CryoLithe: Rapid Cryo-ET Reconstruction via Transform-Localized Deep Learning
Vinith Kishore1 , Valentin Debarnot2 , Amir Khorashadizadeh1 , Ricardo D. Righetto3 , Benjamin D. Engel3 , Ivan Dokmanić1 .
1 Department of Mathematics and Computer Science, University of Basel,
2 INSA‐Lyon, Universite Claude Bernard Lyon 1, CNRS, Inserm, CREATIS UMR 5220, U1294,
3 Biozentrum, University of Basel.
CryoLithe a supervised learning method. The strength of CryoLithe is that reconstructing such a volume takes 4 minutes, against 12 hours for Icecream and 24 hours for DeepDeWedge. A strong or not so strong feature is that CryoLithe doesn’t require any parameters, only the aligned tilt-series. This webpage aims at providing reconstruction example and documentation on how to use the code.
Table of Contents
- What to expect with CryoLithe?
- How to use CryoLithe
- Examples of reconstructions
- Training CryoLithe on your data
- How to cite?
What to expect with CryoLithe?
We illustrate CryoLithe on a tomogram from the test dataset (EMPIAR-11830).
In the following figures, we reported CryoLithe along with:
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Icecream, a self-supervised framework for cryo-ET reconstruction that integrates equivariance principles from modern imaging theory into a deep-learning architecture. This is probably state-of-the-art reconstruction in term of quality for most tomograms.
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Topaz-Denoise, a deep learning method for rapid denoising of cryoEM images and cryoET tomogram.
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Filtered back-projection, or weighted back projection. This was performed using Imod and the
tiltfunction.
About technical details. The pixel size is 7.84Å and the tomogram contains 1024 x 1024 x 512 pixels.