This inventor holds 6 USPTO granted patents and 1 published patent application. Top assignees: University of Michigan, Other. Active years: 1983-2016.
Location History:
- North Manchester, IN (US) (1983)
- Ann Arbor, MI (US) (2009 - 2016)
Company Filing History:

Years Active: 1983-2016
Title: Charles Raymond Meyer: Innovator in Tissue Imaging Technologies
Introduction
Charles Raymond Meyer is a notable inventor based in Ann Arbor, MI (US). He has made significant contributions to the field of medical imaging, particularly in monitoring changes in tissue regions. With a total of 6 patents to his name, Meyer has developed innovative systems and methods that enhance the evaluation of tissue health and treatment effectiveness.
Latest Patents
Meyer’s latest patents include groundbreaking technologies such as "Systems and methods for imaging changes in tissue." This invention provides systems and methods for monitoring tissue regions, specifically focusing on detecting changes over time. The systems are designed to evaluate the effectiveness of treatments applied to specific tissue regions. Additionally, the invention employs a parametric response map approach to analyze changes in tissue health and monitor the impact of therapeutic interventions. Another significant patent is "Systems and methods for tissue imaging," which also focuses on monitoring tissue regions and employs functional diffusion map algorithms for imaging changes over time.
Career Highlights
Throughout his career, Meyer has worked with esteemed institutions, including the University of Michigan. His work has been pivotal in advancing the field of medical imaging, contributing to better diagnostic and treatment methodologies.
Collaborations
Meyer has collaborated with notable professionals in his field, including Brian Dale Ross and Thomas L Chenevert. These collaborations have further enriched his research and innovations.
Conclusion
Charles Raymond Meyer stands out as an influential inventor in the realm of tissue imaging technologies. His contributions have the potential to significantly impact medical diagnostics and treatment strategies.