Two-state dynamics for replicating two-strand systems
Diederik Aerts, Marek Czachor
Abstract
We propose a formalism for describing two-strand systems of a DNA type by means of soliton von Neumann equations, and illustrate how it works on a simple example exactly solvably by a Darboux transformation. The main idea behind the construction is the link between solutions of von Neumann equations and entangled states of systems consisting of two subsystems evolving in time in opposite directions. Such a time evolution has analogies in realistic DNA where the polymerazes move on leading and lagging strands in opposite directions.
Create a lesson
Related papers
Self-Replicating Neural Cellular Automata: Quantifying Emergent Phenotypic and Genotypic Diversity in an OpenEnded Substrate
Sanyam Jain, Felix Simon Reimers, Stefano Nichele
Optimum foraging area in a three-trophic food chain
Lucas Massoni, Rafael Menezes, Marcus A. M. de Aguiar et al.
Graph construction in QUBO-based recursive phylogenetic tree reconstruction
Yoshiki Kanazawa, Ashish Joshi, Takahiko Koyama
Anomalous First Passage in Evolution: Edge-KPZ Theory
Tetsuhiro S. Hatakeyama
Navigating the Delicate Geometry of Beehive Mite Infestation with Optimal Control
Julia Saff, Bhargav R. Karamched
Evolution of Fast and Slow Life Histories in Resource-Constrained Populations with Mass-Mortality Events
Éloi Martin, David Steinsaltz