Dependency Packages
-
ClimaAtmos.jl79ClimaAtmos.jl is a library for building atmospheric circulation models that is designed from the outset to leverage data assimilation and machine learning tools. We welcome contributions!
-
SemanticModels.jl77A julia package for representing and manipulating model semantics
-
ParameterizedFunctions.jl77A simple domain-specific language (DSL) for defining differential equations for use in scientific machine learning (SciML) and other applications
-
Modia3D.jl74Modeling and Simulation of 3D systems
-
MultiScaleArrays.jl73A framework for developing multi-scale arrays for use in scientific machine learning (SciML) simulations
-
OpenQuantumTools.jl72Julia toolkit for open quantum system simulation.
-
ReactionMechanismSimulator.jl72The amazing Reaction Mechanism Simulator for simulating large chemical kinetic mechanisms
-
HighDimPDE.jl71A Julia package for Deep Backwards Stochastic Differential Equation (Deep BSDE) and Feynman-Kac methods to solve high-dimensional PDEs without the curse of dimensionality
-
IonSim.jl71A simple tool for simulating trapped ion systems
-
RigidBodySim.jl71Simulation and visualization of articulated rigid body systems in Julia
-
QuantumCumulants.jl70Generalized mean-field equations in open quantum systems
-
ODINN.jl68Global glacier model using Universal Differential Equations for climate-glacier interactions
-
WorldDynamics.jl65An open-source framework written in Julia for global integrated assessment models.
-
StockFlow.jl63-
-
ModelPredictiveControl.jl63An open source model predictive control package for Julia.
-
AtomicGraphNets.jl62Atomic graph models for molecules and crystals in Julia
-
CellMLToolkit.jl62CellMLToolkit.jl is a Julia library that connects CellML models to the Scientific Julia ecosystem.
-
Conductor.jl61Choo-choo
-
DelayDiffEq.jl59Delay differential equation (DDE) solvers in Julia for the SciML scientific machine learning ecosystem. Covers neutral and retarded delay differential equations, and differential-algebraic equations.
-
FMIFlux.jl55FMIFlux.jl is a free-to-use software library for the Julia programming language, which offers the ability to place FMUs (fmi-standard.org) everywhere inside of your ML topologies and still keep the resulting model trainable with a standard (or custom) FluxML training process.
-
RobustAndOptimalControl.jl55Robust and optimal design and analysis of linear control systems
-
GpABC.jl54-
-
DynamicalSystemsBase.jl54Definition of dynamical systems and integrators for DynamicalSystems.jl
-
Sophon.jl54Efficient, Accurate, and Streamlined Training of Physics-Informed Neural Networks
-
TORA.jl51Trajectory Optimization for Robot Arms
-
DeepEquilibriumNetworks.jl49Implicit Layer Machine Learning via Deep Equilibrium Networks, O(1) backpropagation with accelerated convergence.
-
SymbolicControlSystems.jl49C-code generation and an interface between ControlSystems.jl and SymPy.jl
-
MinimallyDisruptiveCurves.jl49Finds relationships between the parameters of a mathematical model
-
DiffEqPhysics.jl48A library for building differential equations arising from physical problems for physics-informed and scientific machine learning (SciML)
-
ClimaTimeSteppers.jl46A CPU- and GPU-friendly package for solving ordinary differential equations
-
SpectralDistances.jl46Measure the distance between two spectra/signals using optimal transport and related metrics
-
MomentClosure.jl44Tools to generate and study moment equations for any chemical reaction network using various moment closure approximations
-
BoundaryValueDiffEq.jl42Boundary value problem (BVP) solvers for scientific machine learning (SciML)
-
InformationGeometry.jl40Methods for computational information geometry
-
NonlinearSchrodinger.jl40A suite of tools for solving Nonlinear Schrodinger equations via higher-order algorithms and Darboux transformations.
-
Petri.jl40A Petri net modeling framework for the Julia programming language
-
SBMLToolkit.jl39SBML differential equation and chemical reaction model (Gillespie simulations) for Julia's SciML ModelingToolkit
-
SIIPExamples.jl37Examples of how to use the modeling capabilities developed under the Scalable Integrated Infrastructure Planning Initiative at NREL.
-
BlobTracking.jl36Detect and track blobs in video
-
HierarchicalEOM.jl35An efficient Julia framwork for Hierarchical Equations of Motion (HEOM) in open quantum systems
Loading more...