This inventor holds 3 USPTO granted patents. Top assignees: University of Pennsylvania, Regents of the University of Minnesota. Active years: 2004-2011.
Location History:
- Philadelphia, PA (US) (2004)
- Columbia, MO (US) (2007 - 2011)
Company Filing History:


Years Active: 2004-2011
Title: Innovations of James C-m Lee
Introduction
James C-m Lee is a notable inventor based in Columbia, MO (US). He has made significant contributions to the field of biocompatible vesicles, particularly through his innovative work on polymersomes. With a total of 3 patents, Lee's inventions focus on enhancing the transport, delivery, and storage of materials.
Latest Patents
Lee's latest patents include the development of cross-linked polymersomes and related encapsulating membranes. These inventions provide biocompatible vesicles that consist of semi-permeable, thin-walled encapsulating membranes formed in an aqueous solution. The membranes incorporate one or more synthetic super-amphiphilic molecules. When at least one of these molecules is a block copolymer, the resulting synthetic vesicle is referred to as a 'polymersome.' The unique composition allows for extensive, covalent cross-linking of the membrane while maintaining its semi-permeability. This cross-linking enhances the mechanical control and long-term stability of the vesicle, enabling precise control over the encapsulation and release of materials.
Career Highlights
Throughout his career, James C-m Lee has worked with prestigious institutions, including the University of Pennsylvania and the Regents of the University of Minnesota. His work has significantly advanced the understanding and application of polymersomes in various fields.
Collaborations
Lee has collaborated with esteemed colleagues such as Dennis E Discher and Frank Steven Bates, contributing to the advancement of research in his area of expertise.
Conclusion
James C-m Lee's innovative work in the field of polymersomes has paved the way for new advancements in biocompatible vesicles. His contributions are vital for the future of material transport and delivery systems.