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    Nature Communications – Intra-tumoral heterogeneity and cell-state plasticity contribute to the development of therapeutic resistance in glioblastoma (GBM). Here the authors use two deep learning…

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    • SCI member @ogevaert and team developed a #DeepLearning model to predict transcriptional subtypes of #glioblastoma cells using spatial transcriptomics data and histology images. https://t.co/O2230Oeggm #BrainCancer https://t.co/RPq6ddCWUK

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    Nature Communications – Inspired by human analogical reasoning in cognitive science, the authors propose an approach combining deep learning systems with an analogical reasoning mechanism, to…

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    • Inspired by human analogical reasoning in cognitive science, @TaylorWWebb et al. propose an approach combining #deeplearning systems with an analogical #reasoning mechanism, to detect abstract similarity in real-world images without intensive training https://t.co/4TETHRWnQ2

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    Motion artifacts are a pervasive problem in MRI, leading to misdiagnosis or mischaracterization in population-level imaging studies. Current retrospective rigid intra-slice motion correction techniques jointly optimize estimates of the image and the motion parameters. In this paper, we use a deep network to reduce the joint image-motion parameter search to a search over rigid motion parameters…

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    • Researchers combine #deeplearning and physics to fix motion-corrupted #MRIscans @MIT @arxiv https://t.co/NfoOD2W7Sj https://t.co/uEYNI0eKh7

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    Deep learning (DL) is a subdomain of artificial intelligence algorithms capable of automatically evaluating subtle graphical features to make highly accurate predictions, which was recently popularized in multiple imaging-related tasks. Because of its capabilities to analyze medical imaging such as radiology scans and digitized pathology specimens, DL has significant clinical potential as a diagnostic or prognostic tool. Coupled with rapidly increasing quantities of digital medical data, numerous novel research questions and clinical applications of DL within medicine have already been explored. Similarly, DL research and applications within hematology are rapidly emerging, although these are still largely in their infancy. Given the exponential rise of DL research for hematologic conditions, it is essential for the practising hematologist to be familiar with the broad concepts and pitfalls related to these new computational techniques. This narrative review provides a visual glossary

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    • #DeepLearning (DL), a subdomain of #ArtificialIntelligence, can analyze medical imaging with great clinical potential as a diagnostic or prognostic tool. Read the new review on DL in hematology. https://t.co/ecitqhjVrx https://t.co/GIOqVFGcfm