This inventor holds 1 USPTO granted patent and 2 published patent applications. Top assignee: University of Central Florida Research Foundation Inc.. Active years: 2016.
Company Filing History:
Years Active: 2016
Title: Innovations by Robert Paul Brooker
Introduction
Robert Paul Brooker is an accomplished inventor based in Melbourne, FL (US). He has made significant contributions to the field of electrochemical cells, particularly in the detection of defects in ion exchange membranes. His innovative approach has the potential to enhance the reliability and efficiency of these critical components in various applications.
Latest Patents
Robert Paul Brooker holds a patent for a method of detecting defects in ion exchange membranes of electrochemical cells using chemochromic sensors. This method involves placing a chemochromic sensor above the cathode side of the electrochemical cell, with flow isolation hardware positioned laterally to the ion exchange membrane. The anode side is exposed to a reactant fluid containing hydrogen, and the sensor is examined for color changes after exposure. A color change indicates that the ion exchange membrane has at least one defect that allows hydrogen transmission.
Career Highlights
Robert is associated with the University of Central Florida Research Foundation Inc., where he continues to work on innovative solutions in the field of electrochemistry. His research focuses on improving the performance and durability of electrochemical cells, which are essential in various energy applications.
Collaborations
Robert has collaborated with Nahid Mohajeri, contributing to advancements in the detection and analysis of electrochemical systems. Their joint efforts aim to push the boundaries of current technologies and improve the understanding of ion exchange membranes.
Conclusion
Robert Paul Brooker's work exemplifies the spirit of innovation in the field of electrochemical research. His patented method for detecting defects in ion exchange membranes represents a significant advancement that could lead to more efficient and reliable electrochemical cells.
