Company Filing History:
Years Active: 2021-2025
Title: Rima Janusziewicz: Innovator in Geometrically Complex Intravaginal Rings
Introduction
Rima Janusziewicz is a notable inventor based in Carrboro, NC (US). He has made significant contributions to the field of drug delivery systems, particularly through his innovative work on intravaginal rings. With a total of 3 patents, Janusziewicz is recognized for his advancements in the design and functionality of these medical devices.
Latest Patents
Janusziewicz's latest patents focus on geometrically complex intravaginal rings, which are designed to enhance drug release. These rings can be fabricated using 3D printing technologies, allowing for a tunable and customizable approach to drug delivery. The disclosed intravaginal rings feature a ring structure that includes a plurality of unit cells or macroscopic and/or microscopic architecture. This design enables control over various parameters, such as the loading capacity of active compounds, diffusion rates, surface area, and mechanical properties. Compared to conventional intravaginal rings made through injection molding or hot-melt extrusion, Janusziewicz's geometrically complex designs offer superior control over drug loading and release.
Career Highlights
Throughout his career, Rima Janusziewicz has worked with esteemed institutions, including the University of North Carolina at Chapel Hill and Carbon, Inc. His work has significantly impacted the field of drug delivery, showcasing his commitment to innovation and research.
Collaborations
Janusziewicz has collaborated with notable colleagues, including Soumya Rahima Benhabbour and Sue J. Mecham. These collaborations have further enriched his research and development efforts in the field of intravaginal rings.
Conclusion
Rima Janusziewicz stands out as an innovative inventor in the realm of drug delivery systems, particularly with his work on geometrically complex intravaginal rings. His contributions continue to influence advancements in medical technology and drug release mechanisms.