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AirLab: Autograd Image Registration Laboratory

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arxiv 1806.09907 v2 pith:FCXF6GBP submitted 2018-06-26 cs.CV

classification cs.CV
keywords registrationimageairlablaboratorymethodsautogradbeencomputed
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Medical image registration is an active research topic and forms a basis for many medical image analysis tasks. Although image registration is a rather general concept specialized methods are usually required to target a specific registration problem. The development and implementation of such methods has been tough so far as the gradient of the objective has to be computed. Also, its evaluation has to be performed preferably on a GPU for larger images and for more complex transformation models and regularization terms. This hinders researchers from rapid prototyping and poses hurdles to reproduce research results. There is a clear need for an environment which hides this complexity to put the modeling and the experimental exploration of registration methods into the foreground. With the "Autograd Image Registration Laboratory" (AIRLab), we introduce an open laboratory for image registration tasks, where the analytic gradients of the objective function are computed automatically and the device where the computations are performed, on a CPU or a GPU, is transparent. It is meant as a laboratory for researchers and developers enabling them to rapidly try out new ideas for registering images and to reproduce registration results which have already been published. AIRLab is implemented in Python using PyTorch as tensor and optimization library and SimpleITK for basic image IO. Therefore, it profits from recent advances made by the machine learning community concerning optimization and deep neural network models. The presented draft of this paper outlines AIRLab with first code snippets and performance analyses. A more exhaustive introduction will follow as a final version soon.

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Cited by 2 Pith papers

Reviewed papers in the Pith corpus that reference this work. Sorted by Pith novelty score. Full citation record

  1. KLDivNet: An unsupervised neural network for multi-modality image registration

    cs.CV 2019-08 conditional novelty 6.0 of 10

    KLDivNet, a neural estimator of the Donsker-Varadhan lower bound on KL-divergence, embedded in a VoxelMorph-style network, improves unsupervised multi-modality deformable registration Dice and ASD over MI and LNCC baselines.

  2. Accelerated Motion-Aware MR Imaging via Motion Prediction from K-Space Center

    eess.IV 2019-08 conditional novelty 5.0 of 10

    A learned motion-prediction model, trained on an initial k-space center acquisition, accelerates motion-aware 4D MRI by about 2x in scan time and 40x in reconstruction time while keeping image quality comparable.

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