12 Gene Mutation Corelated with Organelle Geometry & Phisics

BioEngine v2 is a deterministic, multi-scale biophysical simulator that modelsthe coupled dynamics of a single eukaryotic cell across four hierarchical levels:genomic parameter modulation (M1), biochemical ODE dynamics (M2), structuralmechanical deformation (M3), and organelle spatial geometry (M4). The scientific problem addressed is the integration of causal links between geneexpression, metabolic state, nuclear mechanics, and organelle distribution — fourdomains measured separately in experimental biology but physiologically inseparablein living cells. The approach is a coupled parameter-bus architecture: a shared data structure(GenomicParameterBus) carries scalar modifiers derived from genomic or biochemicalinputs, which propagate through M2→M3→M4 in sequence, with an explicit mechano-biochemical feedback loop (YAP/TAZ, M3→M2). All outputs are expressed inphysically meaningful units (Pa, nM, μm, J), anchored to calibrated literaturevalues. Test Results, Tests Scripts, Graphs , Tumor Math Scripts, Data Used From Literature, Digital Program Derived From the Architecture For Data Pipeline Analisis etc.Research Pupose, Open Invite Open Source Project

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-10
DOI
https://doi.org/10.5281/zenodo.20109254
Primary Topic
Microtubule and mitosis dynamics
Type
article
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article

12 Gene Mutation Corelated with Organelle Geometry & Phisics

Ionut Alexandru Stefan
Zenodo (CERN European Organization for Nuclear Research)
Microtubule and mitosis dynamics
article

12 Gene Mutation Corelated with Organelle Geometry & Phisics

Ionut Alexandru Stefan
article en

Abstract

BioEngine v2 is a deterministic, multi-scale biophysical simulator that modelsthe coupled dynamics of a single eukaryotic cell across four hierarchical levels:genomic parameter modulation (M1), biochemical ODE dynamics (M2), structuralmechanical deformation (M3), and organelle spatial geometry (M4). The scientific problem addressed is the integration of causal links between geneexpression, metabolic state, nuclear mechanics, and organelle distribution — fourdomains measured separately in experimental biology but physiologically inseparablein living cells. The approach is a coupled parameter-bus architecture: a shared data structure(GenomicParameterBus) carries scalar modifiers derived from genomic or biochemicalinputs, which propagate through M2→M3→M4 in sequence, with an explicit mechano-biochemical feedback loop (YAP/TAZ, M3→M2). All outputs are expressed inphysically meaningful units (Pa, nM, μm, J), anchored to calibrated literaturevalues. Test Results, Tests Scripts, Graphs , Tumor Math Scripts, Data Used From Literature, Digital Program Derived From the Architecture For Data Pipeline Analisis etc.Research Pupose, Open Invite Open Source Project

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 7%
Microtubule and mitosis dynamics
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12 Gene Mutation Corelated with Organelle Geometry & Phisics — Ionut Alexandru Stefan · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS