Research Institute

QuakeCoRE

PEOPLE

    • Professor
    • Faculty of Law
    • ProfessorFaculty of Law

    Natalie is a Professor in the Faculty of Law | Te Kaupeka Ture at the University of Canterbury | Te Whare Wananga o Waitaha.

    Natalie's research and teaching interests are in the areas of international human rights, disaster law, refugee law and Pacific legal studies - all broadly under the public law umbrella. The first part of Natalie's career was spent in the New Zealand public service including at the Crown Law Office, the Cabinet Office (Department of Prime Minister and Cabinet) and the Law Commission. She also worked as a VSA volunteer at the Cambodian Defenders' Project in Phnom Penh. Natalie draws on all this expertise and experience in both her research and teaching.

    Natalie is passionate and experienced in all levels of university learning and teaching – from first-year to post-graduate. She is currently the Co-Director of Postgraduate Studies in Law, and a member of the Law Faculty’s Leadership Team. Natalie has a strong personal service ethic, with much of her service reflecting the themes of equity and diversity including past governance roles with Trade Aid New Zealand and Amnesty International. Natalie is currently a part-time member of the Human Rights Review Tribunal | Te Taraipiunara Mana Tangata.

    Natalie is a Professor in the Faculty of Law | Te Kaupeka Ture at the University of Canterbury | Te Whare Wananga o Waitaha.

    Natalie's research and teaching interests are in the areas of international human rights, disaster law, refugee law and Pacific legal studies - all broadly under the public law umbrella. The first part of Natalie's career was spent in the New Zealand public service including at the Crown Law Office, the Cabinet Office (Department of Prime Minister and Cabinet) and the Law Commission. She also worked as a VSA volunteer at the Cambodian Defenders' Project in Phnom Penh. Natalie draws on all this expertise and experience in both her research and teaching.

    Natalie is passionate and experienced in all levels of university learning and teaching – from first-year to post-graduate. She is currently the Co-Director of Postgraduate Studies in Law, and a member of the Law Faculty’s Leadership Team. Natalie has a strong personal service ethic, with much of her service reflecting the themes of equity and diversity including past governance roles with Trade Aid New Zealand and Amnesty International. Natalie is currently a part-time member of the Human Rights Review Tribunal | Te Taraipiunara Mana Tangata.

    • Faculty of Law
    • Registered to supervise Master's/Doctoral students
    • 16 Peace, Justice and Strong Institutions
    • 10 Reduced Inequalities
    • 13 Climate Action
    Fields of Research
    • International humanitarian and human rights law
    • Domestic human rights law
    • Public international law
    • Migration, asylum and refugee law
    • Disaster and emergency management
    • Pacific Peoples and the law
    • Associate Head of Department
    • Civil and Environmental Engineering
    • Associate Head of DepartmentCivil and Environmental Engineering
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering

    Professor Brendon Bradley is an internationally recognised researcher in earthquake engineering, specialising in engineering seismology, strong ground-motion prediction, seismic response analysis, and seismic performance and loss estimation. His work advances the modelling of ground-motion intensity, structural and geotechnical system response, and risk-informed decision-making for resilient infrastructure.

     

    Brendon completed his BE(Hons) in 2007 and PhD in 2009. Before joining the University of Canterbury in 2010, he worked at GNS Science in Wellington and as a postdoctoral fellow at Chuo University in Tokyo, Japan. He has extensive consulting experience in seismic hazard analysis, ground-motion selection, structural and geotechnical response modelling, and seismic risk and loss assessment.

     

    He is a Fellow of Engineering New Zealand (2021), Fellow of the New Zealand Society for Earthquake Engineering (2022), and Fellow of the Royal Society Te Apārangi (2022). Brendon was a co-founder of QuakeCoRE: New Zealand Centre for Earthquake Resilience, serving as Deputy Director (2016–2018) and Director (2019–2024). He is currently Editor of Earthquake Spectra and serves on the Editorial Board of the Bulletin of the New Zealand Society for Earthquake Engineering.

     

    His contributions have been recognised through numerous national and international awards, including the 2023 UC Research Medal, 2021 ISSMGE Bright Spark Lecture Award, 2018 NZGS Geomechanics Award, 2016 Prime Minister’s MacDiarmid Emerging Scientist Prize, 2016 ASCE Norman Medal, 2015 Shah Innovation Prize, 2014 TC203 Young Researcher Award, 2015 UC Teaching Award, 2014 New Zealand Young Engineer of the Year Award, 2014 Shamsher Prakash Foundation Research Award, 2013 Rutherford Discovery Fellowship, 2012 Ivan Skinner EQC Award, and the 2008 NZSEE Research Prize.

     

    [updated May 2026]

     

    Find more information on PhD and postdoc research opportunities at Brendon's personal website: www.brendonbradley.com

    Professor Brendon Bradley is an internationally recognised researcher in earthquake engineering, specialising in engineering seismology, strong ground-motion prediction, seismic response analysis, and seismic performance and loss estimation. His work advances the modelling of ground-motion intensity, structural and geotechnical system response, and risk-informed decision-making for resilient infrastructure.

     

    Brendon completed his BE(Hons) in 2007 and PhD in 2009. Before joining the University of Canterbury in 2010, he worked at GNS Science in Wellington and as a postdoctoral fellow at Chuo University in Tokyo, Japan. He has extensive consulting experience in seismic hazard analysis, ground-motion selection, structural and geotechnical response modelling, and seismic risk and loss assessment.

     

    He is a Fellow of Engineering New Zealand (2021), Fellow of the New Zealand Society for Earthquake Engineering (2022), and Fellow of the Royal Society Te Apārangi (2022). Brendon was a co-founder of QuakeCoRE: New Zealand Centre for Earthquake Resilience, serving as Deputy Director (2016–2018) and Director (2019–2024). He is currently Editor of Earthquake Spectra and serves on the Editorial Board of the Bulletin of the New Zealand Society for Earthquake Engineering.

     

    His contributions have been recognised through numerous national and international awards, including the 2023 UC Research Medal, 2021 ISSMGE Bright Spark Lecture Award, 2018 NZGS Geomechanics Award, 2016 Prime Minister’s MacDiarmid Emerging Scientist Prize, 2016 ASCE Norman Medal, 2015 Shah Innovation Prize, 2014 TC203 Young Researcher Award, 2015 UC Teaching Award, 2014 New Zealand Young Engineer of the Year Award, 2014 Shamsher Prakash Foundation Research Award, 2013 Rutherford Discovery Fellowship, 2012 Ivan Skinner EQC Award, and the 2008 NZSEE Research Prize.

     

    [updated May 2026]

     

    Find more information on PhD and postdoc research opportunities at Brendon's personal website: www.brendonbradley.com

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 9 Industry, Innovation and Infrastructure
    • 11 Sustainable Cities and Communities
    • Collaborative research projects
    • Consulting & advisory services
    • Media enquiries
    • Industry partnerships & innovation
    • Outreach & community engagement
    • Policy advice & government consultation
    Fields of Research
    • Engineering
    • Civil engineering
    • Earthquake engineering
    • Seismology and seismic exploration
    • High performance computing
    • Civil geotechnical engineering
    • Earth sciences
    • Geophysics
    • Applied geophysics
    • Senior Lecturer
    • Civil and Environmental Engineering
    • Senior LecturerCivil and Environmental Engineering
    The broad objective of my research is to minimize human and economic losses incurred during earthquakes by enhancing the seismic safety of our built environment. My research seeks to advance the state-of-the-art in structural risk and reliability assessment using modern high-performance computing tools and statistically rigorous structural analysis techniques. I employ large-scale numerical simulations to answer fundamental questions relating the characteristics of earthquake ground motion to the nonlinear dynamic response and collapse behavior of structures.
    The broad objective of my research is to minimize human and economic losses incurred during earthquakes by enhancing the seismic safety of our built environment. My research seeks to advance the state-of-the-art in structural risk and reliability assessment using modern high-performance computing tools and statistically rigorous structural analysis techniques. I employ large-scale numerical simulations to answer fundamental questions relating the characteristics of earthquake ground motion to the nonlinear dynamic response and collapse behavior of structures.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering

    My research focuses on Geotechnical Engineering for Resilience and Sustainability, with particular emphasis on:

     

    • Earthquake Geotechnical Engineering and related problems
    • Geo-disaster risk assessment and mitigation
    • Experimental geotechnics, including soil behaviour from very small to large strain levels
    • Geoenvironmental engineering
    • Ground improvement techniques for seismic-resilient structures
    • Computational geotechnics, including constitutive modelling, DEM, and FEM approaches

     

    I hold BSc and MSc degrees in Civil Engineering from the University of Cassino and Southern Lazio (Italy), a PhD in Geotechnical Earthquake Engineering from the University of Tokyo (Japan, 2010), and a Postgraduate Certificate in Tertiary Teaching from the University of Canterbury (2020). My academic career spans 18 years, including research and teaching appointments in Japan (5 years), Australia (3 years), and New Zealand (10 years).

     

    My research has been supported through competitive funding from major agencies, including the Earthquake Commission, Ministry of Business Innovation and Employment (Smart Ideas Endeavour Fund), QuakeCoRE, DEVORA, Japan Society for the Promotion of Science, and Japan Science and Technology Agency. To date, I have secured more than NZ$3 million in external research funding, including over NZ$2 million as primary investigator. I have authored or co-authored more than 180 technical publications.

     

    My recognitions include the JGS Best Paper Award (2022), the IABSE Outstanding Scientific Paper Award (2021), the NZSEE Otto Glogau Award (2020), and a JSPS Research Fellowship (2014). I served as Team Leader of the 2016 NZSEE “Learning from Earthquake” Mission in Kumamoto, Japan, and Team Co-Leader of the 2015 JGS/JSCE “Learning from Earthquake” Mission in Nepal. I am an elected member of the NZGS managment committee, and member of ISSMGE TC101 “Laboratory Testing” and ISSMGE AsRTC1 “Geotechnical Mitigation and Adaptation to Climate Change-induced Geo-disasters in Asia-Pacific Regions.”

    My research focuses on Geotechnical Engineering for Resilience and Sustainability, with particular emphasis on:

     

    • Earthquake Geotechnical Engineering and related problems
    • Geo-disaster risk assessment and mitigation
    • Experimental geotechnics, including soil behaviour from very small to large strain levels
    • Geoenvironmental engineering
    • Ground improvement techniques for seismic-resilient structures
    • Computational geotechnics, including constitutive modelling, DEM, and FEM approaches

     

    I hold BSc and MSc degrees in Civil Engineering from the University of Cassino and Southern Lazio (Italy), a PhD in Geotechnical Earthquake Engineering from the University of Tokyo (Japan, 2010), and a Postgraduate Certificate in Tertiary Teaching from the University of Canterbury (2020). My academic career spans 18 years, including research and teaching appointments in Japan (5 years), Australia (3 years), and New Zealand (10 years).

     

    My research has been supported through competitive funding from major agencies, including the Earthquake Commission, Ministry of Business Innovation and Employment (Smart Ideas Endeavour Fund), QuakeCoRE, DEVORA, Japan Society for the Promotion of Science, and Japan Science and Technology Agency. To date, I have secured more than NZ$3 million in external research funding, including over NZ$2 million as primary investigator. I have authored or co-authored more than 180 technical publications.

     

    My recognitions include the JGS Best Paper Award (2022), the IABSE Outstanding Scientific Paper Award (2021), the NZSEE Otto Glogau Award (2020), and a JSPS Research Fellowship (2014). I served as Team Leader of the 2016 NZSEE “Learning from Earthquake” Mission in Kumamoto, Japan, and Team Co-Leader of the 2015 JGS/JSCE “Learning from Earthquake” Mission in Nepal. I am an elected member of the NZGS managment committee, and member of ISSMGE TC101 “Laboratory Testing” and ISSMGE AsRTC1 “Geotechnical Mitigation and Adaptation to Climate Change-induced Geo-disasters in Asia-Pacific Regions.”

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    Fields of Research
    • Civil geotechnical engineering
    • Earthquake engineering
    • Environmentally sustainable engineering
    • Associate Professor
    • Faculty of Law
    • Associate ProfessorFaculty of Law

    Associate Professor Dr Toni Collins is a specialist in land law and disaster law, with a research focus on how legal frameworks respond to major earthquake and other natural hazard events and other forms of disruption. Her work examines the resilience of legal systems to disasters and the effectiveness of contractual obligations, risk allocation mechanisms, and statutory interventions in supporting post-disaster recovery.

     

    Toni’s PhD analysed the impacts of the 2010–2011 Canterbury earthquakes on commercial landlords and tenants, offering new insights into how these relationships operate under seismic stress. Her current research extends this analysis to the 2016 Kaikōura and Wellington earthquakes, the 2023 Auckland floods and Cyclone Gabrielle and more recently the impacts of sea level rise through climate change tracing how communities and regions are supported (or not) through legal preparedness.

     

    Her broader interests include disaster recovery law, emergency management law, land system resilience, and the interface between land law and risk governance. Toni teaches Land Law at UC, at both introductory and advanced levels integrating contemporary case studies and disaster-related legal challenges to support students’ understanding of how the law functions in real-world contexts.

     

    Key words: disaster, resilience, legal frameworks, legal preparedness

    Associate Professor Dr Toni Collins is a specialist in land law and disaster law, with a research focus on how legal frameworks respond to major earthquake and other natural hazard events and other forms of disruption. Her work examines the resilience of legal systems to disasters and the effectiveness of contractual obligations, risk allocation mechanisms, and statutory interventions in supporting post-disaster recovery.

     

    Toni’s PhD analysed the impacts of the 2010–2011 Canterbury earthquakes on commercial landlords and tenants, offering new insights into how these relationships operate under seismic stress. Her current research extends this analysis to the 2016 Kaikōura and Wellington earthquakes, the 2023 Auckland floods and Cyclone Gabrielle and more recently the impacts of sea level rise through climate change tracing how communities and regions are supported (or not) through legal preparedness.

     

    Her broader interests include disaster recovery law, emergency management law, land system resilience, and the interface between land law and risk governance. Toni teaches Land Law at UC, at both introductory and advanced levels integrating contemporary case studies and disaster-related legal challenges to support students’ understanding of how the law functions in real-world contexts.

     

    Key words: disaster, resilience, legal frameworks, legal preparedness

    • Faculty of Law
    • Registered to supervise Master's/Doctoral students
    • 11 Sustainable Cities and Communities
    • 16 Peace, Justice and Strong Institutions
    • Collaborative research projects
    • Consulting & advisory services
    • Industry partnerships & innovation
    • Media enquiries
    • Outreach & community engagement
    • Policy advice & government consultation
    Fields of Research
    • Law and legal studies
    • Legal systems
    • Property law (excl. intellectual property law)
    • Private law and civil obligations
    • Legal institutions (incl. courts and justice systems)
    • Disaster and emergency management
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering
    -
    -
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering

    My subsurface engineering group is working on some major challenges for a safe, low-emissions future. How can we pull CO2 out of the atmosphere at low cost? How can we safely store massive amounts of hydrogen? How can we anticipate volcanic eruptions and human-triggered seismicity?

    𝗖𝗮𝗿𝗯𝗼𝗻 𝗗𝗶𝗼𝘅𝗶𝗱𝗲 𝗥𝗲𝗺𝗼𝘃𝗮𝗹 - we are designing systems that combust forestry waste and dissolve the CO2 in geothermal systems. This boosts renewable electricity and reduces CO2 in the atmosphere. Our goal is to find a pathway beyond 1 million tonnes of removals each year at a cost less than $100 per tonne.

    𝗨𝗻𝗱𝗲𝗿𝗴𝗿𝗼𝘂𝗻𝗱 𝗛𝘆𝗱𝗿𝗼𝗴𝗲𝗻 𝗦𝘁𝗼𝗿𝗮𝗴𝗲 - we are predicting the costs and consequences of injecting hydrogen (a low density, reactive gas that is appetising to microbes) into depleted natural gas fields. The goal is to, later, recover as much gas as possible while also meeting the size of the future industrial demand, which is expected to exceed the capacity of surface tanks.

    𝗩𝗼𝗹𝗰𝗮𝗻𝗶𝗰 𝗘𝗿𝘂𝗽𝘁𝗶𝗼𝗻 𝗙𝗼𝗿𝗲𝗰𝗮𝘀𝘁𝗶𝗻𝗴 - we are trialling machine learning systems that can receive real-time seismic data from GeoNet and use this to suggest how likely an eruption will be. We use data from volcanoes around the world, looking for the common patterns between them that occur before eruptions.

    𝗛𝘂𝗺𝗮𝗻-𝗧𝗿𝗶𝗴𝗴𝗲𝗿𝗲𝗱 𝗘𝗮𝗿𝘁𝗵𝗾𝘂𝗮𝗸𝗲𝘀 - we build systems that learn how underground injection of geothermal fluids, or extraction of natural gas, changes the forces on buried faults in a way that triggers earthquakes. We use these systems to make predictions of how many earthquakes might be caused by large energy projects and how these risks can be minimised.

     

    Writing about these things at my blog.

    My subsurface engineering group is working on some major challenges for a safe, low-emissions future. How can we pull CO2 out of the atmosphere at low cost? How can we safely store massive amounts of hydrogen? How can we anticipate volcanic eruptions and human-triggered seismicity?

    𝗖𝗮𝗿𝗯𝗼𝗻 𝗗𝗶𝗼𝘅𝗶𝗱𝗲 𝗥𝗲𝗺𝗼𝘃𝗮𝗹 - we are designing systems that combust forestry waste and dissolve the CO2 in geothermal systems. This boosts renewable electricity and reduces CO2 in the atmosphere. Our goal is to find a pathway beyond 1 million tonnes of removals each year at a cost less than $100 per tonne.

    𝗨𝗻𝗱𝗲𝗿𝗴𝗿𝗼𝘂𝗻𝗱 𝗛𝘆𝗱𝗿𝗼𝗴𝗲𝗻 𝗦𝘁𝗼𝗿𝗮𝗴𝗲 - we are predicting the costs and consequences of injecting hydrogen (a low density, reactive gas that is appetising to microbes) into depleted natural gas fields. The goal is to, later, recover as much gas as possible while also meeting the size of the future industrial demand, which is expected to exceed the capacity of surface tanks.

    𝗩𝗼𝗹𝗰𝗮𝗻𝗶𝗰 𝗘𝗿𝘂𝗽𝘁𝗶𝗼𝗻 𝗙𝗼𝗿𝗲𝗰𝗮𝘀𝘁𝗶𝗻𝗴 - we are trialling machine learning systems that can receive real-time seismic data from GeoNet and use this to suggest how likely an eruption will be. We use data from volcanoes around the world, looking for the common patterns between them that occur before eruptions.

    𝗛𝘂𝗺𝗮𝗻-𝗧𝗿𝗶𝗴𝗴𝗲𝗿𝗲𝗱 𝗘𝗮𝗿𝘁𝗵𝗾𝘂𝗮𝗸𝗲𝘀 - we build systems that learn how underground injection of geothermal fluids, or extraction of natural gas, changes the forces on buried faults in a way that triggers earthquakes. We use these systems to make predictions of how many earthquakes might be caused by large energy projects and how these risks can be minimised.

     

    Writing about these things at my blog.

    • 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
    • Head of Department
    • Civil and Environmental Engineering
    • Head of DepartmentCivil and Environmental Engineering
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering
    Dr Rajesh Dhakal is the Head of the Civil Engineering Department at University of Canterbury (UC) in NZ. He received a Bachelor of CIvil Engineering Degree in 1993 (winning a gold medal as the top student) from Tribhuvan University (Nepal), Master of Structural Engineering in 1997 (with a gold medal as the top student) from the Asian Institute of Technology (Thailand) and a PhD in Civil Engineering from the University of Tokyo in 2000. After a post-doctoral tenure at Nanyang Technological University in Singapore, Dr Dhakal joined UC in 2003.

    Prof Dhakal is a globally known Structural and Earthquake Engineering leader with an impressive research profile including close to 500 technical publications (about 200 of them journal articles attracting an H-index of 46), research grants worth more than $7M, and more than a dozen prestigious research awards for research excellence. Prof Dhakal has served in multiple national/international panels, served as an editorial board member for five international journals and delivered invited/keynote lectures in more than a dozen conferences. Prof Dhakal has been serving as the Chief Editor of the journal Bulletin of the NZ Society for Earthquake Engineering since 2014. In recognition of his contribution and leadership in earthquake engineering, Prof Dhakal was made a Fellow of Engineering NZ (since 2015) and the NZ Society for Earthquake Engineering (since 2017). In 2021, Prof Dhakal was elected the President of the International Association of SPONSE (Seismic Performance of Non-Structural Elements).

    Prof Dhakal has proven his teaching credentials by developing and delivering multiple courses at UC and overseas universities, and is a recipient of the 2013 UC Teaching Award. In addition, Prof Dhakal’s mentoring effectiveness is evident from the fact that he has supervised 65 PG research students and was conferred the UCSA Supervisor of the Year Award in 2014. Prof Dhakal is also a Chartered Professional Engineer (CPEng) and a fellow of Engineering New Zealand and New Zealand Society for Earthquake Engineering (NZSEE).
    Dr Rajesh Dhakal is the Head of the Civil Engineering Department at University of Canterbury (UC) in NZ. He received a Bachelor of CIvil Engineering Degree in 1993 (winning a gold medal as the top student) from Tribhuvan University (Nepal), Master of Structural Engineering in 1997 (with a gold medal as the top student) from the Asian Institute of Technology (Thailand) and a PhD in Civil Engineering from the University of Tokyo in 2000. After a post-doctoral tenure at Nanyang Technological University in Singapore, Dr Dhakal joined UC in 2003.

    Prof Dhakal is a globally known Structural and Earthquake Engineering leader with an impressive research profile including close to 500 technical publications (about 200 of them journal articles attracting an H-index of 46), research grants worth more than $7M, and more than a dozen prestigious research awards for research excellence. Prof Dhakal has served in multiple national/international panels, served as an editorial board member for five international journals and delivered invited/keynote lectures in more than a dozen conferences. Prof Dhakal has been serving as the Chief Editor of the journal Bulletin of the NZ Society for Earthquake Engineering since 2014. In recognition of his contribution and leadership in earthquake engineering, Prof Dhakal was made a Fellow of Engineering NZ (since 2015) and the NZ Society for Earthquake Engineering (since 2017). In 2021, Prof Dhakal was elected the President of the International Association of SPONSE (Seismic Performance of Non-Structural Elements).

    Prof Dhakal has proven his teaching credentials by developing and delivering multiple courses at UC and overseas universities, and is a recipient of the 2013 UC Teaching Award. In addition, Prof Dhakal’s mentoring effectiveness is evident from the fact that he has supervised 65 PG research students and was conferred the UCSA Supervisor of the Year Award in 2014. Prof Dhakal is also a Chartered Professional Engineer (CPEng) and a fellow of Engineering New Zealand and New Zealand Society for Earthquake Engineering (NZSEE).
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 11 Sustainable Cities and Communities
    Fields of Research
    • Structural engineering
    • Earthquake engineering
    • Associate Dean Research
    • Faculty of Law
    • Associate Dean ResearchFaculty of Law
    • Professor
    • Faculty of Law
    • ProfessorFaculty of Law

    Professor John Hopkins is a comparative public lawyer specialising in disaster law, emergency management law, multi-level governance, administrative justice, and anti-corruption. He is the Director of the LEAD Institute for Law, Emergencies and Disasters at Te Whare Wānanga o Waitaha University of Canterbury, and Co-Lead of Disciplinary Theme 3 (Law, Planning and Economics) for the NZ Centre for Earthquake Resilience Te Hiranga Rū (QuakeCoRE). He also chairs the International Disaster, Emergency and Law Networks (IDEAL) and serves as Pacific Editor of the Yearbook of International Disaster Law.

     

    His research focuses on disaster risk reduction, emergency powers, crisis governance, resilience policy, and legal frameworks for natural hazards across Aotearoa New Zealand and the Pacific. Dr Hopkins has lead major projects funded by Resilience to Nature’s Challenges, NHC-Toka Tū Ake (The NZ Hazards Commission), DEVORA (Determining Volcanic Risk in Auckland), the United Nations and the IFRC (International Federation of Red Cross and Red Crescent Societies) Disaster Law Programme, advancing evidence-based approaches to urban resilience, volcanic risk, and earthquake governance.

     

    In anti-corruption law, John specialises in Pacific governance, money laundering, and regional integrity systems. His recent work with Dr Chat Nguyen, in collaboration with Transparency International New Zealand (TINZ), examines the links between corruption, financial crime, and regulatory capacity in the South Pacific. Dr Hopkins is a former Board member of TINZ.

     

    His earlier scholarship on European regionalism, devolved governance, and comparative constitutional systems remains widely cited and his still regularly contributed to this field. He continues to publish on comparative law, constitutional law, administrative law, international law, and public sector accountability both in the context of Aotearoa New Zealand and globally.

     

    John has held visiting positions at Georgetown University (NZ Fulbright Scholar), Central European University (MUNDUS-MAPP Scholar), the University of Primorska (KEENZ Scholar), and the University of Oxford (Canterbury Scholar). He was elected to the International Academy of Comparative Law in 2013 and is the current New Zealand Chair of the Australasian Law Academics Association.

    Professor John Hopkins is a comparative public lawyer specialising in disaster law, emergency management law, multi-level governance, administrative justice, and anti-corruption. He is the Director of the LEAD Institute for Law, Emergencies and Disasters at Te Whare Wānanga o Waitaha University of Canterbury, and Co-Lead of Disciplinary Theme 3 (Law, Planning and Economics) for the NZ Centre for Earthquake Resilience Te Hiranga Rū (QuakeCoRE). He also chairs the International Disaster, Emergency and Law Networks (IDEAL) and serves as Pacific Editor of the Yearbook of International Disaster Law.

     

    His research focuses on disaster risk reduction, emergency powers, crisis governance, resilience policy, and legal frameworks for natural hazards across Aotearoa New Zealand and the Pacific. Dr Hopkins has lead major projects funded by Resilience to Nature’s Challenges, NHC-Toka Tū Ake (The NZ Hazards Commission), DEVORA (Determining Volcanic Risk in Auckland), the United Nations and the IFRC (International Federation of Red Cross and Red Crescent Societies) Disaster Law Programme, advancing evidence-based approaches to urban resilience, volcanic risk, and earthquake governance.

     

    In anti-corruption law, John specialises in Pacific governance, money laundering, and regional integrity systems. His recent work with Dr Chat Nguyen, in collaboration with Transparency International New Zealand (TINZ), examines the links between corruption, financial crime, and regulatory capacity in the South Pacific. Dr Hopkins is a former Board member of TINZ.

     

    His earlier scholarship on European regionalism, devolved governance, and comparative constitutional systems remains widely cited and his still regularly contributed to this field. He continues to publish on comparative law, constitutional law, administrative law, international law, and public sector accountability both in the context of Aotearoa New Zealand and globally.

     

    John has held visiting positions at Georgetown University (NZ Fulbright Scholar), Central European University (MUNDUS-MAPP Scholar), the University of Primorska (KEENZ Scholar), and the University of Oxford (Canterbury Scholar). He was elected to the International Academy of Comparative Law in 2013 and is the current New Zealand Chair of the Australasian Law Academics Association.

    • Faculty of Law
    • Registered to supervise Master's/Doctoral students
    • 11 Sustainable Cities and Communities
    • 13 Climate Action
    • 16 Peace, Justice and Strong Institutions
    • Collaborative research projects
    • Consulting & advisory services
    • Industry partnerships & innovation
    • Media enquiries
    • Outreach & community engagement
    • Policy advice & government consultation
    Fields of Research
    • Asian and Pacific law
    • Public law
    • Public international law
    • Disaster and emergency management
    • European Union law
    • Comparative law
    • Senior Lecturer Above the Bar
    • Civil and Environmental Engineering
    • Senior Lecturer Above the BarCivil and Environmental Engineering
    My research activities centre on the interplay between communities and natural and engineered systems. I conduct multidisciplinary and multi-agency research investigating how communities are impacted by and in turn influence the development of infrastructure, impacts of hazards on infrastructure and communities, and how long-term climate and landscape evolution processes will impact cultural heritage, settlements and infrastructure into the Anthropocene. I focus on integrating aspects of Te Ao Māori with earth science, and on infrastructure system development driven by iwi/hapū community aspirations, and impacts on these communities.
    My research activities centre on the interplay between communities and natural and engineered systems. I conduct multidisciplinary and multi-agency research investigating how communities are impacted by and in turn influence the development of infrastructure, impacts of hazards on infrastructure and communities, and how long-term climate and landscape evolution processes will impact cultural heritage, settlements and infrastructure into the Anthropocene. I focus on integrating aspects of Te Ao Māori with earth science, and on infrastructure system development driven by iwi/hapū community aspirations, and impacts on these communities.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Senior Lecturer
    • Civil and Environmental Engineering
    • Senior LecturerCivil and Environmental Engineering
    Dr Ke Jiang's principal research interests lie in the areas of high-performance steel/aluminium structures (connections and members), sustainable structures with green and recycled materials, structural resilience of steel structures after fire hazards. Her comprehensive research portfolio encompasses a diverse range of methodologies include laboratory testing, numerical modelling and the assessment and development of mechanic-based and machine-learning-based design methods for advanced structures.
    Dr Ke Jiang's principal research interests lie in the areas of high-performance steel/aluminium structures (connections and members), sustainable structures with green and recycled materials, structural resilience of steel structures after fire hazards. Her comprehensive research portfolio encompasses a diverse range of methodologies include laboratory testing, numerical modelling and the assessment and development of mechanic-based and machine-learning-based design methods for advanced structures.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 11 Sustainable Cities and Communities
    • 12 Responsible Consumption and Production
    • 9 Industry, Innovation and Infrastructure
    Fields of Research
    • Structural engineering
    • Structural dynamics
    • Additive manufacturing
    • Metals and alloy materials
    • Composite and hybrid materials
    • Artificial intelligence
    • Associate Professor
    • Civil and Environmental Engineering
    • Associate ProfessorCivil and Environmental Engineering
    Join me, if you want to design earthquake-safe structures with rigorous understanding of structural seismic responses through analytical and numerical studies, and if you enjoy developing engineering sound modeling techniques using the principles of mechanics and good mathematics.
    Join me, if you want to design earthquake-safe structures with rigorous understanding of structural seismic responses through analytical and numerical studies, and if you enjoy developing engineering sound modeling techniques using the principles of mechanics and good mathematics.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 4 Quality Education
    • 9 Industry, Innovation and Infrastructure
    • 11 Sustainable Cities and Communities
    • Consulting & advisory services
    • Industry partnerships & innovation
    • Technical expertise & support
    • Collaborative research projects
    Fields of Research
    • Structural dynamics
    • Structural engineering
    • Solid mechanics
    • Earthquake engineering
    • Numerical analysis
    • Senior Lecturer Above the Bar
    • Civil and Environmental Engineering
    • Senior Lecturer Above the BarCivil and Environmental Engineering

    Dr Robin Lee is a geotechnical and earthquake engineer specialising in engineering seismology, ground‑motion modelling, and seismic hazard analysis. He is a member of the Geotechnical Engineering Group in the Department of Civil and Environmental Engineering at the University of Canterbury.

     

    His research focuses on understanding and modelling earthquake‑induced ground motions, improving seismic hazard characterisation, and advancing geotechnical earthquake engineering practice. Robin integrates high‑performance computing, machine learning, and physics‑based simulation to develop next‑generation tools for predicting earthquake impacts on soils, structures, and infrastructure systems.

     

    He works collaboratively across engineering, computational science, and seismology communities to deliver models and methods that support safer, more resilient built environments in Aotearoa New Zealand and internationally.


    For more, including postgraduate research opportunities, see my personal website:
    https://lee-robin.github.io/

    Dr Robin Lee is a geotechnical and earthquake engineer specialising in engineering seismology, ground‑motion modelling, and seismic hazard analysis. He is a member of the Geotechnical Engineering Group in the Department of Civil and Environmental Engineering at the University of Canterbury.

     

    His research focuses on understanding and modelling earthquake‑induced ground motions, improving seismic hazard characterisation, and advancing geotechnical earthquake engineering practice. Robin integrates high‑performance computing, machine learning, and physics‑based simulation to develop next‑generation tools for predicting earthquake impacts on soils, structures, and infrastructure systems.

     

    He works collaboratively across engineering, computational science, and seismology communities to deliver models and methods that support safer, more resilient built environments in Aotearoa New Zealand and internationally.


    For more, including postgraduate research opportunities, see my personal website:
    https://lee-robin.github.io/

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 9 Industry, Innovation and Infrastructure
    • 11 Sustainable Cities and Communities
    • Collaborative research projects
    • Consulting & advisory services
    • Industry partnerships & innovation
    • Media enquiries
    • Policy advice & government consultation
    Fields of Research
    • Engineering
    • Civil engineering
    • Earthquake engineering
    • Seismology and seismic exploration
    • High performance computing
    • Civil geotechnical engineering
    • Earth sciences
    • Geophysics
    • Applied geophysics
    • Senior Lecturer Above the Bar
    • Civil and Environmental Engineering
    • Senior Lecturer Above the BarCivil and Environmental Engineering

    I am a researcher in Risk Science and Civil Systems Engineering. My research examines how hazards and other changes affect interconnected infrastructure, communities and economies, and how we can make better decisions under uncertainty.

     

    I work across risk analysis, complex systems, climate adaptation and resilience, combining quantitative modelling with applied research alongside government, industry and communities. A central focus of my work is translating advances in risk science into methods and tools that can improve real-world planning and decision-making.

    I am a researcher in Risk Science and Civil Systems Engineering. My research examines how hazards and other changes affect interconnected infrastructure, communities and economies, and how we can make better decisions under uncertainty.

     

    I work across risk analysis, complex systems, climate adaptation and resilience, combining quantitative modelling with applied research alongside government, industry and communities. A central focus of my work is translating advances in risk science into methods and tools that can improve real-world planning and decision-making.

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 11 Sustainable Cities and Communities
    • 13 Climate Action
    • 9 Industry, Innovation and Infrastructure
    • 10 Reduced Inequalities
    • Media enquiries
    • Collaborative research projects
    • Consulting & advisory services
    • Policy advice & government consultation
    Fields of Research
    • Risk engineering
    • Risk policy
    • Complex civil systems
    • Natural hazards
    • Climate change impacts and adaptation
    • Senior Lecturer
    • Civil and Environmental Engineering
    • Senior LecturerCivil and Environmental Engineering

    My research interests are linked to different aspects of building design (i.e. architectural, structural, materials selection, etc.) and building conservation. My previous research projects include developing a low-invasive technique for assessing damage to steel reinforcement in earthquake-damaged buildings and investigating the effects of earthquakes on the mechanical and fatigue properties of steel reinforcement.

    I am leading a large research project on using 3D Concrete Printing (3DCP) in low- and medium-density residential buildings. The research aims to develop low-carbon concrete mixes and earthquake-resilient structural elements and systems suitable for 3DCP technologies. 

    My research interests are linked to different aspects of building design (i.e. architectural, structural, materials selection, etc.) and building conservation. My previous research projects include developing a low-invasive technique for assessing damage to steel reinforcement in earthquake-damaged buildings and investigating the effects of earthquakes on the mechanical and fatigue properties of steel reinforcement.

    I am leading a large research project on using 3D Concrete Printing (3DCP) in low- and medium-density residential buildings. The research aims to develop low-carbon concrete mixes and earthquake-resilient structural elements and systems suitable for 3DCP technologies. 

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering
    Greg MacRae has been teaching and researching structural and earthquake engineering since 1986 in Japan, the USA, India, China and New Zealand. He was initiated into Chi Epsilon at the University of Washington, Seattle, for teaching excellence and he has coordinated, or taught, short courses on earthquake design in Myanmar with the World Seismic Safety Initiative, as well as in India.

    Having previously worked with the structural engineering division of Morrison Cooper and Partners, Wellington, he is a registered professional engineer in Washington State. He continues his close involvement with the profession through collaborative projects, standards committees, and as a consultant. MacRae led the University of Canterbury Structural Engineering Cluster, has been on the Quake Centre Board, on the Structural Engineering Society management committee, and the NZ representative to the International Association of Earthquake Engineering.

    MacRae’s research has been incorporated into standards in the USA, Japan and New Zealand, and it has directly influenced decisions regarding major buildings and bridges around the work.

    He currently leads the ROBUST project, testing a 3-storey steel frame with non-skeletal elements on the ILEE shaking tables, collaborating with Tongji University, China and over 8 other NZ institutions. Editorial roles are with the Bulletin of the NZ Society for Earthquake Engineering, with the Journal of Earthquake Engineering, and formerly with the American Society of Civil Engineering (ASCE) Journal of Structural Engineering.

    Greg was an author for the Royal Commission on the Canterbury Earthquakes and has been a director of the board of the World Seismic Safety Initiative (WSSI) as well as senior advisor to the board.
    Greg MacRae has been teaching and researching structural and earthquake engineering since 1986 in Japan, the USA, India, China and New Zealand. He was initiated into Chi Epsilon at the University of Washington, Seattle, for teaching excellence and he has coordinated, or taught, short courses on earthquake design in Myanmar with the World Seismic Safety Initiative, as well as in India.

    Having previously worked with the structural engineering division of Morrison Cooper and Partners, Wellington, he is a registered professional engineer in Washington State. He continues his close involvement with the profession through collaborative projects, standards committees, and as a consultant. MacRae led the University of Canterbury Structural Engineering Cluster, has been on the Quake Centre Board, on the Structural Engineering Society management committee, and the NZ representative to the International Association of Earthquake Engineering.

    MacRae’s research has been incorporated into standards in the USA, Japan and New Zealand, and it has directly influenced decisions regarding major buildings and bridges around the work.

    He currently leads the ROBUST project, testing a 3-storey steel frame with non-skeletal elements on the ILEE shaking tables, collaborating with Tongji University, China and over 8 other NZ institutions. Editorial roles are with the Bulletin of the NZ Society for Earthquake Engineering, with the Journal of Earthquake Engineering, and formerly with the American Society of Civil Engineering (ASCE) Journal of Structural Engineering.

    Greg was an author for the Royal Commission on the Canterbury Earthquakes and has been a director of the board of the World Seismic Safety Initiative (WSSI) as well as senior advisor to the board.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Professor
    • Faculty of Law
    • ProfessorFaculty of Law
    Annick Masselot's research interests focus upon European Union and comparative law, specifically with regards to gender equality and equal treatment, social and employment law, reconciliation between work and family life, pregnancy and maternity rights. Her expertise on the achievement of gender equality represents a primary reference point and has both shaped the field conceptually as well as impacted directly on policy making, especially in the fields of reconciliation between work and family life, and pregnancy and maternity rights in the context of employment law and social policy. She has also researched and written extensively on the interconnection between gender equality and a wide breadth of law and societal areas, including corporate and financial governance; international trade negotiations; diversity in the sciences; aid and development; disaster risk management; democratisation, intersectional disadvantages and gender mainstreaming.
    Annick Masselot's research interests focus upon European Union and comparative law, specifically with regards to gender equality and equal treatment, social and employment law, reconciliation between work and family life, pregnancy and maternity rights. Her expertise on the achievement of gender equality represents a primary reference point and has both shaped the field conceptually as well as impacted directly on policy making, especially in the fields of reconciliation between work and family life, and pregnancy and maternity rights in the context of employment law and social policy. She has also researched and written extensively on the interconnection between gender equality and a wide breadth of law and societal areas, including corporate and financial governance; international trade negotiations; diversity in the sciences; aid and development; disaster risk management; democratisation, intersectional disadvantages and gender mainstreaming.
    • Faculty of Law
    • Registered to supervise Master's/Doctoral students
    • Associate Professor
    • Civil and Environmental Engineering
    • Associate ProfessorCivil and Environmental Engineering
    My research focuses primarily on seismic response analysis for geotechnical and structural systems and the computational tools necessary to perform such analyses. I am interested in the development and application of advanced numerical models towards understanding earthquake-related phenomena, such as liquefaction, how the built environment responds to earthquakes, and how best to design resilient infrastructure that meets performance expectations. On the computational side, my work includes the development and implementation of finite element formulations, constitutive models, and numerical solution techniques.
    My research focuses primarily on seismic response analysis for geotechnical and structural systems and the computational tools necessary to perform such analyses. I am interested in the development and application of advanced numerical models towards understanding earthquake-related phenomena, such as liquefaction, how the built environment responds to earthquakes, and how best to design resilient infrastructure that meets performance expectations. On the computational side, my work includes the development and implementation of finite element formulations, constitutive models, and numerical solution techniques.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Lecturer
    • School of Earth and Environment
    • LecturerSchool of Earth and Environment
    The primary driving question of my research is, "how can we stop people dying in earthquakes?" Much of my work has looked at geophysical and geodynamic approaches to this question, trying to understand how Earth's lithosphere deforms across a wide range of spatial and temporal scales. I analyse and model a range of datasets, including seismological records, satellite imagery, GPS and radar, in order to understand both the patterns of deformation which we observe, and the forces which generate them. I am particularly interested in reconciling different estimates of lithosphere rheology, and combining multiple observations to improve our understanding of the Earth.

    However, this question is not one which can be answered purely geophysically, and my interest in it has at times led me a long way from my background in Physics. As a result, I have worked on many different aspects of earthquakes including: post-disaster damage assessment, scenario development and land justice.

    My current research is primarily focussed on earthquake simulators - computer models of earthquakes which have the potential to provide insights into what earthquakes and sequences of earthquakes could occur in the future. These models are still in the testing phase and I convene the group in Aotearoa which looks at how we can appropriately test these simulators for their potential applications. I am also interested in the epistemological implications of using computational models as a primary guide to the future.

    More generally, I am interested in how Earth Sciences as a discipline relates to the world, and particularly how a discipline with its foundations in colonialism and extractivism, can be adapted to serve a socially just, post-extractivist future. This has led to recent work with Elsa Noterman on Land Justice in Universities, which you can read about here: http://tinyurl.com/ALJantipode. As part of this interest I am passionate about making Earth Sciences a space which can be occupied by diverse people. I ran the Twitter account for Women Doing Science, a social media movement showcasing diverse women in STEM, until 2022 and encourage you to check out the archive here: https://www.womendoingscience.com/#about and our paper about its impacts here: https://doi.org/10.1177/20563051221113068.

    My research area has recently been described as "geodynamics and social justice" and I am always keen to connect with others interested in either of these spaces (and particularly those interested in both!)
    The primary driving question of my research is, "how can we stop people dying in earthquakes?" Much of my work has looked at geophysical and geodynamic approaches to this question, trying to understand how Earth's lithosphere deforms across a wide range of spatial and temporal scales. I analyse and model a range of datasets, including seismological records, satellite imagery, GPS and radar, in order to understand both the patterns of deformation which we observe, and the forces which generate them. I am particularly interested in reconciling different estimates of lithosphere rheology, and combining multiple observations to improve our understanding of the Earth.

    However, this question is not one which can be answered purely geophysically, and my interest in it has at times led me a long way from my background in Physics. As a result, I have worked on many different aspects of earthquakes including: post-disaster damage assessment, scenario development and land justice.

    My current research is primarily focussed on earthquake simulators - computer models of earthquakes which have the potential to provide insights into what earthquakes and sequences of earthquakes could occur in the future. These models are still in the testing phase and I convene the group in Aotearoa which looks at how we can appropriately test these simulators for their potential applications. I am also interested in the epistemological implications of using computational models as a primary guide to the future.

    More generally, I am interested in how Earth Sciences as a discipline relates to the world, and particularly how a discipline with its foundations in colonialism and extractivism, can be adapted to serve a socially just, post-extractivist future. This has led to recent work with Elsa Noterman on Land Justice in Universities, which you can read about here: http://tinyurl.com/ALJantipode. As part of this interest I am passionate about making Earth Sciences a space which can be occupied by diverse people. I ran the Twitter account for Women Doing Science, a social media movement showcasing diverse women in STEM, until 2022 and encourage you to check out the archive here: https://www.womendoingscience.com/#about and our paper about its impacts here: https://doi.org/10.1177/20563051221113068.

    My research area has recently been described as "geodynamics and social justice" and I am always keen to connect with others interested in either of these spaces (and particularly those interested in both!)
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • 11 Sustainable Cities and Communities
    • 1 No Poverty
    • 3 Good Health and Well Being
    Fields of Research
    • Computational modelling and simulation in earth sciences
    • Geodynamics
    • Natural hazards
    • Sociology and social studies of science and technology
  • Head
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering
    Santiago Pujol is Professor of Civil Engineering at the University of Canterbury. Prior to moving to New Zealand, he was Professor of Civil Engineering at the Lyles School of Civil Engineering, Purdue University. His experience includes: earthquake engineering, evaluation and strengthening of existing structures, response of reinforced concrete to impulsive loads and earthquake demands, instrumentation and testing of structures, and failure investigations. He is a Fellow of the American Concrete Institute (ACI), and member of ACI committees 445 (Torsion and Shear), 314 (Simplified Design), 133 (Disaster Reconnaissance), and 318R (High-Strength Reinforcement). He is also member of the Earthquake Engineering Research Institute (EERI), associate editor of Earthquake Spectra, and founder of datacenterhub.org (a site funded by the U.S. National Science Foundation and dedicated to the systematic collection of research data). He received the Chester Paul Siess Award for Excellence in Structural Research from ACI, the Educational Award from Architectural Institute of Japan, and the Walter L. Huber Civil Engineering Research Prize from ASCE.
    Santiago Pujol is Professor of Civil Engineering at the University of Canterbury. Prior to moving to New Zealand, he was Professor of Civil Engineering at the Lyles School of Civil Engineering, Purdue University. His experience includes: earthquake engineering, evaluation and strengthening of existing structures, response of reinforced concrete to impulsive loads and earthquake demands, instrumentation and testing of structures, and failure investigations. He is a Fellow of the American Concrete Institute (ACI), and member of ACI committees 445 (Torsion and Shear), 314 (Simplified Design), 133 (Disaster Reconnaissance), and 318R (High-Strength Reinforcement). He is also member of the Earthquake Engineering Research Institute (EERI), associate editor of Earthquake Spectra, and founder of datacenterhub.org (a site funded by the U.S. National Science Foundation and dedicated to the systematic collection of research data). He received the Chester Paul Siess Award for Excellence in Structural Research from ACI, the Educational Award from Architectural Institute of Japan, and the Walter L. Huber Civil Engineering Research Prize from ASCE.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Senior Lecturer Above the Bar
    • School of Earth and Environment
    • Senior Lecturer Above the BarSchool of Earth and Environment
    My research focusses on developing a greater understanding of earthquake hazards and disaster risk. In particular, I am interested in modelling earthquake-triggered landslides and their consequent impacts on people and critical lifelines. I also work on understanding how these landslides change and evolve following an earthquake and how this affects the longer-term post-earthquake recovery. My work involves a broad range of techniques including geospatial modelling, scenario modelling, risk analysis, and statistical analyses. I work throughout New Zealand and the Himalaya, including Nepal and Bhutan.

    Current research projects:
    1) Scenario modelling of earthquakes to deriving seismic risk
    2) Modelling the evolution of landslides in earthquake disasters
    3) The temporal and spatial variability of earthquake risk
    4) The formation and risk management associated with landslide dams
    My research focusses on developing a greater understanding of earthquake hazards and disaster risk. In particular, I am interested in modelling earthquake-triggered landslides and their consequent impacts on people and critical lifelines. I also work on understanding how these landslides change and evolve following an earthquake and how this affects the longer-term post-earthquake recovery. My work involves a broad range of techniques including geospatial modelling, scenario modelling, risk analysis, and statistical analyses. I work throughout New Zealand and the Himalaya, including Nepal and Bhutan.

    Current research projects:
    1) Scenario modelling of earthquakes to deriving seismic risk
    2) Modelling the evolution of landslides in earthquake disasters
    3) The temporal and spatial variability of earthquake risk
    4) The formation and risk management associated with landslide dams
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • 11 Sustainable Cities and Communities
    • 9 Industry, Innovation and Infrastructure
    • 13 Climate Action
    • Collaborative research projects
    • Consulting & advisory services
    • Media enquiries
    • Policy advice & government consultation
    Fields of Research
    • Natural hazards
    • Geospatial information systems and geospatial data modelling
    • Geomorphology and earth surface processes
    • Disaster and emergency management
    • Earth sciences
    • Physical geography and environmental geoscience
    • Associate Dean (Research)
    • Faculty of Engineering
    • Associate Dean (Research)Faculty of Engineering
    • Professor
    • Mechanical Engineering
    • ProfessorMechanical Engineering

    Professor Geoff Rodgers is a mechanical engineer specialising in applied mechanic design, dynamic system modelling, instrumentation, and control, with applications spanning earthquake engineering, structural dynamics, and biomedical engineering. While these areas of application may appear diverse, they are unified by the same underlying mechanics and analytical skill set, enabling Geoff to translate core expertise across disciplines.

     

    His work in structural damping devices, energy‑dissipation systems, and nonlinear dynamic behaviour has progressed from fundamental concept development through modelling, experimental validation, and full‑scale deployment. These technologies have been adopted within the Christchurch rebuild, including in the Tūranga central library, where they contribute to enhanced seismic resilience and controlled structural response. Internationally, his devices have been implemented in the Casa Adelante building in San Francisco, supporting improved building resilience and performance‑based seismic design in high-hazard urban environments.

     

    Geoff has led major programmes in seismic damper design and implementation, structural health monitoring, including assessment of building performance throughout the Canterbury earthquake sequence, supported by collaborations with UCLA, Texas A&M, and Duke University. He also works closely with the International Joint Research Laboratory for Earthquake Engineering at Tongji University in Shanghai, undertaking three large‑scale shake‑table experiments in reinforced concrete and steel construction using international testing facilities beyond the scale of those available in New Zealand.  His ongoing research involves many collaborative projects including with the University of British Columbia the University of Northern British Columbia in Canada, Lehigh University in Pennsylvania, and Tongji University in China.

     

    In bioengineering, Geoff’s research aims to improve the quality of life for joint‑replacement patients through advanced measurement and modelling techniques. His work includes dynamic measurement, signal processing, nonlinear modelling, video motion tracking, gait analysis, and biomechanics. Projects span acoustic monitoring of total hip replacement implants, lung mechanics, and computational optimisation of orthopaedic implant design.

     

    Geoff’s research also extends to the development of scientific data collection equipment for use in Antarctic field conditions, supporting the collection of ice samples and field observations that support the field of ice dynamics and flow modelling. Work from previous projects has undergone field testing during Antarctic field seasons.

     

    He has served as a Management Committee Member (2018-2025) and as President of the New Zealand Society for Earthquake Engineering (2022-2024), and maintains active links with the structural engineering profession. His research has received numerous awards and has been widely featured in international and national media, including the BBC, German television, Radio New Zealand, Australasian Science Magazine, and The Press.

    Professor Geoff Rodgers is a mechanical engineer specialising in applied mechanic design, dynamic system modelling, instrumentation, and control, with applications spanning earthquake engineering, structural dynamics, and biomedical engineering. While these areas of application may appear diverse, they are unified by the same underlying mechanics and analytical skill set, enabling Geoff to translate core expertise across disciplines.

     

    His work in structural damping devices, energy‑dissipation systems, and nonlinear dynamic behaviour has progressed from fundamental concept development through modelling, experimental validation, and full‑scale deployment. These technologies have been adopted within the Christchurch rebuild, including in the Tūranga central library, where they contribute to enhanced seismic resilience and controlled structural response. Internationally, his devices have been implemented in the Casa Adelante building in San Francisco, supporting improved building resilience and performance‑based seismic design in high-hazard urban environments.

     

    Geoff has led major programmes in seismic damper design and implementation, structural health monitoring, including assessment of building performance throughout the Canterbury earthquake sequence, supported by collaborations with UCLA, Texas A&M, and Duke University. He also works closely with the International Joint Research Laboratory for Earthquake Engineering at Tongji University in Shanghai, undertaking three large‑scale shake‑table experiments in reinforced concrete and steel construction using international testing facilities beyond the scale of those available in New Zealand.  His ongoing research involves many collaborative projects including with the University of British Columbia the University of Northern British Columbia in Canada, Lehigh University in Pennsylvania, and Tongji University in China.

     

    In bioengineering, Geoff’s research aims to improve the quality of life for joint‑replacement patients through advanced measurement and modelling techniques. His work includes dynamic measurement, signal processing, nonlinear modelling, video motion tracking, gait analysis, and biomechanics. Projects span acoustic monitoring of total hip replacement implants, lung mechanics, and computational optimisation of orthopaedic implant design.

     

    Geoff’s research also extends to the development of scientific data collection equipment for use in Antarctic field conditions, supporting the collection of ice samples and field observations that support the field of ice dynamics and flow modelling. Work from previous projects has undergone field testing during Antarctic field seasons.

     

    He has served as a Management Committee Member (2018-2025) and as President of the New Zealand Society for Earthquake Engineering (2022-2024), and maintains active links with the structural engineering profession. His research has received numerous awards and has been widely featured in international and national media, including the BBC, German television, Radio New Zealand, Australasian Science Magazine, and The Press.

    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • 9 Industry, Innovation and Infrastructure
    • 11 Sustainable Cities and Communities
    • 3 Good Health and Well Being
    • 12 Responsible Consumption and Production
    • Collaborative research projects
    • Consulting & advisory services
    • Industry partnerships & innovation
    • Policy advice & government consultation
    Fields of Research
    • Engineering
    • Civil engineering
    • Earthquake engineering
    • Structural dynamics
    • Structural engineering
    • Mechanical engineering
    • Dynamics, vibration and vibration control
    • Biomedical engineering
    • Biomechanical engineering
    • Biomedical instrumentation
    • Medical devices
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering
    My research interests are primarily related to: the development of sustainable construction materials (such as magnesium silicate binder systems); determination of the residual capacity and degradation processes in corroded and seismically damaged reinforced concrete structures, and in situ resource utilization (ISRU) options for off-earth civil engineering construction applications.
    My research interests are primarily related to: the development of sustainable construction materials (such as magnesium silicate binder systems); determination of the residual capacity and degradation processes in corroded and seismically damaged reinforced concrete structures, and in situ resource utilization (ISRU) options for off-earth civil engineering construction applications.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Senior Lecturer
    • Civil and Environmental Engineering
    • Senior LecturerCivil and Environmental Engineering
    My current research focusses on the performance of New Zealand soils (especially the pumice-rich soils of the North Island) when subjected to earthquake loading in order to understand the resistance of these soils to liquefaction.
    Pumice-rich soils are frequently encountered on engineering projects across the central North Island, and these soils display unique behaviours because they are vesicular (full of holes). This makes these soils problematic for engineers since conventional tools were not developed for use with these soils. Beyond investigating the liquefaction resistance of these soils, my research ultimately aims to translate the different behaviours of these soils into what it means for our buildings and infrastructure built in areas with pumice-rich soils.

    I am currently accepting applications from students interested in post-graduate research looking to develop new experimental datasets for the behaviour of pumice-rich soils. Scholarship opportunities are available for the right candidates.
    To apply, please contact me by email with your CV, a list of courses completed at University (i.e. a transcript), a short summary of your research experience to date and a sample of written work if possible (this might include a conference article, journal article, or undergraduate research project report).
    My current research focusses on the performance of New Zealand soils (especially the pumice-rich soils of the North Island) when subjected to earthquake loading in order to understand the resistance of these soils to liquefaction.
    Pumice-rich soils are frequently encountered on engineering projects across the central North Island, and these soils display unique behaviours because they are vesicular (full of holes). This makes these soils problematic for engineers since conventional tools were not developed for use with these soils. Beyond investigating the liquefaction resistance of these soils, my research ultimately aims to translate the different behaviours of these soils into what it means for our buildings and infrastructure built in areas with pumice-rich soils.

    I am currently accepting applications from students interested in post-graduate research looking to develop new experimental datasets for the behaviour of pumice-rich soils. Scholarship opportunities are available for the right candidates.
    To apply, please contact me by email with your CV, a list of courses completed at University (i.e. a transcript), a short summary of your research experience to date and a sample of written work if possible (this might include a conference article, journal article, or undergraduate research project report).
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students
    • Professor
    • Civil and Environmental Engineering
    • ProfessorCivil and Environmental Engineering
    Tim’s research focusses on improving the fundamentals of seismic design, assessment and retrofit for structural and non-structural elements and systems. He has been leading national research projects related to Next Generation Infrastructure, Resilient Buildings and Low-damage Design. Tim uses experimental testing and loss-assessment techniques to demonstrate the performance of different engineering design and retrofit strategies and enjoys developing new technologies and systems that improve seismic performance. His research includes examination of medium-rise and tall commercial buildings, bridges and more recently, housing. He has a particular interest in the use of base-isolation and energy dissipation to enhance the seismic performance of buildings and building contents. Tim has considerable consulting experience and enjoys collaborating with industry.
    Tim’s research focusses on improving the fundamentals of seismic design, assessment and retrofit for structural and non-structural elements and systems. He has been leading national research projects related to Next Generation Infrastructure, Resilient Buildings and Low-damage Design. Tim uses experimental testing and loss-assessment techniques to demonstrate the performance of different engineering design and retrofit strategies and enjoys developing new technologies and systems that improve seismic performance. His research includes examination of medium-rise and tall commercial buildings, bridges and more recently, housing. He has a particular interest in the use of base-isolation and energy dissipation to enhance the seismic performance of buildings and building contents. Tim has considerable consulting experience and enjoys collaborating with industry.
    • Faculty of Engineering
    • Registered to supervise Master's/Doctoral students