Huijben, Iris

van Sloun, Ruud J.G.

Veeling, Bastiaan S.

English

The field of deep learning is commonly concerned with optimizing predictive models using large pre-acquired datasets of densely sampled datapoints or signals. In this work, we demonstrate that the deep learning paradigm can be extended to incorporate a subsampling scheme that is jointly optimized under a desired sampling rate. We present Deep Probabilistic Subsampling (DPS), a widely applicable framework for task-adaptive compressed sensing that enables end-to-end optimization of an optimal subset of signal samples with a subsequent model that performs a required task. We demonstrate strong performance on reconstruction and classification tasks of a toy dataset, MNIST, and CIFAR10 under stringent subsampling rates in both the pixel and the spatial frequency domain. Thanks to the data-driven nature of the framework, DPS is directly applicable to all real-world domains that benefit from sample rate reduction. The code used for this paper is made publicly available

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Deep probabilistic subsampling for task-adaptive compressed sensing

https://pure.tue.nl/ws/files/163731799/Deep_probabilistic_subsampling_for_task_adaptive_compressed_sensing_CameraReady.pdf

Deep probabilistic subsampling for task-adaptive compressed sensing

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