MOF Methane Storage — 2D Kinetic Monte Carlo Adsorption Lattice
Interactive 2D kinetic Monte Carlo simulation of methane adsorption in a metal-organic framework: a stochastic lattice of independent pore sites switches on and off at Langmuir adsorption/desorption rates, its ensemble-averaged coverage tracked live against the analytic isotherm and used to read deliverable pressure-swing storage capacity.
This is the 2D counterpart to the 3D MOF Methane Storage simulator. Rather than positioning instanced molecules in a rendered 3D lattice, it runs an independent kinetic Monte Carlo process on every pore site of a 2D grid: each site adsorbs and desorbs stochastically at rates set by the real Langmuir kinetics k_a·P·(1−θ) − k_d·θ, and the emergent, ensemble-averaged coverage is checked live against the closed-form isotherm θ_eq = b(T)·P/(1+b(T)·P). Tune the charge/discharge pressures and temperature and watch the stochastic lattice — and the deliverable working capacity read off it — respond exactly as the analytic theory predicts, fluctuations and all.
A 2D kinetic Monte Carlo simulation of methane adsorption in a metal-organic framework: hundreds of independent pore sites on a grid switch on and off at real Langmuir adsorption/desorption rates, their ensemble-averaged coverage tracked live against the analytic isotherm n(P) = n_max*b*P/(1+b*P), used to read deliverable pressure-swing storage capacity.
2D · HTML5 Canvas 2D · 60 FPS target · runs fully client-side, no install