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Rakesh KumarView profile

Professor

• Computer Architecture
• System-Level Design Automation
• Low Power Computing
• +3 more

Rakesh Kumar is a Professor and John Bardeen Faculty Scholar in the Electrical and Computer Engineering Department at the University of Illinois at Urbana-Champaign. His work focuses on computer architecture, system-level design automation, and low-power computing. PhD in Computer Engineering from University of California, San Diego BS in Electrical Engineering from IIT Kharagpur His research spans all layers of the computing stack, with key contributions to flexible computer systems , waferscale computing , error-resilient architectures , and approximate computing . He has pioneered work on voltage-reliability tradeoffs and peak power management techniques. Recent publications highlight trends in space microdatacenters , printed microprocessors , and neural graph accelerators . His work on plastic chips was recognized as one of the three biggest semiconductor headlines of 2022 by IEEE Spectrum. IEEE Fellow (2024) ISCA Influential Paper Award MICRO Test-of-Time Award ICCAD Ten Year Retrospective Most Influential Paper Award Best Paper Awards at CASES, SELSE, HPCA He has received teaching accolades including the Stanley H. Pierce Faculty Award and Ronald W. Pratt Outstanding Teaching Award . His research group explores hardware-software co-design for emerging applications in AI, IoT, and sustainable computing.

Matthew L BeckerView profile

Professor

• Polymer chemistry
• Bioconjugate chemistry
• Molecular imaging
• +5 more

Matthew L Becker is the Hugo L Blomquist Distinguished Professor of Chemistry at Duke University, with additional appointments in Mechanical Engineering and Material Science, and Biomedical Engineering. His research focuses on polymer chemistry, bioconjugate chemistry, molecular imaging, additive manufacturing, and degradable materials for bone, soft tissue, neural, and vascular tissue engineering. Education: B.S. from Northwest Missouri State University (1998), M.A. (2000) and Ph.D. (2003) from Washington University in St. Louis Research interests include developing tunable degradable polymers for flexible electronics, tissue engineering (bone, neural, vascular), and additive manufacturing. His group is pioneering 3D printing of bioresorbable medical devices and custom inks for biomaterials. Recent work explores stereochemistry-dependent polymer properties, mechanochromism, and machine learning-driven biomaterials design. Key applications: Drug delivery systems Biodegradable adhesives Tissue regeneration scaffolds Scientific honors include: Fellow, National Academy of Inventors (2022) Fellow, American Chemical Society (2020) Carl S. Marvel Award in Creative Polymer Chemistry (2019) Fellow, American Institute for Medical and Biomedical Engineering (2018) Fellow, Royal Society of Chemistry (2017) Biomacromolecules/Macromolecules Young Investigator Award (2015) He teaches advanced courses in mechanical engineering and polymer chemistry, with a focus on 3D printing and biomaterials. His group has developed novel medical devices including resorbable suture anchors, hernia mesh coatings, and neuroprosthetic scaffolds.

Qing CaoView profile

Associate Professor

• Nanomaterials
• Electronic Devices
• Optoelectronic Devices
• +5 more

Qing Cao is an Associate Professor of Materials Science and Engineering at the University of Illinois at Urbana-Champaign, with courtesy appointments in Chemistry and Electrical Engineering. He leads the Cao Research Group within the Grainger College of Engineering and serves as Deputy Editor of Science Advances. Dr. Cao received his B.S. in Chemistry from Nanjing University in 2004 and his Ph.D. in Materials Chemistry from the University of Illinois at Urbana-Champaign in 2009. After working for 9 years as a research scientist at IBM Thomas J. Watson Research Center, he returned to UIUC in 2018 as a faculty member. His research focuses on developing functional nanomaterials for unconventional electronic systems, high-performance logic devices, and low-cost energy harvesting. The Cao Research Group specifically works on: nanoelectronic devices based on novel nanomaterials; next-generation memory devices for neuromorphic and in-memory computing; monolithic 3D integration for high performance electronics; high-performance printable electronic materials; and bioelectronics for healthcare applications. His work bridges materials science, chemistry, electrical engineering, and device physics. Analysis of Dr. Cao's recent publications reveals a strong focus on electrochemical memory devices for neuromorphic computing, with significant work on carbon nanotube-based electronics and novel nanomaterials. His 2023 Nature Electronics paper on CMOS-compatible electrochemical synaptic transistors demonstrates his leadership in developing hardware solutions for deep learning acceleration. His research trajectory shows a progression from fundamental carbon nanotube device physics to more applied systems for computing and sensing applications. IBM Pat Goldberg Memorial Best Paper Award (2017) IBM Master Inventor Award (2016) MIT Technology Review TR35 (2016) Forbes '30 Under 30' (2012) and 'Most Influential All-Star Alumni' (2016) Atlantic Council Millennium Fellow (2017) US Frontiers of Engineering by National Academy of Engineering (2016, 2019) 17 IBM Invention Achievement Awards (2011-2018) Dr. Cao has secured significant research funding including NSF grants 1950182 and 2139185. His research group actively recruits graduate students and postdoctoral researchers to work on cutting-edge materials and device projects. His work has resulted in over thirty research papers and fifty patents and patent applications. He teaches graduate courses including MSE 403 (Synthesis of Materials), MSE 460 (Electronic Materials I), and MSE 488 (Optical Materials). The Cao Research Group operates within the University of Illinois' world-class facilities including the Frederick Seitz Materials Research Laboratory and Holonyak Micro and Nanotechnology Laboratory. His research has received support from NSF, DoD, DOE, and industry partners including TSMC. The group's recent $2 million project focuses on developing technology to help mobile devices learn and adapt to their surroundings.

Stephen BeebyView profile

Professor

• Electronic Textiles
• Flexible Electronics
• Smart Materials
• +4 more

Professor Stephen Beeby is a leading academic at the University of Southampton in the Electronics and Computer Science department. His research spans Electronic Textiles , Flexible Electronics , and Energy Harvesting technologies. Research Focus: His work emphasizes the integration of smart printable materials into fabrics, enabling invisible wearable technologies . Projects include energy-harvesting insoles , skin hydration sensors , and thermoelectric devices for sustainable power. Recent Publications highlight advancements in zinc oxide nanoparticle films , flexible antennas , and gold-tooled e-textile circuits , reflecting his interdisciplinary approach to biomedical monitoring and smart clothing . Scientific Honors: Royal Academy of Engineering Chair in Emerging Technologies Fellow of IEEE (FIEEE) Fellow of Institute of Physics (FInstP) Fellow of Institution of Engineering and Technology (FIET) PhD Students: Supervising 10 active PhD candidates in areas like flexible sensors , smart garments , and energy-harvesting systems . Labs & Collaborations: Core member of the Centre for Flexible Electronics and E-Textiles (C-FLEET) and collaborates with European Union-funded initiatives like EnABLES and TEAM-NANO .

W. Hong YeoView profile

Professor

• Flexible Electronics
• Human Augmentation
• Micro and Nano Device Engineering
• +6 more

W. Hong Yeo is a Professor in the Woodruff School of Mechanical Engineering and Program Faculty in Bioengineering at the Georgia Institute of Technology, where he also directs the WISH Center. He holds adjunct appointments in the Wallace H. Coulter Department of Biomedical Engineering. Previously, he was an Assistant Professor at Virginia Commonwealth University (2014-2016) and a postdoctoral fellow at the University of Illinois Urbana-Champaign's Beckman Institute. Dr. Yeo's research integrates nanomechanics, soft materials, and nano-microfabrication to develop bio-interfaced systems. Key areas include: Flexible Bioelectronics : Wearable/implantable sensors for health monitoring Human-Machine Interfaces : Neural prosthetics and soft robotics Translational Nanoengineering : Nanoparticle biosensing and diagnostics His publications (2023-2025) demonstrate strong focus on wireless health technologies, including multi-modal wearable systems, implantable sensors for cardiovascular/neurological monitoring, and AI-integrated diagnostics. Trends show increasing emphasis on closed-loop therapeutic systems and scalable manufacturing. Awards & Recognition : BMES Innovation and Career Development Award Virginia Commercialization Award Blavatnik Award Nominee NSF Summer Institute Fellowship Research funding sources include MEDARVA Foundation, NIH, DARPA, and industry partners like CooperVision. He leads the Center for Human-Centric Interfaces & Engineering , developing next-generation bio-interfaced systems.

Wan ShouView profile

Assistant Professor

• Multiscale manufacturing
• Laser-based manufacturing and materials processing
• Novel manufacturing processes
• +12 more

Wan Shou is an Assistant Professor in the Department of Mechanical Engineering at the University of Arkansas. His research focuses on multiscale manufacturing, advanced materials, and functional devices, with applications in wearables, robotics, and sustainable technologies. Ph.D., Mechanical Engineering, Missouri University of Science and Technology M.S., Mechanical Engineering, University of Louisiana at Lafayette B.E., Textile Engineering, Tianjin Polytechnic University, China Dr. Shou’s research spans laser-based manufacturing , nanomanufacturing , machine learning-assisted processes , and bioresorbable electronics . He explores 3D printing of polymer and metal composites, energy materials , and functional textiles for wearable sensors and environmental applications. Recent publications highlight his work in additive manufacturing , computational design of composites, and self-powered sensing systems . His team integrates machine learning with materials discovery to optimize performance. Editor’s pick of Science Magazine US Patent 11,752,700: Data-driven material formulation US Patent 11,993,850: Laser-assisted nanoparticle printing Dr. Shou’s patents and publications reflect a commitment to innovative manufacturing and environmentally conscious design . His work bridges materials science , robotics , and smart systems , advancing energy and water technologies.

Miaoqiang LyuView profile

Research Fellow

• Solar Energy
• Photocatalysis
• Flexible Electronics
• +3 more

Dr. Miaoqiang Lyu is a Research Fellow at the School of Chemical Engineering , The University of Queensland . His work focuses on lead-free perovskites , flexible energy storage , and optoelectronic devices . Research Interests : Designing low-toxicity and stable semiconducting lead-free perovskites for solar energy conversion Developing flexible energy storage devices for Internet-of-Things (IoT) sensors Advancing zinc batteries and aqueous electrolyte systems Photocatalytic hydrogen production and CO2 reduction Recent Article Trends : Focus on 2D/3D heterostructures, interstitial metal doping, and solvent-engineered interfaces Applications in indoor photovoltaics, artificial synaptic functions, and wearable electronics Lead-free perovskites for resistive memory and energy storage Scientific Awards : ARC DECRA Fellow Advance Queensland Industry Research Fellow CRC for Polymers grant Supervision & Funding : Principal advisor for two PhD projects on lead-free perovskites and flexible batteries Current grants: Enabling low-toxicity perovskites for indoor photovoltaics (2026-2030), Printable zinc ion batteries (2025-2026) Labs & Collaborations : Affiliated with the Nanomaterials Centre at UQ Collaborations with Professor Lianzhou Wang , Professor Ian Gentle , and Associate Professor Ruth Knibbe

• Bio-inspired electronics
• Mechanically adaptive electronics
• Multimaterial additive fabrication
• +9 more

Alex Chortos is an Assistant Professor of Mechanical Engineering at Purdue University's School of Mechanical Engineering. His research focuses on bio-inspired electronics, mechanically adaptive materials, and advanced manufacturing techniques. He leads the Chortos Lab, which explores innovations in soft actuators, wearable haptics, and polymer design. Chortos holds a B.A.Sc. from the University of Waterloo (2011), a Ph.D. from Stanford University (2017), and completed a postdoctoral fellowship at Harvard University (2020). His academic work bridges fundamental material science with practical applications in robotics, biomedical devices, and human-machine interfaces. Key research areas include: Multimaterial additive fabrication for soft robotics Stretchable sensors and transistors for e-skin applications Design of durable and adaptive polymer systems His publications emphasize advancements in 3D printing techniques, bioinspired sensor systems, and the development of mechanically robust electronic components. Recent work explores photodynamic polymers and machine learning-driven optimization of soft actuators.

• Organic Electronics
• Printed Electronics
• Nanomaterials
• +9 more

Dr. Yuning Li is a Professor of Chemical Engineering at the University of Waterloo and a researcher at the Waterloo Institute for Nanotechnology. His research focuses on optoelectronic materials, particularly printable electronics for flexible displays, sensors, and energy devices. Notable achievements include co-winning the 2007 NASA Nano 50™ Award for printed organic electronics and over 200 peer-reviewed publications. He teaches courses in polymer science and chemical engineering thermodynamics. Education: Ph.D. in Polymer Materials (Japan Advanced Institute of Science and Technology, 1999), M.S. and B.S. in Polymer Materials from Dalian University of Technology (China, 1988 and 1985). Research interests span organic photovoltaics, polymer semiconductors, nanomaterials, and battery technologies. His group develops materials for IoT, energy storage, and printed electronics, emphasizing scalable production methods. Recent work highlights advancements in lithium-sulfur batteries, printable conductive inks, and organic sensors. Over 120 patents (75 granted) reflect his innovation in material design and applications. Awards: NASA Nanotech Briefs Nano 50™ Award (2007). Teaching focuses on materials science and polymer engineering. He actively supervises graduate students in his lab, emphasizing interdisciplinary approaches to sustainable energy solutions.

Laurence LutsenView profile

Researcher

• Organic Electronics
• Semiconductor Materials
• Photovoltaic Technology
• +5 more

Dr. Laurence Lutsen is a Strategic Research Manager at IMEC-IMOMEC and Project Manager at UHasselt-MATCHEM, affiliated with Hasselt University in Diepenbeek, Belgium. She holds a PhD in Chemistry from the University of Montpellier II (1994) and has over 200 peer-reviewed publications with an H-index of 56 and over 10,900 citations. Her research focuses on designing and synthesizing novel semiconductors for organic and hybrid electronic devices, including solar cells, transistors, sensors, and light-emitting diodes. **Education:** PhD in Chemistry, University of Montpellier II (1994) Postdoctoral research at the University of Kent (1995) Joined Limburgs Universitair Centrum (now UHasselt) in 1997 **Research Interests:** Her work emphasizes organic and hybrid semiconductor materials, particularly layered hybrid perovskites, organic electrochemical transistors (OECTs), and photovoltaic technologies. Key areas include optimizing material stability, charge transport, and device performance in applications like solar cells and biosensors. She explores advanced synthesis techniques and defect engineering to enhance material reliability. **Labs & Teams:** Lutsen leads research initiatives at IMOMEC and MATCHEM, collaborating on interdisciplinary projects involving materials chemistry, nanotechnology, and device fabrication. Her contributions bridge fundamental material science and applied optoelectronics.

Coleman JonathanView profile

Professor

• Nanomaterials for energy storage
• Graphene and 2D materials
• Nanomaterials for printed electronics
• +5 more

Professor Jonathan Coleman is an Erasmus Smith's Professor of Natural and Experimental Philosophy at the Department of Physics, Trinity College Dublin. He is affiliated with the CRANN Research Institute and holds simultaneous membership in the Chemical Sciences and Physics sections of the Royal Irish Academy. His research spans materials chemistry and nanotechnology, focusing on graphene, 2D materials, and printed electronics. With 378 peer-reviewed publications in top journals like Nature and Science, his work has accumulated over 107,000 citations (h-index 123) since 2001. Recent papers analyze charge transport limitations in nanosheet networks, defect engineering strategies for 2D materials, and battery electrode performance metrics. These publications reflect his expertise in solution processing techniques and low-dimensional nanostructures. Royal Irish Academy Gold Medal (2023) Tabor Medal, Institute of Physics (2022) Advanced Materials Hall of Fame (2022) Clarivate Highly Cited Researcher (2014-2021) Professor Coleman secures major EU funding through grants like Graphene Flagship 2D-PRINTABLE (€0.6M, 2023-2026) and HYPERSONICS (EIC Pathfinder, €0.9M, 2024-2028). He serves as Principal Investigator at CRANN while delivering invited plenary/keynote lectures at international conferences including Flatlands and Graphene23.

Mehdi MehraliView profile

Researcher

• Hydrogel
• Geopolymer Engineering
• Graphene
• +4 more

Mehdi Mehrali serves as a Senior Researcher in the Department of Civil and Mechanical Engineering at the Technical University of Denmark (DTU), Denmark. His research spans advanced materials engineering with focus on sustainable construction and biomedical applications. Research Focus: Dr. Mehrali's work centers on geopolymer engineering , hydrogel development , and nanomaterial reinforcement for 3D-printed construction. His fingerprint reveals expertise in biomaterials (39%), graphene (45%), and phase change materials (27%), contributing to UN Sustainable Development Goals through sustainable infrastructure solutions. Publication Trends: Recent work demonstrates convergence of civil engineering with AI-driven material design (e.g., machine learning for geopolymer extrusion) and biomedical applications (e.g., antibacterial hydrogels). His 2025 publications show strong emphasis on multifunctional composites with self-sensing capabilities and robotic integration. Awards & Recognition: 6 similar researcher profiles identified in global networks 5 Mendeley readers for recent work Featured in 3 X (Twitter) discussions Supervision & Grants: Actively supervises three PhD candidates on 3D-printed construction materials while collaborating on major projects including COOLBATTERY (€2.1M) and RESTORATIVE grid-scale energy storage. His research attracts significant downloads (321 for hydrogel review) and citations (30+). Laboratory Focus: Leads research in Materials and Surface Engineering at DTU's Produktionstorvet facility, specializing in printable geopolymers, hydrogel robotics, and cement-based smart materials for sustainable construction.

• Electrochemical Sensors
• Materials Science
• Corrosion Protection
• +3 more

Dr. Sina Jamali is a Senior Lecturer at Griffith University's School of Environment and Science within the Chemistry and Forensic Science department. He is affiliated with the Queensland Quantum and Advanced Technologies Research Institute (QUATRI) and the Queensland Micro and Nanotechnology Centre. His research focuses on electrochemical sensors, nanomaterials, corrosion protection, and sustainable energy materials. He holds a PhD from the University of Wollongong and previously served as a DECRA Fellow at UNSW. Dr. Jamali's work addresses challenges in biosensing technologies, nanotechnology applications, and material degradation mechanisms. His funded research includes the Australian Research Council's DECRA grant (DE210101137) exploring stochastic electrochemical biosensors. He collaborates on projects related to 3D printable energy materials, antimicrobial coatings, and wearable health sensors. Research Themes: Electrochemical biosensors, material degradation, nanotechnology, sustainable materials, and biomedical applications. Key Projects: Developing green 3D-printable materials for energy devices, porous metal-organic frameworks biosensors, and graphene-based wearable health monitoring systems. Dr. Jamali has supervised multiple doctoral and master’s students in areas like bioengineered wearable sensors, antimicrobial materials, and energy device manufacturing. His publications span journals like Small Science , Angewandte Chemie , and Advanced Materials , with a focus on both fundamental and applied electrochemistry. He actively contributes to Griffith's teaching and supervision, emphasizing practical applications of chemistry and forensics. His work aligns with the Sustainable Development Goals for clean energy and sustainable cities.

Robin RasView profile

Professor

• Superhydrophobic surfaces
• Wetting phenomena
• Droplet dynamics
• +7 more

Robin Ras is a Professor and Head of Department at the Department of Applied Physics at Aalto University, where he leads the Soft Matter and Wetting research group. His work focuses on surface science, particularly superhydrophobic and superoleophobic materials, with applications spanning renewable energy, biomedical engineering, and agricultural science. Ras earned his Master's degree in Engineering and Technology from Catholic University of Leuven in 1999, followed by a Doctoral degree from the same institution in 2003. His academic journey has positioned him as a leading researcher in wetting phenomena and nanoscale surface engineering. His research interests center on understanding and manipulating liquid-solid interactions at micro and nanoscales. Ras's work explores how surface topography and chemistry affect wetting behavior, with particular focus on superhydrophobic surfaces, droplet dynamics, and liquid-repellent materials. His group develops innovative approaches for creating surfaces with controlled wettability for applications ranging from self-cleaning materials to advanced biomedical devices. The research trends evident in Ras's recent publications show a strong focus on precision control of liquid-solid interfaces, with increasing attention to underwater applications, molecular-scale surface engineering, and biomimetic approaches. His work bridges fundamental surface science with practical applications in energy, healthcare, and sustainability. Among his notable scientific achievements: Anton Paar Research Award for Instrumental Analytics & Characterization (2018) for Scanning Droplet Adhesion Microscopy invention Academy of Finland Research Fellow (2011-2016) ERC Consolidator Grant (2017) Ras has secured significant research funding including the ERC Consolidator Grant for the SuperRepel project (2017-2022) focused on superslippery liquid-repellent surfaces, and the Academy of Finland project 'Electric Field; an Active Method to Control Phase Change' (2019-2022). His research group actively collaborates with international institutions and industry partners to translate fundamental discoveries into practical applications. The Soft Matter and Wetting research group under Ras's leadership combines experimental and theoretical approaches to investigate surface phenomena. The team utilizes advanced imaging techniques, precision surface fabrication methods, and computational modeling to understand and engineer surfaces with tailored wetting properties. Their work has applications across multiple sectors including renewable energy, biomedical devices, and sustainable agriculture.

Yuhang HuView profile

Associate Professor

• Mechanics of Soft Materials
• Materials Chemistry
• Biomedical Engineering
• +7 more

Dr. Yuhang Hu is an Associate Professor at the Georgia Institute of Technology, affiliated with the George W. Woodruff School of Mechanical Engineering and the School of Chemical and Biomolecular Engineering. Her research focuses on soft active materials, particularly hybrid systems combining solid and liquid components. She explores chemo-mechanical modeling, mechanical characterization of soft materials, and the development of dynamic multi-functional materials for applications like energy conversion and biomedical devices. Education: Ph.D. in Engineering Sciences from Harvard University (2011), M.S. in Applied Physics (Harvard, 2009), and prior degrees from Nanyang Technological University and Shanghai Jiao Tong University. She previously held positions at the University of Illinois at Urbana-Champaign and Harvard. Research Interests: Soft materials mechanics, stimuli-responsive gels, bio-inspired materials, and material characterization challenges. Her work integrates experimental and theoretical approaches to bridge mechanics and materials chemistry. Outreach: Active in STEM education through initiatives like B.T. Washington Elementary STEM Academy and the Midwest Experimental Mechanics Student Conference. Her lab emphasizes interdisciplinary innovation at the Chemomechanics of Soft Materials Lab.