The Variational Principle of Persistence: Mathematical Foundations and Computational Validation in Biological, Physical, and Topological Systems
Abstract
This record provides the archival, reproducible companion package for the manuscript “The Variational Principle of Persistence (VPP): Mathematical Foundations and Computational Validation in Biological, Physical, and Topological Systems.” VPP is presented as a domain-general structural framework for persistence under uncertainty: increasing structural closure/control can yield protective benefits while also incurring accelerating maintenance/coordination costs, leading to an interior optimum and an “over-closure” failure regime (the Systemic Reduction Paradox, SRP). Validated domains (computational) The manuscript and accompanying code validate the framework across three disjoint domains: Bacterial thermal performance (Sharpe–Schoolfield family): cross-species prediction and survival simulations under stochastic thermal stress. Statistical physics (2D Ising model): the VPP optimum localizes the critical region and remains stable under smooth monotone reparameterizations and finite-size checks. Complex networks (Watts–Strogatz model): an interior optimum emerges, and excessive closure reproduces the SRP pattern. What is included in this version This version is intended to be fully reproducible (no manual patching required) and includes: Manuscript PDF (updated “Route 2 / V2” revision). Overleaf-ready LaTeX bundle containing the manuscript sources and the complete figure set. Reproducible code snapshot (Python scripts) used to generate the key figures and statistics, including sensitivity/robustness analyses. Supporting artifacts (generated outputs/archives) to enable end-to-end verification and quick inspection of results. Reproducibility (quick start) A minimal reproduction on a clean environment is: Install dependencies from requirements.txt. Run the full pipeline via run_all.py (if available in the snapshot), or execute the figure scripts individually as listed in the repository README. The pipeline writes figures and summary artifacts to the designated output folders included in the bundle. A Colab-friendly workflow is supported using the provided scripts bundle (unzip → install requirements → run). This record is designed so a reviewer can reproduce the figures with standard Python tooling in a fresh environment.
Fields of Study & Subjects
Gene Regulatory Network Analysis
Bacterial Genetics and Biotechnology
Protein Structure and Dynamics
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 3 January 2026
- Document type
- Preprint