Minneapolis, MN, United States of America

Daniel M Burke

USPTO Granted Patents = 1 

Average Co-Inventor Count = 3.0

ph-index = 1

Forward Citations = 19(Granted Patents)


Company Filing History:


Years Active: 2017

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1 patent (USPTO):Explore Patents

Title: The Innovative Mind of Daniel M. Burke

Introduction

Daniel M. Burke, an accomplished inventor based in Minneapolis, MN, has made significant contributions to the field of biomedical engineering. His work focuses on advancing tissue modeling techniques, which play a vital role in medical research and development.

Latest Patents

Burke holds a patent for "Simulated, representative high-fidelity organosilicate tissue models." This innovative method involves determining various material properties of tissue, including mechanical, electroconductive, optical, thermoconductive, chemical, and anisotropic properties. The process also includes creating an anatomical structure of the tissue, selecting an artificial material that corresponds closely to those properties, and coupling this material to the anatomical structure. This patent reflects his commitment to enhancing the accuracy and efficacy of tissue models used in medical research.

Career Highlights

Daniel M. Burke is affiliated with the University of Minnesota, where he applies his expertise in tissue engineering. His innovative approach has positioned him as a leading figure in tissue modeling, pushing boundaries and fostering advancements in biomedical research.

Collaborations

Burke's work is supported by a remarkable team including colleagues Troy E. Reihsen and Robert M. Sweet. Their collective efforts have enabled substantial progress in the development of high-fidelity tissue models. Collaborations like these are crucial for driving innovation in complex fields such as biomedical engineering.

Conclusion

Daniel M. Burke exemplifies the spirit of innovation and collaboration in the realm of medical research. His patented technology not only underscores his expertise but also highlights the potential for future advancements in tissue modeling, ultimately contributing to improved therapeutic outcomes in healthcare.

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