QMUL Centre for Electronics News

Queen Mary Experts Chosen to Help Drive Forward UK Science Policy in Prestigious Government ...

Wed, 25 Feb 2026 00:00:00 +0100

Two senior academics from Queen Mary University of London — Professor Akram Alomainy from the School of Electronic Engineering and Computer Science (EECS) and Professor Jan Mol from the School of Physical and Chemical Sciences — have been selected as Fellows in the highly competitive Expert Exchange Programme led by the Department for Science Innovation and Technology DSIT. Professor Akram Alomainy and Professor Jan Mol were appointed following a rigorous national selection process, securing two of only 17 Fellowship places awarded across the UK. The Fellowships are part of His Majesty's Government's drive to embed leading expertise directly into policy making. Professor Alomainy will work with the Advanced Connectivity Technology team within Department for Science, Innovation and Technology, contributing his internationally recognised expertise in antennas, electromagnetics and wireless technologies to support future connectivity strategy. His work will focus on translating cutting edge research into practical policy insight for the UK's digital and communications ambitions in 6G and beyond building transformative landscape for next generation technologies. Professor Mol will join the Office for Quantum at DSIT, advising on policy related to quantum science and technology. Drawing on his extensive background in quantum materials and devices, his role will support the development of national capability in a field that is central to the UK's long term science and innovation strategy. Speaking about his appointment, Professor Alomainy said: "I am delighted and honoured to be selected for this Fellowship. Working closely with colleagues in DSIT on advanced connectivity is a unique opportunity to help shape national policy using evidence from frontier research. I see this as a vital bridge between academia and government, and I am excited to contribute to the UK's technology future." Professor Mol added: "It is a real privilege to be chosen as one of only 17 Fellows nationally. Quantum technologies are moving rapidly from the lab into real world applications, and I look forward to supporting the Office for Quantum in developing informed and effective policy that strengthens the UK's global position." The DSIT Fellowship places leading researchers into government for 12 months, enabling direct collaboration with civil servants while strengthening mutual understanding between academia and policy. The selection of Professors Alomainy and Mol highlights the strength of Queen Mary University of London's research and its growing role in informing national science and technology policy. Their appointments reinforce the importance of expert input into government decision making at a time when advanced connectivity and quantum technologies are critical to the UK's economic growth, security and global competitiveness.

The Surfaces That Will Rewrite Wireless Reality

Wed, 18 Feb 2026 00:00:00 +0100

A new UK led roadmap has set out an ambitious vision for how wireless technology could be transformed over the coming decade. The paper, The 2026 Roadmap on Wireless and Microwave Metasurfaces, led by Professor Akram Alomainy of Queen Mary University of London, brings together leading researchers from universities, industry and government to map how engineered surfaces could reshape communications, healthcare and defence. At the heart of the roadmap is a powerful shift in thinking. Rather than treating the wireless environment as unpredictable and passive, metasurfaces allow engineers to actively shape it. These ultra thin patterned surfaces can bend, focus and redirect radio waves in ways conventional materials cannot. The result is a future where walls, buildings and everyday infrastructure become active participants in wireless networks. Professor Alomainy said: "Wireless systems have always been designed to cope with the environment. What metasurfaces offer is the ability to design the environment itself. This roadmap shows how that change in mindset could unlock entirely new levels of performance, efficiency and societal impact." His leadership of the roadmap highlights the strength and global reach of research at Queen Mary University of London. The work reflects QMUL's long standing excellence in electromagnetics and wireless technologies, and its growing influence on international research agendas that bridge fundamental science, industry needs and public benefit. The roadmap shows how metasurfaces could play a central role in networks beyond 5G. Reconfigurable intelligent surfaces can steer signals around obstacles, improve coverage in dense urban areas and remote regions, and do so using very low power. Instead of relying solely on increasingly complex base stations, the physical environment itself becomes part of the network. The impact extends far beyond faster mobile connectivity. The paper outlines how metasurfaces could enable contact free healthcare monitoring, supporting the measurement of vital signs within homes and hospitals. In defence and security, they offer new ways to control radar signatures and enhance sensing. At higher frequencies linked to future 6G systems, metasurfaces could support ultra high data rates and advanced imaging and sensing capabilities. Importantly, the roadmap also confronts the challenges ahead. Issues such as large scale manufacturing, long term reliability, system integration and regulation are addressed head on. The authors emphasise that progress will depend on close collaboration across disciplines, from materials science and electronics to computer science, industry and policy. Artificial intelligence and machine learning emerge as key enablers, helping to design complex metasurfaces and control them in real time. The roadmap also points to new materials, including flexible and biocompatible options, alongside a strong focus on sustainability and responsible deployment. More than a review of the field, this roadmap is a call to action. It signals that metasurfaces are moving from laboratory concepts to technologies with real world impact. As Professor Alomainy noted, "The next generation of wireless systems will not just be smarter. They will be shaped by the very surfaces around us." Read the full paper here: https://iopscience.iop.org/article/10.1088/1361-6463/ae2b7c

QMUL Scientists Uncover Shape-Proof Pathway to Exotic Electrical Behaviour

Tue, 02 Dec 2025 00:00:00 +0100

Researchers at the Centre for Electronics at Queen Mary University of London have reported a fresh theoretical result that settles a long-standing question in materials physics. Their new study shows that a key set of calculations used to test whether a crystal could exhibit negative static electric susceptibility remains stable no matter what macroscopic shape the sample takes. Negative static susceptibility is an unusual and still largely theoretical property in which a material would respond to an applied electric field in the opposite direction to what is normally expected. It has been proposed as a route to future metamaterials and advanced electromagnetic devices, but testing its feasibility requires rigorous mathematical tools. Until now, many of these tools gave different answers depending on whether a crystal was imagined as a slab, a sphere or a needle. The QMUL team focused on what is known as the finite crystal method. They found that its bounds on susceptibility stay consistent even when tested across various crystal structures and a wide range of sample geometries. This contrasts with older approaches that shifted results dramatically when the sample shape changed. The work also highlights spheres and rhombohedra as especially reliable shapes for evaluating these bounds. Lead author Rahul Dutta said the findings offer clarity that has been missing from the field. "Researchers have been debating these shape-dependent effects for years. Our work shows that with the right method, the bounds are robust. This gives us a more dependable foundation for exploring unusual electrical responses in engineered materials," he said. The study strengthens QMUL's position in the fundamental science that underpins next-generation electromagnetics and provides a cleaner path forward for anyone investigating whether exotic material responses are theoretically achievable. Link to the publication: https://www.sciencedirect.com/science/article/pii/S0038109825004223

QMUL Researchers Win Top International Award for Breakthrough in Antenna Measurement Technology

Fri, 14 Nov 2025 00:00:00 +0100

We're proud to share that researchers from the Antenna and Electromagnetics Group at QMUL have received a major international honour. Dr. Rostyslav Dubrovka and Prof. Stuart Gregson, working with Dr.-Ing. Marc Dirix from RWTH Aachen University, earned first place in the 2025 Best Technical Paper competition at the 47th Annual Meeting and Symposium of the Antenna Measurement Techniques Association in Tucson, Arizona. Their paper introduces an innovative way to clean up unwanted reflections that often interfere with antenna measurements. Even the most advanced anechoic chambers can produce stray signals that affect accuracy. By applying the Generalised Vector Theorem for Spherical Waves, the team developed a method that filters out this interference with high precision, leading to clearer and more reliable test results. The study combines strong theoretical work with an extensive set of numerical experiments, where the entire measurement setup was simulated for each data point. This provides a compelling demonstration of the method's impact. This award further strengthens the international reputation of QMUL's Antenna and Electromagnetics Group, known for advancing both measurement science and fundamental research.

Jin Zhang Wins Rising Star in Research Award at Queen Mary EECS

Mon, 03 Nov 2025 00:00:00 +0100

The School of Electronic Engineering and Computer Science (EECS) at Queen Mary University of London has recognised Dr Jin Zhang from the Centre for Electronics with this year's Rising Star in Research award. The announcement was made during the School's annual away day at the Octagon, where staff achievements were celebrated across teaching, research and leadership. Dr Zhang's award highlights his growing impact in the field of electronics, reflecting both the quality and ambition of his research. The recognition places his among EECS's most promising early-career researchers contributing to the School's vibrant academic environment. Head of School Professor Steve Uhlig congratulated the winners, noting the breadth of excellence across EECS. Colleagues from the Centre for Electronics also shared their congratulations: "Many congratulations to all colleagues on their amazing work and achievements and only upwards and onwards from here, especially to our own Jin Zhang from the Centre for Electronics at Queen Mary EECS." The School's Rising Star awards recognise exceptional emerging talent and celebrate the continued success of Queen Mary's academic community.

Antennas & EM Research Group Alumnus Professor Qammer H. ...

Sat, 01 Nov 2025 00:00:00 +0100

The Queen Mary Doctoral College recently interviewed Professor Qammer H. Abbasi, alumnus of the Antennas and Electromagnetics Research Group, following his shortlisting for Times Higher Education's Outstanding Research Supervisor of the Year Award 2025. In the interview, Professor Abbasi reflected on his journey from completing a PhD at Queen Mary University of London to becoming Professor of Applied Electromagnetics and Sensing at the University of Glasgow. He credited his doctoral experience under the supervision of Professor Akram Alomainy and Professor Yang Hao for shaping his approach to research and mentorship. "The Antennas and Electromagnetics Group taught me that great research environments are built on belonging as much as brilliance," he said. Now leading Glasgow's Communication Sensing and Imaging Hub, Professor Abbasi's research spans 6G technologies, intelligent sensing, and AI-driven healthcare. He emphasised that effective supervision is grounded in trust, curiosity, and shared purpose; values he traces back to his time at Queen Mary. The nomination, he said, is as much recognition for his students' success as for his own. His advice to emerging researchers: "Be curious, collaborative, and authentic; don't just follow trends; create your own path." Read the full interview on the Queen Mary Doctoral College website: Professor Qammer H. Abbasi shares his journey from Queen Mary PhD to shortlisting for the Research Supervisor of the Year

Tiny structures, big impact: Queen Mary team develops new materials for faster, smarter ...

Sat, 01 Nov 2025 00:00:00 +0100

Researchers at Queen Mary University of London have discovered a new way to finely control how materials respond to electrical signals, paving the way for faster and more efficient wireless communication systems. The study, led by Professor Yang Hao from Queen Mary's Centre for Electronics, has been published in Nature Communications. It reveals how the team engineered microscopic structures—called polar nanoclusters—inside a special ceramic film to create materials that can "tune" their electrical behaviour at microwave frequencies used in devices such as 5G antennas, radar systems, and sensors. Modern communication and sensing technologies depend on materials that can adjust how they interact with signals; changing frequency, reducing interference, or improving sensitivity. Until now, creating materials that could do this effectively and efficiently has been a major challenge. The Queen Mary team overcame this by precisely controlling the internal structure of a thin ceramic layer. Their method lets the material change its electrical response using less power and with minimal signal loss—something that has long limited previous designs. "By engineering the material at the nanoscale, we can achieve strong and stable tunability without compromising performance," said Professor Hao. "This opens the door to a new generation of reconfigurable wireless and sensing devices that are faster, smaller and more energy-efficient." The breakthrough could have far-reaching impact across industries—from next-generation mobile networks and satellite communications to advanced medical imaging and autonomous systems. Devices that can automatically adapt to changing environments are central to the future of sustainable, intelligent electronics. Beyond practical applications, the findings also offer new scientific insight into how materials behave at the smallest scales, particularly in how tiny polar regions can boost performance at higher frequencies. The research team is now exploring how to integrate these tunable films into working components and scale up the manufacturing process for real-world use. Read more at: https://www.nature.com/articles/s41467-025-64642-1

Digital Twins Take Centre Stage: Inspiring Ideas and Collaboration at QMUL's IEEE Panel

Thu, 30 Oct 2025 00:00:00 +0100

The Old Library at Queen Mary University of London was alive with conversation and ideas as more than 60 researchers, professionals, and students gathered for the IEEE UK and Ireland Section panel, "Twinned Realities: Shaping Our World with Digital Models." on 30th October 2025! Led by Dr. Mona Jaber, Reader in Internet of Things at QMUL, the event brought together leading voices in digital innovation to explore how digital twin technologies are reshaping the way we model, manage, and understand complex systems. The panel featured Prof. Akram Alomainy, Paul M. Cunningham, Dr. Caroline Roney, Prof. Christopher Pain, Dr. Jason Shepherd, and Prof. Berk Canberk, who shared insights spanning medicine, infrastructure, AI, and systems engineering. Discussions covered everything from cardiac digital twins used in in-silico clinical trials to sustainable city modelling and intelligent service platforms that bridge the physical and digital worlds. Reflecting on the discussion, Prof. Akram Alomainy highlighted the transformative power of collaboration in this fast-moving field: "Digital twins sit at the intersection of science, engineering, and creativity. What makes them truly exciting is how they bring together expertise from so many disciplines to solve real-world problems in smarter, faster, and more human-centred ways." Dr. Jaber described the event as "a wonderful exchange of ideas that showcased the creativity and collaboration driving this field forward." With more than sixty participants engaging during the session and many staying afterward to continue conversations, the enthusiasm in the room reflected growing momentum behind digital twin research and its cross-sector potential. As one attendee put it, "Digital twins are no longer just simulations; they're becoming living digital entities. Their connection with Agentic AI could redefine how we build and interact with complex systems." The event closed with a strong sense of optimism and plans for future collaboration between academia and industry. Dr. Jaber thanked all speakers and attendees for making the panel a success: "The level of engagement and discussion was inspiring; I look forward to seeing how these conversations grow into new ideas and partnerships."

Queen Mary Researcher Co-Authors Breakthrough Study on Brainwave Biomarkers for Early Detection ...

Wed, 22 Oct 2025 23:00:00 +0100

A new international study co-authored by Professor Xiaodong Chen from the Centre for Electronics at Queen Mary University of London has demonstrated how brainwave analysis powered by artificial intelligence could transform the early diagnosis of cognitive disorders. The paper, published in Expert Systems with Applications (Elsevier, 2025), presents a pioneering EEG-based biomarker system that identifies subtle neural changes long before visible symptoms appear. Titled "Electroencephalographic Biomarker-Guided Early Detection Using Physics-Informed Neural Networks", the research combines neuroscience, data science, and advanced engineering to extract meaningful patterns from complex EEG signals. By applying a physics-informed neural network, the team achieved remarkable accuracy in detecting early signs of cognitive decline, potentially paving the way for earlier interventions and more effective treatment. Professor Xiaodong Chen played a central role in the study's engineering and signal-processing innovations. Drawing on his expertise in electromagnetics and bio-sensing technologies, he helped ensure the precision and reliability of EEG data acquisition and guided the development of robust signal models that could handle real-world noise and variability. His contributions bridge the gap between raw sensor data and actionable medical insights; a key step in translating laboratory findings into clinical practice. The study's approach could lead to low-cost, non-invasive screening tools for use in hospitals or even wearable health devices. This research highlights Queen Mary's growing impact in AI-driven healthcare innovation and demonstrates how interdisciplinary collaboration between engineers, clinicians, and data scientists can accelerate medical breakthroughs. Read the paper here: https://www.sciencedirect.com/science/article/abs/pii/S0957417425029689

Electrical and Electronic Engineering Teaching Team Wins QMUL Education Excellence Award 2025

Wed, 22 Oct 2025 23:00:00 +0100

On 23rd October, the Electrical and Electronic Engineering (EEE) teaching team at Queen Mary University of London has been named the winner of the 2025 Education Excellence Award, recognising their outstanding contribution to teaching and learning within the School of Electronic Engineering and Computer Science (EECS). Led by Dr Tijana Timotijevic, Dr Kamyar Mehran, Dr Shady Gadoue, Mr Kok Ho Huen and the EEE Education Delivery Group, the team has been praised for transforming the EEE degree programmes through innovative curriculum design, hands-on learning, and a strong focus on student experience. Their work has not only raised the profile and quality of Electrical and Electronic Engineering at Queen Mary but has also created a vibrant learning environment where students thrive academically and professionally. The award panel commended the EEE teaching delivery team; which includes academics, lab technicians, and professional services colleagues, for their commitment to high-quality, inclusive, and future-focused education. Their collaborative approach ensures that students gain the skills, confidence, and curiosity to tackle real-world engineering challenges. Dr Mehran said the recognition reflects "a shared commitment to teaching excellence and student success across the whole team," adding that "it's a privilege to work with colleagues who care deeply about delivering the best possible experience for our students." This award is a proud moment for EECS and a testament to the team's creativity, dedication, and lasting impact on engineering education at Queen Mary, the UK and globally!

Queen Mary Researchers Pioneer New Method for Stable Electrostatic Levitation Using Metasurfaces

Fri, 26 Sep 2025 23:00:00 +0100

A research team including Professor Yang Hao from the Centre for Electronics at Queen Mary University of London has developed a groundbreaking approach to stable electrostatic levitation; a long-standing challenge in physics and engineering. The study, published in Advanced Science: Smart Structures (Wiley, 2025), introduces a new class of conformal metasurfaces with negative polarizability that can levitate small objects using only static electric fields. The paper, titled "Stable Electrostatic Levitation Using Conformal Metasurfaces with Negative Polarizability," presents a theoretical framework for achieving levitation through specially designed metasurfaces—ultra-thin, engineered materials that control electric and magnetic fields at the nanoscale. By tailoring these metasurfaces to have a negative electrostatic response, the researchers demonstrate how an object can be stably suspended in mid-air without magnetic fields, acoustic waves, or mechanical support. This approach represents a new frontier in non-contact manipulation, offering the potential for cleaner, frictionless, and energy-efficient systems. Possible applications include precision manufacturing, micro-robotics, biomedical devices, and vibration-free environments for sensitive instruments. Professor Hao explained the significance of the work: "Stable levitation using electrostatics has been considered impossible for more than a century. Our study shows that by engineering materials at the microscopic level, we can overcome that limitation and open entirely new directions for smart surfaces and advanced device design." The research not only advances fundamental electromagnetic theory but also showcases the transformative potential of metasurface engineering; an area where Queen Mary continues to play a leading international role. Read the paper here: https://onlinelibrary.wiley.com/doi/10.1002/sstr.202500335

Breakthrough in Wireless Capsule Endoscopy: QMUL Team Develops Unique Dual-Camera MIMO Antenna ...

Sun, 31 Aug 2025 23:00:00 +0100

Researchers from Queen Mary University of London have achieved a major milestone in medical technology with the development of a novel dual-camera-integrated MIMO antenna system designed for high-data-rate wireless capsule endoscopy (WCE). The paper, published in the IEEE Journal of Electromagnetics, RF, and Microwaves in Medicine and Biology (September 2025), introduces an ultra-compact antenna array that enables capsule endoscopes to transmit high-quality video data from deep inside the human body with unprecedented reliability and speed. The interdisciplinary research team; Dr Muhammad Qamar, Dr Kamil Yavuz Kapusuz, Dr Lawrence Carslake, Dr Tian-Hong Loh, Dr Mohamed A. Thaha, and Professor Akram Alomainy, designed a two-port multiple-input multiple-output (MIMO) antenna that operates within the 401–406 MHz MedRadio band. The design integrates two cameras and achieves a data rate of 78 Mbps through 1.6 metres of biological tissue, maintaining excellent isolation and safety standards. Unlike traditional single-camera capsule endoscopes, this dual-camera design captures simultaneous front and rear views of the gastrointestinal tract, enhancing diagnostic accuracy and reducing the need for repeat procedures. The innovative antenna structure is built using standard multilayer PCB technology, making it small, manufacturable, and ready for real-world integration. Professor Akram Alomainy, co-author of the paper and project lead, said: "This work brings us closer to the next generation of intelligent, high-speed medical capsules that can provide doctors with clearer, more comprehensive views of the human body while improving patient comfort and safety." The research combines cutting-edge electromagnetics, biomedical engineering, and clinical collaboration, supported by the European Partnership on Metrology (21NRM03 MEWS Project) and Horizon Europe funding. This achievement places Queen Mary at the forefront of wireless biomedical innovation, paving the way for smarter, faster, and more reliable implantable medical devices. Full paper at https://ieeexplore.ieee.org/document/10777505

Centre for Electronics Team Advances Fall Prevention with Radar-Enabled Home Monitoring

Wed, 06 Aug 2025 23:00:00 +0100

A multidisciplinary team from Queen Mary University of London's Centre for Electronics has co-authored a groundbreaking study that could transform how we prevent falls among older adults. The paper, "Reimagining falls prevention with insights from systems mapping on the use of millimetre-wave radar for remote health monitoring," published in Scientific Reports (Nature, 2025), explores how smart radar sensors can move fall prevention from reactive care to proactive monitoring. Falls are one of the leading causes of injury and loss of independence in older adults worldwide. Current systems rely heavily on self-reporting, wearable devices, or emergency responses after a fall has already occurred. This new research takes a different approach; combining millimetre-wave radar sensing with systems mapping to identify where technology can make the greatest impact in reducing fall risks before they happen. The study brings together expertise from engineering, health sciences, and data modelling, with major contributions from Dr Elif Dogu, Professor Akram Alomainy, and Dr Khalid Z. Rajab of Queen Mary's Centre for Electronics. Dr Dogu led the development of the systems-mapping framework that reveals how health, environment, and mobility factors interact. Professor Alomainy and Dr Rajab contributed their world-leading expertise in millimetre-wave radar technology, demonstrating how unobtrusive, contact-free sensors could continuously monitor mobility and detect early signs of deterioration; all without requiring the person to wear a device or change their daily routine. This fusion of engineering innovation and health systems research marks a significant step toward smarter, more human-centred healthcare. Scientifically, it advances the use of radar for remote physiological monitoring, offering new insights into how we can track subtle changes in movement and behaviour. Societally, it opens the door to safer, more independent living for older adults and could help reduce the burden on healthcare systems worldwide. Professor Alomainy commented that the work "shows how cutting-edge wireless technologies can be designed around people, not just data; creating intelligent environments that support wellbeing and dignity as we age." This research embodies the spirit of interdisciplinary innovation that defines Queen Mary: engineering solutions built with empathy and designed to make a real difference in people's lives. Read the paper here: https://www.nature.com/articles/s41598-025-14416-y

Queen Mary Researcher Contributes to Breakthrough in Terahertz Wave Modulation

Sun, 03 Aug 2025 23:00:00 +0100

A new study published in Light: Science & Applications reports a major advance in terahertz (THz) technology, achieving for the first time 100% amplitude modulation depth using graphene-based tunable capacitance metamaterials. The research demonstrates a device capable of completely switching THz waves on and off, delivering over 45 dB modulation and reconfiguration speeds up to 30 MHz — performance unmatched by previous THz modulators. Dr Riccardo Degl'Innocenti, from the Centre for Electronics at Queen Mary University of London, contributed to the study through expert input on device design and manuscript development, helping align the work with real-world THz system applications. This breakthrough paves the way for ultra-fast wireless communication, adaptive imaging, and next-generation sensing technologies, strengthening Queen Mary's role in leading-edge metamaterials and graphene research. Read the paper: https://www.nature.com/articles/s41377-025-01945-4

Queen Mary pre-spinout CE-Track joins medtech venture builder cohort

Sun, 13 Jul 2025 23:00:00 +0100

Queen Mary University of London's CE-Track, a pre-spinout co-founded by Professor Akram Alomainy, Mohamed Adhnan Thaha, and Muhammad Qamar Satti, has been selected for the London Institute for Healthcare Engineering (LIHE) MedTech Venture Builder programme for 2025-2026. Queen Mary University of London is a key partner in this programme. The MedTech Venture Builder is a 12-month, two-stage programme designed to accelerate early-stage medical technologies into investment-ready healthcare ventures. It offers hands-on executive support for medical innovations and aims to give MedTech entrepreneurs the confidence to proceed at pace from bench to bedside to boardroom. The programme provides foundational training combined with tailored execution support, covering regulatory guidance, market validation, quality systems, and investor readiness. CE-Track is focused on advancing real-time tracking for capsule endoscopy, combined with wearable technology, to enable precise diagnosis of gastrointestinal pathologies. This innovative and multidisciplinary venture integrates advanced sensing technologies, machine learning, and clinical insight to develop intelligent solutions for real-time patient monitoring and decision support. Professor Akram Alomainy, Deputy Dean for PGR in the Faculty of Science and Engineering and Professor of Antennas and Applied Electromagnetics at Queen Mary University of London, expressed his excitement about this opportunity, highlighting its potential to accelerate their vision for smarter, connected healthcare technologies. He also acknowledged the continuous support from Queen Mary Innovation. The 2025-2026 cohort of the MedTech Venture Builder comprises 15 early-stage ventures spanning 12 innovation areas, including Imaging & AI, Dental care, Surgery, Mental Health & Neurotechnology, Gastrointestinal, Women's health, Cancer, Brain Computer Interfaces (BCI), Prosthetics, Physiotherapy rehabilitation, BioSensors, and Wound care. According to the programme's venture type breakdown, 60% are pre-spinout/spinout, and 40% are independent startups. In terms of device type, 66.7% involve hardware and software, 20% are hardware, and 13.3% are Software as a Medical Device (SaaMD). The programme commenced with a high-energy three-day bootcamp. Consortium Partners in the MVB include King's College London, Queen Mary University of London, City St George's, University of London, and Meridian Health Ventures.

Centre for Electronics Summer Social 2025: Celebrating Colleagues, Contributions, and Community

Tue, 01 Jul 2025 23:00:00 +0100

On a sun-drenched afternoon of 2nd July 2025, members of the Centre for Electronics at the School of Electronic Engineering and Computer Science (EECS), Queen Mary University of London, gathered for a vibrant Summer Social in the Graduate Centre Common Room (7th Floor). With sweeping panoramic views of London as the backdrop, the event brought together students, staff, and friends to celebrate community, achievements, and transitions. A Fond Farewell to Dr Henry Giddens A highlight of the gathering was a heartfelt farewell to Dr Henry Giddens, a valued colleague and friend whose work has left a lasting imprint not only within the Centre and School but across the University and beyond. Over the years, Henry has made significant contributions to academic research, teaching, innovation, and engagement with external partners, ranging from academia and industry to the wider technology and policy ecosystem. Henry's work exemplifies the spirit of cross-sector collaboration and deep technical insight into high frequency electronics, additive manufacturing, antenna engineering and radio channel modelling and characterisation. He is widely recognised as an innovative scientist, a strategic thinker, and a true citizen of the University. As he embarks on the next chapter of his career in the UK Government, we are confident that his expertise and values will continue to shape national strategies in science and technology. Honouring 25 Years of Excellence: Professor Yang Hao The event was also a special occasion to celebrate Professor Yang Hao's 25 years of service at Queen Mary. As a globally renowned leader in electromagnetics and antennas, Yang has spearheaded research excellence and pioneered educational innovation that have transformed the Centre, the School, and indeed the field itself. Over the past quarter-century, Professor Hao has not only conducted internationally leading research and secured impactful collaborations, but has also trained and mentored generations of scientists and engineers. Many of his alumni now hold prestigious positions across the world, leading their own research groups, shaping policy, and driving innovation in industry and academia alike. To mark the occasion, a tribute video was shared, featuring messages from former PhD students and PDRAs from across the globe. Their words of appreciation and gratitude reflected Yang's unique role in shaping lives and careers with academic rigour, vision, and generosity. A Moment of Community and Sunshine The Summer Social was not only a time for farewells and recognition but also for reconnecting, relaxing, and enjoying each other's company. Guests enjoyed delicious food and drinks, surrounded by warm sunshine and panoramic views that lit up the city and spirits alike. It was a beautiful reminder of the Centre's vibrant community and its shared mission to advance knowledge, technology, and societal impact. As we look ahead to the future, we do so with pride in the people who make our community so special. We thank Henry and Yang for their inspiration and leadership, and we look forward to building on their legacies as we continue to grow, collaborate, and innovate.

QMUL's Centre for Electronics Hosts IEEE DySPAN Conference 2025 Gala Dinner

Tue, 13 May 2025 23:00:00 +0100

QMUL's Centre for Electornics was pleased to welcome attendees of the IEEE DySPAN 2025 Conference to Queen Mary University of London for the dinner banquet at the beautifully restored Old Library. The historic setting, lively discussions, and shared vision for the future of dynamic spectrum access made for a truly memorable evening. Thank you to all who joined us, and to everyone helping drive innovation at the intersection of wireless systems, policy, and technology. The Centre's work on next generation spectrum approaches and sharing is further higlighted by the innovative DSIT-funded Spectrum Sharing Sandbox Project (£1.4m) led by Prof Yang Hao.

QMUL's Centre for Electronics to play key role in new UK Multidisciplinary Centre for ...

Wed, 07 May 2025 23:00:00 +0100

The UK Multidisciplinary Centre for Neuromorphic Computing will receive £5.6 million over four years from UK Research and Innovation (UKRI), aiming to establish itself as an international hub for collaboration and fundamental research in this groundbreaking field. With Aston University leading the Centre, the involvement of world-leading researchers from Queen Mary University of London (led by Prof Yang Hao from the Centre for Electronics), Universities of Oxford, Cambridge, Southampton, Loughborough, and Strathclyde, demonstrates the breadth of expertise being brought to this ambitious project. The Centre's objective is to tackle the sustainability challenges facing today's digital infrastructure and artificial intelligence systems by replicating the brain's structural and functional principles in novel computing technologies. A key aspect of the Centre's interdisciplinary approach will be to blend insights from experiments using stem-cell-derived human neurons with advanced computational models, low-power algorithms, and innovative photonic hardware. Researchers aim to gain a deeper, system-level understanding of how the human brain computes at cellular and network scales to inform the design of these next-generation computing systems. More on the news at https://www.qmul.ac.uk/media/news/2025/science-and-engineering/se/queen-mary-university-of-london-to-play-key-role-in-new-uk-multidisciplinary-centre-for-neuromorphic-computing.html