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cd ~/BioExcel_SS_2025/HADDOCK/HADDOCK3-antibody-antigen<br>
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</a>
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This will create the `HADDOCK3-antibody-antigen` directory with all necessary data and scripts and job examples ready for submission to the batch system.
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HADDOCK3 is part of the standard software supported on discoverer. To activate the HADDOCK3 environment load the following modules:
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This directory contains all necessary data and scripts to run this tutorial.
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To activate the HADDOCK3 environment type:
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<aclass="prompt prompt-cmd">
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module load python/3/3.12<br>
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module load haddock3/2025.5.0
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haddock3env<br>
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</a>
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which is alias to `source ~/BioExcel_SS_2025/HADDOCK/haddock3/.venv/bin/activate`
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You can then test that `haddock3` is indeed accessible with:
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<aclass="prompt prompt-cmd">
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-**mpi**: HADDOCK3 also supports a pseudo parallel MPI implementation, which allows to harvest the power of multiple nodes to distribute the computations (functional but still very experimental at this stage).
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<hr>
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#### Execution of HADDOCK3 on the computers of the BioExcel 2025 summerschool
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To execute the HADDOCK3 workflow on the computational resources provided for this workshop,
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we will simply run in local mode, calling haddock3 with as argument the workflow you want to execute.
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{% highlight shell %}
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haddock3 <my-workflow-configuration-file>
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{% endhighlight %}
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Alternatively redirect the output to a log file and send haddock3 to the background.
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As an indication, running locally on an Apple M2 laptop using 10 cores, this workflow completed in 7 minutes.
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<hr>
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#### Execution of HADDOCK3 on DISCOVERER (BioExcel Sofia May 2025 workshop)
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<detailsstyle="background-color:#DAE4E7">
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<summarystyle="bold">
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<i>View execution instructions for running HADDOCK3 on DISCOVERER</i> <i class="material-icons">expand_more</i>
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</summary>
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To execute the HADDOCK3 workflow on the computational resources provided for this workshop,
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you should create an execution script contain specific requirements for the queueing system and the HADDOCK3 configuration and execution.
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An example slurm script is provided with the data you unzipped:
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This example run should take about 7 minutes to complete on a single node using 50 cores.
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</details>
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<hr>
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### PROT-ON and haddock3-scoring to inspect a single mutation
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PROT-ON (Structure-based detection of designer mutations in PROTein-protein interface mutatiONs) is a tool and [online server](http://proton.tools.ibg.edu.tr:8001/about) that scans all possible interfacial mutations and **predicts ΔΔG score** by using EvoEF1 (active in both on the web server and stand-alone versions) or FoldX (active only in the stand-alone version) with the aim of finding the most mutable positions. The original publication describing PROT-ON can be found [here](https://www.frontiersin.org/journals/molecular-biosciences/articles/10.3389/fmolb.2023.1063971/full).
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PROT-ON (Structure-based detection of designer mutations in PROTein-protein interface mutatiONs) is a tool and [online server](http://proton.tools.ibg.edu.tr:8001/about){:target="_blank"} that scans all possible interfacial mutations and **predicts ΔΔG score** by using EvoEF1 (active in both on the web server and stand-alone versions) or FoldX (active only in the stand-alone version) with the aim of finding the most mutable positions. The original publication describing PROT-ON can be found [here](https://www.frontiersin.org/journals/molecular-biosciences/articles/10.3389/fmolb.2023.1063971/full){:target="_blank"}.
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Here we will use PROT-ON to analyse the interface of our antibody-antigen complex. For that, we will use the provided matched reference structure (`4G6M-matched.pdb`) in which both chains of the antibody have the same chainID (A), which allows us to analyse all interface residues of the antibody at once.
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__Note:__ Pre-calculated PROT-ON results for this system can be accessed [here](http://proton.tools.ibg.edu.tr:8001/result/ebcdec31308c46acb82e8010f7f21df1){:target="_blank"}.
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<aclass="prompt prompt-info">
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Connect to the PROT-ON server page (link above) and fill in the following fields:
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