This inventor holds 1 USPTO granted patent. Top assignee: Brewer Science, Inc.. Active years: 2019.
Company Filing History:
Years Active: 2019
Title: Innovations by Lisa M Kirchner in Dielectric Materials
Introduction
Lisa M Kirchner is an accomplished inventor based in Rolla, MO (US). She has made significant contributions to the field of dielectric materials, particularly in the context of laser ablation patterning. Her innovative work has led to the development of materials that exhibit optimal mechanical properties for various applications.
Latest Patents
Kirchner holds a patent for her invention titled "Laser ablative dielectric material." This patent focuses on dielectric materials that possess optimal mechanical properties suitable for use in laser ablation patterning. The materials include polymers such as polyureas, polyurethane, and polyacylhydrazones. Kirchner's patent also introduces new methods for preparing polyacylhydrazones under mild conditions, resulting in a soluble polymer that remains stable at room temperature. These polymers can be incorporated into formulations that are applicable to microelectronic substrates. The dielectric materials she developed demonstrate high elongation, low coefficient of thermal expansion (CTE), low cure temperature, and minimal debris post-ablation.
Career Highlights
Lisa M Kirchner is associated with Brewer Science, Inc., where she continues to advance her research and development efforts. Her work has garnered attention for its practical applications in the microelectronics industry, showcasing her expertise in material science and engineering.
Collaborations
Throughout her career, Kirchner has collaborated with notable colleagues, including Christina R Matos-Perez and Tony D Flaim. These collaborations have contributed to the success of her projects and the advancement of innovative technologies in her field.
Conclusion
Lisa M Kirchner's contributions to the development of laser ablative dielectric materials highlight her role as a leading inventor in the field. Her innovative approaches and collaborations continue to influence advancements in microelectronics and material science.