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Pancakes: Consistent Multi-Protocol Image Segmentation Across Biomedical Domains

Neural Information Processing Systems

A single biomedical image can be meaningfully segmented in multiple ways, depending on the desired application. For instance, a brain MRI can be segmented according to tissue types, vascular territories, broad anatomical regions, finegrained anatomy, or pathology, etc. Existing automatic segmentation models typically either (1) support only a single protocol - the one they were trained on - or (2) require labor-intensive manual prompting to specify the desired segmentation. We introduce Pancakes, a framework that, given a new image from a previously unseen domain, automatically generates multi-label segmentation maps for multiple plausible protocols, while maintaining semantic consistency across related images. Pancakes introduces a new problem formulation that is not currently attainable by existing foundation models. In a series of experiments on seven held-out datasets, we demonstrate that our model can significantly outperform existing foundation models in producing several plausible whole-image segmentations, that are semantically coherent across images.



Example Pair: Depth-> Image Output Example Pair: Hed-> Image Output In-Context Learning Unlocked for Diffusion Models

Neural Information Processing Systems

Given a pair of task-specific example images, such as depth from/to image and scribble from/to image, and a text guidance, our model automatically understands the underlying task and performs the same task on a new query image following the text guidance.



Soft-Gated Warping-GAN for Pose-Guided Person Image Synthesis

Neural Information Processing Systems

Despite remarkable advances in image synthesis research, existing works often fail in manipulating images under the context of large geometric transformations. Synthesizing person images conditioned on arbitrary poses is one of the most representative examples where the generation quality largely relies on the capability of identifying and modeling arbitrary transformations on different body parts. Current generative models are often built on local convolutions and overlook the key challenges (e.g.






OptimizingRelevanceMapsofVision TransformersImprovesRobustness

Neural Information Processing Systems

It has been observed that visual classification models often rely mostly on spurious cues such as the image background, which hurts their robustness to distribution changes. To alleviate this shortcoming, we propose to monitor the model's relevancy signal and direct the model to base its prediction on the foregroundobject.