Michael J Joyner

Title: Michael J Joyner: Innovator in Hemodynamic Research

Introduction

Michael J Joyner is a prominent inventor based in Rochester, MN (US), known for his significant contributions to the field of hemodynamic research. With a total of four patents to his name, Joyner has focused on developing systems and methods that enhance the understanding and treatment of various medical conditions.

Latest Patents

One of Joyner's latest patents is titled "Systems, methods and media for estimating compensatory reserve and predicting hemodynamic decompensation using physiological data." This invention provides a system that utilizes a processor to analyze blood pressure waveforms, generating metrics that indicate a subject's compensatory reserve. The system is designed to improve patient outcomes by predicting hemodynamic decompensation through advanced data analysis.

Another notable patent is "Modulating afferent signals to treat medical conditions." This patent outlines methods for modulating afferent nerve signals to address conditions such as congestive heart failure, hypertension, and chronic obstructive pulmonary disease. By employing electrical and chemical techniques, this invention aims to block or reduce harmful nerve signals, thereby improving patient health.

Career Highlights

Throughout his career, Michael J Joyner has worked with esteemed organizations such as the Mayo Foundation for Medical Education and Research and Dynasil Biomedical Corporation. His work in these institutions has allowed him to collaborate with leading experts in the field and contribute to groundbreaking research.

Collaborations

Joyner has collaborated with notable colleagues, including Bruce D Johnson and Thomas P Olson. These partnerships have fostered innovation and have been instrumental in advancing research in hemodynamic studies.

Conclusion

Michael J Joyner's contributions to medical research through his patents and collaborations highlight his commitment to improving healthcare outcomes. His innovative approaches to understanding hemodynamic processes continue to influence the field significantly.