Professor Baohua Jia
- Faculty of Science, Engineering & Technology
- School of Science
- Centre for Micro-Photonics
- AMDC813c Hawthorn campus
Professor Baohua Jia is a research leader at Swinburne’s Centre for Micro-Photonics and Program Leader for Swinburne’s Manufacturing Futures Research Institute.
Her research is focused on a range of areas includes laser nanofabrication of novel photonic nanostructures, investigation of functionality and nonlinear effects inside 3D photonic nanostructures, development of active photonic devices facilitated with nanoemitters and development of novel nanoplasmonic devices with laser nanofabrication. She also examines the employment of nanostructures and nanomaterials for solar energy harvesting and storage research, and has recently focused her research on laser interaction with two-dimensional materials and functional devices.
Professor Jia’s research findings on cutting-edge nanophotonics solar cells has been highlighted in the MIT Technology Review with more than 150 media reports worldwide. From 2006-2012, Professor Jia served as a Project Manager/Project Leader for the Centre for Ultrahigh-bandwidth Devices for Optical Systems (CUDOS, an Australian Research Council Centre of Excellence) managing the key flagship projects ‘3D bandgap confinement' and 'Nanoplasmonic’. Alongside her research and academic work, she is also the honorary treasurer of Australian Optical Society.
Photonics; Solar energy harvesting; Nanomterials and nanostructures; Optical communication devices; Nonlinear optics; Graphene
PhD candidate and honours supervision
Higher degrees by research
Accredited to supervise Masters & Doctoral students as Principal Supervisor.
PhD topics and outlines
Design and applications of a novel supercapacitor energy storage system : Currently, the dominated energy storage device remains the battery, which charges and discharges extremely slow, have limited lifetime and are harmful to environment. This project will focus on the design and fabrication of novel energy storage system based on the graphene oxide supercapacitors for target applications.
Design and fabrication of 3D graphene network for biological applications : The project will focus on the development of techniques to 3D printing complex networks made of graphene materials by using focused laser beam and find the application in biology especially the use as the backbones to guide the cell growth.
Design and fabrication of graphene metamaterial based on photo-reduction of graphene oxide : The project will focus on the development of novel metameterials made of graphene based on its unique properties. Further, the designed structures will be fabricated by the fast and low cost laser nanofabrication techniques rather than the high cost semiconductor fabrication method, which will find broad applications.
Large scale fabrication of 2D material heterostructures based on low-cost film synthesis techniques and laser nanofabrication: This project aims to develop a new fabrication method based on the inexpensive chemical synthesis techniques and laser nanofabrication method to large scale produce 2D heterostructures with outstanding properties for different applications.
Available to supervise honours students.
Honours topics and outlines
Artificial smart micro/nanostructure design and fabrication: This project will focus on using optimization program to design micro/nanostructures which show outstanding optical, electrical or mechanical properties that can be controlled by the environment such as light illumination, sound wave or thermal process. The design structures will be fabricated by using the 3D laser printing system.
Design and study on fully automated three-dimensional micro/nanofabrication platform : This project will focus on the development of 3D micro/nanofabrication platform based on the laser writing technique. It is aimed to develop a fully automatic platform with the capability of sample preparation and fast fabrication by implementing the dynamic laser printing technique.
High performance integrated circuitry design on a graphene film: The project will focus on the fabrication of high performance functional circuits, such as Radio-frequency identification (RFID) chips, on thin film graphene oxide material using laser photo-reduction of graphene oxide technique. The project will include both the design and the fabrication of the circuit.
Fields of Research
- Photonics, Optoelectronics And Optical Communications - 020504
- Nonlinear Optics And Spectroscopy - 020503
- 2017, Swinburne, Inaugural Research Impact Awards, Swinburne University of Technology
- 2016, Swinburne, Vice Chancellor's Industrial Engagement Award, Swinburne University of Technology
- 2015, National, The League of Remarkable Women in Australian Science, Exhibition for the National Science Week
- 2015, Swinburne, Swinburne Significant Women Award, Swinburne University of Technology
- 2013, National, Young Tall Poppy Science Award , Australian Institute of Policy
- 2012, International, L’Oréal Australia and New Zealand For Women in Science Fellowship, L’Oréal Fundation
- 2012, National, Discovery Early Career Researcher Award , Australian Research Council
- 2011, Swinburne, Vice-Chancellor's Industry Engagement Award, Swinburne
- 2010, National, Vicotria Fellow, Victoria Government
- 2010, National, French Fellowship , Australian French Association for Science and Technology
- 2009, Swinburne, Vice-Chancellor's Research Award (Early Career), Swinburne University of Technology
- 2009, National, Australian Research Council Postoral Fellow (APD), Australian Research Council
- 2005, Other, Biotechnology Entrepreneur Young Achievement Australia Award , Young Achievement Australia
Also published as: Jia, Baohua; Jia, B.; Jia, Bao Hua; Jia, Bao-Hua
This publication listing is provided by Swinburne Research Bank. If you are the owner of this profile, you can update your publications using our online form.
Grant information is currently offline and as such is unable to be displayed here. A further update will be provided in mid-January 2019.
- 2016-08-25: Cool shades for hot plants - The Weekly Times
- 2016-08-18: Celebrating 10 years of L'Oreal-UNESCO For Women in Science in Australia - L'Oreal Fundation
- 2016-08-17: Our researchers are working with industry to develop an energysaving glass - SocialFeed.info
- 2016-08-17: Urban farming future’s so bright, our produce is wearing shades - schema-root.org
- 2016-08-16: Australian researchers developing energy saving dynamic glass - Hortidaily
- 2016-08-16: How an innovative glass could help grow farming - The Land
- 2016-08-16: Urban farming future’s so bright, our produce is wearing shades - Swinburne University of Technology
- 2016-02-06: Optical lens just a billionth of a meter thick can make lighter mobile phones and cameras - Next Big Future
- 2016-02-01: Graphene optical lens a billionth of a meter thick breaks the diffraction limit - Gizmag Emerging Technology Magazine
- 2015-10-23: Ultrathin Graphene Oxide Lens Developed - Asian Scientist Magazine
- 2015-09-23: Ultrathin Graphene Lens is a Breakthrough for Next-gen Devices - Controlled Environments
- 2015-09-23: Ultrathin Graphene Oxide Lens Developed - Asian Scientist Magazine
- 2015-09-23: Ultrathin lens could revolutionise next-gen devices - Physics.org
- 2015-09-22: Ultrathin lens could revolutionise next-gen devices - Swinburne University of Technology
- 2015-09-13: Super-thin graphene developed for next gen devices - Digital Journal
- 2014-09-24: Researchers Develop Ultrathin, Flat, Ultra-Lightweight Graphene Oxide Optical Lens - Azonano
- 2013-10-07: Swinburne University of Technology Associate Professor Baohua Jia has been awarded a Young Tall Poppy Science Award. - AZoNano
- 2012-12-01: Leading light - Swinburne University of Technology
- 2012-08-23: Science and human nature - The Australian
- 2012-08-21: Lâ€™OrÃ©al recognises three young scientists from Melbourne and Christchurch for their life-transforming work - Science in Public