Azra Sourjah

Dr. Azra Sourjah

Research Assistant

Details

About

Currently a Postdoctoral Research Fellow at RMIT University, contributing to the development of next-generation supercapacitor systems for dynamic wireless charging of electric heavy-duty vehicles. Working in close collaboration with industry partners, the role bridges academic research and commercial impact — with a focus on electrochemical analysis, materials optimization, and energy storage innovation. With a strong foundation in materials chemistry and over three years of experience across both academia and industry, my expertise spans electrolyte design, battery materials, and advanced analytical techniques. During my PhD at Deakin University (Institute for Frontier Materials), I developed novel ionic liquids and organic ionic plastic crystals for safer lithium-metal batteries. Prior to that, I worked as a Quality Assurance Analyst at GlaxoSmithKline Pharmaceuticals, and as an R&D trainee at the Industrial Technology Institute in Sri Lanka. Proud to be a woman in STEM, I’m passionate about science that creates real-world solutions. Always open to collaboration, mentoring, and meaningful conversations

Media

Research fields

  • 3405 Organic chemistry
  • 340604 Electrochemistry
  • 3401 Analytical chemistry
  • 4016 Materials engineering

Academic positions

  • Research Assistant
  • Royal Melbourne Institute of Technology
  • Civil and Infrastructure Engineering
  • Melbourne, Australia
  • 19 May 2025 – Present
  • Research Assistant
  • Deakin University
  • Institute for Frontier Materials
  • Burwood, Australia
  • 3 Jun 2024 – 2 Dec 2024

Degrees

  • Ph.D, Chemical Sciences
  • Deakin University
  • Australia
  • 2020 – Present

Research interests

  • Advanced electrolytes for energy storage (ionic liquids, organic ionic plastic crystals)
  • Supercapacitors and hybrid energy storage systems for transport applications
  • Electrochemical performance and degradation mechanisms in energy devices
  • Thermal stability, safety, and fire behaviour of battery and energy materials
  • Carbon-based and functional materials for electrochemical applications
  • Materials optimisation for scalable and industry-relevant energy technologies
  • Advanced characterisation techniques linked to performance and safety
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