Electronics and Electrical Engineering

Dr Julianna Panidi is a Chancellor’s Fellow/Lecturer in n Climate and Environmental Sustainability at the Institute for Integrated Micro and Nano Systems at the School of Engineering. Before she was an EPSRC David Clarke Fellow in the Department of Chemistry at Imperial College London. She is a Fellow of the 2024 European Talent Academy and a Fellow of the Higher Education Academy, and she has been a Mental Health First Aider for over 9 years.

Julianna obtained her PhD in 2020 from Imperial College London, Department of Physics, part of the Plastic Electronics CDT. Additionally, she holds an MRes in Physics and Nanomaterials (2015) from the University of Pierre and Marie Currie in Paris, France. In 2014, she completed her BSc in Materials Science at the University of Patras in Greece.

Accepting PhD applications.

• Chancellor's Fellow, 2024, University of Edinburgh

   

• Fellow of the 2024 European Talent Academy, Imperial 

   

• Postdoctoral EPSRC Fellowship, 2022

   

• David Clarke EPSRC Fellow, 2022

   

• co-Chair of the People & Culture Committee at the School of Engineering, UoE, since 2025
• Member of the Athena Swan SAT, UoE, since 2025
• Fellow of the Higher Education Academy, 2023
• Member of the Royal Society of Chemistry, 2022

• Professional Issues 4
• Cohort Lead Year 5

Her research focuses on developing high-performing and eco-friendly solution-processed electronics, such as thin film transistors, sensors, and solar cells. She has studied methods to enhance the optoelectronic properties of the materials and the devices. During her DCF fellowship, she was focusing on sustainable solution-processed solar cells, primarily focusing on materials, methods, and solvents used during manufacturing. 

Dr Julianna Panidi is a Chancellor’s Fellow/Lecturer in n Climate and Environmental Sustainability at the Institute for Integrated Micro and Nano Systems at the School of Engineering. Before she was an EPSRC David Clarke Fellow in the Department of Chemistry at Imperial College London. She is a Fellow of the 2024 European Talent Academy and a Fellow of the Higher Education Academy, and she has been a Mental Health First Aider for over 9 years.

Julianna obtained her PhD in 2020 from Imperial College London, Department of Physics, part of the Plastic Electronics CDT. Additionally, she holds an MRes in Physics and Nanomaterials (2015) from the University of Pierre and Marie Currie in Paris, France. In 2014, she completed her BSc in Materials Science at the University of Patras in Greece.

Accepting PhD applications.

• Chancellor's Fellow, 2024, University of Edinburgh

   

• Fellow of the 2024 European Talent Academy, Imperial 

   

• Postdoctoral EPSRC Fellowship, 2022

   

• David Clarke EPSRC Fellow, 2022

   

• co-Chair of the People & Culture Committee at the School of Engineering, UoE, since 2025
• Member of the Athena Swan SAT, UoE, since 2025
• Fellow of the Higher Education Academy, 2023
• Member of the Royal Society of Chemistry, 2022

• Professional Issues 4
• Cohort Lead Year 5

Her research focuses on developing high-performing and eco-friendly solution-processed electronics, such as thin film transistors, sensors, and solar cells. She has studied methods to enhance the optoelectronic properties of the materials and the devices. During her DCF fellowship, she was focusing on sustainable solution-processed solar cells, primarily focusing on materials, methods, and solvents used during manufacturing. 

https://elliotjcrowley.com

Soft Systems Group website

• BEng(hons), MRes, PhD

• Member of the Royal Society of Edinburgh Young Academy of Scotland (MYAS)

• Programme Director: MSc Electronics

Srinjoy Mitra received his B.S. degree in physics and electronics from Calcutta, India and his M.Tech. degree from the Indian Institute of Technology, Bombay, India. After spending a short time in the electronics industry (in India and Japan), he received his Ph.D. from the Institute of Neuroinformatics, ETH Zurich in 2004. Between 2008 and 2010 he worked as a post-doctoral researcher at Johns Hopkins University, Baltimore, USA.

He then joined the medical electronics team at IMEC, Belgium and worked there as a senior scientist until early 2016. At IMEC he had taken up leadership roles in various industrial and public-funded projects primarily related to bio-potential recording. Electro-encephalography (EEG) measurement ICs developed by him have been successfully validated in a clinical environment and is now commercialized. Dr. Mitra also led multiple projects on neural implants for central and peripheral nervous systems. This resulted in the development of generations of CMOS neural recording probes with the highest electrode density. Prof Mitra returned to academia as a Lecturer in the Biomedical Engineering Division at the University of Glasgow. In 2017 he moved to the Integrated Micro and Nano Systems, University of Edinburgh.

Prof Mitra has two parallel research tracks.

His technological research interests are in low-power sensor interfaces, medical/neural electronics, neuromorphic systems and in engineering education. Dr Mitra is the Program Director for the MSc in Sensors and Imaging System. He is also a founding member of Edinburgh Neuroprosthetics Lab.

He is also deeply interested in technological innovation, its global implications, and its pedagogy. This includes a critical analysis of relentless growth in digital technologies and its impact on the planet and people, both historical and in future. He is the convenor of the Decolonisation Working Group in the College of Science and Engineering. Read recent paper here [1],[2],[3].

Post-Docs

• Bartas Abaravicus
• Ahmet Erdogan
• Fan Yang
• Ildar Rakhmatulin
• Ju Wei

Present PhD students

• Rigi Amin
• Amlan Nag
• Pablo Ledsema Lopez
• David Vaca-Benavides
• Nur Sakinah Asaad (Nina)
• Xin Sun (Susie)

Past team members (PhD and Post-Doc)

• Andrew Mugisha
• Bogdan Raducanu (IMEC, Belgium)
• Zie Zhang (MIT, USA)
• Claudio Accarino (Leonardo, Edinburgh, UK)
• Priya Gupta (UCL, UK)
• Jamie Marland (University of Edinburgh, UK)
• Chandrasekaran Gunasekaran (Renesas Electronics, UK)
• José Cortés Guzmán (academic, Mexico)
• Sadeque Reza Khan (Hariot-Watt University, UK)
• Adarsh Nigam
• Anil Kumar
• Shouyu Xie
• Mike Huang
• Urwah Arif

Ongoing Projects

• AUTOCAPSULE
• Advanced Care Research Center (ACRC)
• SPADs in Neuroscience
• Sonobeamer
• Hoovertron, a FND diagnostic device
• Smart Socks for incontinence management

Past Projects

• IMPACT Implantable Microsystems for Personalised Anti-Cancer Therapy
• SONOPILL Ultrasonic capsule endoscopy
• Multicorder Point of Care devise for multimodal analysis
• Smart Stent
• AQUASENSE

Public Outreach (Podcasts)

• Decolonising Engineering curriculum and decentering scientific knowledge from Eurocentric perspectives
• Ultra-high density silicon probes for neural recording

• PhD (Institute of Neuroinformatics, ETH, Zurich)
• MTech (Indian Institute of Technology, Mumbai)

• Analogue VLSI Project (4) / Analogue VLSI Lab
• Analog Electronics (Circuits) 4 / Analog Circuit Design
• Applications of Sensor and Imaging Systems
• ACRC Grand Challenge

• Analog circuit design
• Technosocial aspects of Engineering
• Decolonisation in Engineering

Google Scholar

Hongye ZHANG (FHEA, MIEEE, MIET) received his BSc and MSc in Electrical Engineering from Xi’an Jiaotong University, Xi’an, China, in 2015 and 2018, respectively, a Diplôme d’ingénieur from École Centrale de Lyon, Lyon, France, in 2018, and his PhD degree in Applied Superconductivity from The University of Edinburgh, UK, in 2021.

In 2021, he was awarded one of the six IEEE Council on Superconductivity Graduate Study Fellowships. He has been working on the £54-million collaborative H2GEAR project as a Research Associate at The University of Manchester since May 2021.

He is currently a Lecturer (Assistant Professor) in Superconducting/Cryogenic Electric Machines at the University of Edinburgh and a Visiting Research Fellow at the University of Manchester.

His research encompasses Design & Analysis & Testing of Superconducting/Cryogenic Electric Machines, Numerical Modelling & Measurement of Superconductors, Hydrogen Energy, and Artificial Intelligence.

He is currently a Board Member of the European Society for Applied Superconductivity (ESAS), a Board Member of the HTS Modelling Workgroup, and an Early Career Editorial Board member & Associate Editor for the Elsevier journal Superconductivity, etc.

He is the Chairman of the international workshop HTS 2026.

• BSc (2015) and MSc (2018) in Electrical Engineering, Xi’an Jiaotong University, China
• Diplôme d’ingénieur (MEng, 2018) in General Engineering, École Centrale de Lyon, France
• PhD (2021) in Applied Superconductivity, The University of Edinburgh, United Kingdom

• Board Member of The European Society for Applied Superconductivity (ESAS)
• Board Member of the HTS Modelling Workgroup
• Early Career Editorial Board Member & Associate Editor of Elsevier Superconductivity (Q1)
• Programme Committee Member of SMT 2023
• Technical Editor for IEEE Transactions on Applied Superconductivity, MT-28
• Guest Editor for a Special Issue of Crystals
• Winner of the 2021 IEEE Council on Superconductivity Graduate Study Fellowship in Applied Superconductivity
• Member, IET
• Member, IEEE

• BEng - Power Engineering 2
• MEng - Electrical Machines and Power Electronics (IDCORE)

Hongye ZHANG’s interdisciplinary research combines Electric Machines & Drives, Clean Energy Conversion, Superconductor Technology, Cryogenic Techniques, Hydrogen Energy, and Artificial Intelligence to contribute to low/zero emission technology.

His interests centre on Net Zero Transport and Hydrogen Energy with a focus on power-dense and highly efficient next-generation propulsion electric machines. His current research focuses on the design, analysis, build, and testing of cryogenic/superconducting motors for sub-regional electric aircraft exploiting hydrogen propulsion.

His long-term vision is to build a world-leading research group at the interface of academia and industry that will further advance the decarbonisation of future transport.

• Numerical modelling of high temperature superconductors
• Design and analysis of electric machines 
• High-speed propulsion machines for electric aircraft 
• Hydrogen energy application 
• Engineering AI