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BME Seminar: Dennis Barbour, MD, PhD

This is a past event.

Thursday, September 29, 2022 10 AM to 11 AM

6760 Forest Park Pkwy, St. Louis, MO 63105, USA

#WashUBME

Presenting on “Predicting the Present to Forecast the Future: An Updated Modeling Framework for Perception, Cognition and Medicine”

Dennis Barbour, MD, PhD, Associate Professor in Biomedical Engineering at Washington University, will speak on Thursday, September 29, 2022 at 10:00 am CST in Whitaker 218.

Abstract: The key modeling framework for both evidence-based medicine and precision medicine hinges upon the etiological diagnosis. This framework has limited predictive value in the face of population heterogeneity. For example, a diagnosis of Covid-19 infection does not by itself yield a very accurate prognosis in unvaccinated individuals. Starting with findings from neuroscience studies in my lab, I will lay the groundwork for inference methods that retain predictive value in the face of population variation, yet also are designed to work as well as current methods in more nearly homogenous populations. I will describe applications of this framework toward tests of perception and cognition, discuss generalizations to other medical applications, and describe how these procedures are equitable by design in order to better accommodate outliers, minorities and individuals suffering rare diseases.

6760 Forest Park Pkwy, St. Louis, MO 63105, USA

#WashUBME

Presenting on “Predicting the Present to Forecast the Future: An Updated Modeling Framework for Perception, Cognition and Medicine”

Dennis Barbour, MD, PhD, Associate Professor in Biomedical Engineering at Washington University, will speak on Thursday, September 29, 2022 at 10:00 am CST in Whitaker 218.

Abstract: The key modeling framework for both evidence-based medicine and precision medicine hinges upon the etiological diagnosis. This framework has limited predictive value in the face of population heterogeneity. For example, a diagnosis of Covid-19 infection does not by itself yield a very accurate prognosis in unvaccinated individuals. Starting with findings from neuroscience studies in my lab, I will lay the groundwork for inference methods that retain predictive value in the face of population variation, yet also are designed to work as well as current methods in more nearly homogenous populations. I will describe applications of this framework toward tests of perception and cognition, discuss generalizations to other medical applications, and describe how these procedures are equitable by design in order to better accommodate outliers, minorities and individuals suffering rare diseases.