Airdate: Wednesday, May 27, 2020 Season: 7 Episode: 2
Guests: DeWayne Townsend, Adam Goodwill
Dr. DeWayne Townsend from the University of Minnesota Medical School and Dr. Adam Goodwill from the Indiana University School of Medicine answer questions from a recent webinar where they discuss the fundamentals of pressure-volume loop analysis as a means to study cardiac function.
For more information or to watch the webinar, click here.
Associated Webinar: Cardiac PV Loop Data Analysis: Tips & Tricks
Similar Podcasts
Talking Real Science with Oliver Wearing
Oliver Wearing shares what led him to study the relationship between cardiovascular physiology and the autonomic nervous system, how achieving his various positions and awards have allowed him to pursue his research goals, and where he hopes to take his work next.
Talking Real Science with Tanishq Vaidya
Tanishq is one of 10 winners of the inaugural Scientist.com STEM Research NIL Award. In this episode, he discusses his current research interests, projects, and where the road lies ahead for his future career aspirations in STEM.
#ExpertAnswers: Artur Fedorowoski on Cardiovascular Dysautonomia in Post-COVID-19
Artur Fedorowski explains CV dysautonomia as a specific sequalae of acute COVID-19 and guides the audience in the diagnostic work-up of PASC patients with suspected cardiovascular complications.
Related Content
Impact of Sleep and Circadian Disruption on Human Health and Disease Risk
Join Josiane Broussard, PhD as she explains the links between sleep and circadian disruption and cardiovascular and metabolic health.
Cut and Paste of Myosin Binding Protein-C in Striated Muscles
Dr. Samantha Harris discusses the development of three new mouse models in her lab, engineered to target and replace specific myosin binding protein-C paralogs in muscle fibers and impact of their mutations on skeletal and cardiac muscle diseases.
Implantable Circuit-Specific Treatments for Cardiovascular Dysfunction
In this webinar, Dr. Aaron Phillips will present his research on the neural mechanisms of hemodynamic stability.