#27 · Systems biology
ATP level and phosphorylation free energy set trigger-wave speed and nucleus size
The three preprints share a modeling stance in which an explicit parameter is varied and its effect on a dynamical output is characterized within a constrained theoretical framework. The reaction-diffusion study presents a thermodynamically consistent description in which ATP level and phosphorylation free energy modulate trigger-wave speed, direction, and critical nucleus size. The synaptic crowding study derives an exact in-degree solution for a minimal wiring rule, showing that it yields small-world structure and shapes attractor basins in threshold network dynamics. The breast cancer study analyzes an NF-kB-centered gene regulatory network with HER2+ and TNBC attractors, linking phase-space distance and bifurcation structure to phenotypic plasticity. What is distinctive is the use of thermodynamic or analytically tractable formulations so that descriptor values trace back to model structure. These thread-level claims remain provisional pending review.
Preprints
ATP Level and Phosphorylation Free Energy Regulate Trigger-Wave Speed and Critical Nucleus Size in Cellular Biochemical Systems
Thermodynamically consistent reaction-diffusion framework showing ATP level and phosphorylation free energy modulate trigger-wave speed, direction, and…
Analytically tractable model of synaptic crowding explains emergent small-world structure and network dynamics
Minimal synaptic crowding wiring rule with exact in-degree solution; yields small-world structure and shapes attractor basins in threshold network dynamics.
Phase-space distance between stationary states mudulates phenotypic plasticity in breast cancer
Analyzes an NF-kB-centered gene regulatory network with HER2+ and TNBC attractors, showing phase-space distance and bifurcation structure govern breast cancer…
Topic history
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| #27 | |
| #39 | |
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