Differential Topological Interaction of Coherent Vacuum Phonons (TASAL) with Helical Biopolymers: Acoustic Sequencing and Resonant Unknotting of RNA

Building upon the Topological Resonant Fractal Continuum (TRFC) theory and the architecture of the Topological Acoustic Laser (TASAL), this paper investigates the interaction between coherent 4D vacuum phonons (A-photons) and macroscopic biological topological defects, specifically DNA and RNA. We demonstrate that double-stranded DNA exhibits "topological transparency" due to the symmetric compensation of intrinsic vacuum vorticity. Conversely, single-stranded RNA possesses an uncompensated helical writhe, leading to strong hydrodynamic coupling with the TASAL beam. This differential interaction provides a theoretical foundation for three breakthrough mechanisms: 1) "Topological Tweezers" for the chiral spatial alignment of RNA via acoustic metric dragging; 2) "Resonant Unknotting" (Acoustic Scissors), enabling the targeted topological dissociation of specific viral RNA sequences through catastrophic frequency interference; and 3) "Metric Sequencing," allowing for the label-free, ultra-fast reading of genetic information via the unique acoustic backscattering profiles of individual nucleobase KIFS attractors.