World-class research

From pioneering quantum physicists to celebrated immunologists, record-breaking engineers and ambitious undergraduates, every member of our research community is committed to the pursuit of new knowledge.

UNSW Sydney has always been known for trailblazing research across a range of different fields. Our researchers have improved the state of our drinking water through the development of innovative water filtration technologies; helped the vision impaired by creating the world’s first hypoxia-free contact lens; and secured pay rises for low-income workers—the majority of whom were women—through the development of a ground-breaking skills assessment toolkit. These amazing achievements represent only a few a few out of thousands across fields such as medicine, law, physics, computing, architecture and the social sciences.

Steeped in tradition, UNSW is also squarely focused on the future. Our interdisciplinary programs, with an emphasis on collaboration, and pursuit of mutually beneficial partnerships with government and industry, set us apart.

That’s why when it comes to disrupting the status quo, and unlocking the knowledge of tomorrow, UNSW is uniquely placed to thrive.

Michelle Simmons
Scientia Professor of Physics, UNSW

Michelle Simmons, 2018 Australian of the Year

What makes a world-class academic choose UNSW Sydney? For 2018 Australian of the Year, Laureate Fellow and UNSW Scientia Professor of Physics, Michelle Simmons, a number of factors influenced her move to Australia. Lifestyle, culture and Australia’s give-it-a-go spirit were all important, but one thing in particular convinced Professor Simmons to pack her bags.

“I was really looking for an ambitious university,” Professor Simmons said recently.

She found what she was looking for in UNSW. Since her arrival in 1999, Professor Simmons has been given the support required to conduct game-changing research. She was a founding member of the Centre of Excellence for Quantum Computer Technology and has been instrumental in transforming the quantum physics department into a world leader. In 2012, Professor Simmons’ team created the world’s smallest transistor from a single atom.

In 2016, Professor Simmons established Australia’s first quantum computing company, an $83 million cross-disciplinary consortium tasked with commercialising her research. Today, Professor Simmons and her team of 200 researchers are working on something even bigger: Building the world’s first quantum computer in silicon. Recently, her team produced the narrowest conducting wires ever made in silicon.

Hear from Professor Simmons

Join an interactive session with 2018 Australian of the Year, Professor Michelle Simmons

Register your interest in joining an interactive session featuring UNSW Sydney’s pioneering Quantum Physicist as she discusses her ground-breaking work and the world of quantum computing. As soon as the session is confirmed, we’ll email you the details.

Research at UNSW Sydney by the numbers

100

UNSW Higher Degree Research Candidates come from over 100 different countries

 

 

750

UNSW graduated approximately 750 Higher Degree Research Candidates in 2016

 

 

2957

Academics are currently supervising Higher Degree Research Candidates as of this term

 

 

3880

Higher Degree Research Candidates enrolled in 2017

 

 

Quantum Potential #1
Machine Learning

Machine learning

Quantum computing’s enormous potential for pattern recognition will lead to powerful forms of Artificial Intelligence.

Quantum Potential #2
Medicine

Medicine

Quantum computer simulations will allow researchers to test and develop cures to diseases that are incurable today.

Quantum Potential #3
Sustainable Energy

Sustainable energy

Through the in-depth study of the world’s natural processes, scientists will be able to develop sustainable energy sources.

Quantum Potential #4
Finance

Finance

Quantum computing will allow more thorough interrogation of financial data, and the isolation risk factors, leading to better investment advice.

UNSW Sydney mixing it with quantum computing giants

Quantum computing is an incredibly complex field, led by a handful of leading physicists, engineers and mathematicians across the globe, and UNSW Sydney is leading the quantum computing race in good company:

 

UNSW

 

In 2012, UNSW Sydney researchers, led by Professor Michelle Simmons, created the world’s smallest transistor from a single atom. Professor Simmons’ team is currently leading the global race to build the world’s first quantum computer in silicon.


 

 

IBM

 

IBM Q is a global initiative to develop commercially viable quantum computers. Currently, members of the IBM Q project across the globe can access a 20 quibit system, and the company recently prototyped a 50 quibit system.


 

 

Google

Google has been working with NASA on a combined quantum computing effort that has resulted in, first, the operation of a DWave 2 and, now, a DWave 2X processor at the NASA Ames Research Center in Mountain View, California.


 

 

Intel

In January 2018, Intel unveiled Tangle Lake, a superconducting test chip featuring 49 quibits. Quantum experts consider 50 quibits to represent the moment at which ‘quantum supremacy’—quantum computing’s ability to outperform classical computers—could be realised.


 

Research
Research Resources

Where big thinking happens

With access to unparalleled research support, world-class infrastructure, industry-leading mentors and an academic environment that has produced numerous world firsts, it is easy to see why leading researchers choose UNSW Sydney. Find out more about what sets UNSW apart.

RESEARCH IMPACT

RESEARCH INFRASTRUCTURE

SUPPORT SERVICES FOR RESEARCHERS

PARTNER WITH US

Researcher
CQC2T

Excellence in quantum computing research

Professor Michelle Simmons is the Director of The Centre of Excellence for Quantum Computation and Communication Technology. Headquartered at UNSW Sydney, the Australian Research Council funded centre is home to 200 leading researchers from eight universities who are currently developing a range of quantum computing technologies.

QUANTUM COMMUNICATION

OPTICAL QUANTUM COMPUTATION

SILICON QUANTUM COMPUTATION

QUANTUM RESOURCES AND COMPUTATION