Faculty

Faculty of Engineering

PEOPLE

    • Associate Professor
    • Civil and Environmental Engineering
    • Associate ProfessorCivil and Environmental Engineering
    My main area of research is on the resistance of steel and concrete structures to the effects of fires. I am particularly interested in developing simplified methods for the analysis and design of floor systems. I am also interested in the behaviour of steel connections at elevated temperatures.
    My main area of research is on the resistance of steel and concrete structures to the effects of fires. I am particularly interested in developing simplified methods for the analysis and design of floor systems. I am also interested in the behaviour of steel connections at elevated temperatures.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Associate Head of Department
    • Computer Science and Software Engineering
    • Associate Head of DepartmentComputer Science and Software Engineering
    • Associate Professor
    • Computer Science and Software Engineering
    • Associate ProfessorComputer Science and Software Engineering

    I am interested in how information-rich computational systems can better support human discovery and learning, particularly through tools that enable more interpretable and collaborative forms of understanding and communication. Focus areas include:

     

    • Intelligent systems for environmental and social challenges
    • GIScience and spatial data science
    • Representation across machine learning models, natural language, and domain-specific data
    • Dynamic and automated scientific workflow systems
    • Decentralized knowledge systems

    I am interested in how information-rich computational systems can better support human discovery and learning, particularly through tools that enable more interpretable and collaborative forms of understanding and communication. Focus areas include:

     

    • Intelligent systems for environmental and social challenges
    • GIScience and spatial data science
    • Representation across machine learning models, natural language, and domain-specific data
    • Dynamic and automated scientific workflow systems
    • Decentralized knowledge systems
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Assistant Lecturer
    • School of Earth and Environment
    • Assistant LecturerSchool of Earth and Environment

    I am an Assistant Lecturer at the School of Earth and Environment of the University of Canterbury. I teach remote sensing for Earth observation and geospatial analysis using Synthetic Aperture Radar (SAR) and multispectral optical imagery. My research involves radar signal processing for Earth observation and biological applications and radar instrumentation.

    I am an Assistant Lecturer at the School of Earth and Environment of the University of Canterbury. I teach remote sensing for Earth observation and geospatial analysis using Synthetic Aperture Radar (SAR) and multispectral optical imagery. My research involves radar signal processing for Earth observation and biological applications and radar instrumentation.

    • Faculty of Science
    • Technician
    • Electrical and Computer Engineering
    • TechnicianElectrical and Computer Engineering
    • Faculty of Engineering
    • Emeritus Professor
    • Mechanical Engineering
    • Emeritus ProfessorMechanical Engineering
    Research interests include: mechanical engineering design; water jets
    Research interests include: mechanical engineering design; water jets
    • Faculty of Engineering
    • Emeritus Professor
    • Electrical and Computer Engineering
    • Emeritus ProfessorElectrical and Computer Engineering
    Research interests include:
    -Nanolithography and nanofabrication
    -Micro and nano-scale devices
    -BioNanotechnology
    -Surface texturing for solar cells
    Research interests include:
    -Nanolithography and nanofabrication
    -Micro and nano-scale devices
    -BioNanotechnology
    -Surface texturing for solar cells
    • Faculty of Engineering
    • Professor
    • Electrical and Computer Engineering
    • ProfessorElectrical and Computer Engineering
    Growth, fundamental material properties, and device applications of metal oxide semiconductor films and nanostructures, in particular ZnO, SnO2, In2O3, Ga2O3 and their alloys. The engineering of electronic devices for optical displays, environmental sensors, smart windows, photovoltaics, memristor-based computing, and electrochemical carbon capture. Optoelectronic devices for monitoring erythemal UV exposure for epidemiological studies and primary prevention involving melanoma risk and vitamin D deficiency. School-based experiential SunSmart education programs.
    Growth, fundamental material properties, and device applications of metal oxide semiconductor films and nanostructures, in particular ZnO, SnO2, In2O3, Ga2O3 and their alloys. The engineering of electronic devices for optical displays, environmental sensors, smart windows, photovoltaics, memristor-based computing, and electrochemical carbon capture. Optoelectronic devices for monitoring erythemal UV exposure for epidemiological studies and primary prevention involving melanoma risk and vitamin D deficiency. School-based experiential SunSmart education programs.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 13 Climate Action
    • 7 Affordable and Clean Energy
    Fields of Research
    • Nanotechnology
    • Compound semiconductors
    • Epidemiology
    • Associate Professor
    • School of Forestry
    • Associate ProfessorSchool of Forestry
    I am a trained wood scientist with a focus on molecular aspects of plant cell walls. My research includes fundamental and applied projects.
    At the fundamental end I am working on a better understanding of the supramolecular architecture of plant cell walls in particular the structure of cellulose fibrils and how this structure determines macroscopic wood properties. This research involves specialised IR and NMR spectroscopy as well as various forms of diffraction.
    Most of my current external research funding is for applied research on wood quality attracting funding from several sources. Particularly exciting is my involvement as science team leader of the NZDFI, which envisages New Zealand as a world-leader in breeding ground-durable eucalypts, and to be home to a valuable sustainable hardwood industry based on eucalypt forests, by 2050.
    As a biomaterial, wood is highly variable. This variability poses significant problems to the wood processing industry. My work is trying to reduce the variability of wood and by that gaining efficiency in the wood processing industry. The major factor restricting the incorporation of wood properties into tree breeding programmes is the lack of fast but robust analytical techniques. Therefore development of such assessments is a key part of the research, many of which are only available in this field at our world-leading NZ School of Forestry.
    I am a trained wood scientist with a focus on molecular aspects of plant cell walls. My research includes fundamental and applied projects.
    At the fundamental end I am working on a better understanding of the supramolecular architecture of plant cell walls in particular the structure of cellulose fibrils and how this structure determines macroscopic wood properties. This research involves specialised IR and NMR spectroscopy as well as various forms of diffraction.
    Most of my current external research funding is for applied research on wood quality attracting funding from several sources. Particularly exciting is my involvement as science team leader of the NZDFI, which envisages New Zealand as a world-leader in breeding ground-durable eucalypts, and to be home to a valuable sustainable hardwood industry based on eucalypt forests, by 2050.
    As a biomaterial, wood is highly variable. This variability poses significant problems to the wood processing industry. My work is trying to reduce the variability of wood and by that gaining efficiency in the wood processing industry. The major factor restricting the incorporation of wood properties into tree breeding programmes is the lack of fast but robust analytical techniques. Therefore development of such assessments is a key part of the research, many of which are only available in this field at our world-leading NZ School of Forestry.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 12 Responsible Consumption and Production
    • 13 Climate Action
    Fields of Research
    • Wood processing
    • Tree improvement (incl. selection and breeding)
    • Forestry product quality assessment
    • Forestry biomass and bioproducts
    • Timber, pulp and paper
    • Lecturer
    • Mathematics and Statistics
    • LecturerMathematics and Statistics
    • Faculty of Engineering
    • Professor
    • School of Forestry
    • ProfessorSchool of Forestry

    I am a forest engineer and quantitative geneticist, fascinated by variability in natural and human-made forest ecosystems. I focus my efforts on characterizing and exploiting wood variability trends, in an effort to increase site productivity and forest value. I collaborate with domestication and breeding projects, including the New Zealand Radiata Pine Breeding Programme and Drylands Forest Initiative (durable eucalypts).

    My personal website contains copies of all my publications. https://luis.apiolaza.net

    I am a forest engineer and quantitative geneticist, fascinated by variability in natural and human-made forest ecosystems. I focus my efforts on characterizing and exploiting wood variability trends, in an effort to increase site productivity and forest value. I collaborate with domestication and breeding projects, including the New Zealand Radiata Pine Breeding Programme and Drylands Forest Initiative (durable eucalypts).

    My personal website contains copies of all my publications. https://luis.apiolaza.net

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 15 Life on Land
    • 13 Climate Action
    Fields of Research
    • Statistical and quantitative genetics
    • Forestry sciences
    • Applied statistics
    • Tree improvement (incl. selection and breeding)
    • Modelling and simulation
    • Forest ecosystems
    • Lecturer
    • Civil and Environmental Engineering
    • LecturerCivil and Environmental Engineering

    Geophysicist and data scientist specializing in Environmental Informatics. I develop probabilistic and machine learning models for natural hazard forecasting — including volcanic eruptions, wildfires, snow avalanches, and floods — by integrating time series analysis, Bayesian inference, and deep learning with real-time observational data. My work, published in Nature Communications, the Journal of Geophysical Research, Geophysical Research Letters, and the International Journal of Wildland Fire, focuses on building forecasting tools that generalize across hazard systems and are deployable in under-resourced monitoring settings. I currently supervise postgraduate students working on eruption forecasting, wildfire prediction, avalanche detection, flood modelling, geothermal prospectivity, and the application of generative AI to hazard science.

    Geophysicist and data scientist specializing in Environmental Informatics. I develop probabilistic and machine learning models for natural hazard forecasting — including volcanic eruptions, wildfires, snow avalanches, and floods — by integrating time series analysis, Bayesian inference, and deep learning with real-time observational data. My work, published in Nature Communications, the Journal of Geophysical Research, Geophysical Research Letters, and the International Journal of Wildland Fire, focuses on building forecasting tools that generalize across hazard systems and are deployable in under-resourced monitoring settings. I currently supervise postgraduate students working on eruption forecasting, wildfire prediction, avalanche detection, flood modelling, geothermal prospectivity, and the application of generative AI to hazard science.

    • Faculty of Engineering
    Fields of Research
    • Geophysics
    • Natural hazards
    • Time series and spatial modelling
    • Electrical and electromagnetic methods in geophysics
    • Seismology and seismic exploration
    • Machine learning
    • Risk engineering
    • Environmental Lab Technician
    • Civil and Environmental Engineering
    • Environmental Lab TechnicianCivil and Environmental Engineering

    Environmental lab technician at Civil Engineering

    Environmental lab technician at Civil Engineering

    • Faculty of Engineering
    • Lecturer
    • Electrical and Computer Engineering
    • LecturerElectrical and Computer Engineering
    Research interests include:

    Circuit design for medical applications
    Signal and image processing using hardware acceleration
    High-frequency ultrasound imaging
    Research interests include:

    Circuit design for medical applications
    Signal and image processing using hardware acceleration
    High-frequency ultrasound imaging
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Senior Lecturer Above the Bar
    • Computer Science and Software Engineering
    • Senior Lecturer Above the BarComputer Science and Software Engineering
    My research interests are artificial intelligence, machine learning, constraint optimization, distributed and high performance computing, scientific computing, and computer science education. I explore applications in medical data, earth and space exploration, and multi-agent and mobile systems.

    My current projects include machine learning models for prediction of health conditions and treatment efficacy, improved optimization for designing and training deep learning networks, adaptive sampling for scientific simulation, uncertainty reasoning for dynamic agent systems, improved curriculum and policies for primary and secondary professional development, service learning partnerships between students and community educators, and gamification of threshold concepts in computer science.
    My research interests are artificial intelligence, machine learning, constraint optimization, distributed and high performance computing, scientific computing, and computer science education. I explore applications in medical data, earth and space exploration, and multi-agent and mobile systems.

    My current projects include machine learning models for prediction of health conditions and treatment efficacy, improved optimization for designing and training deep learning networks, adaptive sampling for scientific simulation, uncertainty reasoning for dynamic agent systems, improved curriculum and policies for primary and secondary professional development, service learning partnerships between students and community educators, and gamification of threshold concepts in computer science.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Director - EPECentre
    • Electric Power Engineering Centre
    • Director - EPECentreElectric Power Engineering Centre
    My work focuses on the transition to resilient, low-carbon renewable energy systems. I am interested in how electricity networks, transport, renewable energy, energy markets, community needs and public policy interact to shape New Zealand's energy future. My goal is to connect research, industry and government to accelerate practical energy transitions that deliver economic, environmental and social value.
     

    I am the Director of the Electric Power Engineering Centre (EPECentre), where my role centers on translational engineering — taking rigorous academic research and scaling it into hardware, infrastructure, and commercial platforms that solve real-world resilience problems.

     

    EPECentre is New Zealand's premiere research centre dedicated to studying electric power, electrification, renewable energy, and the energy transition.  The centre covers the techno-socio-economic spectrum, with a diversity of topics including;

    • The electric power system
    • Community energy
    • Distributed energy systems
    • Renewable energy, including wind energy, solar energy, geothermal energy and hydro energy
    • Systems design and integration
    • Flexible energy services
    • Energy storage
    • Zero-carbon transportation system
    • Energy policy

    EPECentre is industry and community facing, being initiated at the request of the energy sector in 2002.  Much of our research is performed under commercial sensitivities and our outputs are non-indexed publications.

     

    Before joining EPECentre, I spent nearly two decades commercialising deep-tech research out of my PhD project. I developed the low-cost CUSP strong-motion accelerograph system, which led to co-founding Canterbury Seismic Instruments Ltd (CSI) in 2003. Today, I am focused macro-level research strategies for New Zealand's low-carbon energy transition, focusing on the tension where communities, renewable energy, and the legacy electrical grid interact.

    My work focuses on the transition to resilient, low-carbon renewable energy systems. I am interested in how electricity networks, transport, renewable energy, energy markets, community needs and public policy interact to shape New Zealand's energy future. My goal is to connect research, industry and government to accelerate practical energy transitions that deliver economic, environmental and social value.
     

    I am the Director of the Electric Power Engineering Centre (EPECentre), where my role centers on translational engineering — taking rigorous academic research and scaling it into hardware, infrastructure, and commercial platforms that solve real-world resilience problems.

     

    EPECentre is New Zealand's premiere research centre dedicated to studying electric power, electrification, renewable energy, and the energy transition.  The centre covers the techno-socio-economic spectrum, with a diversity of topics including;

    • The electric power system
    • Community energy
    • Distributed energy systems
    • Renewable energy, including wind energy, solar energy, geothermal energy and hydro energy
    • Systems design and integration
    • Flexible energy services
    • Energy storage
    • Zero-carbon transportation system
    • Energy policy

    EPECentre is industry and community facing, being initiated at the request of the energy sector in 2002.  Much of our research is performed under commercial sensitivities and our outputs are non-indexed publications.

     

    Before joining EPECentre, I spent nearly two decades commercialising deep-tech research out of my PhD project. I developed the low-cost CUSP strong-motion accelerograph system, which led to co-founding Canterbury Seismic Instruments Ltd (CSI) in 2003. Today, I am focused macro-level research strategies for New Zealand's low-carbon energy transition, focusing on the tension where communities, renewable energy, and the legacy electrical grid interact.

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 11 Sustainable Cities and Communities
    • 7 Affordable and Clean Energy
    • 9 Industry, Innovation and Infrastructure
    • Collaborative research projects
    • Consulting & advisory services
    • Industry partnerships & innovation
    • Media enquiries
    • Outreach & community engagement
    • Policy advice & government consultation
    • Technical expertise & support
    Fields of Research
    • Electronic device and system performance evaluation, testing and simulation
    • Environment policy
    • Electrical energy transmission, networks and systems
    • Electrical energy generation (incl. renewables, excl. photovoltaics)
    • Photovoltaic power systems
    • Electrical energy storage
    • Energy generation, conversion and storage (excl. chemical and electrical)
    • Associate Professor
    • Computer Science and Software Engineering
    • Associate ProfessorComputer Science and Software Engineering
    Current research interests include enhanced retinal imaging and how designs can be implemented in digital logical circuits.
    Current research interests include enhanced retinal imaging and how designs can be implemented in digital logical circuits.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Lecturer - Teaching and Admin
    • Electrical and Computer Engineering
    • Lecturer - Teaching and AdminElectrical and Computer Engineering
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Professor
    • Computer Science and Software Engineering
    • ProfessorComputer Science and Software Engineering

    Dr. Christoph Bartneck is a professor in the department of Computer Science and Software Engineering at the University of Canterbury. He has a background in Industrial Design and Human-Computer Interaction, and his projects and studies have been published in leading journals, newspapers, and conferences. His interests lie in the fields of Human-Computer Interaction, Science and Technology Studies, and Visual Design. More specifically, he focuses on the effect of anthropomorphism on human-robot interaction. As a secondary research interest he works on projects in the area of sport technology and the critical review on scientific processes and policies. In the field of Design Christoph investigates the history of product design, tessellations and photography.

    He has worked for several international organizations including the Technology Centre of Hannover (Germany), LEGO (Denmark), Eagle River Interactive (USA), Philips Research (Netherlands), ATR (Japan), and The Eindhoven University of Technology (Netherlands). Christoph is an associate editor of the International Journal of Social Robotics. Christoph is a member of the ACM SIGCHI, The New Zealand Association Of Scientists and Academic Freedom Aotearoa. The press regularly reports on his work, including the New Scientist, Scientific American, Popular Science, Wired, New York Times, The Times, BBC, Huffington Post, Washington Post, The Guardian, and The Economist.

    Dr. Christoph Bartneck is a professor in the department of Computer Science and Software Engineering at the University of Canterbury. He has a background in Industrial Design and Human-Computer Interaction, and his projects and studies have been published in leading journals, newspapers, and conferences. His interests lie in the fields of Human-Computer Interaction, Science and Technology Studies, and Visual Design. More specifically, he focuses on the effect of anthropomorphism on human-robot interaction. As a secondary research interest he works on projects in the area of sport technology and the critical review on scientific processes and policies. In the field of Design Christoph investigates the history of product design, tessellations and photography.

    He has worked for several international organizations including the Technology Centre of Hannover (Germany), LEGO (Denmark), Eagle River Interactive (USA), Philips Research (Netherlands), ATR (Japan), and The Eindhoven University of Technology (Netherlands). Christoph is an associate editor of the International Journal of Social Robotics. Christoph is a member of the ACM SIGCHI, The New Zealand Association Of Scientists and Academic Freedom Aotearoa. The press regularly reports on his work, including the New Scientist, Scientific American, Popular Science, Wired, New York Times, The Times, BBC, Huffington Post, Washington Post, The Guardian, and The Economist.

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    Fields of Research
    • Human-computer interaction
    • Psychology
    • Visual communication design (incl. graphic design)
    • Professor
    • Mechanical Engineering
    • ProfessorMechanical Engineering
    • Assoc Dean Post Grad Research
    • Deputy Vice-Chancellor - Research
    • Assoc Dean Post Grad ResearchDeputy Vice-Chancellor - Research
    Heat Transfer, Thermodynamics, Mathematical modelling, Building Services, HVAC, Biological media
    Heat Transfer, Thermodynamics, Mathematical modelling, Building Services, HVAC, Biological media
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Professor
    • Computer Science and Software Engineering
    • ProfessorComputer Science and Software Engineering
    Research interests include computer science education, compression, and computers and music.
    Research interests include computer science education, compression, and computers and music.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering
    I am the Director of Architectural Engineering, a multi-disciplinary programme of teaching and research, and lead the Building Innovation Partnership, an 8 year (2018-2026) programme of collaborative research to improve the performance of infrastructure, which is hosted at the University.

    My background is in building engineering, with design, research, teaching and policy development experience in the private and public sectors and expertise in building energy performance and sustainable building design.

    My current research focuses on: low carbon and climate-resilient design solutions and verification methods for buildings and infrastructure; strategies and pathways to low carbon communities; embedding wellbeing into infrastructure investment decision-making; and digital methods for building design and construction.
    I am the Director of Architectural Engineering, a multi-disciplinary programme of teaching and research, and lead the Building Innovation Partnership, an 8 year (2018-2026) programme of collaborative research to improve the performance of infrastructure, which is hosted at the University.

    My background is in building engineering, with design, research, teaching and policy development experience in the private and public sectors and expertise in building energy performance and sustainable building design.

    My current research focuses on: low carbon and climate-resilient design solutions and verification methods for buildings and infrastructure; strategies and pathways to low carbon communities; embedding wellbeing into infrastructure investment decision-making; and digital methods for building design and construction.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 9 Industry, Innovation and Infrastructure
    • 7 Affordable and Clean Energy
    • 3 Good Health and Well Being
    • 11 Sustainable Cities and Communities
    • 13 Climate Action
    • 12 Responsible Consumption and Production
    Fields of Research
    • Architectural engineering
    • Built environment and design
    • Associate Professor
    • Civil and Environmental Engineering
    • Associate ProfessorCivil and Environmental Engineering

    Associate Professor Ricardo Bello-Mendoza is an environmental engineer in the Department of Civil and Environmental Engineering at Te Whare Wānanga o Waitaha | University of Canterbury. His research focuses on developing innovative technologies for sustainable wastewater treatment and resource recovery, addressing critical environmental challenges through more efficient, resilient, and sustainable water management systems.

    Ricardo's expertise spans anaerobic biotechnology, advanced treatment technologies, and circular economy approaches that transform waste streams into valuable resources. His work investigates biological and chemical processes that enable the recovery of energy, nutrients, reusable water, and other useful products from wastewater while minimising environmental impacts.

     

    A key area of his research is the application of advanced oxidation processes and other emerging technologies for the removal of emerging contaminants from water. His research seeks to improve the treatment of complex municipal and industrial wastewaters while enhancing water quality and environmental outcomes.

     

    Ricardo also studies the fate and behaviour of persistent organic contaminants in aquatic environments. By examining how these contaminants are transported, transformed, and accumulated within environmental systems, his research supports improved risk assessment, environmental protection, and the development of effective mitigation strategies.

     

    Through interdisciplinary collaboration and industry partnerships, Ricardo contributes to the development of innovative solutions that promote cleaner waterways, resource efficiency, and more sustainable environmental management practices.

    Associate Professor Ricardo Bello-Mendoza is an environmental engineer in the Department of Civil and Environmental Engineering at Te Whare Wānanga o Waitaha | University of Canterbury. His research focuses on developing innovative technologies for sustainable wastewater treatment and resource recovery, addressing critical environmental challenges through more efficient, resilient, and sustainable water management systems.

    Ricardo's expertise spans anaerobic biotechnology, advanced treatment technologies, and circular economy approaches that transform waste streams into valuable resources. His work investigates biological and chemical processes that enable the recovery of energy, nutrients, reusable water, and other useful products from wastewater while minimising environmental impacts.

     

    A key area of his research is the application of advanced oxidation processes and other emerging technologies for the removal of emerging contaminants from water. His research seeks to improve the treatment of complex municipal and industrial wastewaters while enhancing water quality and environmental outcomes.

     

    Ricardo also studies the fate and behaviour of persistent organic contaminants in aquatic environments. By examining how these contaminants are transported, transformed, and accumulated within environmental systems, his research supports improved risk assessment, environmental protection, and the development of effective mitigation strategies.

     

    Through interdisciplinary collaboration and industry partnerships, Ricardo contributes to the development of innovative solutions that promote cleaner waterways, resource efficiency, and more sustainable environmental management practices.

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Collaborative research projects
    • Consulting & advisory services
    • Industry partnerships & innovation
    • Media enquiries
    • Outreach & community engagement
    • Policy advice & government consultation
    • Teaching Assistant
    • School of Earth and Environment
    • Teaching AssistantSchool of Earth and Environment
    • Assistant Lecturer
    • School of Forestry
    • Assistant LecturerSchool of Forestry

    My primary interest is in the wellbeing of those who work in the forest and logging industries. That encompasses not just the demand and resource determinants of wellbeing within those industries but also the way in which the various identities in operation within those fields are constructed and interact to create those determinant conditions. This leads to research projects that encompass worker health outcomes,  productivity studies for logging machinery,  operator skill development and the social practices constructed by the various discourses operating within a male dominated rurally centred industry like forestry.

    My primary interest is in the wellbeing of those who work in the forest and logging industries. That encompasses not just the demand and resource determinants of wellbeing within those industries but also the way in which the various identities in operation within those fields are constructed and interact to create those determinant conditions. This leads to research projects that encompass worker health outcomes,  productivity studies for logging machinery,  operator skill development and the social practices constructed by the various discourses operating within a male dominated rurally centred industry like forestry.

    • Faculty of Engineering
    • Postdoctoral Fellow
    • Civil and Environmental Engineering
    • Postdoctoral FellowCivil and Environmental Engineering
    • Faculty of Engineering
    • Professor
    • Mechanical Engineering
    • ProfessorMechanical Engineering

    Catherine Bishop is a Professor in Mechanical Engineering, Associate Investigator of the MacDiarmid Institute for Advanced Materials and Nanotechnology, and leads the Materials Cluster@UC. She leads both an MBIE Smart Idea and a Marsden research project.

    She obtained a B.S. in Materials Science and Engineering from Carnegie Mellon University and worked for Westinghouse, Ebara Solar and Johnson Matthey as part of her co-op degree. Dr Bishop earned a PhD in Materials Science from the Massachusetts Institute of Technology, where her research was part of a large NSF-EU jointly funded programme (NANOAM). She moved back to the UK for an MIT postdoc on collaborative research (INCEMS) with the Department of Materials, University of Oxford and other EU partners. She held a three-year Career Development Fellowship at the University of Oxford before joining UC in 2008.

    Professor Bishop is a materials scientist who collaborates internationally and across many areas of materials research. Key current international partners are at Purdue, MIT, RPI and University of Stuttgart. Current transdisciplinary collaboration includes chemical engineers, physicists, chemists and microbiologists. Her research bridges structure-property-processing-performance interrelationships in alloys and ceramics.

    She was an Academic Visitor at University of Oxford (2019) and a Visiting Professor at Carnegie Mellon University (2015). Dr Bishop was New Zealand partner member of HERALD EU-COST action (2015-2018), Chair of the first annual Materials@UC conference (2018) and has volunteered for MIT as an Educational Counsellor since 2015. She has convened symposia for ACerS at international conferences including MS&T 2020-present and is co-chair of the 2028 Solid State Studies in Ceramics Gordon Research Conference.

    Catherine Bishop is a Professor in Mechanical Engineering, Associate Investigator of the MacDiarmid Institute for Advanced Materials and Nanotechnology, and leads the Materials Cluster@UC. She leads both an MBIE Smart Idea and a Marsden research project.

    She obtained a B.S. in Materials Science and Engineering from Carnegie Mellon University and worked for Westinghouse, Ebara Solar and Johnson Matthey as part of her co-op degree. Dr Bishop earned a PhD in Materials Science from the Massachusetts Institute of Technology, where her research was part of a large NSF-EU jointly funded programme (NANOAM). She moved back to the UK for an MIT postdoc on collaborative research (INCEMS) with the Department of Materials, University of Oxford and other EU partners. She held a three-year Career Development Fellowship at the University of Oxford before joining UC in 2008.

    Professor Bishop is a materials scientist who collaborates internationally and across many areas of materials research. Key current international partners are at Purdue, MIT, RPI and University of Stuttgart. Current transdisciplinary collaboration includes chemical engineers, physicists, chemists and microbiologists. Her research bridges structure-property-processing-performance interrelationships in alloys and ceramics.

    She was an Academic Visitor at University of Oxford (2019) and a Visiting Professor at Carnegie Mellon University (2015). Dr Bishop was New Zealand partner member of HERALD EU-COST action (2015-2018), Chair of the first annual Materials@UC conference (2018) and has volunteered for MIT as an Educational Counsellor since 2015. She has convened symposia for ACerS at international conferences including MS&T 2020-present and is co-chair of the 2028 Solid State Studies in Ceramics Gordon Research Conference.

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 12 Responsible Consumption and Production
    • 7 Affordable and Clean Energy
    • 9 Industry, Innovation and Infrastructure
    • Collaborative research projects
    • Industry partnerships & innovation
    • Outreach & community engagement
    Fields of Research
    • Ceramics
    • Metals and alloy materials
    • Functional materials
    • Electrometallurgy
    • Applications in physical sciences
    • Surface properties of condensed matter
    • Condensed matter modelling and density functional theory
    • Chemical thermodynamics and energetics
    • Theory and design of materials
    • Solid state chemistry
    • Structure and dynamics of materials
    • Materials engineering not elsewhere classified

Faculty contact

  • University of Canterbury, Christchurch, New Zealand