dimitra-maoutsa/odes_for_sdes

Deterministic particle dynamics for simulating Fokker-Planck probability flows

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This framework helps scientists and engineers simulate the probability distribution of systems that change randomly over time. You input the mathematical description of your system's random behavior (Stochastic Differential Equation) and get out a smooth, computationally efficient simulation of how the probability of system states evolves. This is for researchers and practitioners in fields like physics, finance, or biology who need to understand the underlying probability flows of complex dynamic systems.

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Use this if you need to simulate the temporal evolution of probability densities governed by Fokker-Planck equations, especially when you require smooth transient solutions and computational efficiency.

Not ideal if you are looking for a simple, off-the-shelf solver for basic differential equations without a focus on stochastic processes or their probability distributions.

stochastic-systems probability-modeling fokker-planck-equations particle-dynamics numerical-simulation
Stale 6m No Package No Dependents
Maintenance 0 / 25
Adoption 7 / 25
Maturity 16 / 25
Community 4 / 25

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Language

Jupyter Notebook

License

MIT

Last pushed

Mar 07, 2023

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