Themis is a Professor of Nanotechnology and Head of the Electronic Materials and Devices Research Group in the Zepler Institute, University of Southampton. He is recognised as a pioneer of metal-oxide Resistive Random-Access Memory technologies and is leading an interdisciplinary team comprising 20 researchers with expertise ranging from materials process development to electron devices and circuits and systems for embedded applications.
He holds a Royal Society Industry Fellowship and is a Visiting Professor at the Department of Microelectronics and Nanoelectronics at Tsinghua University, Adjunct Professor at UTS and Honorary Fellow at Imperial College London. He previously held a Corrigan Fellowship in Nanoscale Technology and Science, funded by the Corrigan Foundation and LSI Inc., within the Imperial College and a Lindemann Trust Visiting Fellowship in EECS UC Berkley.
His background is in Electron Devices and nanofabrication techniques, with his research being focused on bio-inspired devices for advanced computing architectures and biomedical applications.
Themis is Professor of Nanotechnology and leads the Electronic Materials & Devices Research Group of the Zepler Institute for Photonics and Nanoelectronics at the University of Southampton. He is leading an interdisciplinary team comprising 20 researchers with expertise ranging from materials/ process development and characterisation to electron devices and circuits and systems for embedded applications. He contributes ~10 invited talks per year and has organised and chaired the inaugural conferences in the field of memristors: IEEE CAS-FEST 2014, MEMRISYS 2017. He is member of 4 international committees, the IEEE Nanotechnology Council and contributes in shaping the International Technology Roadmap for Semiconductors (ITRS) as member of the SRC emerging research devices working group. He has contributed over 150 papers, 10 patents and has started up ArC Instruments Ltd, which has succeeded in being profitable (with no upfront investment) by selling memory characterisation tools to global businesses, standards organisations and leading research groups. He is also the Director of the Lloyds Register Foundation International Consortium for Nanotechnology (ICoN: www.lrf-icon.com), a £3M global initiative that brings together >50 doctoral students across geographical and discipline boundaries for building a safer world with nanotechnologies. He also serves as an 100A1 ambassador for the Lloyds Register Foundation. He has experience with managing large research programmes with his overall portfolio valued ~£10M. In 2017, he received a Royal Society Industry Fellowship for translating his latest scientific findings commercially with GSK.
Alexander Serb has graduated from Imperial college in 2009 as a biomedical engineer and later obtained his PhD from Imperial college in 2013 in electronics engineering. Since then he has been a research fellow in prof. Prodromakis' group, working on memristors technology characterisation and application development. His research interests include circuit design, computational neuroscience and biology-machine interfaces.
One of the greatest challenges of current research is how to embody the level of intelligence found in the brain into a physical computer that operates with the energy efficiency of the brain. To that end, algorithmics, computer architecture design, nanotechnology and ultimately also bio-interfacing must work together, as no isolated approach can deliver this vision. Throughout project FORTE this researcher will be involved in: 1) developing new applications enabled by enmeshing memristors into existing electronics technologies and 2) understanding how the availability of memristive technologies can unlock new capabilities in artificial intelligence systems.The applications developed in this programme will span from simple, modular micro-circuits employing several memristors to larger scale systems utilising thousands of devices. Examples of the former would include reconfigurable logic (digital) and filter (analogue) blocks that can be aggregated into much larger computational systems much like Lego pieces can be used to construct complicated superstructures. Examples of the latter would include functional blocks that can carry out probabilistic inference, biosignal processing or neutral network-type inference.The algorithmics part of the research is oriented towards the 'problem of multiplication': multiplication is expensive to perform accurately in hardware. Memristive technologies, however, offer an opportunity to implement not only multiplication, but other basic mathematical operations such as scalar matching in hardware at very low energy. Furthermore, reducing energy budgets for such operations opens the way towards more powerful, more intelligent AI.
Ioulia Tzouvadaki received her B.Sc. degree in Physics, from National and Kapodistrian University of Athens (U.O.A) and the M.Sc. degree in Microsystems and Nanodevices from National Technical University of Athens (N.T.U.A). Her M.Sc. thesis concerned the computational study and simulation of polymer nanocomposite materials, within the Computational Materials Science and Engineering (CoMSE) research group, of the School of Chemical Engineering at the NTUA. She received her PhD in Microsystems and Microelectronics at École Polytechnique Fédérale de Lausanne (EPFL). In her PhD research at the Integrated System Laboratory (LSI) she focused on the fabrication and characterization of nanostructures and their implementation as ultrasensitive nano-bio-sensors in both diagnostics and therapeutics. She joined Stanford University as a postdoctoral fellow working on the design of an electronic platform for integration with wearable sweat biomarker sensors for multi-panel, continuous monitoring to enhance human health and performance. Currently she is a Marie Curie Research Fellow in the Electronic Materials and Devices group.
Inflammatory markers consist a pivotal tool in clinical practice since they allow detection of acute inflammation that might be an indicator of specific diseases, or to enable signalizing the response of a patient to a specific medical treatment. However, the detection of an inflammation is still performed only in vitro, while the overall testing procedure requires a long waiting time for the clinical results that can be crucial for instance in a case of serious injuries in a contaminated environment or after a rejection of an organ transplant. Moreover, the status quo of the clinical practice does not take into consideration the aspect of continuous monitoring of the inflammatory markers.
My research interests include the development of disposable, implantable sensing devices that give the possibility to perform reliable and robust continuous, in-blood, sensing of critical inflammatory markers directly from the patient’s body. I target to develop a flexible, low-cost, miniaturized sensing platform implementing memristive nanoscale devices as intelligent minimally invasive bio-interfaces, allowing reliable, continuous and real-time monitoring of inflammatory markers.
Spyros obtained his Applied Physics diploma in 2009 and his MSc in Microelectronics and Nanotechnology in 2011, both from the National Technical University of Athens (NTUA). In 2015 he received his PhD from the Department of Physics, NTUA for his work on the effects of infrared laser annealing in the electrical characteristics of silicon and germanium. He joined the University of Southampton, UK in 2016.
Spyros is currently working on the fabrication, characterisation and application of metal oxide memristive devices.
Shraddha is a Research Fellow within the Electronic Materials and Devices research group in the Zepler Institute at the University of Southampton. She received her Ph.D. degree in electrical engineering from IIT Bombay, Mumbai, India, in 2018. She also holds master’s degree in VLSI design from the National Institute of Technology, Nagpur, India and Bachelor of Engineering (Electronics Engineering) from Nagpur University, India.
Her research interests are semiconductor device physics, nanofabrication, characterization, and device modelling. In past she had worked on performance enhancement of Ge CMOS transistors. And currently she is developing the technology for CMOS compatible resistive switching.
Kate is a Prince2 qualified Project Manager, who has worked at the University for over four years.