School

School of Physical and Chemical Sciences

PEOPLE

    • Professor
    • School of Physical & Chemical Sciences
    • ProfessorSchool of Physical & Chemical Sciences
    My research is in the areas of astroparticle physics and cosmology. Astroparticle physics involves research at the interface of astronomy and particle physics. It is a synergy which operates in both directions; particle physics is applied to better understand astrophysical objects as well as using the Universe as a laboratory for high-energy physics.

    My group are members of the IceCube collaboration which operates the IceCube neutrino observatory at the South Pole. Our collaboration has achieved a series of break-through results discovering astrophysical neutrinos in 2013 and identifying the first source of these neutrinos in 2017.
    My research is in the areas of astroparticle physics and cosmology. Astroparticle physics involves research at the interface of astronomy and particle physics. It is a synergy which operates in both directions; particle physics is applied to better understand astrophysical objects as well as using the Universe as a laboratory for high-energy physics.

    My group are members of the IceCube collaboration which operates the IceCube neutrino observatory at the South Pole. Our collaboration has achieved a series of break-through results discovering astrophysical neutrinos in 2013 and identifying the first source of these neutrinos in 2017.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • Associate Professor
    • School of Physical & Chemical Sciences
    • Associate ProfessorSchool of Physical & Chemical Sciences
    I am an astronomer/physicist who works mainly on stellar and galactic astrophysics. I have been heavily involved in the Korea Microlensing Telescope (KMTNet) project over the last decade, and also use data from Gaia to study the binary star populations of star clusters. I am a member of the Roman Galactic Exoplanet Survey project infrastructure team, and are looking forward to the launch of this new space telescope in 2026.
    I am an astronomer/physicist who works mainly on stellar and galactic astrophysics. I have been heavily involved in the Korea Microlensing Telescope (KMTNet) project over the last decade, and also use data from Gaia to study the binary star populations of star clusters. I am a member of the Roman Galactic Exoplanet Survey project infrastructure team, and are looking forward to the launch of this new space telescope in 2026.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    Fields of Research
    • Galactic astronomy
    • Stellar astronomy and planetary systems
    • Numerical computation and mathematical software
    • High performance computing
    • Teaching Lab Manager
    • School of Physical & Chemical Sciences
    • Teaching Lab ManagerSchool of Physical & Chemical Sciences
    Nathan is the Teaching Laboratory Manager within the School of Physical and Chemical Sciences (SPCS).  After graduating, he developed his technical expertise through hands‑on roles across teaching laboratories and research environments before returning to UC to support the next generation of scientists.
     
    He oversees the operation of the SPCS teaching laboratories, ensuring that equipment, materials, and experimental setups are prepared, maintained, and safe for student use. Alongside his core laboratory responsibilities, Nathan also supports the use of a range of equipment, from the teaching space, outside of the SPCS teaching laboratory — including sets of pH meters and portable UV‑Vis spectrophotometers.
    Nathan is the Teaching Laboratory Manager within the School of Physical and Chemical Sciences (SPCS).  After graduating, he developed his technical expertise through hands‑on roles across teaching laboratories and research environments before returning to UC to support the next generation of scientists.
     
    He oversees the operation of the SPCS teaching laboratories, ensuring that equipment, materials, and experimental setups are prepared, maintained, and safe for student use. Alongside his core laboratory responsibilities, Nathan also supports the use of a range of equipment, from the teaching space, outside of the SPCS teaching laboratory — including sets of pH meters and portable UV‑Vis spectrophotometers.
    • Faculty of Science
    • Outreach & community engagement
    • Technical expertise & support
    Fields of Research
    • Chemical sciences
    • Senior Lecturer Above the Bar
    • School of Physical & Chemical Sciences
    • Senior Lecturer Above the BarSchool of Physical & Chemical Sciences

    My research is primarily interested in how proteins do their jobs, and the myriad of structural forms and interactions that affect their functioning. By using structure-function relationships as a scaffold, I am interested in how this function can be tuned to yield desirable functional features. This research involves studying both soluble and membrane proteins, with an emphasis on studying enzymes. Alongside the proteinaceous research, I am interested in fundamental aspects of mass spectrometry analyses of proteins, and developing supporting software, to uncover new and enabling methodologies.

     

    The research combines structural biology, mass spectrometry, biochemistry, and synthetic biology to investigate the molecular mechanisms of proteins and enzymes, with applications ranging from bioplastic production to antimicrobial resistance and drug discovery. 

    My research is primarily interested in how proteins do their jobs, and the myriad of structural forms and interactions that affect their functioning. By using structure-function relationships as a scaffold, I am interested in how this function can be tuned to yield desirable functional features. This research involves studying both soluble and membrane proteins, with an emphasis on studying enzymes. Alongside the proteinaceous research, I am interested in fundamental aspects of mass spectrometry analyses of proteins, and developing supporting software, to uncover new and enabling methodologies.

     

    The research combines structural biology, mass spectrometry, biochemistry, and synthetic biology to investigate the molecular mechanisms of proteins and enzymes, with applications ranging from bioplastic production to antimicrobial resistance and drug discovery. 

    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • 12 Responsible Consumption and Production
    • 3 Good Health and Well Being
    • 4 Quality Education
    • 9 Industry, Innovation and Infrastructure
    • 16 Peace, Justice and Strong Institutions
    • Collaborative research projects
    • Consulting & advisory services
    • Industry partnerships & innovation
    • Media enquiries
    • Technical expertise & support
    Fields of Research
    • Biochemistry and cell biology
    • Bioinformatics and computational biology
    • Industrial biotechnology
    • Analytical chemistry
    • Medicinal and biomolecular chemistry
    • Emeritus Professor
    • School of Physical & Chemical Sciences
    • Emeritus ProfessorSchool of Physical & Chemical Sciences
    Research interests include: radar meteors, plasma processes in meteor trains, orbital dynamics of meteoroids, sources of interstellar dust impacting the Solar System. Current research is the radar detection of meteoroids forming the Earth's resonant dust cloud - dust that has been captured into orbits dynamically related to the Earth's orbit.
    Research interests include: radar meteors, plasma processes in meteor trains, orbital dynamics of meteoroids, sources of interstellar dust impacting the Solar System. Current research is the radar detection of meteoroids forming the Earth's resonant dust cloud - dust that has been captured into orbits dynamically related to the Earth's orbit.
    • Faculty of Science
    • Associate Professor
    • School of Physical & Chemical Sciences
    • Associate ProfessorSchool of Physical & Chemical Sciences
    The small worlds of the Solar System provide insights into its early history. As a planetary astronomer, I am interested in understanding how they formed, evolved and reached their present orbits. I use wide-field imaging surveys to discover minor planets, and large telescopes to understand their surfaces.
    The small worlds of the Solar System provide insights into its early history. As a planetary astronomer, I am interested in understanding how they formed, evolved and reached their present orbits. I use wide-field imaging surveys to discover minor planets, and large telescopes to understand their surfaces.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • Professor
    • School of Physical & Chemical Sciences
    • ProfessorSchool of Physical & Chemical Sciences

    Tom was born in South Shields, in the North-East of England, in 1986.  He read the Natural Sciences Tripos at the University of Cambridge, specialising in Chemistry and gaining a 1st class MSci (Hons) in 2008. He then moved across to the Materials Science and Metallurgy Department, to study the physical properties of porous hybrid frameworks under Professor Anthony Cheetham FRS.

     

    A  3 year Research Fellowship at Trinity Hall, University of Cambridge followed, alongside lecturing some of the 1B Materials Chemistry course at the department. He started a Royal Society University Research Fellowship in 2016, along with a visiting adjunct professor position at The Wuhan University of Technology and a visiting scientist position at CSIRO Melbourne. The research group is best known for the discovery of hybrid melt-quenched glasses, and seminal works exploring the interface of the coordination polymer, MOF and glass domains. The group have considerable expertise in the characterisation of amorphous solids and liquids, and in creating new classes of functional material. For a taste of the research performed by the group, have a look at Tom’s plenary lecture at the International MOF Conference in 2022, available on youtube.

     

    In his career to date, Tom has been fortunate enough to receive the EPSRC post-doctoral prize (2012), the Panalytical award for an outstanding contribution to X-ray diffraction (2013), the ISIS Neutron and Muon Source Science Impact Award (2018), the Woldemar A. Weyl award for glass science (2019), the Philip Leverhulme Prize in Chemistry (2019), the Royal Society of Chemistry Harrison Meldola Memorial Prize (2020) and the Chemical Communications Lectureship (2021).

     

    He has spent research stays in both the University of Kyoto (hosted by Prof. Susumu Kitagawa and Prof. Satoshi Horike), the University of Canterbury, New Zealand (hosted by Prof. Paul Kruger), and the Friedrich Schiller University Jena (hosted by Prof. Dr. Lothar Wondraczek). He has served as both vice-Chair of the International Zeolite Association Commission on MOFs (2019 – 2022), and inaugural chair of the Royal Society of Chemistry Interest Group on Porous Materials (2019-2022). The committee were awarded the inspirational committee award by the Royal Society of Chemistry in 2021. This was for admitting over 300 members as the RSC’s newest interest group, and organisation of events during the COVID-19 pandemic.

     

    He was promoted to Professor in 2023, and joined the University of Canterbury, New Zealand, in 2024. In a related sentence, Tom loves photography, hiking and river crossings. In his spare time, he can often be found camping with his energetic dog, Albie, which is a Springer-Collie cross.

    Tom was born in South Shields, in the North-East of England, in 1986.  He read the Natural Sciences Tripos at the University of Cambridge, specialising in Chemistry and gaining a 1st class MSci (Hons) in 2008. He then moved across to the Materials Science and Metallurgy Department, to study the physical properties of porous hybrid frameworks under Professor Anthony Cheetham FRS.

     

    A  3 year Research Fellowship at Trinity Hall, University of Cambridge followed, alongside lecturing some of the 1B Materials Chemistry course at the department. He started a Royal Society University Research Fellowship in 2016, along with a visiting adjunct professor position at The Wuhan University of Technology and a visiting scientist position at CSIRO Melbourne. The research group is best known for the discovery of hybrid melt-quenched glasses, and seminal works exploring the interface of the coordination polymer, MOF and glass domains. The group have considerable expertise in the characterisation of amorphous solids and liquids, and in creating new classes of functional material. For a taste of the research performed by the group, have a look at Tom’s plenary lecture at the International MOF Conference in 2022, available on youtube.

     

    In his career to date, Tom has been fortunate enough to receive the EPSRC post-doctoral prize (2012), the Panalytical award for an outstanding contribution to X-ray diffraction (2013), the ISIS Neutron and Muon Source Science Impact Award (2018), the Woldemar A. Weyl award for glass science (2019), the Philip Leverhulme Prize in Chemistry (2019), the Royal Society of Chemistry Harrison Meldola Memorial Prize (2020) and the Chemical Communications Lectureship (2021).

     

    He has spent research stays in both the University of Kyoto (hosted by Prof. Susumu Kitagawa and Prof. Satoshi Horike), the University of Canterbury, New Zealand (hosted by Prof. Paul Kruger), and the Friedrich Schiller University Jena (hosted by Prof. Dr. Lothar Wondraczek). He has served as both vice-Chair of the International Zeolite Association Commission on MOFs (2019 – 2022), and inaugural chair of the Royal Society of Chemistry Interest Group on Porous Materials (2019-2022). The committee were awarded the inspirational committee award by the Royal Society of Chemistry in 2021. This was for admitting over 300 members as the RSC’s newest interest group, and organisation of events during the COVID-19 pandemic.

     

    He was promoted to Professor in 2023, and joined the University of Canterbury, New Zealand, in 2024. In a related sentence, Tom loves photography, hiking and river crossings. In his spare time, he can often be found camping with his energetic dog, Albie, which is a Springer-Collie cross.

    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • Emeritus Professor
    • School of Physical & Chemical Sciences
    • Emeritus ProfessorSchool of Physical & Chemical Sciences
    Co-leader (with M H G Munro) of Marine Chemistry group, the focus of which is on the isolation and characterisation of novel biologically-active metabolites from marine invertebrates and fungi. Once identified, the compounds are subjected to chemical modifications to establish structure-activity relationships. Much emphasis is placed on the development and exploitation of NMR methods appropriate to the investigation of very small samples.
    Co-leader (with M H G Munro) of Marine Chemistry group, the focus of which is on the isolation and characterisation of novel biologically-active metabolites from marine invertebrates and fungi. Once identified, the compounds are subjected to chemical modifications to establish structure-activity relationships. Much emphasis is placed on the development and exploitation of NMR methods appropriate to the investigation of very small samples.
    • Faculty of Science
    • Professor
    • School of Physical & Chemical Sciences
    • ProfessorSchool of Physical & Chemical Sciences
    My main research interest is in the properties of nanometre scale particles (called 'atomic clusters') and in developing ways of building nano-electronic devices from these clusters - we are focused on neuromorphic computing ("a computer chip that thinks like the brain"). We also have a the only scanning tunneling microscope in NZ. This allows us to study novel nanostructures with atomic scale precision - we focus on topological instlators and related materials.
    My main research interest is in the properties of nanometre scale particles (called 'atomic clusters') and in developing ways of building nano-electronic devices from these clusters - we are focused on neuromorphic computing ("a computer chip that thinks like the brain"). We also have a the only scanning tunneling microscope in NZ. This allows us to study novel nanostructures with atomic scale precision - we focus on topological instlators and related materials.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • Retired Staff
    • School of Physical & Chemical Sciences
    • Retired StaffSchool of Physical & Chemical Sciences
    John Campbell is a retired physicist at the University of Canterbury. He is the author of Rutherford Scientist Supreme, Rutherford’s Ancestors, and www.rutherford.org.nz; the organiser of the Rutherford Origin in Nelson; the Rutherford/Pickering/Havelock Memorial at Havelock; and co-producer of the 3-hour documentary Rutherford which was based on his book.

    He holds several awards for communicating science to the public, including the 1990 Commemorative Medal of the New Zealand government, a Bronze Rutherford Medal (1994) from the Royal Society of New Zealand, and a Canadian Nuclear Achievement Award for the Rutherford documentary (2012). He helped design, and supplied the illustrations for, the 1992 Rutherford banknote, in 1978 he initiated and was first editor of the New Zealand Physicist, and was awarded the Rutherford Trophy for Demonstrations in Physics by the New Zealand Institute of Physics in 2018, a competition and trophy he initiated for schoolteachers in 1973.
    John Campbell is a retired physicist at the University of Canterbury. He is the author of Rutherford Scientist Supreme, Rutherford’s Ancestors, and www.rutherford.org.nz; the organiser of the Rutherford Origin in Nelson; the Rutherford/Pickering/Havelock Memorial at Havelock; and co-producer of the 3-hour documentary Rutherford which was based on his book.

    He holds several awards for communicating science to the public, including the 1990 Commemorative Medal of the New Zealand government, a Bronze Rutherford Medal (1994) from the Royal Society of New Zealand, and a Canadian Nuclear Achievement Award for the Rutherford documentary (2012). He helped design, and supplied the illustrations for, the 1992 Rutherford banknote, in 1978 he initiated and was first editor of the New Zealand Physicist, and was awarded the Rutherford Trophy for Demonstrations in Physics by the New Zealand Institute of Physics in 2018, a competition and trophy he initiated for schoolteachers in 1973.
    • Faculty of Science
    Fields of Research
    • Condensed matter physics
    • History and philosophy of science
    • Life histories
    • Senior Lecturer
    • School of Physical & Chemical Sciences
    • Senior LecturerSchool of Physical & Chemical Sciences

    My research area is Waves in Complex Media. I use classical waves (e.g. sound and light) to study materials that can not be cut open. These materials range from the human body to food products and industrial materials. I am particularly interested in alternate approaches for imaging, in which we design experiments with arrays of sensors to reveal 'hidden' information about a material or system.

    I grew up in Winnipeg, Canada. I studied physics as a undergraduate at the University of Winnipeg, and at the University of Manitoba for my PhD. I then moved to Paris, France, as a Marie Curie Fellow at the Institut Langevin (École Supèrieure de Physique et Chimie Industrielles). In 2019, I started a postdoctoral position with the Physical Acoustics Laboratory at the University of Auckland, and continued as an independent Research Fellow with the Department of Physics. In 2024, I moved to the University of Canterbury as a Senior Lecturer.

    My research area is Waves in Complex Media. I use classical waves (e.g. sound and light) to study materials that can not be cut open. These materials range from the human body to food products and industrial materials. I am particularly interested in alternate approaches for imaging, in which we design experiments with arrays of sensors to reveal 'hidden' information about a material or system.

    I grew up in Winnipeg, Canada. I studied physics as a undergraduate at the University of Winnipeg, and at the University of Manitoba for my PhD. I then moved to Paris, France, as a Marie Curie Fellow at the Institut Langevin (École Supèrieure de Physique et Chimie Industrielles). In 2019, I started a postdoctoral position with the Physical Acoustics Laboratory at the University of Auckland, and continued as an independent Research Fellow with the Department of Physics. In 2024, I moved to the University of Canterbury as a Senior Lecturer.

    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • Emeritus Professor
    • School of Physical & Chemical Sciences
    • Emeritus ProfessorSchool of Physical & Chemical Sciences
    Research interests include:
    - Spectroscopic and photometric analyses of stars, including a range of pulsating stars: Cepheid variables; R Coronae Borealis stars; RV Tauri stars; post-AGB stars; Extreme He and other rapidly pulsating stars.
    - Abundances, particularly s-process elements, in late type stars.
    - Astronomical instrumentation developments for Mt John Observatory and the Southern African Large Telescope: Adaptive Optics and SCIDAR measurements at Mt John; High Resolution Spectrograph (SALT HRS) design for SALT.
    Research interests include:
    - Spectroscopic and photometric analyses of stars, including a range of pulsating stars: Cepheid variables; R Coronae Borealis stars; RV Tauri stars; post-AGB stars; Extreme He and other rapidly pulsating stars.
    - Abundances, particularly s-process elements, in late type stars.
    - Astronomical instrumentation developments for Mt John Observatory and the Southern African Large Telescope: Adaptive Optics and SCIDAR measurements at Mt John; High Resolution Spectrograph (SALT HRS) design for SALT.
    • Faculty of Science
    • Emeritus Professor
    • School of Physical & Chemical Sciences
    • Emeritus ProfessorSchool of Physical & Chemical Sciences
    My research interest is in understanding organic reactions, particularly those of value in synthesis and or biochemistry. Many of our studies have involved the timing of molecular events and the difference in energy of competing processes including: strained small ring opening and molecular rearrangement, factors responsible for facial selection in cycloaddition reactions and - reactions at carbonyls, and the use of chiral templates in inducing selection. Other interests include molecular modelling studies (ab initio studies of strained ring rearrangements, carbohydrate solution properties, macrocyclic conformational problems and protein structure) and Cataract research (a joint project with Professor Andrew Abell and colleagues at Lincoln focuses in development of calpain inhibitors).
    My research interest is in understanding organic reactions, particularly those of value in synthesis and or biochemistry. Many of our studies have involved the timing of molecular events and the difference in energy of competing processes including: strained small ring opening and molecular rearrangement, factors responsible for facial selection in cycloaddition reactions and - reactions at carbonyls, and the use of chiral templates in inducing selection. Other interests include molecular modelling studies (ab initio studies of strained ring rearrangements, carbohydrate solution properties, macrocyclic conformational problems and protein structure) and Cataract research (a joint project with Professor Andrew Abell and colleagues at Lincoln focuses in development of calpain inhibitors).
    • Faculty of Science
    • Professor
    • School of Physical & Chemical Sciences
    • ProfessorSchool of Physical & Chemical Sciences
    My research interests lie in:
    - the development and application of new theoretical methods and algorithms for modelling quantum properties of molecules and materials, such as molecular structure, dynamics, photochemistry, redox potentials, and reactivity.
    - the application of quantum chemical methods to design new molecules and materials for renewable energy capture and storage.
    My research interests lie in:
    - the development and application of new theoretical methods and algorithms for modelling quantum properties of molecules and materials, such as molecular structure, dynamics, photochemistry, redox potentials, and reactivity.
    - the application of quantum chemical methods to design new molecules and materials for renewable energy capture and storage.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • Collaborative research projects
    • Industry partnerships & innovation
    • Media enquiries
    • Policy advice & government consultation
    • Professor
    • School of Physical & Chemical Sciences
    • ProfessorSchool of Physical & Chemical Sciences
    Research interests include:
    - New Ionic Liquids and their applications. We prepared the first examples of ionic liquids using triaminocyclopropenium salts. Have ongoing collaborative projects on lubricants, cellulose dissolution, carbon dioxide gas separation, zeolite synthesis, and battery electrode development.
    - Polyhalides. We have prepared the first non-classical ternary polyhalides, such as [I2Br2Cl4]2–.
    - Chloride hydrates. We have isolated the first discrete example of Cl(H2O)– as well as a number of discrete multi-chloride hydrates for the first time.
    - Organometallic chemistry. Particular interests in metallocene complexes.

    I also have interests in the teaching of Lewis Structures (see: https://owencurnow.wixsite.com/lewis-structures), hypervalent molecules and point group symmetry.
    Research interests include:
    - New Ionic Liquids and their applications. We prepared the first examples of ionic liquids using triaminocyclopropenium salts. Have ongoing collaborative projects on lubricants, cellulose dissolution, carbon dioxide gas separation, zeolite synthesis, and battery electrode development.
    - Polyhalides. We have prepared the first non-classical ternary polyhalides, such as [I2Br2Cl4]2–.
    - Chloride hydrates. We have isolated the first discrete example of Cl(H2O)– as well as a number of discrete multi-chloride hydrates for the first time.
    - Organometallic chemistry. Particular interests in metallocene complexes.

    I also have interests in the teaching of Lewis Structures (see: https://owencurnow.wixsite.com/lewis-structures), hypervalent molecules and point group symmetry.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • Senior Lecturer
    • School of Physical & Chemical Sciences
    • Senior LecturerSchool of Physical & Chemical Sciences

    Clinical medical physics specialist and educator who integrates academia and the clinic to create solutions to complex problems in radiation oncology. ACPSEM certified with an MSc in Medical Physics (Clinical) from University of Canterbury.

    Clinical medical physics specialist and educator who integrates academia and the clinic to create solutions to complex problems in radiation oncology. ACPSEM certified with an MSc in Medical Physics (Clinical) from University of Canterbury.

    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    Fields of Research
    • Radiation therapy
    • Emeritus Professor
    • School of Physical & Chemical Sciences
    • Emeritus ProfessorSchool of Physical & Chemical Sciences
    Our major research focus combines electrochemistry and surface chemistry. We specialise in preparation of nanoscale organic layers on conducting materials, frequently through electrografting procedures. Our work has contributed to the basic understanding of how the layers form, their structure and their attachment to the substrate. Our expertise includes developing methods for patterning these layers and for preparing layers incorporating more than one chemical species in controlled amounts. Through on-surface chemistry on reactive layers, a wide variety of functional interfaces can be prepared. Recently we have expanded our research in two areas: preparing high-performing catalytic electrodes by tailoring immobilised molecular catalysts, and using nanoscale layers to control the surface electronic and chemical properties of transparent conducting oxides.
    Our major research focus combines electrochemistry and surface chemistry. We specialise in preparation of nanoscale organic layers on conducting materials, frequently through electrografting procedures. Our work has contributed to the basic understanding of how the layers form, their structure and their attachment to the substrate. Our expertise includes developing methods for patterning these layers and for preparing layers incorporating more than one chemical species in controlled amounts. Through on-surface chemistry on reactive layers, a wide variety of functional interfaces can be prepared. Recently we have expanded our research in two areas: preparing high-performing catalytic electrodes by tailoring immobilised molecular catalysts, and using nanoscale layers to control the surface electronic and chemical properties of transparent conducting oxides.
    • Faculty of Science
    • Professor
    • School of Physical & Chemical Sciences
    • ProfessorSchool of Physical & Chemical Sciences
    The main focus of our research is in the field of Organic Synthesis, particulalry applied to carbohydrates. Sugars, and in particular oligosaccharides, play key roles in a plethora of biological processes and chemical synthesis allows us to make molecules that will either enable us to increase our understanding of these processes, or perhaps even more importantly enable us to interfere with undesired processes. So, as Organic Chemists, we are not only interested in synthesis for its own sake, but also in the potential that our efforts can have in the fields of Glycoscience and Medicine, be it by accessing biologically important carbohydrates, or by the synthesis of mimics of sugars as therapeutic agents. As well as mainstream synthesis we are also interested in synthetic access to proteins that bear particular defined carbohydrate structures: structurally defined glycoproteins, and we have recently expanded our expertise into the field of molecular biology in order to develop more efficient biocatalysts to achieve this aim. This research interest led to the launch of a spinout company, Glycoform (http://www.glycoform.co.uk) in 2002.
    The main focus of our research is in the field of Organic Synthesis, particulalry applied to carbohydrates. Sugars, and in particular oligosaccharides, play key roles in a plethora of biological processes and chemical synthesis allows us to make molecules that will either enable us to increase our understanding of these processes, or perhaps even more importantly enable us to interfere with undesired processes. So, as Organic Chemists, we are not only interested in synthesis for its own sake, but also in the potential that our efforts can have in the fields of Glycoscience and Medicine, be it by accessing biologically important carbohydrates, or by the synthesis of mimics of sugars as therapeutic agents. As well as mainstream synthesis we are also interested in synthetic access to proteins that bear particular defined carbohydrate structures: structurally defined glycoproteins, and we have recently expanded our expertise into the field of molecular biology in order to develop more efficient biocatalysts to achieve this aim. This research interest led to the launch of a spinout company, Glycoform (http://www.glycoform.co.uk) in 2002.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    Fields of Research
    • Organic chemistry
    • Organic chemical synthesis
    • Associate Head
    • School of Physical & Chemical Sciences
    • Associate HeadSchool of Physical & Chemical Sciences
    • Associate Professor
    • School of Physical & Chemical Sciences
    • Associate ProfessorSchool of Physical & Chemical Sciences
    We are broadly interested in the synthesis of new and interesting organic molecules, particularly focusing on colossal aromatic molecules. Such compounds are intrinsically interesting as materials, but are also being investigated for their ability to form novel coordination and organometallic supramolecular assemblies. The preparation of such systems requires the use of modern organic synthetic techniques, including developing new reactions. The formation of new and interesting materials is the ultimate goal. These are subsequently examined for their chemical, physical and properties.

    We are currently working on the following projects:
    ~ The synthesis of large aromatic molecules with novel electronic and photo-chemical behavior.
    ~ Controlling intermolecular interactions is supramolecular assemblies.
    ~ The preparation and investigation of asymmetric catalysts using propeller based chirality.
    ~ Anion transporters for therapeutic applications.nic reactions.
    ~ The development of X-ray charge density analysis at the University of Canterbury.
    We are broadly interested in the synthesis of new and interesting organic molecules, particularly focusing on colossal aromatic molecules. Such compounds are intrinsically interesting as materials, but are also being investigated for their ability to form novel coordination and organometallic supramolecular assemblies. The preparation of such systems requires the use of modern organic synthetic techniques, including developing new reactions. The formation of new and interesting materials is the ultimate goal. These are subsequently examined for their chemical, physical and properties.

    We are currently working on the following projects:
    ~ The synthesis of large aromatic molecules with novel electronic and photo-chemical behavior.
    ~ Controlling intermolecular interactions is supramolecular assemblies.
    ~ The preparation and investigation of asymmetric catalysts using propeller based chirality.
    ~ Anion transporters for therapeutic applications.nic reactions.
    ~ The development of X-ray charge density analysis at the University of Canterbury.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • Senior Lecturer Above the Bar
    • School of Physical & Chemical Sciences
    • Senior Lecturer Above the BarSchool of Physical & Chemical Sciences

    Dr Daniel Foley is an organic and medicinal chemist in the School of Physical and Chemical Sciences at the University of Canterbury. Dan leads a vibrant research team with interests spanning synthetic organic chemistry and medicinal chemistry, working closely with key collaborators in biology. His research focuses on developing new synthetic methods, including preparing natural product‑inspired compounds, to accelerate the discovery of novel bioactive molecules (e.g. for drug and agrochemical discovery).

     

    Originally from the UK, Daniel completed an MChem at the University of Manchester, followed by a PhD in Synthetic Organic Chemistry at the University of Leeds. His postdoctoral training includes an EPSRC Doctoral Prize Fellowship (Leeds & Diamond Light Source) and a Marie Skłodowska‑Curie Fellowship at the Max Planck Institute of Molecular Physiology. He joined UC in 2018 and supervises researchers across a range of levels in synthetic organic and medicinal chemistry projects.

     

    Daniel’s recent recognitions include a Thieme Chemistry Journal Award 2025 and a University of St Andrews Global Fellowship (2025).

     

    Link to Dan's personal website: https://foleynz.wixsite.com/foleylab

    Dr Daniel Foley is an organic and medicinal chemist in the School of Physical and Chemical Sciences at the University of Canterbury. Dan leads a vibrant research team with interests spanning synthetic organic chemistry and medicinal chemistry, working closely with key collaborators in biology. His research focuses on developing new synthetic methods, including preparing natural product‑inspired compounds, to accelerate the discovery of novel bioactive molecules (e.g. for drug and agrochemical discovery).

     

    Originally from the UK, Daniel completed an MChem at the University of Manchester, followed by a PhD in Synthetic Organic Chemistry at the University of Leeds. His postdoctoral training includes an EPSRC Doctoral Prize Fellowship (Leeds & Diamond Light Source) and a Marie Skłodowska‑Curie Fellowship at the Max Planck Institute of Molecular Physiology. He joined UC in 2018 and supervises researchers across a range of levels in synthetic organic and medicinal chemistry projects.

     

    Daniel’s recent recognitions include a Thieme Chemistry Journal Award 2025 and a University of St Andrews Global Fellowship (2025).

     

    Link to Dan's personal website: https://foleynz.wixsite.com/foleylab

    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • 9 Industry, Innovation and Infrastructure
    • 3 Good Health and Well Being
    • 2 Zero Hunger
    • 12 Responsible Consumption and Production
    • Collaborative research projects
    • Consulting & advisory services
    • Industry partnerships & innovation
    Fields of Research
    • Chemical sciences
    • Organic chemistry
    • Medicinal and biomolecular chemistry
    • Biologically active molecules
    • Cheminformatics and quantitative structure-activity relationships
    • Natural products and bioactive compounds
    • Post Doctoral Fellow
    • School of Physical & Chemical Sciences
    • Post Doctoral FellowSchool of Physical & Chemical Sciences
    I am a computational astrophysicist currently working on problems related to the dynamics of small bodies (comets and asteroids) as they move through the Galaxy.
    I am a computational astrophysicist currently working on problems related to the dynamics of small bodies (comets and asteroids) as they move through the Galaxy.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    Fields of Research
    • Astronomical sciences
    • Galactic astronomy
    • Professor
    • School of Physical & Chemical Sciences
    • ProfessorSchool of Physical & Chemical Sciences
    Dave Frame is Professor of Physics at the University of Canterbury.

    Dave has a background in physics, philosophy, history, economics, and policy. Previous academic posts have included research positions at the University of Oxford's Departments of Physics and Geography, and as Deputy Director of the Smith School of Enterprise and the Environment, Director of the New Zealand Climate Change Research Centre, Director of the Deep South National Science Challenge, and Director of New Zealand's first major research programme into extreme weather events, climate change, and the associated costs. He has also worked at the New Zealand Treasury and at the Department of Energy and Climate Change in the UK. As part of interdisciplinary teams, he has worked on seminal ideas in climate science, such as the physics behind the links between cumulative emissions of CO2 and temperatures, the differences between long-lived and short-lived greenhouse gases, and the quantification of climate change-attributable costs associated with extreme weather events.
    He was a Lead Author on the Fifth and Sixth Assessment Report of the Intergovernmental Panel on Climate Change.
    Dave Frame is Professor of Physics at the University of Canterbury.

    Dave has a background in physics, philosophy, history, economics, and policy. Previous academic posts have included research positions at the University of Oxford's Departments of Physics and Geography, and as Deputy Director of the Smith School of Enterprise and the Environment, Director of the New Zealand Climate Change Research Centre, Director of the Deep South National Science Challenge, and Director of New Zealand's first major research programme into extreme weather events, climate change, and the associated costs. He has also worked at the New Zealand Treasury and at the Department of Energy and Climate Change in the UK. As part of interdisciplinary teams, he has worked on seminal ideas in climate science, such as the physics behind the links between cumulative emissions of CO2 and temperatures, the differences between long-lived and short-lived greenhouse gases, and the quantification of climate change-attributable costs associated with extreme weather events.
    He was a Lead Author on the Fifth and Sixth Assessment Report of the Intergovernmental Panel on Climate Change.
    • Faculty of Science
    • Professor
    • School of Physical & Chemical Sciences
    • ProfessorSchool of Physical & Chemical Sciences
    Professor Sally Gaw is an environmental chemist specialising in emerging contaminants, environmental toxicology, and the chemical fate and transport of pollutants across air, water, soil, and marine systems. Her research focuses on microplastics, airborne microplastics, pharmaceuticals and personal care products (PPCPs), agrichemicals, trace metals, and other persistent organic pollutants (POPs), with a particular emphasis on contaminant pathways, transformation processes, and ecological and human health risks. She has a particular interest in understanding how products we use in everyday life lead to environmental pollution and identifying how we can reduce the associated environmental burden.
     
    She leads interdisciplinary research on water and soil pollution, coastal ecosystem health, Antarctic environmental protection and human exposure to contaminants, integrating advanced analytical chemistry, mass spectrometry, and environmental monitoring to characterise pollutants and assess their environmental impacts. Her work also examine the role of pollution in global environmental change.
     
    Sally’s research informs environmental risk assessment, regulatory science, and sustainable chemical management, contributing to evidence‑based environmental policy in Aotearoa New Zealand and internationally. Her work aligns strongly with global priorities in environmental chemistry, pollution mitigation, water quality, and ecosystem resilience.
     
    She collaborates widely across government, industry, and international research networks, and supervises postgraduate students working on environmental chemistry, pollution mitigation, environmental monitoring, and ecosystem resilience.
    Professor Sally Gaw is an environmental chemist specialising in emerging contaminants, environmental toxicology, and the chemical fate and transport of pollutants across air, water, soil, and marine systems. Her research focuses on microplastics, airborne microplastics, pharmaceuticals and personal care products (PPCPs), agrichemicals, trace metals, and other persistent organic pollutants (POPs), with a particular emphasis on contaminant pathways, transformation processes, and ecological and human health risks. She has a particular interest in understanding how products we use in everyday life lead to environmental pollution and identifying how we can reduce the associated environmental burden.
     
    She leads interdisciplinary research on water and soil pollution, coastal ecosystem health, Antarctic environmental protection and human exposure to contaminants, integrating advanced analytical chemistry, mass spectrometry, and environmental monitoring to characterise pollutants and assess their environmental impacts. Her work also examine the role of pollution in global environmental change.
     
    Sally’s research informs environmental risk assessment, regulatory science, and sustainable chemical management, contributing to evidence‑based environmental policy in Aotearoa New Zealand and internationally. Her work aligns strongly with global priorities in environmental chemistry, pollution mitigation, water quality, and ecosystem resilience.
     
    She collaborates widely across government, industry, and international research networks, and supervises postgraduate students working on environmental chemistry, pollution mitigation, environmental monitoring, and ecosystem resilience.
    • Faculty of Science
    • Registered to supervise Master's/Doctoral students
    • 6 Clean Water and Sanitation
    • 12 Responsible Consumption and Production
    • 13 Climate Action
    • 14 Life Below Water
    • 15 Life on Land
    • Collaborative research projects
    • Consulting & advisory services
    • Industry partnerships & innovation
    • Media enquiries
    • Outreach & community engagement
    • Policy advice & government consultation
    Fields of Research
    • Environmental management
    • Pollution and contamination
    • Groundwater quality processes and contaminated land assessment
    • Surface water quality processes and contaminated sediment assessment
    • Environmental assessment and monitoring
    • Environmental management
    • Chemical sciences
    • Analytical chemistry
    • Adjunct Appointment
    • School of Physical & Chemical Sciences
    • Adjunct AppointmentSchool of Physical & Chemical Sciences

    Alan Gilmore has retired from the University of Canterbury. He was based at Mt John University Observatory in Tekapo and held the position of Resident Superintendent.


    Though officially retired, he and his wife Pam Kilmartin continue to run an observing programme of astrometry of near-Earth objects with Mt John telescopes.


    He also distrutes monthly star chart sets.

    Alan Gilmore has retired from the University of Canterbury. He was based at Mt John University Observatory in Tekapo and held the position of Resident Superintendent.


    Though officially retired, he and his wife Pam Kilmartin continue to run an observing programme of astrometry of near-Earth objects with Mt John telescopes.


    He also distrutes monthly star chart sets.

    • Faculty of Science
    • Postdoctoral Fellow
    • School of Physical & Chemical Sciences
    • Postdoctoral FellowSchool of Physical & Chemical Sciences
    • Faculty of Science