A physics-based starting point
Start from undersampled multicoil MRI measurements. A physics-based reconstruction supplies the image estimate that the network learns to refine.
Measurement-conditioned inputsAnatomy-aware AI for one-step accelerated MRI reconstruction. We’re investigating how joint pretraining can help generative models preserve the structures that matter.
For researchers and imaging collaborators.
Global image scores don’t tell the whole story. Our research focuses on preserving fine anatomical structure through a staged learning process, grounded in the acquired MRI measurements.
Start from undersampled multicoil MRI measurements. A physics-based reconstruction supplies the image estimate that the network learns to refine.
Measurement-conditioned inputsOur planned volumetric setup combines reconstruction and tissue-segmentation supervision to develop shared representations of important structures.
Joint pretrainingDrifting-based post-training refines the generated image distribution while retaining paired reconstruction supervision. The goal is a single-pass reconstruction network.
Distributional post-trainingReconDrift is an independent research-stage project exploring jointly pretrained drifting models for accelerated MRI reconstruction.
Can learning to identify anatomical structures first help a generative reconstructor preserve them later?
Evaluating reconstruction pretraining and drifting on slice-based knee MRI prototypes.
Developing volumetric reconstruction with Anatomix features and testing segmentation-to-reconstruction transfer.
We assess reconstruction fidelity, local structural detail, measurement agreement, and computational cost. Improved clinical performance remains to be established.
Interested in reconstruction research, anatomical evaluation, or an early research collaboration? Get in touch to discuss the prototype and access.