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@@ -13,3 +13,113 @@ the quasielastic neutron scattering results as S(q,w). The same and many other
 observables can also be calculated using [MDANSE](https://github.com/ISISNeutronMuon/MDANSE).
 
 [![codecov](https://codecov.io/gh/MDMCproject/MDMCv0.2_pilot/branch/master/graph/badge.svg?token=Ysd1yn7alI)](https://codecov.io/gh/MDMCproject/MDMCv0.2_pilot)
+
+# Installation instructions
+
+## Set up a virtual environment
+
+We encourage installing MDMC in a Python virtual environment.
+A basic way of creating one in your current working directory
+is by using Python's venv module:
+```
+python -m venv mdmc_venv
+```
+
+When you want to use the environment, activate it by running
+```
+source mdmc_venv/bin/activate
+```
+or
+```
+mdmc_venv\Scripts\activate.bat
+```
+
+There are other popular tools for creating and using
+virtual environments, including conda and uv. If you are familiar
+with them, you are welcome to use them instead.
+
+## Get the code
+
+Clone the repository and install the software by running
+```
+git clone https://github.com/ISISNeutronMuon/MDMC
+cd MDMC
+pip install .
+```
+
+Instead of using git, you can also ownload the code from
+the [MDMC Github repository](https://github.com/ISISNeutronMuon/MDMC)
+as a zip file, then install using pip same as above.
+
+# Getting started
+
+## Tutorials
+
+For a step-by-step introduction to MDMC and its workflow, you can try out
+the Jupyter notebooks located in `doc/tutorials`. They contain Python code
+together with the text explaining the role of each code section.
+
+## Examples
+
+The `examples` directory contains Python scripts designed for specific
+optimisation tasks. Depending on the kind of system you want to simulate,
+you can try one of the example scripts and use them as the starting point
+for creating your own.
+
+#### Argon
+
+Simple example of a monoatomic gas. There are no chemical bonds or
+electrostatic interactions. The reference data are the results
+of a QENS experiment on argon-36, which has 0 incoherent scattering
+cross-section.
+
+- argon-openmm.py - a basic refinement using MDMC.
+- argon-openmm-ensembles.py - the equilibration is done in multiple run with different ensembles.
+- argon-openmm-mdanse.py - the S(Q,w) is calculated using MDANSE instead of MDMC's own implementation
+
+#### Water
+
+Simulations of water using TIP3P and TIP4P potentials. The reference data
+are the QENS results for supercooled water at T=263K. This simulation
+includes small molecules with bonds and angles, and atoms with non-zero
+electric charge.
+
+- water-openmm.py - a refinement using a TIP4P water model.
+- water-openmm-charge.py - uses TIP3P as a starting point, and allows electric charge to be refined.
+- water-openmm-mdanse.py - the S(Q,w) calculation is performed using MDANSE
+
+#### Methanol
+
+These examples do not result in a refinement, but illustrate how a molecule
+can be defined in MDMC.
+
+- methanol-openmm.py - runs a simulation of a system containing methanol molecules
+- methanol-water-from-file.py - loads a system from a PDB file and runs an MD simulation using
+  OPLS force field. Also saves the trajectory as an H5MD file.
+
+#### Paracetamol
+
+Example of loading a molecule from a CIF file.
+
+- paracetamol-openmm.py - loads the molecule definition from a CIF file and runs an MD simulation
+  of a system containing several copies of the molecule
+
+#### Benzene
+
+Refinement example using benzene molecules. Currently does not include
+valid experimental results for benzene.
+
+- benzene-mdanse.py - loads a benzene molecule structure from a PDB file; bond angles and
+  dihedral angles are added manually. Runs a refinement based on QENS results calculated
+  using MDANSE.
+
+#### Strontium titanate
+
+Refinement is performed for a solid system. Reference data are simulated, produced from an
+MD simulation performed using VASP and analysed using MDANSE.
+
+- sto-dos.py - refinement aiming to reproduce the vibrational density of states of the reference system.
+- srtio3-openmm-mdanse.py - This simulation uses chemical bonds which span across the entire simulation
+  box and form an infinite network within the periodic boundary of the system. Also, it uses two
+  observables that are included in the fitting at each step. The refinement aims to reproduce both
+  the reference pair distribution function (PDF) and vibrational density of states (DOS).