Find Academic Supervisors

Dena ShahriariView profile

Assistant Professor

• smart biomaterials
• neural interfaces
• biosensors
• +5 more

Dena Shahriari is an Assistant Professor in the Department of Orthopaedics at the University of British Columbia's School of Biomedical Engineering (SBME). She holds additional affiliations with the International Collaborations on Repair Discoveries (ICORD) and the Institute for Computing, Information and Cognitive Systems (ICICS). Her research bridges materials science, electrical engineering, and medicine to develop innovative solutions for healthcare challenges. Dr. Shahriari received her BS in Bioengineering from the University of California Berkeley, followed by a PhD in Macromolecular Science and Engineering from the University of Michigan. She completed her postdoctoral training at the Massachusetts Institute of Technology in the Bioelectronics Laboratory under Professor Polina Anikeeva, working with both the Research Laboratory of Electronics and the McGovern Brain Institute. Her research focuses on developing neuroelectronic devices, sensors, and smart biomaterials to interface with biological tissues for tissue regeneration and organ augmentation. Key areas include smart biomaterials, neural interfaces, biosensors, tissue regeneration, and organ augmentation, with specific research themes in cellular & molecular engineering and human interfacing devices. The BioAugmentative Interfaces Laboratory she leads at ICORD creates advanced interfaces between biological systems and electronic devices for therapeutic applications. Analysis of Dr. Shahriari's publication record reveals a consistent focus on neural interfaces and biomaterials for tissue regeneration, with her most recent work (2023-2025) showing increasing incorporation of artificial intelligence techniques in medical imaging and diagnostics while maintaining her core expertise in biomaterials engineering. Her research spans from fundamental biomaterials development to clinical applications, with particular emphasis on nerve repair scaffolds with microchannel structures, optoelectronic neural interfaces, and smart biomaterials for organ augmentation. Dr. Shahriari actively mentors a diverse research team including PhD candidates Shahriar Shalileh (UBC Four Year Fellowship Awardee) and Elham Mohseni Vadeghani (Faculty of Medicine 2024 Graduate Student Awardee), Master's student Adan Moallemi (CIHR Canada Graduate Scholarship awardee), PhD student Milad Yazdani, and numerous undergraduate researchers. Alumni from her lab have pursued medical school, industry positions, and further graduate studies at institutions like EPFL. The BioAugmentative Interfaces Laboratory is situated within UBC's newly opened purpose-built biomedical engineering facility, positioning Dr. Shahriari's research at the forefront of Canada's efforts to advance health solutions and grow the biotech sector through collaborative research across engineering, medicine, and biology.

Alex AbramsonView profile

Assistant Professor

• Drug Delivery
• Bioelectronic Therapeutics
• Soft Robotics
• +7 more

Alex Abramson is an Assistant Professor at the School of Chemical and Biomolecular Engineering within Georgia Tech's College of Engineering. His research focuses on drug delivery and bioelectronic therapeutics, with innovations featured in The New York Times, NPR, and Wired. He holds a courtesy appointment in the Biomedical Engineering Department and is affiliated with Georgia Tech's Bioengineering PhD Program. B.S., Johns Hopkins University Ph.D., Massachusetts Institute of Technology Abramson's work spans ingestible, implantable, and wearable robotic therapeutic devices. Key areas include drug delivery systems for improved adherence, soft materials for bioelectronic sensors, and preclinical drug screening technologies. His lab emphasizes translational research, bridging bench-to-bedside through pharmaceutical partnerships and clinical trials. Forbes 30 Under 30 – Science (2022) MIT Tech Review Innovators Under 35 (2022) NIH Ruth L. Kirschstein F32 Fellowship (2020) The Abramson Lab mentors numerous PhD, Master’s, and undergraduate students, including NSF Graduate Research Fellows. They collaborate with Georgia Tech’s engineering programs and Emory School of Medicine to develop next-generation medical devices. Large pharmaceutical companies have licensed his patents, with Abramson serving as a scientific advisor for commercialization.

Arnaud ClaudelView profile

Researcher

• Materials Science
• Semiconductor Growth
• Thin Film Technology
• +3 more

Arnaud Claudel is a permanent Researcher at the CNRS, affiliated with the Néel Institute and the Quantum Electronics, Surfaces and Spintronics (QUEST) department. His work bridges materials science, semiconductor growth, and quantum electronics, focusing on advanced thin-film technologies and solid-state electrochemistry. Doctorate in Materials Science from Grenoble INP (2009) MSc in Materials Science and Engineering (2006) Claudel's research spans two major domains: (1) high-temperature chemical vapor deposition of aluminum nitride (AlN) for optoelectronic and semiconductor applications, and (2) graphene-based biohybrid nanoelectronics for sensing. His recent work in 2D materials explores strain engineering in bilayer graphene and graphene FETs for ion-channel receptor sensing, integrating nanofluidics and neuroengineering . Earlier contributions centered on AlN growth via HTCVD and HVPE, examining nucleation layers, gas-phase stoichiometry, and process optimization. His publications cover thin film characterization , epitaxial growth mechanisms , and surface science in semiconductor contexts. Current projects involve hybrid graphene-microfluidic platforms for neuronal interfacing, reflecting his interdisciplinary focus on materials for quantum technologies and bioelectronic systems . No scientific awards are explicitly mentioned in the provided data. Claudel collaborates with teams across materials synthesis and device physics, including Nanoscale and Advanced Functional Materials co-authors. His technical expertise spans chemical vapor deposition , thin-film analysis , and microfabrication of semiconductor devices.

• Neuroscience
• Biomedical Engineering
• Computational Neuroscience
• +6 more

Dr. Hayder Amin serves as Group Leader at the German Center for Neurodegenerative Diseases (DZNE) in Dresden, leading the interdisciplinary BIONICS research group focused on decoding brain network dynamics through the convergence of neuroscience, engineering, and computational science. His work bridges fundamental neural mechanisms with translational applications for neurodegenerative conditions. The BIONICS lab investigates multiscale neural computations across health and disease states, with core research emphases on: Deciphering network stability during experience-dependent plasticity and neurogenesis Exploiting reparative brain regeneration for Alzheimer's disease and brain injury interventions Developing next-generation bioelectronics and neuromorphic sensors Integrating spatial transcriptomics with functional dynamics Creating computational models for neural controllability and criticality Leveraging high-density biosensors, brain-on-chip technology, opto-chemogenetics, and multimodal data analytics, the group pursues projects spanning hippocampal circuit mapping, olfactory coding, and large-scale synaptic transmission. Dr. Amin actively recruits neuroscience, bioengineering, mathematics, and computer science students for hands-on research in this international team advancing brain-inspired computational frameworks and therapeutic interfaces.

• Ultrasonics
• Biomedical Implants
• Capacitive Micromachined Ultrasonic Transducers (CMUTs)
• +5 more

Ronald Dekker is a Professor at Delft University of Technology within the Faculty of Electrical Engineering, Mathematics and Computer Science, specifically in the Department of Electronic Components, Technology and Materials. His research focuses on ultrasonic transducer technology for biomedical applications, with particular expertise in capacitive micromachined ultrasonic transducers (CMUTs) and power transfer systems for medical implants. His primary research interests include: Ultrasonics and Transducer Design Biomedical Implant Powering Systems Microfabrication of Medical Devices Pre-Charged Collapse-Mode CMUTs Dielectric Materials for Transducer Applications Reliability of Implantable Medical Devices Recent publications demonstrate a concentrated effort in optimizing CMUT technology for efficient power delivery to biomedical implants, with significant work on material selection (Si3N4/Al2O3), voltage estimation techniques, and system-level integration for deep-tissue applications. His research bridges electrical engineering and medical technology to solve critical power limitations in implantable devices. Professor Dekker has supervised 13 research works and maintains active engagement in the academic community through conference presentations on medical device innovation, including topics like smart catheters, bioelectronics medicines, and organ-on-a-chip technology. His contributions extend to 3 research datasets supporting ultrasound implant development and CMUT reliability studies.

• Photochemistry
• Nanomaterials
• Sustainable Materials
• +3 more

Loredana Latterini is a faculty member at the University of Perugia, serving as Coordinator of the Doctoral Program in Photoinduced Processes and Technologies and representing the university in the Interuniversity Consortium for the Development of Large Interface Systems (CSGI). Her research focuses on photochemistry, nanomaterials, and sustainable technologies, particularly in radiative cooling, biomaterials, and optical properties of nanostructured systems. She has contributed extensively to photoremediation, catalysis, and bio-composite materials through experimental and computational studies. Research Trends: Analysis of her recent publications reveals expertise in radiative cooling materials, light-induced molecular switches, photocatalytic systems, and bio-nanomaterial interactions. Key sub-fields include perovskite nanocrystals, phosphorene-protein interactions, and sustainable materials for energy-efficient buildings.

Wei GaoView profile

Professor

• Bioengineering
• Medical Devices
• Flexible Electronics
• +7 more

Wei Gao is the Professor of Medical Engineering at the California Institute of Technology (Caltech), with affiliations as an Heritage Medical Research Institute (HMRI) Investigator (2021–), Ronald and JoAnne Willens Scholar (2021–2025), and Graduate Option Representative for Medical Engineering . He joined Caltech in 2017 as an Assistant Professor and was promoted to Professor in 2024. Education : B.S. (Huazhong University of Science & Technology, 2007), M.S. (Tsinghua University, 2009), Ph.D. (UC San Diego, 2014) Editorial Roles : Senior Editorial Board of Materials Today (2024), Associate Editor for Biosensors and Bioelectronics (2023), npj Flexible Electronics (2022), and Sensors & Diagnostics (2022) Research Interests focus on bioelectronic devices for personalized and precision medicine, including wearable biosensors for real-time health monitoring and micro/nanorobots for targeted drug delivery. His work spans materials innovation (e.g., humidity-resilient ionogels, conductive hydrogels) and device-level applications (e.g., smart masks, ingestible capsules). Publication Trends highlight advancements in non-invasive diagnostics (sweat, breath analysis), soft robotics , and implantable systems (e.g., bioresorbable microrobots). Key subfields include AI-powered biosensors , 3D-printed epifluidics , and telemedicine platforms . Scientific Awards : 2025 IEEE EMBS Technical Achievement Award, Fellow of the Royal Society of Chemistry (2024), Highly Cited Researcher (Clarivate, 2020–2024), 3M Non-Tenured Faculty Award (2021), Sloan Fellow (2021), ONR Young Investigator (2021) Grants & Collaborations : NSF CAREER Award, ARPA-H Sprint for Women’s Health (2024), contributions to Precision Healthcare initiatives, and partnerships with institutions like MIT, Stanford, and Columbia. Advising & Lab : Mentored 18+ graduate/postdoctoral researchers, including Jiaobing Tu (MIT Rising Star), Inho Kim (MIT Technology Review 35U35), and Juliane Sempionatto (Rice University faculty). The lab emphasizes interdisciplinary training in medical engineering , materials science , and robotics .

• Structural Biology
• Protein Crystallization
• Enzyme Mechanisms
• +3 more

Janet Newman is an Adjunct Professor at the University of New South Wales' School of Biotechnology & Biomolecular Sciences. She holds a BSc (Hons) from the University of Sydney and a PhD from the Swedish University of Agricultural Sciences. Her career includes establishing CSIRO's Collaborative Crystallisation Centre (C3) in Melbourne and international guest lecturing. She serves as Section Editor for Acta Crystallographica and co-organizes the Cold Spring Harbor Course in Diffraction Methods. Her research focuses on structural biology methodologies, including: Automation of crystallography workflows Design of crystallization screens Development of computational tools for structural analysis Enzyme mechanism characterization Protein structure-function relationships Her recent publications emphasize enzyme engineering, structural virology, and sustainable biotechnology, with consistent output in high-impact journals. Professional contributions include editorial leadership and co-organization of major crystallography training programs. She established CSIRO's Collaborative Crystallisation Centre, demonstrating expertise in laboratory design and technology implementation.

Dominic GloverView profile

Senior Lecturer

• Protein Engineering
• Synthetic Biology
• Biomaterials
• +5 more

Dr. Dominic Glover is a Senior Lecturer at the University of New South Wales (UNSW) in the School of Biotechnology and Biomolecular Sciences, a position he has held since 2017. Prior to this, he served as a Project Scientist, Associate Specialist, and Postdoctoral Research Fellow in the Department of Chemical and Biomolecular Engineering at the University of California, Berkeley from 2010 to 2016. Dr. Glover's research focuses on applying synthetic biology for the engineering of proteins into structured and functional biomaterials. His work centers on creating standardized protein building blocks composed of ultrastable filamentous proteins and connectors that assemble into geometrically-defined structures of controllable size and shape. This research has significant implications for developing protein nanostructures with atomic-level accuracy, opening new possibilities in biomaterials including electrically conductive protein nanowires for biosensors and enzyme catalysis, engineered metabolic pathways, and tissue scaffolds for regenerative medicine. Analysis of Dr. Glover's recent publications reveals a strong focus on protein self-assembly, biomaterials engineering, and the development of protein-based nanotechnologies. His work spans multiple disciplines including structural biology, nanotechnology, bioelectronics, and synthetic biology. A notable trend in his research is the application of protein engineering principles to create functional biomaterials with specific electronic, catalytic, and structural properties. His team has made significant contributions to understanding protein filament assembly, developing purification methods for protein nanostructures, and creating conductive protein nanowires for energy applications. Dr. Glover has established collaborative research relationships with scientists both within UNSW and internationally, particularly with researchers at the University of California, Berkeley. His laboratory appears to focus on protein engineering approaches to create novel biomaterials with applications in energy harvesting, biosensing, and regenerative medicine. While specific grant information is not provided in the available text, his extensive publication record suggests successful funding for his research program.

Matthew T. FlavinView profile

Assistant Professor

• Neuroengineering
• Neural Interfaces
• Haptics
• +6 more

Matthew T. Flavin is an Assistant Professor in the School of Electrical and Computer Engineering at the Georgia Institute of Technology, leading the Flavin Neuromachines Lab. His research develops neural interfaces and mechatronic wearables using advanced sensors and intelligent systems to address critical challenges in patient care and therapeutic applications. Education: Ph.D. in Electrical Engineering, Massachusetts Institute of Technology (MIT), 2021 M.S. in Electrical Engineering, MIT, 2017 B.S. in Electrical Engineering, University of Illinois at Urbana-Champaign, 2015 Prof. Flavin's work bridges neuroengineering , flexible electronics , and clinical applications , with emphasis on peripheral neural interfaces and extended reality systems . His research program focuses on creating wearable bioelectronics that enable haptic sensory substitution, epidermal molecular monitoring, and targeted pain management through innovative electrochemical approaches. Recent publications in Nature and PNAS reveal a consistent trajectory toward clinically translatable technologies, featuring strong interdisciplinary collaboration and emphasis on non-invasive solutions for patient care. His work demonstrates particular expertise in bioelastic materials and wireless sensing platforms. Scientific recognition: NIH Ruth L. Kirschstein Institutional National Research Service Award (T32) Draper Laboratory Fellowship Prof. Flavin actively mentors students in his lab and serves the broader community through roles like IEEE BSN conference co-chair. His research program shows strong momentum with multiple high-impact publications annually, supported by competitive funding mechanisms. The Flavin Neuromachines Lab operates as an interdisciplinary hub at Georgia Tech, combining engineering rigor with clinical insights to develop next-generation neural mechatronics systems. Current projects focus on real-world implementation of wearable technologies for therapeutic applications, with strong emphasis on user-centered design and physiological validation.

Robert NawrockiView profile

Associate Professor

• Organic Electronics
• Bioelectronics
• Neuromorphic Systems
• +7 more

Robert Nawrocki is an Associate Professor at Purdue University's School of Engineering Technology (SoET), specializing in organic electronics, bioelectronics, and neuromorphic systems. His research focuses on developing ultra-thin, flexible, and biocompatible electronic devices for biopotential monitoring, soft robotics, and smart materials. Education: PhD in Engineering (2014) and M.S. in Computer Engineering (2011) from the University of Denver; B.S. in Computer Engineering from NJIT (2004). Key Research Areas: Physically flexible organic electronics, neuromorphic systems, piezoelectric/chemical sensors, and soft robotics. His work has advanced 3D-printed functional materials, including the world's thinnest organic electronics skin (sub-300 nm) with tactile sensors and polymer neuromorphic circuits capable of pattern recognition. Recent publications emphasize applications in precision agriculture, wearable healthcare monitoring, and hardware-level spiking neural networks. He has received prestigious awards such as the 2021 Office of Naval Research Young Investigator Award and 2021 Ralph W. and Grace M. Showalter Research Trust Award. Scientific Awards: 2021 ONR Young Investigator 2021 Showalter Research Trust 2023 Collins Aerospace & USDA IEEE Best Paper Award (2011) Advising: Mentors current PhD and Master's students in organic electronics and neuromorphic systems. Labs: Leads the Laboratory of Organic Bio-Electronics (LOBE), a hub for interdisciplinary research in bio-compatible sensors and printed electronics.

• Chemical Biology
• Peptide Engineering
• Supramolecular Chemistry
• +5 more

Miguel Vázquez López is a Full Professor at the University of Santiago de Compostela (USC), Spain, leading the Vázquez López / Vázquez Sentís research group within the CiQUS research center. His work bridges Chemistry and Biology through peptide engineering and supramolecular chemistry, driven by the principle that 'much of life can be understood in rational terms if expressed in the language of chemistry'. His research focuses on three interconnected domains: (1) synergistic integration of coordination chemistry and peptide engineering to develop DNA-binding agents targeting non-canonical structures like G-quadruplexes and three-way junctions; (2) creation of fluorescent probes for biomolecules (RNA, oncoproteins) and cellular processes, including mitochondrial trackers such as MitoBlue; (3) peptide engineering for advanced materials like templated metal nanoclusters and conductive peptides. This multidisciplinary approach combines chemical synthesis, biophysical methods, and computational chemistry. Recent publications reveal strong trends in peptide-based therapeutics for neurological disorders, non-aromatic fluorescence mechanisms in structural peptides, and metallopeptide catalysis using combinatorial libraries. These reflect the group's emphasis on developing chemical tools for biomedical applications, particularly in DNA recognition and mitochondrial function monitoring. Prof. Vázquez López leads major projects including the H2020-funded 'Engineered Conductive Proteins for Bioelectronics (e-Prot)' and national grants from MCIN | AEI | FEDER for anticancer/anti-COVID-19 metallopeptide tools. His laboratory mentors seven researchers across postdoctoral and doctoral levels, with completed theses on DNA junction recognition and peptide-based nanomaterials. The group operates within the ChemBioUSC initiative, maintaining a highly collaborative environment for chemical biology innovation.

• Microelectronics
• Nanoelectronics
• Quantum Computers
• +2 more

Karafyllidis Ioannis is a Professor at the Department of Electrical and Computer Engineering, School of Engineering, Democritus University of Thrace. His work focuses on microelectronics, nanoelectronics, quantum computing, and bioelectronics. He has extensive academic experience, including collaborations with institutions like UC Berkeley, TiiMS, and the Institute of Nanotechnology. Researcher in 12 national/international programs Editor for 3 international journals 42+ reviewer roles in scientific journals 95+ publications with 2,100+ citations Research Trends: His recent publications highlight interdisciplinary work at the intersection of quantum computing, graphene-based electronics, and biological systems modeling. Key themes include memristive devices for neuromorphic computing, quantum cellular automata architectures, and simulations of bacterial communication mechanisms. Teaching: Offers undergraduate courses in Microelectronics and Quantum Computers, and postgraduate courses in Nanoelectronics and Quantum Information Processing. Laboratory: Works in the Integrated Circuits Laboratory, focusing on design, modeling, and simulation of micro/nanoelectronic components and systems.

George KnopfView profile

Professor

• Bioelectronics
• Biosensors
• Laser Materials Processing
• +9 more

George Knopf serves as a Full Professor in the Department of Mechanical and Materials Engineering within the Faculty of Engineering at the University of Western Ontario, London, Canada. He also directs the Engineering in Medicine collaborative specialization and is a Western Space Investigator with research domains in Advancing Space Technology and Earth Observation for Societal Impact. Dr. Knopf's research spans bioelectronics, biosensors, laser materials processing, flexible optical sheets, imaging technology, and engineering design. His work focuses on developing degradable carbon-based printed electronic sensors and microdevices for IoT applications, with notable past contributions including patented technologies for unconstrained surface geometry measurement (USA patent 6,542,249) and bio-electronic imaging arrays (USA Patent No. 7,573,024). His research interests have expanded into space health, rural healthcare, planetary processes, and big data analytics. His recent publications demonstrate strong trends in flexible electronics, biodegradable sensors, and bio-integrated devices, with significant emphasis on graphene-cellulose composites, bacteriorhodopsin-based transducers, and elastomeric optical systems. The research shows consistent progression from fundamental materials science toward practical IoT and space applications, with increasing focus on disposable and environmentally responsive sensor systems. Dr. Knopf has trained over 60 highly qualified personnel (HQP) including post-doctoral fellows, doctoral candidates, masters students, and undergraduate research assistants from diverse countries including Brazil, India, Israel, Libya, Mexico, Nigeria, Tunisia and USA. He has served as a technical reviewer for numerous academic journals, conferences, and granting agencies globally. He co-authored the books Biofunctionalized Photoelectric Transducers for Sensing and Actuation (SPIE Press 2017), Light Driven Micromachines (CRC Press 2018), and co-edited Smart Biosensor Technology (CRC Press 2019), establishing himself as a leading authority in bioelectronic sensing and actuation systems.

Mohsen KhodadadiyazdiView profile

Assistant Professor

• Bioelectronics
• Biomaterials
• Tissue Engineering
• +5 more

Mohsen Khodadadiyazdi serves as an Assistant Professor at the Institute of Nanotechnology and Materials Engineering within the Faculty of Applied Physics and Mathematics at Gdańsk University of Technology. His research focuses on advanced biomaterials with applications spanning bioelectronics, tissue engineering, and sustainable drug delivery systems. Based at Centrum Nanotechnologii A, room 4/26, he actively contributes to cutting-edge nanotechnology research and interdisciplinary collaborations. His primary research interests include the development of hydrogel membranes for organ-on-a-chip devices, stimuli-responsive carbohydrate polymer systems for drug delivery, and laser-induced graphene applications in electrochemical sensing. His work bridges materials science with biomedical engineering, particularly in wound healing technologies and sustainable biomaterial design. Key methodologies involve atom transfer radical polymerization (ATRP), 1D/2D heterojunction engineering, and bioprinting techniques. Dr. Khodadadiyazdi's recent publications demonstrate strong trends in sustainable biomaterials development, with significant focus on hydrogel-based systems for environmental and medical applications. His 2024-2025 publications reveal a clear trajectory toward multifunctional materials that integrate nanotechnology with biological functionality, particularly in bioelectronic interfaces and drug delivery platforms. He participates in research projects funded by the Miniatura 7 grant (DEC-2023/07/X/ST5/01377), which supports investigations into conductive hydrogel composites and 3D-printed microneedles. His laboratory work involves electrochemical measurements, SEM imaging, and photopolymerization techniques for biomaterial fabrication. As an educator, Dr. Khodadadiyazdi contributes to the "Advances in Functional Materials 2024" summer school, delivering lectures and laboratory classes for PhD and MSc students. His teaching focuses on practical applications of advanced materials engineering principles through 40 hours of direct contact instruction.