Adversarial regression training for visualizing the progression of chronic obstructive pulmonary disease with chest x-rays
August 27, 2019 Β· Entered Twilight Β· π International Conference on Medical Image Computing and Computer-Assisted Intervention
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Repo contents: .gitignore, LICENSE, README.md, images, metrics.py, opts.py, outputs.py, requirements.txt, synth_dataset.py, train.py, unet.py
Authors
Ricardo Bigolin Lanfredi, Joyce D. Schroeder, Clement Vachet, Tolga Tasdizen
arXiv ID
1908.10468
Category
eess.IV: Image & Video Processing
Cross-listed
cs.CV,
cs.GR
Citations
15
Venue
International Conference on Medical Image Computing and Computer-Assisted Intervention
Repository
https://github.com/ricbl/vrgan
β 8
Last Checked
1 month ago
Abstract
Knowledge of what spatial elements of medical images deep learning methods use as evidence is important for model interpretability, trustiness, and validation. There is a lack of such techniques for models in regression tasks. We propose a method, called visualization for regression with a generative adversarial network (VR-GAN), for formulating adversarial training specifically for datasets containing regression target values characterizing disease severity. We use a conditional generative adversarial network where the generator attempts to learn to shift the output of a regressor through creating disease effect maps that are added to the original images. Meanwhile, the regressor is trained to predict the original regression value for the modified images. A model trained with this technique learns to provide visualization for how the image would appear at different stages of the disease. We analyze our method in a dataset of chest x-rays associated with pulmonary function tests, used for diagnosing chronic obstructive pulmonary disease (COPD). For validation, we compute the difference of two registered x-rays of the same patient at different time points and correlate it to the generated disease effect map. The proposed method outperforms a technique based on classification and provides realistic-looking images, making modifications to images following what radiologists usually observe for this disease. Implementation code is available at https://github.com/ricbl/vrgan.
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