Location History:
- Draper, UT (US) (2019)
- Royersford, PA (US) (2022 - 2023)
Company Filing History:
Years Active: 2019-2024
Title: Innovations by Doo-Hyun Kwon in Catalyst Design
Introduction
Doo-Hyun Kwon is a prominent inventor based in Draper, UT (US), known for his significant contributions to the field of catalyst design. With a total of 9 patents to his name, Kwon has made remarkable advancements in machine learning and statistical analysis for catalyst structure prediction.
Latest Patents
Kwon's latest patents include groundbreaking work on machine learning and statistical analysis for catalyst structure prediction and design. This patent discloses a heteroatomic ligand-metal compound complex transition-state model developed for activity, purity, and selectivity in selective ethylene oligomerizations. It utilizes density functional theory calculations to determine the reactivity and product purity of heteroatomic ligand-metal compound complexes. The findings reveal that a chromium chromacycle mechanism can account for multiple ground states and transition states, enhancing the understanding of catalyst design. Another notable patent involves chromium phosphinyl hydroisoindole amidine complexes for the tetramerization of ethylene, which outlines a catalyst system that includes a bicyclic 2-[(phosphinyl)aminyl] cyclic imine chromium salt and an organoaluminum compound.
Career Highlights
Doo-Hyun Kwon is currently employed at Chevron Phillips Chemical Company LP, where he continues to innovate in the field of chemical engineering. His work focuses on developing efficient catalyst systems that can lead to improved processes in the chemical industry.
Collaborations
Kwon has collaborated with notable colleagues such as Steven M Bischof and Uriah J Kilgore, contributing to the advancement of catalyst technology through teamwork and shared expertise.
Conclusion
Doo-Hyun Kwon's innovative work in catalyst design and machine learning has positioned him as a leading inventor in his field. His contributions are paving the way for future advancements in chemical processes and catalyst efficiency.