University of Illinois Urbana-ChampaignUnited States
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.
Ron H.J. Peerlings is Associate Professor in the Department of Mechanical Engineering at Eindhoven University of Technology (TU/e) , where he leads the Mechanics of Materials research group. Promoted to Associate Professor in 2007 after joining as Assistant Professor in 2000, he has built an extensive portfolio in theoretical and computational mechanics of materials. Education: PhD (1999) – Eindhoven University of Technology, thesis: Enhanced damage modelling for fracture and fatigue Post-doctoral research (1999–2000) – University of Cambridge, Engineering Department Research interests revolve around micromechanics , micro-plasticity , multiscale modelling , homogenisation , damage and fracture , and enriched continuum theories . His work spans advanced high-strength steels, composites, paper and fibrous networks, with strong emphasis on coupling rigorous theoretical developments to industrially motivated problems. His recent publications (2023-2025) demonstrate a clear trajectory towards integrating advanced experimental techniques (e.g., digital image correlation, micro-mechanical testing) with high-fidelity computational frameworks such as crystal-plasticity finite-element modelling, FFT-based solvers and micromorphic homogenisation. Dominant themes include: Deformation and fracture in lath martensite and dual-phase steels Hygro-mechanics of paper and fibrous networks Pattern-transforming mechanical metamaterials Discrete-to-continuum scale bridging methods Scientific awards are not explicitly listed in the provided material; however, his prolific output (294 research items, >6500 citations) attests to significant peer recognition. Teaching & supervision: He delivers courses on Computational Mechanics – Numerical Methods for Fluids and Solids and Fracture Mechanics – Theory and Application , and has supervised >80 student works and numerous PhD candidates whose names appear on joint publications. Laboratory & teams: He heads the Group Peerlings within the Mechanics of Materials cluster, maintaining close collaboration with the Mechanics of Materials Group Geers and extensive national/international experimental and computational networks.
University of Illinois Urbana-ChampaignUnited States
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.
Anna Levina is an Assistant Professor for Computational Neuroscience at the University of Tübingen , affiliated with the Department of Computer Science under the Faculty of Science. Her research focuses on the self-organization of neuronal activity, critical dynamics in neural networks, and the excitation/inhibition balance in cortical circuits. Current positions: Assistant Professor (since 2018), Group Leader (2017-2018), Equality Officer (Computer Science) Previous roles: IST Fellow (2015-2017), Associated Researcher (2011-2015), Postdoc/PI (2011-2015), Postdoc (2008-2011) Her research integrates mathematical modeling , statistical physics , and computational neuroscience to study criticality phenomena, neural avalanches, and adaptive network dynamics. Key interests include: Self-organized criticality in neural systems Excitation/Inhibition balance mechanisms Network topology and dynamics Timescale analysis in neural processing Stochastic modeling of neural activity Recent publications reveal trends in understanding critical dynamics across biological and artificial networks, with applications to memory systems, sensorimotor integration, and disease modeling. She has received recognition as an IST Fellow .
Robert O. Ritchie is the H. T. & Jessie Chua Distinguished Professor of Engineering at the University of California, Berkeley, where he holds dual appointments as Professor of Materials Science & Engineering and Professor of Mechanical Engineering. He is also a Faculty Senior Scientist at Lawrence Berkeley National Laboratory. His distinguished career spans over four decades with significant contributions to the field of materials science and engineering. Professor Ritchie received his B.A. in Physics & Metallurgy (1969), M.A. in Materials Science (1973), Ph.D. in Materials Science (1973), and Sc.D. in Materials Science (1990), all from Cambridge University, UK. His research focuses on the mechanical behavior of advanced materials, with particular emphasis on fracture mechanics, fatigue properties, and damage tolerance. Professor Ritchie's work spans multiple domains including metallic glasses, high-entropy alloys, biomaterials, and nature-inspired structural materials. His laboratory employs cutting-edge techniques such as in situ high-temperature computed tomography to study failure mechanisms in ceramic-matrix composites and nuclear graphite. His research has significant implications for aerospace, biomedical, and energy applications. Analysis of Professor Ritchie's recent publications reveals a strong focus on advanced structural materials, particularly metallic glasses and high-entropy alloys. His work combines experimental approaches with computational modeling to understand deformation mechanisms at multiple length scales. There is a clear trend toward bioinspired materials design, with several papers examining natural structures like fish scales, horn sheaths, and bone to develop new engineering materials with exceptional mechanical properties. Member, National Academy of Sciences (2025) Foreign Fellow, Academy of Athens, Greece (2024) Robert Henry Thurston Award (ASME) (2022) ASM Gold Medal (ASM Intl.) (2021) William D. Nix Medal, inaugural winner (TMS) (2020) Fellow (Foreign Member) of the Royal Society (FRS), London, UK (2017) Morris Cohen Award (TMS) (2017) Acta Materialia Gold Medal (2014) David Turnbull Award (MRS) (2013) A. Cemel Eringen Medal (Society of Engineering Science) (2010) Professor Ritchie has advised numerous graduate students and postdoctoral researchers throughout his career. His research has been supported by various funding agencies including the Department of Energy, National Science Foundation, and industry partners such as Rolls-Royce. He has served on numerous advisory boards including the Rolls-Royce Materials & Structures Advisory Board (2011-2019) and the Scientific Advisory Board of the Advanced Light Source at LBNL (2013 to date). Professor Ritchie leads the Ritchie Group at UC Berkeley, which maintains strong collaborations with Lawrence Berkeley National Laboratory. The laboratory employs state-of-the-art techniques including electron microscopy, x-ray tomography, and mechanical testing across multiple length and time scales. His team has developed innovative in situ characterization methods that have significantly advanced the understanding of material failure mechanisms under extreme conditions.
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.
Dr. Zhiwen Jonathan Zhang serves as Associate Professor in the Department of Bioengineering at Santa Clara University's School of Engineering since 2011, with research spanning biomolecular engineering, drug discovery, and BIOAI to combat super-bacterial infections and advance precision protein technologies. Education: Ph.D. in Chemistry and Biochemistry, University of Texas at Austin (2001) Postdoctoral Research, The Scripps Research Institute (2001-2004) His interdisciplinary research pioneers unnatural genetic codes, trM2H systems, site-specific protein cross-linking, and synthetic antibodies. Current focus includes mitochondrial peptide transport, BIOAI design, subcellular protein synthesis, and engineering bacteria for micro-plastics degradation. His lab unraveled molecular dialogues between mammalian and Gram-positive bacterial cells, enabling groundbreaking anti-infective therapies. Publication trends reveal consistent innovation in protein engineering and translational bioengineering, with recent work emphasizing sortase A applications, fluorescent peptide development, and unnatural amino acid incorporation in mammalian systems—demonstrating a trajectory from fundamental biochemistry to industry-ready biotech platforms. Dr. Zhang has mentored 7 post-doctoral researchers, 2 visiting professors, and 5 Ph.D. students while securing grants from NIH NCI R01, NSF SBIR, American Heart Association, Welch Foundation, JOINN Foundation, IBM, and SCU Internal Research. His patented "Biotech+Techbio" platform has co-founded multiple biotech ventures, including two publicly traded companies and a 2024 acquisition. His laboratory maintains active collaborations with Bay Area biotech firms and academic institutions, driving translational research through the patented Biotech+Techbio platform while advancing BIOAI-assisted enzyme discovery for micro-plastics degradation and next-generation antibacterial therapies.
Professor Bing-Jie (Bruce) Ni is an Adjunct Professor at the University of Technology Sydney (UTS) within the School of Civil and Environmental Engineering and a full Professor at UNSW Sydney. He is an internationally recognised leader in environmental engineering, wastewater treatment, greenhouse-gas mitigation, microplastics fate, electrocatalysis and sustainable energy systems. Education PhD in Environmental Engineering, University of Science and Technology of China, Hefei (2005–2009) Research Interests Professor Ni’s research integrates process engineering, microbial biotechnology, materials science and mathematical modelling to develop sustainable technologies for high-efficiency pollutant removal, minimal carbon footprint and maximal energy recovery from wastewater. He is a global pioneer in: Modelling and control of nitrous oxide (N₂O) and methane (CH₄) emissions from wastewater systems, Micro- and nano-plastics ecotoxicity and mitigation in anaerobic digestion, Transforming sewage sludge into high-value liquid bio-energy (medium-chain fatty acids and long-chain alcohols), Designing cost-effective electrocatalysts from natural minerals for green hydrogen production and wastewater electrolysis. Research Output & Impact Over the last decade he has published 2 research books, 30 book chapters and >400 refereed journal papers , including 35 in Environmental Science & Technology and 85 in Water Research . His work has influenced global policy: the IPCC adopted his nitrous-oxide-emission model in 2019 to revise national greenhouse-gas inventories for the first time in 13 years. Awards & Recognition ARC Future Fellowship & ARC DECRA Fellowship Clarivate Analytics Highly Cited Researcher (Web of Science) Royal Society of Chemistry Highly Cited Researcher (2020–present) Mendeley Data Top 2 % Cited Researchers worldwide Listed among “Australia’s Most Innovative Engineers” (Engineers Australia, 2018) 50+ additional awards including Scopus Young Researcher Award, South Australian Water Awards, UQ Research Excellence Awards, and Outstanding Doctoral Dissertation Awards. Research Funding & Leadership He has secured ≈ AUD $10 million in competitive funding (six major ARC grants plus >20 government, university and industry projects). He serves as: Lead Guest Editor, Water Research Editorial Advisory Board, Environmental Science & Technology Associate Editor for Journal of Cleaner Production , Environmental Chemistry Letters , Environmental Research , Journal of Environmental Management Editorial Board member for five additional high-impact journals. Teaching & Supervision At UTS he teaches Renewable Energy Technologies , Environmental and Sanitation Engineering , Process Dynamics and Control , and Water and Wastewater Treatment . He is available to supervise Masters and PhD students in environmental biotechnology, process modelling and sustainable energy systems. Laboratory & Commercial Translation He heads active research teams at both UNSW and UTS and is the inventor of >10 granted patents , some of which are currently being commercialised to deliver real-world impacts in greenhouse-gas-neutral wastewater treatment and renewable energy production.
Dorina Siebert is a Researcher at the Chair of Metal Construction within the School of Engineering at the Technical University of Munich. She has been working as a research assistant at the Chair since 2019, contributing to various research projects related to steel and aluminum construction, fracture mechanics, and additive manufacturing in construction. Education: M.Sc. in Civil Engineering from Technical University of Munich (2012-2019) Affiliation: Chair of Metal Construction, School of Engineering, Technical University of Munich Contact: dorina.siebert@tum.de, Room 0101.Z1.038, +49 (89) 289-22527 Dorina's research primarily focuses on the fatigue strength of aluminum structures, fracture mechanics in railway bridges, and the application of additive manufacturing techniques in construction. Her work on powder bed-based laser beam melting of metal has significant implications for modern construction methods. She also investigates safe operating time intervals for historic steel bridges and has contributed to the development of a mobile vehicle barrier, demonstrating the practical applications of her theoretical work. Her publication record shows a strong trend toward computational and experimental analysis of material behavior under stress, particularly in aluminum alloys and steel structures. She has published extensively on fatigue properties, fracture mechanics calculations, and additive manufacturing applications, with a clear progression toward more complex modeling techniques and practical engineering solutions. Her work bridges theoretical computational models with real-world infrastructure challenges. Dorina teaches courses including 'Constructing with aluminum' for the Summer semester 2025 and 'Fracture mechanics and fatigue' for the Winter semester 2024/25. She also leads a seminar on plate buckling and steel bridge construction, sharing her specialized knowledge with engineering students. Her teaching directly reflects her research expertise, creating a strong connection between theoretical knowledge and practical application for her students.
Virginia Davis is the Dr. Daniel F. and Josephine Breeden Professor in the Department of Chemical Engineering at Auburn University's College of Engineering. She holds a Ph.D. in Chemical and Biomolecular Engineering from Rice University, and M.S. and B.S. degrees in Chemical Engineering from Tulane University. Research Focus: Self-assembly of nanomaterials, rheology, lyotropic liquid crystals, additive manufacturing, polymers, nanocomposites, and biosensors Key Projects: USDA-funded agricultural outreach, NSF grant for MXene dispersion studies, Alabama STEM Council member Her recent publications explore cellulose nanocrystals, MXene 3D printing, and sustainable polymer recycling. Davis has received multiple honors including the Breeden Professorship, AIChE Fellowship, and Auburn University Faculty Awards for research and mentorship. Research Trends: Dominated by bio-based nanomaterials (cellulose nanocrystals, MXenes), with applications in additive manufacturing, environmental remediation (PFAS adsorption), biosensors (carbofuran detection, cancer biomarkers), and agricultural delivery systems. Scientific Awards Auburn University Faculty Awards (2023, 2025) AIChE Fellow (2023) Dr. Daniel F. and Josephine Breeden Professorship Davis leads outreach initiatives like the Tomorrow’s Community Innovators camp and collaborates with interdisciplinary teams on plastic recycling innovations. Her work emphasizes both fundamental material science and practical applications addressing environmental and agricultural challenges.
Swiss Federal Institute of Technology in LausanneSwitzerland
Andreas Mortensen is a full Professor at École Polytechnique Fédérale de Lausanne (EPFL) in Switzerland, where he leads research at the Mechanical Metallurgy Laboratory (LMM) within the School of Engineering. His office is located in building MXD at EPFL's main campus in Lausanne. Institution: École Polytechnique Fédérale de Lausanne (EPFL) School: School of Engineering (STI) Department: Mechanical Metallurgy Laboratory (LMM) Position: Professor Professor Mortensen's research focuses on the mechanical properties of materials, particularly metal matrix composites, microcellular materials, and the fundamental aspects of metallurgy. His work spans from theoretical modeling to practical applications in materials processing and characterization. He has made significant contributions to understanding infiltration processes, fracture mechanics, and the behavior of materials at micro and nano scales. Analysis of Professor Mortensen's recent publications (2022-2025) reveals a continued focus on advanced materials characterization techniques, particularly nanoindentation and micro-scale mechanical testing. His research shows increasing attention to additive manufacturing processes, multi-scale material behavior, and the development of novel composite structures. The work spans fundamental investigations of dislocation dynamics and slip phenomena to applied research on brazing technologies and investment casting methods. Throughout his extensive career, Professor Mortensen has supervised numerous students and collaborated with researchers worldwide, contributing to the advancement of materials science and engineering. His laboratory has been instrumental in developing methodologies for characterizing material behavior across multiple length scales, from nano to macro.
Wenjing Zhang is a Professor and Head of the Section for Water Technology and Processes at the Department of Environmental and Resource Engineering, Technical University of Denmark (DTU). She is also affiliated with the DTU Microbes Initiative, contributing to interdisciplinary research in sustainable water technologies and environmental nanomaterials. Professor, DTU Head of Section, Water Technology & Processes Member, DTU Microbes Initiative Her research spans nanofiber technology, electrospinning, membrane processes, and catalytic materials for environmental applications. She focuses on innovative solutions for water purification, plastic waste recycling, CO2 photoreduction, and green hydrogen production, aligning with UN Sustainable Development Goals. The recent publications highlight a strong trend in advanced materials for environmental sustainability, particularly electrospun nanofibers, heterojunction photocatalysts, and ceramic membranes. These works emphasize applications in microplastic degradation, solid oxide cells, and chemical recycling of plastics, reflecting a multidisciplinary approach combining materials science, electrochemistry, and environmental engineering. Researcher at DTU Energy becomes honorary professor in China Wenjing Zhang actively supervises PhD students and leads multiple research projects, including EU and nationally funded initiatives on decentralized wastewater treatment and biocatalytic membrane systems. She collaborates with leading researchers and institutions, securing funding for high-impact environmental technologies. Her lab focuses on nanostructured membrane design and advanced fabrication of porous ceramics for industrial and municipal applications.
Kunihiko Kaneko is a Professor at the Niels Bohr Institute, University of Copenhagen, with a distinguished career in theoretical biophysics and complex systems. He received his PhD and MSc in Physics from the University of Tokyo, and has held leadership roles at the Universal Biology Institute and Center for Complex Systems Biology. PhD Physics, 1984 - University of Tokyo MSc Physics, 1981 - University of Tokyo His research spans five primary areas: Universal Biology, Evolutionary Constraints, Ecosystem Dynamics, Neural Cognition, and Universal Anthropology. He has published extensively on multi-level consistency principles, dimensional reduction in biological systems, and reciprocity between robustness and plasticity across scales. Recent publications show strong focus on microbial ecosystems (2025), evolutionary game theory (2025), neural modular architectures (2024), and dimensional reduction in cellular systems (2024). His work bridges physics and biology through dynamical systems theory applied to diverse phenomena from protocells to human societies.
Trevor J Jones is an Assistant Professor in the Department of Mechanical Engineering at Carnegie Mellon University's College of Engineering, where he leads the Mechanically Intelligent Engineered Structures (MInEnS) Lab. His research integrates soft matter mechanics, nonlinear dynamics, and indigenous knowledge to develop novel technologies in soft robotics, meta-materials, and manufacturing. Education: Ph.D., Chemical Engineering, Princeton University (2023) B.S., Chemical Engineering, Vanderbilt University (2017) His research focuses on harnessing mechanical instabilities, fluid-solid interactions, and granular matter to create intelligent, adaptive materials. Inspired by natural phenomena and Ojibwe beadwork traditions (reflected in the MInEnS Lab's name from the Ojibwemowin word manidoominens ), his work spans soft robotics, deployable structures, and beadwoven metamaterials. He employs an interdisciplinary approach combining crafting, experimentation, and theoretical modeling. His recent publications (2022–2024) demonstrate a strong trend in leveraging buckling, plasticity, and fluid dynamics to achieve emergent intelligence and multifunctionality in soft engineered systems, particularly through innovative fabrication techniques like bubble casting and beadwork-inspired design. Scientific Awards: AISES Lighting the Pathway Fellow Trailblazer in Engineering Rising Star in Soft and Biological Matter Jones actively mentors graduate and undergraduate researchers, including PhD students Eddie Beck and Angela Lee, and undergraduates Eleni Georgountzos and Adela Qiu. He is currently recruiting PhD students and postdocs for projects in bead-woven materials and soft matter mechanics. The MInEnS Lab fosters a highly interdisciplinary environment that values curiosity, craftsmanship, and the integration of diverse cultural perspectives in scientific inquiry.
Benyamin Davaji serves as an Assistant Professor in the Department of Electrical and Computer Engineering at Northeastern University, where he joined in January 2022. He holds additional appointments as a Center Member of The Plastics Center and Core Faculty of the Institute for NanoSystems Innovation (NanoSI). His work bridges microsystems engineering, nanofabrication, and data science to develop next-generation sensing technologies. Dr. Davaji's educational background includes: Postdoctoral Associate in Electrical and Computer Engineering at Cornell University (2016-2021) Ph.D. in Electrical Engineering from Marquette University (2016) His research centers on integrated microsystems with emphasis on mechanical wave-based sensing and computation, ultrasound transducers, bio-interfaces, and microcalorimetry. The Autonomous Integrated Microsystems (AIMS) Laboratory combines physics with AI/ML to invent novel sensors and computational devices through advanced nanofabrication. Key thrusts include power-sustaining architectures and analog/digital computational integration. Recent publications (2024-2025) reveal strong trends in MEMS/NEMS optimization using digital twins, plasmonically enhanced infrared detection, ferroelectric actuators for high-speed scanning, and ultrasound-enabled metrology. His work increasingly integrates machine learning for design automation and process optimization across semiconductor manufacturing and flexible hybrid electronics. Dr. Davaji advises graduate students including Yilmaz Arin Manav (PhD'28), who won the FLEX 2024 Future Student Poster Award. He has secured over $3 million in competitive funding as PI/Co-PI, including a $550k NSF grant for MEMS actuators, $330k NSF grant for quantum detectors, and $2M DARPA grant for inertial sensors. He directs the interdisciplinary AIMS Laboratory focused on MEMS, ultrasound, and calorimetric technologies. The lab collaborates extensively with NanoSI and The Plastics Center, developing autonomous microsystems for biomedical, environmental, and industrial applications through advanced manufacturing techniques.
