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# AnomalydetectionAutoencoder
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"This is a tutorial for anomaly detection with Autoencoder. The tutorial is based on 'Anomalies, Representations, and Self-Supervision' (arXiv:2301.04660). The aim here is to reproduce the upper left panel of Figure 1 from arXiv:2301.04660. Please first ensure that the necessary modules are installed. The notebook is created for a dataset provided as based on JHEP 05 (2019) 036, arXiv:1811.10276 (see also arXiv:2107.02157). The original training data can be found here: [https://zenodo.org/record/5046428](https://zenodo.org/record/5046428). The pp > A > 4l new physics (NP) samples are available at [https://zenodo.org/record/5046428](https://zenodo.org/record/5046428). Please utilize the 20k training samples for a less computationally intensive environment."
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For inverse training, utilize Ato4l_inv.npy and background_inv.npy. Now the training should be done with the NP sampmes i.e. pp > A > 4l. Here the aim is to see the how the how good SM data can be tagged as anomaly if we train on NP samples.
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For inverse training, utilize Ato4l_inv.npy and background_inv.npy. Now the training should be done with the NP sampmes i.e. pp > A > 4l. Here the aim is to see the whether we can tag anomalous Standard Model events.
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For creating the representation utlize AnoCLR.ipynb. The augmentation and loss funtions can be found from the modules shared in [https://github.com/bmdillon/AnomalyCLR] .

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