Gassab & Craddock showed that incorporating molecular-dynamics-derived structural fluctuations into microtubule tryptophan networks substantially reduced the maximal superradiant enhancement relative to an idealized static 1JFF lattice. This rigorously quantifies the dampening effect of thermal disorder. The strongest opposing consideration is that despite this substantial drop, the simulated disordered ensembles maintained robust collective fluorescence quantum yields exceeding 0.14 across all lengths.

A single computational preprint reports that molecular-dynamics-derived structural variability substantially suppresses the maximal superradiant enhancement relative to the ordered 1JFF lattice, which matters because disorder-resilience claims were central to the 2024 collective reading. It is purely computational, disorder is MD-sampled rather than measured in vivo, and the quoted QY-stability passage supports the surrounding claim only presuppositionally. Provisional pending independent computation or measurement.

ORCH-E080 describes molecular-dynamics-derived structural variability in the context of a reported reduction in maximal superradiant enhancement relative to the ordered reference while retaining quantum yields above 0.14. This supports the stated within-model comparison, but only in a computational preprint using simulated rather than measured in-vivo disorder. The strongest opposing consideration is that the evidence record quotes the surviving quantum yield rather than directly quantifying the enhancement reduction, leaving the claim dependent on the source's reported modeling context.

Gassab & Craddock report that molecular-dynamics-derived structural variability substantially reduces maximal superradiant enhancement of modelled MT tryptophan networks relative to an ordered 1JFF lattice, while some elevated quantum yield can persist. Strongest opposing consideration is preprint computational status and MD-sampled rather than in vivo disorder, so the magnitude awaits experimental locking of the same observable.

The only attached record, ORCH-E080, is context: it reports yields staying above 0.14 despite the drop, which presupposes the reduction rather than evidencing it. The grade leans on one computational preprint's statement, and is held provisionally with low confidence.