Katlyn K Meier

ResearcherID Scopus Author ID ORCID

Publication Activity (10 Years)

Years Active: 2020-2024
Publications (10 Years): 6

Top Topics

Advanced Non Small Cell Lung Cancer

Magnetic Resonance Imaging

Top Venues

Proceedings of the National Academy of Sciences of the United States of America

Journal of the American Chemical Society

University of Miami

Carnegie Mellon University (PHD)

This page only lists publications with an associated author ORCID identifier.

Affiliation History

University of Miami Aug 15 2019

United States

Assistant Professor :: Chemistry

Stanford University Jul 01 2015 - Aug 01 2019

United States

Postdoctoral Researcher :: Chemistry

Carnegie Mellon University - Jun 15 2015

United States

Ph.D. Candidate/ Research Assistant :: Chemistry

Education History

Carnegie Mellon University

United States

PHD :: Chemistry

Publications

Prajakta Badve, Katlyn K Meier
Defining Requirements for Heme Binding in PGRMC1 and Identifying Key Elements that Influence Protein Dimerization. Biochemistry 63 (7) (2024)
Prajakta Badve, Katlyn K Meier
Defining Requirements for Heme Binding in PGRMC1 and Identifying Key Elements that Influence Protein Dimerization. Biochemistry (2024)
Prajakta Badve, Katlyn K Meier
Defining Requirements for Heme Binding in PGRMC1 and Identifying Key Elements that Influence Protein Dimerization. Biochemistry 63 (7) (2024)
Prajakta Badve, Katlyn K Meier
Defining Requirements for Heme Binding in PGRMC1 and Identifying Key Elements that Influence Protein Dimerization. Biochemistry 63 (7) (2024)
Hyeongtaek Lim, Magdalene T Brueggemeyer, Wesley J Transue, Katlyn K Meier, Stephen M Jones, Thomas Kroll, Dimosthenis Sokaras, Bradley Kelemen, Britt Hedman, Keith O Hodgson, Edward I Solomon
Kβ X-ray Emission Spectroscopy of Cu(I)-Lytic Polysaccharide Monooxygenase: Direct Observation of the Frontier Molecular Orbital for H 2 O 2 Activation. Journal of the American Chemical Society (2023)
Stephen M Jones, Wesley J Transue, Katlyn K Meier, Bradley Kelemen, Edward I Solomon
Kinetic analysis of amino acid radicals formed in H2O2-driven CuI LPMO reoxidation implicates dominant homolytic reactivity. Proceedings of the National Academy of Sciences of the United States of America 117 (22) (2020)