My primary research interests concern the development, implementation, and validation of high performance human-assisted computational tools for MR-guided thermal therapies. The underlying research philosophy being that computational science, along with traditional theory and experiment, is a core and essential third pillar of the scientific discovery and engineering design process. Given the trends of increasingly powerful computational and visualization resources and exascale computing abilities on the horizon, computational science will continue to have an escalating role in providing more optimal planning, targeting, monitoring, and assessment of image-guided procedures. The unique dynamic closed loop control system, facilitated by the coupling of the predictive capabilities of computational simulation with real-time imaging feedback, has the potential to enable novel and robust model-constrained approaches to imaging as well as to lay the foundation for reliable minimally invasive computer-assisted treatment modalities. Such technology could dramatically increase treatment safety and efficacy as well as reduce associated treatment morbidities. Within this paradigm, the expertise of computational scientists is becoming indispensably important to anticipate and understand the underlying architectures of forthcoming computing hardware, develop the software to realize the potential of these machines, and obtain meaningful results that advance the field.
Publications/Creative Works
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Affiliations
Training Grants
NLM Training Program in Biomedical Informatics & Data Science for Predoctoral and Postdoctoral Fellows
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