Research Labs
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The Computational Biomarker Imaging Group investigates the role of novel quantitative imaging biomarkers for improving personalized decisions for cancer screening, prognosis, and treatment.
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Research in the Kvist Lab is focused on understanding the growth and development of young patients, with a particular emphasis on skeletal health and imaging techniques.
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The Laboratory for Functional Optical Imaging develops novel biomedical imaging and microscopy techniques that use optics to capture information about the structure and function of living tissues.
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LIINC uses principles of reverse “neuro”-engineering to characterize the cortical networks underlying perceptual and cognitive processes, such as rapid decision making, in the human brain.
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The McIlvain Lab focuses on the development of magnetic resonance elastography (MRE), a noninvasive MRI technique for assessing the mechanical properties of soft tissues.
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The Medical Imaging Physics Lab focuses on medical image acquisition technique improvement, using physics and engineering concepts and analysis for clinical translational applications.
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Innovative, cross-translational research to exploit molecular imaging and therapy techniques with the aim of personalizing therapeutics.
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Led by Sam Payabvash, MD, research at the Payabvash Lab is focused on the translation of novel neuroimaging modalities, quantitative analysis, and machine intelligence into clinical practice.
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Dr. Diego Jaramillo's lab is applying a novel MR technique, diffusion tensor imaging of the physis and metaphysis, to better understand normal and abnormal bone growth.
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Dr. Michael Lipton’s lab investigates brain mechanisms of neurobehavioral dysfunction due to injury and disease, and how inter-individual diversity alters these mechanisms and their consequences.
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Led by Elisa Konofagou, PhD, the Ultrasound Elasticity and Imaging Laboratory develops novel, ultrasound-based techniques for both imaging and therapeutic applications.
