Physics at the interface
Condensed matter physics is the largest field in modern physics, while complex systems is perhaps the fastest-growing topic in physics research.
The methods for studying complex systems were originally developed for condensed matter, meaning that these fields are intimately linked.
Our research in condensed matter and complex systems connect us to researchers from many fields, including biology, chemistry, ecology, economics and anthropology.
Condensed matter physics
We study how the properties of solids and liquids develop from the atoms that make them. Our ultimate goal is to design materials or devices with desired or improved characteristics.
We focus on soft condensed matter such as polymers and biological materials, as well as microscale to nanoscale materials and colloidal particles.
Complex systems research is grounded in the physical sciences, but it has grown to encompass a much broader range of domains, including social and ecological systems.
With the growth in big data analytics, complex system research creates prospects for researchers to work across a diverse range of industries and government sectors.
We collaborate with a broad range of other academic disciplines. Recent highlights include work on social and economic networks in early Māori society, the use of optical techniques to predict the quality of meat, and high-speed photography of drop impacts in the Dynamic Microfluidics Laboratory.
- Quantum mechanical techniques
- Properties of atom-clusters, molecules and nano-particles
Associate Professor Malcolm Grimson
- Statistical mechanics
- Phase transitions
- Thin films
- Complex economic and social systems
- Computational nanoscience and materials science
- Soft matter and nanofluidics
- Network science
- Complex systems
- Economics of science and innovation
- Nanoclusters and extended systems
- Bulk properties and atom clusters
- Ultrafast spectroscopy
- Laser micromachining and microfabrication
- Photonics and microfluidics
- Device development and manufacturing innovations
- Optical imaging and sensing
- Biomedical and primary industry applications
- Experimental and theoretical soft condensed matter
- Janus spheres
- Dynamic microfluidics
- Theoretical biology
- Origin of life
- Genetic coding
- Prion proteins
- Self-organising autocatalysis