| Catherine Bishop | |
| Fields: | Materials science |
| Workplaces: | University of Canterbury |
| Thesis1 Title: | Continuum models for intergranular films in silicon nitride and comparison to atomistic simulations |
| Thesis1 Url: | http://hdl.handle.net/1721.1/29968 |
| Thesis1 Year: | 2003 |
Catherine Mary Bishop (born 1975) is a New Zealand academic materials scientist, and is a full professor at the University of Canterbury, specialising in materials modelling of metallic and ceramic materials.
Bishop completed a Bachelor of Science degree at Carnegie Mellon University and a PhD titled Continuum models for intergranular films in silicon nitride and comparison to atomistic simulations at the Massachusetts Institute of Technology under guidance of W. Craig Carter as thesis advisor.[1] [2] Bishop undertook postdoctoral research and a Career Development Fellowship at the University of Oxford, before joining the faculty of the University of Canterbury in 2008. She was promoted to full professor at Canterbury in 2022.[3] [4] Bishop has held visiting positions at both Carnegie Mellon and Oxford universities. She is part of the MacDairmid Institute for Advanced Materials and Nanotechnology research project Towards Zero Waste - Reconfigurable Systems. Bishop co-convenes an annual symposium Grain Boundaries, Interfaces, and Surfaces: Fundamental Structure-Property-Performance Relationships.[5]
Bishop leads the Materials Cluster @ UC, an interdisciplinary research centre at Canterbury, working across the Colleges of Engineering and Science.[6] She uses theoretical and computational materials to produce materials models, in order to better understand the structure and behaviour of metallic and ceramic materials. She has received funding from the Ministry of Business, Innovation and Employment Smart Ideas fund to research reducing the carbon footprint of metal extraction industries in New Zealand using molten oxide electrolysis.[7] Bishop was the lead investigator on a 2020 Marsden grant titled Are interface transitions the key to controlling ferroelectric aging and fatigue?, in collaboration with two professors at Purdue University.[8]