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eahenle committed Jun 26, 2024
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![PorousMaterials.jl](assets/PMlogo.png)
A pure-[Julia](https://julialang.org/) package for classical molecular modeling of adsorption in porous crystals such as metal-organic frameworks (MOFs).

🔨 Compute the potential energy of a molecule at particular position and orientation inside of a porous crystal

🔨 Write a potential energy grid of a molecule inside a porous material to visualize binding sites

🔨 Compute the Henry coefficient of a gas in a porous crystal

🔨 Run grand-canonical Monte Carlo simulations of gas adsorption in a porous crystal

Designed for high-throughput computations to minimize input files and querying results from output files. User-friendly. Instructive error messages thrown when they should be. Well-documented. Easy to install.

*In development, please contribute, post issues 🐛, and improve!*

## Installation

1. Download and install the [Julia programming language](https://julialang.org/), v1.5 or higher.

2. In Julia, open the package manager (using `]`) and enter the following:

```julia
pkg> add PorousMaterials
```

3. In Julia, load all functions in `PorousMaterials.jl` into the namespace:

```julia
julia> using PorousMaterials # that's it
```

## Tests
Run the tests in the script `tests/runtests.jl` manually or by `] test PorousMaterials` in the Julia REPL.

Direct tests for Henry coefficients and grand-canonical Monte Carlo simulations take much longer and must be run separately; they are found in `tests/henry.jl` and `tests/gcmc_long.jl`.
![PorousMaterials.jl](assets/PMlogo.png)
A pure-[Julia](https://julialang.org/) package for classical molecular modeling of adsorption in porous crystals such as metal-organic frameworks (MOFs).

🔨 Compute the potential energy of a molecule at particular position and orientation inside of a porous crystal

🔨 Write a potential energy grid of a molecule inside a porous material to visualize binding sites

🔨 Compute the Henry coefficient of a gas in a porous crystal

🔨 Run grand-canonical Monte Carlo simulations of gas adsorption in a porous crystal

Designed for high-throughput computations to minimize input files and querying results from output files. User-friendly. Instructive error messages thrown when they should be. Well-documented. Easy to install.

*In development, please contribute, post issues 🐛, and improve!*

## Installation

1. Download and install the [Julia programming language](https://julialang.org/), v1.5 or higher.

2. In Julia, open the package manager (using `]`) and enter the following:

```julia
pkg> add PorousMaterials
```

3. In Julia, load all functions in `PorousMaterials.jl` into the namespace:

```julia
julia> using PorousMaterials # that's it
```

## Tests
Run the tests in the script `tests/runtests.jl` manually or by `] test PorousMaterials` in the Julia REPL.

Direct tests for Henry coefficients and grand-canonical Monte Carlo simulations take much longer and must be run separately; they are found in `tests/henry.jl` and `tests/gcmc_long.jl`.

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