Use cases

Computational Electromagnetics

Running heavy algorithms like MEEP FDTD to simulate electromagnetic structure may be time and ressource consuming. Using CWA lets one optimize time and efficiency for large simulations campaigns. Send simulations parameters, run them and retrieve results.

Exemple de sortie de MEEP FDTD sur guide droit avec source ponctuelle
2D waveguide FDTD EM fields simulation (reference)

Quantitative Magnetic Resonance Imaging (quantitative MRI, qMRI, MRI, SoQut Imaging 2017-2021)

Quantitative Magnetic Resonance Imaging (quantitative MRI, qMRI, MRI) involves processing DICOM files. These files are not designed for intensive data processing and parallel computation. Using CWA, one can overcome this limitation and, paired with a well chosen PACS (Picture, Archiving and Communication System) software, get a complete intensive data processing software suite “on premise” or in the Cloud. This work has been initially done for SoQut Imaging. Finally, why not combining CWA with hMRI-toolbox, qMRLab or PyQMRI?

An example is available on the repository.

Example d’IRM quantitative sur cartilage articulaire
Quantitative MRI of articular cartilage, T and T2 maps (reference)

Artificial Intelligence Model Training

Training an AI model may be time and ressource consuming. One can chose a adequate HPC, deploy CWA on it to send data, control and monitor processes designed with  KerasPyTorch or TensorFlow. Send training data with consistent parameters, run model training, retrieve resulting model and it’s done.

Segmentation IRM du cerveau par IA
From one brain scan, more information for medical artificial intelligence, segmentation example (reference)