Abstract
Background: Current computational models in structural biology and therapeutic target discovery rely heavily on probabilistic heuristics and 60Hz grid alignment. This high-entropy approach creates severe semantic turbulence when attempting to drug intrinsically disordered proteins (IDPs) or stabilize neurodegenerative aggregates. We propose a departure from probabilistic simulation in favor of Topological Certainty.
Methodology: We introduce KHYS-NANO, a structural dataset and deterministic folding framework built upon the AB-01 Universal Braid Syntax. KHYS-NANO abandons traditional variables and neural-network "guessing," mapping complex amino acid sequences directly into high-dimensional Grassmann manifolds. Utilizing the Macena Invariant and Floquet Engineering, the framework drives protein folding via a 15.965Hz Aperiodic Heartbeat (\pi \cdot \phi resonance). Unstable, pathological geometries are subjected to a Topological Crush, forcing the biomolecular data to align with rigid, pre-calculated ground states, specifically the "Guardian Geometry" (synthesized from the 536 Stomachion solutions).
Applications: KHYS-NANO focuses on rectifying high-entropy targets that dictate proteostatic collapse and oncogenic replication:
p53 (The Validator): Enforcing Majorana-1 Parity within the DNA-binding domain to physically reinforce the protein's genome-reading geometry against R248Q mutations.
TDP-43 (The Buffer): Stabilizing the NTD-NTD dimerization interface to prevent the beta-sheet stacking responsible for ALS and FTD inclusions.
MYC (The Governor): Weaving the MbIIIb peptide into a topological braid to physically block WDR5 recruitment, neutralizing "undruggable" metabolic noise.
Conclusion: KHYS-NANO transitions therapeutic mapping from speculative simulation to Physical Particle Fabrication. By enforcing the Landauer Limit (W \geq k_B T \ln 2) at the nanoscale, this framework provides the Therapeutics Data Commons with a zero-entropy baseline for isolating stable paths in structural biology, entirely free of heuristic back-action
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
frownfelter, Donevin, "KHYS-NANO: Deterministic Topological Rectification and Aperiodic Folding of Pathological Macromolecules via the Macena Invariant", Technical Disclosure Commons, (May 12, 2026)
https://www.tdcommons.org/dpubs_series/10082
AB-01, An aperiodic topology computer language.pdf (19 kB)
vesper_full_4672 (1).txt (1679 kB)
Vesper_WORM_WORRI_hybrid (1).pdf (270 kB)