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Battery Research Scholarship at UTS: Developing Next-Gen High-Performance Batteries

University of Technology Sydney Centre for Clean Energy Technology, School of Mathematical and Physical Sciences
✓ Fully Funded ⏰ Closing Soon clean energy renewable energy electrochemistry energy storage materials science battery technology energy conversion energy harvesting

Develop pioneering battery technologies to enhance renewable energy storage and security. Join UTS in creating safer, longer-lasting, ultrahigh performance batteries:

AI-generated overview

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Why This Research Matters

This research is critical for integrating renewable energy into stable power grids and achieving Australia’s clean energy goals. Advancements in battery safety and lifespan empower energy independence and accelerate global transitions to zero-emission energy solutions.

Battery Technology Energy Storage Electrochemistry Materials Science Renewable Energy Clean Energy

Project Description

Supervised by Prof. Guoxiu Wang, this project at UTS’s Centre for Clean Energy Technology (CCET) aims to innovate battery technologies for energy storage, harvesting, and conversion. Focused on zero-emission energy breakthroughs, the research adapts to global low-carbon energy needs, targeting ultrahigh performance batteries for domestic and grid-scale applications. You will collaborate with industry to develop new high-capacity battery materials, non-flammable electrolytes, and high-energy batteries with exceptional operational safety and lifespan. You will engage in energy material synthesis, characterization, and electrochemical measurement, contributing to cutting-edge device design and manufacturing. The project aims to deliver advanced battery technologies that enable stable electricity networks, integrate intermittent renewable sources, and boost energy independence. The outcomes will position Australia as a leader in secure clean energy supply and support the clean energy transition. This research addresses critical challenges in energy storage required for the adoption of renewable energy. By improving safety, capacity, and lifetime of batteries, this work supports national and global efforts toward zero emissions and sustainable energy infrastructure.

Entry Requirements

Applicants must have a relevant UTS-recognized degree in Chemistry, Chemical Engineering, Materials Science and Engineering, or Physics with honors (First Class or Second Class Division 1), or MSc research/coursework with thesis. Candidates must have research experience in electrochemistry, batteries, and materials science, including energy material synthesis and characterization. International applicants must meet Australian student visa and enrollment requirements.

How to Apply

Submit your expression of interest by sending your CV and list of publications to Prof. Guoxiu Wang at ccet@uts.edu.au. Applications are accepted continuously until positions are filled. Check UTS Graduate Research applications for further details.

Eligibility

UK/Home
EU
International

Supervisor Profile

PG
Prof. Guoxiu Wang
University of Technology Sydney, Centre for Clean Energy Technology, School of Mathematical and Physical Sciences
15000 Citations
60 h-index
Staff Page

Prof. Guoxiu Wang is a leading researcher in battery technology and clean energy systems at University of Technology Sydney. His work focuses on developing innovative battery materials and safe, high-performance energy storage devices. He collaborates extensively with industry to translate research breakthroughs into practical renewable energy solutions. His achievements include pioneering ultrahigh capacity battery designs and advancing zero-emission energy technologies.

Key Publications

2017
Graphene-Based Materials for High-Performance Energy Storage Applications
This paper reviewed the potential of graphene materials in energy storage, highlighting key factors that influence battery and supercapacitor performance.
2018
Advanced Electrocatalysts for Oxygen Reduction Reaction in Fuel Cells
It presented novel nanostructured catalysts with improved efficiency and durability, accelerating fuel cell technology development.
2019
Synthesis and Electrochemical Application of 2D Transition Metal Dichalcogenides
The study demonstrated promising energy storage and catalytic properties of 2D materials, expanding potential applications in batteries.