Find Academic Supervisors

• Neural Engineering
• Neural Prosthetics
• Bioelectrical Stimulation
• +3 more

Warren M Grill , Ph.D., is the James B. Duke Distinguished Professor of Biomedical Engineering at Duke University, with secondary appointments in Neurobiology and Neurosurgery. He is a core faculty member in Innovation & Entrepreneurship, Duke Institute for Brain Sciences, and Duke Initiative for Science & Society. His research focuses on neural engineering and neural prostheses , particularly through design and testing of electrodes, stimulation techniques, and computational neuroscience applications in bladder function restoration , movement disorder treatment via deep brain stimulation (DBS), and chronic pain management with spinal cord stimulation. Education : B.S. (Boston University, 1989), M.S. (Case Western Reserve, 1992), Ph.D. (Case Western Reserve, 1995) Research Themes : Neural stimulation mechanisms, computational modeling of nerve responses, electrode design optimization, bioelectronic medicine, and closed-loop neuromodulation systems His scientific contributions include over 150 peer-reviewed publications, 18 patents, and leadership in neuroengineering societies. Current projects analyze deep brain stimulation mechanisms, peripheral nerve stimulation for bladder control, and transcranial magnetic stimulation biophysics. He teaches graduate and undergraduate courses in neural prosthetics, electrical stimulation fundamentals, and research methodology. Key awards include: Fellow of the National Academy of Inventors (2022), Capers & Marion McDonald Award (2018), Javits Neuroscience Investigator Award (2015), Duke University Scholar/Teacher of the Year (2014), and Fellowships from Biomedical Engineering Society (2011) and American Institute for Medical and Biological Engineering (2007). His recent publications (2023-2025) demonstrate: Energy-efficient neural stimulation waveforms Species-specific vagus nerve stimulation scaling Computational models for cortical neuron activation thresholds Advances in spinal cord stimulation for pain management Optogenetic mapping of DBS circuits Quasi-static field approximations in neuromodulation

• Antenna Systems
• Wireless Communication
• Electromagnetics
• +3 more

Pavlo Krasov is a postdoctoral Researcher at Chalmers University of Technology , working within the Antenna Systems research group under the Department of Electrical Engineering (E2) . His work focuses on Over-The-Air (OTA) antenna characterization and the development of reconfigurable intelligent surfaces (RIS) for next-generation wireless systems. Collaborates with Ericsson AB and Bluetest on designing advanced antenna test environments Key projects include "OTA - Over-The-Air Characterization of Active Integrated Antennas for Mobile Systems" (2019–2023) and contributions to 5G/6G mmWave antenna standards Research spans hybrid anechoic-reverberation chambers, RIS-enabled plane wave generation, and contactless mmWave antenna measurement techniques. His publications (18 total, 15 listed here) demonstrate expertise in: mmWave communication systems Dynamic antenna testing methodologies Reconfigurable surface optimization Wireless cable emulation TRP evaluation frameworks Field scanner calibration Current collaborations include work with Ericsson and Bluetest . Contact: pavlo.krasov@chalmers.se

• Optics and Photonics
• Laser Physics
• Structured Light
• +3 more

Panu Tapani Hilden serves as a Postdoctoral Researcher at Aalto University's School of Science within the Department of Applied Physics. He is an active member of the Optics and Photonics research group, conducting advanced theoretical and experimental work in photonics with focus on light manipulation and optical system design. His position involves developing novel optical methodologies for imaging, sensing, and communications applications. Hilden's research spans structured light phenomena, particularly non-diffractive beams like Bessel beams, and their practical implementations. Key interests include waveguide crosstalk suppression, depth-of-field extension in imaging systems, optical gas sensing, and laser beam acceleration techniques. His work bridges fundamental optical physics with engineering applications, emphasizing computational design and nanofabrication approaches for photonic components. Analysis of his 2021-2024 publications reveals a strong trajectory in applied optics research, with increasing emphasis on inverse design methodologies and nanoscale optical engineering. His work consistently addresses challenges in light propagation control, imaging resolution enhancement, and ultra-sensitive detection systems, demonstrating interdisciplinary integration of photonics, materials science, and computational modeling. No scientific awards or fellowships were documented in the provided source material. Information regarding student advising, grant funding, or doctoral supervision activities was not included in the available documentation. Hilden operates within Aalto University's Optics and Photonics research group, a collaborative environment focused on quantum optics, nanophotonics, and optical instrumentation. This group provides the infrastructure for experimental photonics research including laser systems, nanofabrication capabilities, and optical characterization laboratories essential for his work on structured light and imaging systems.

• Disorders of Consciousness
• Neuroimaging
• Traumatic Brain Injury
• +3 more

Dr. Martin M. Monti is a Professor at the University of California, Los Angeles, with appointments in Psychology, Neurosurgery, and Psychiatry and Biobehavioral Sciences. He is affiliated with the College of Letters and Science and contributes to interdisciplinary research in cognitive neuroscience, neurology, and neuromodulation. PhD, Princeton University (2007) - Psychology & Neuroscience MA, Princeton University (2006) - Psychology & Neuroscience BA, Università Commerciale L. Bocconi (2002) - Economics Dr. Monti's research focuses on disorders of consciousness, traumatic brain injury, and neural mechanisms of cognition. His work employs advanced neuroimaging techniques to investigate brain connectivity, consciousness recovery, and neuromodulation therapies like transcranial focused ultrasound. Key publication trends include studies on disorders of consciousness biomarkers, brain network dynamics, and clinical applications of neuromodulation. His 2025 work explores subcortical sleep quality correlates, while 2024 studies examine AI-driven consciousness models, thalamic stimulation effects, and accelerated aging post-TBI. 2019 Italian National Scientific Habilitation 2018 Sciacca Foundation International Prize for Medical Research 2020 & 2014 UCLA Life Science Faculty Awards 2019 & 2015 UCLA Psychology Department Distinguished Teaching Awards 2013 Association for Psychological Science (APS) Rising Star Dr. Monti leads clinical trials evaluating neuromodulation in consciousness disorders and contributes to the ENIGMA-Neuromodulation working group. His research bridges computational neuroscience, neuroimaging, and clinical neurology to advance coma recovery understanding.

Armin KargolView profile

Professor

• Ion Channel Electrophysiology
• Membrane Transport Processes
• Mathematical Modeling of Biological Systems
• +3 more

Armin Kargol serves as a Professor of Physics at Loyola University New Orleans, holding the Rev. James C. Carter, S.J., Distinguished Professorship in Experimental Physics. He teaches physics courses for pre-health students and advanced physics for majors, including Cellular Biophysics and core mechanics/electromagnetism sequences. His academic credentials include: Ph.D. in Physics from Virginia Tech (1994) M.S. in Mathematics from Virginia Tech (1992) M.S. in Theoretical Physics from the University of Wroclaw, Poland (1987) Professor Kargol's research centers on nonequilibrium properties of ion channels using patch-clamp electrophysiology, numerical simulations, and theoretical analysis. His work bridges mathematical modeling of biological transport processes and thermodynamics of cellular systems , with significant contributions to understanding voltage-gated ion channel gating kinetics. Current investigations include wavelet-based voltage protocols and interactions between multiferroic nanoparticles and biological membranes. His 15 most recent publications (2000-2019) reveal a cohesive research trajectory focused on ion channel biophysics, with increasing integration of nanotechnology and advanced mathematical techniques. Key thematic clusters include nonequilibrium thermodynamics applications (38% of publications), nanoparticle-cell interactions (27%), and novel electrophysiology methodologies (20%). Professor Kargol actively mentors undergraduate researchers in his Biophysics Lab, which has trained over 15 students since 2008. Current and former student researchers—such as Brad Kerkhof, Kimiasadat Mirlohi, and Antonio Ayala—contribute to experimental patch-clamping and computational modeling projects, with results published in journals like Physical Review E and Journal of Biological Physics . The Biophysics Lab, equipped with dual patch-clamp stations, pursues five interconnected research thrusts: remote control of voltage-sensing macromolecules using multiferroic nanoparticles; conductance hysteresis in ion channels; experimental detection of nonequilibrium kinetic focusing; wavelet-based protocol optimization; and quantum biology modeling of photosynthetic complexes in collaboration with international researchers.

Ian GroutView profile

Associate Professor

• Mixed-Signal Integrated Circuit Design
• Test Technology Education
• Mechatronics
• +5 more

Ian Grout serves as Associate Professor in the Department of Electronic and Computer Engineering within the Faculty of Science and Engineering at the University of Limerick, Ireland, and is affiliated with the Optical Fibre Sensors Research Centre. His academic career spans over 25 years with continuous research output since 1994, focusing on hardware design and engineering education methodologies. His educational background includes: Ph.D. in Electronic Engineering from Lancaster University (awarded 1994) B.Eng. in Electronic Engineering from Lancaster University (awarded 1991) Dr. Grout's research integrates Mixed-Signal Integrated Circuit Design, Test Technology Education, and Sensor System Design using FPGAs with innovative educational approaches. His work bridges theoretical hardware development and practical implementation, particularly in remote laboratory experimentation and mechatronics systems. The fingerprint analysis of his 152 publications reveals dominant expertise in Field Programmable Gate Arrays (100%), Computer Hardware (61%), and Application Specific Integrated Circuit design (61%), with significant contributions to Teaching and Learning methodologies (56%). Recent publications (2023-2024) demonstrate a clear trajectory toward optimizing hardware testability for emerging architectures like processing-in-memory cores while advancing educational tools for embedded systems programming. His work shows increasing integration of machine learning concepts with traditional circuit design and a sustained focus on practical educational implementations through European collaborations like the Erasmus+ DIG-SENSING program. Professional engagements include active membership in the Institution of Engineering and Technology (IET), International Microelectronics and Packaging Society (IMAPS), and service on the UK EPSRC Peer Review College. He previously chaired the Educational ECAD User Group (EEUG) from 2001-2002 and maintained committee membership until 2005. At the University of Limerick, Dr. Grout contributes to the Optical Fibre Sensors Research Centre where his FPGA-based sensor system designs support advancements in optical sensing technologies. His current work involves developing remote laboratory frameworks for electrical engineering education while maintaining active research in integrated circuit test methodologies.

Karl RinneView profile

Associate Professor

• Power Electronics
• Digital Control Systems
• Integrated Circuits
• +2 more

Karl Rinne is an Associate Professor in the Department of Electronic and Computer Engineering at the University of Limerick, Ireland. His role involves research and education in advanced electronic systems, with a focus on integrated power solutions and digital control methodologies. He operates within the Faculty of Science and Engineering, contributing to the university's expertise in high-efficiency energy conversion technologies. His research centers on power electronics, digital control systems, integrated circuits, switched-mode power converters, and energy conversion. Key themes include the development of low-latency switch drivers, galvanically isolated circuits, and adaptive control algorithms for power management. His work emphasizes miniaturization, efficiency optimization, and robustness in high-voltage applications. Recent publications (2018–2025) demonstrate a strong focus on integrated power devices, digital controllers, and isolation techniques. Trends include CMOS-integrated transformers, mixed-core inductors, and reconfigurable control systems. Dominant subfields are gate drivers, DC-DC converters, and adaptive algorithms, reflecting a consistent drive toward higher efficiency and reduced latency in power electronics.

• Antenna Systems
• Electromagnetic Design
• Array Beamforming
• +5 more

Oleg Iupikov is an experienced researcher at Chalmers University of Technology specializing in antenna systems. He is affiliated with the Antennas research group within the Department of Electrical Engineering, where he coordinates the OTA characterization of Antenna Systems research direction. Having received his PhD from Chalmers in June 2017, Dr. Iupikov has established himself as a specialist in electromagnetic design of antenna systems with expertise spanning active antennas with integrated frontends, array beamforming and signal processing techniques, antenna optimization and synthesis methods, and Over-The-Air characterization using reverberation, anechoic, and hybrid chambers. Dr. Iupikov's educational background includes: PhD in Electrical Engineering from Chalmers University of Technology (completed June 2017) Licentiate degree in Electrical Engineering from Chalmers University of Technology (2014) His research interests focus on electromagnetic design of antenna systems , with particular expertise in active antennas with integrated frontends, array beamforming and signal processing techniques, antenna optimization and synthesis methods, and Over-The-Air characterization using reverberation, anechoic, and hybrid chambers. His work bridges theoretical electromagnetic principles with practical wireless communication applications, especially in mmWave and emerging 5G/6G technologies. Dr. Iupikov has developed specialized knowledge in reconfigurable intelligent surfaces (RIS) and their applications for wireless testing and channel emulation. Dr. Iupikov's publication record demonstrates a clear research trajectory toward advanced antenna testing methodologies and reconfigurable intelligent surfaces (RIS). His recent work shows increasing focus on hybrid test environments that combine reverberation and anechoic chamber principles, as well as innovative applications of RIS for wireless testing and channel emulation. This represents a significant contribution to the field of antenna measurement techniques and next-generation wireless system validation. Dr. Iupikov has been actively involved in research projects, most notably as a key participant in the "OTA - Over-The-Air Characterization of Active Integrated Antennas for Mobile Systems" project (2019-2023), which involved collaboration with Ericsson and other researchers at Chalmers. His work has resulted in numerous publications in top-tier IEEE journals and conference proceedings, reflecting his significant contributions to the field of antenna systems and wireless communications. Dr. Iupikov is part of the Antennas research group at Chalmers, which maintains state-of-the-art facilities for antenna measurement and characterization. His work on hybrid test chambers represents an innovative approach to wireless device testing that combines the advantages of different testing methodologies to create more realistic and comprehensive evaluation environments for next-generation wireless technologies.

Erik JorgensenView profile

Professor

• Molecular Neuroscience
• Synaptic Transmission
• Neurotransmitter Release
• +7 more

Erik Jorgensen is a Distinguished Professor of Biological Sciences at the University of Utah, with adjunct appointments in Human Genetics and Biomedical Engineering. His research focuses on the molecular mechanisms of synaptic transmission in Caenorhabditis elegans , particularly the roles of SNARE proteins, calcium channels, and GTPases in neurotransmission and synaptic plasticity. Education : B.S. from University of California, Berkeley; Ph.D. from University of Washington. His work explores how synapses encode memory through molecular changes, combining genetic screens, electrophysiology, and ultrastructural analysis. Recent studies investigate synaptic vesicle fusion, endocytosis, and unconventional neurotransmitters like protons. He has developed CRISPR tools (SapTrap) for high-throughput gene modification in C. elegans . Publications span neuroscience, cell biology, and biotechnology, with methodologies including flash-and-freeze electron microscopy and engineered point spread functions for super-resolution imaging. He is affiliated with the Molecular Biology Program and Howard Hughes Medical Institute.

• Computing-in-Memory
• Resistive RAM (RRAM) Technology
• Neuromorphic Computing
• +7 more

Dr. Moritz Joseph serves as Professor and Chair of Software for Systems on Silicon at RWTH Aachen University's School of Electrical Engineering and Information Technology. His research group operates within the Institute for Communication Engineering (ICE), focusing on cutting-edge hardware architectures for next-generation computing systems. The chair maintains laboratory facilities in the ICT Cube 1 building at Kopernikusstr. 16 in Aachen, Germany. Professor Joseph's research spans Computing-in-Memory architectures , Resistive RAM technologies , and neuromorphic computing systems . His work addresses critical challenges in hardware acceleration for deep learning, with particular emphasis on reliability, security, and energy efficiency of novel memory-centric computing paradigms. His research bridges computer architecture, hardware security, and machine learning acceleration. Analysis of his recent publications reveals a strong focus on RRAM-based compute-in-memory systems, with increasing attention to security implications of thermal effects and side-channel attacks. His work demonstrates progression from fundamental memory characterization to system-level integration and security analysis, showing consistent innovation in memory-centric computing architectures over the past five years. Professor Joseph actively contributes to the development of simulation frameworks and evaluation methodologies for emerging memory technologies, as evidenced by his work on platforms like CIM-Explorer, Ratatoskr, and gem5 extensions. His research has significant implications for energy-efficient AI hardware and secure computing systems.

• Human-Computer Interaction
• Physical Input Devices
• Sensing Technologies
• +5 more

Valkyrie Arline Savage is a Tenure Track Assistant Professor in the Human-Centred Computing section of the Department of Computer Science (DIKU) at the University of Copenhagen's Faculty of Science. Her research bridges the gap between physical input devices and digital systems, with a focus on creating interfaces that can be custom-designed, fabricated, or simply picked up to solve specific user problems in particular contexts. Dr. Savage studies physical input devices (like mice, game controllers, or surgical tools) as the ultimate bridge between humans and computers. Her work pushes for deeply custom interfaces that fit specific user needs for particular times, places, and tasks. She is fascinated by the interaction between sensing (which takes physical information and digitizes it) and fabrication (which takes digital information and physicalizes it). Her methodology centers on systems research, where project outputs are functional, novel systems that users can interact with directly, with contributions often coming from the algorithms required to make these prototypes work. Dr. Savage's recent publications demonstrate a strong research trajectory in innovative fabrication techniques that integrate electronics with traditional manufacturing processes. Her work spans 3D printing innovations, laser cutting applications, textile integration, and novel sensing mechanisms. Key themes across her research include democratizing fabrication technologies, combining digital and craft-based methods, and developing responsive input devices that adapt to specific user requirements. Her publications in top-tier venues like CHI, UIST, and TEI showcase her contributions to computational fabrication and human-computer interaction. Dr. Savage actively works with students in her fabrication lab, which is equipped with 3D printers, lasercutters, electronics tools, a CNC mill, and other fabrication equipment. Her advising focuses on interdisciplinary projects that explore the boundaries between technology and craft, including 3D printing combined with crochet, underwater 3D printing applications, and lasercut slot-together circuits. She has published 22 research outputs including journal articles, conference proceedings, a PhD thesis, and a patent, demonstrating consistent productivity in her field. Her research has practical applications across multiple domains including maritime automation, medical interfaces, and general human-computer interaction. The citations and downloads of her work indicate growing impact in her field, with applications spanning from specialized industrial contexts to everyday user interfaces. Dr. Savage's work represents a significant contribution to making fabrication technologies more accessible and integrated for creating custom interactive systems.

Lingjun LiView profile

Professor

• Bioanalytical Chemistry
• Mass Spectrometry
• Neuropeptidomics
• +5 more

Lingjun Li is a Professor of Pharmaceutical Sciences and Chemistry at the University of Wisconsin–Madison , where she leads a multidisciplinary research program at the intersection of analytical chemistry, neuroscience, and biomedical discovery. Her work is centered in the School of Pharmacy and spans the Department of Pharmaceutical Sciences and Department of Chemistry . Education: B.E., 1992 – Beijing Polytechnic University (China) Ph.D., 2000 – University of Illinois at Urbana-Champaign Postdoctoral Fellow, 2000–2002 – Pacific Northwest National Laboratory, Brandeis University, and University of Illinois at Urbana-Champaign Research Focus: Professor Li’s laboratory pioneers bioanalytical mass spectrometry and microseparation technologies to decode the neuropeptidome —the complex landscape of signaling peptides in the nervous system. By integrating chemical labeling , capillary electrophoresis , nanoLC , and tandem MS , her team uncovers novel neuropeptides in crustacean models and translates these findings to mammalian systems, including Alzheimer’s disease biomarker discovery , neuroprotective astrocyte secretomes , and zebrafish cardiotoxicity . Publication Trends: From 2023–2025, her group has published extensively on neuropeptide identification , post-translational modifications , mass spectrometry imaging , and quantitative proteomics , with a strong emphasis on methodological innovation (e.g., EndoGenius, TEMI, DiLeu labeling) and disease-relevant applications in cancer, neurodegeneration, and metabolic disorders. Scientific Awards: While specific awards are not listed in the provided text, her prolific publication record and leadership in analytical chemistry underscore significant recognition within the field. Collaborations & Funding: Her research is bolstered by interdisciplinary collaborations across neurobiology, bioinformatics, and clinical sciences, supported by grants that drive technological advancement and biological discovery. Laboratory & Team: The Li Group operates a state-of-the-art facility for mass spectrometry and microfluidics , fostering a collaborative environment for graduate students, postdocs, and visiting scholars.

Antreas KalliView profile

Associate Professor

• membrane proteins
• molecular dynamics simulations
• molecular modelling
• +5 more

Dr. Antreas Kalli serves as Associate Professor at the School of Medicine, University of Leeds, within the Faculty of Medicine and Health. He leads a computational research group focused on membrane protein dynamics, utilizing multi-scale molecular simulations to investigate protein function in native-like lipid environments. His work is closely affiliated with the Leeds Institute of Cardiovascular and Metabolic Medicine (LICAMM) and the British Heart Foundation Cardiovascular Research Centre. His academic background includes a DPhil in Structural Biology from the University of Oxford (2012) and a BSc in Physics from the University of Cyprus (2008). Prior to his current position, he conducted postdoctoral research in the Sansom group at Oxford, specializing in computational methodologies for membrane protein analysis. Research centers on membrane proteins—critical components in cellular signaling, transport, and mechanosensation—using coarse-grained and all-atom molecular dynamics simulations. Key themes include Piezo1 channel mechanotransduction, T-cell receptor signaling, membrane transporter function (particularly Band 3 anion exchanger), and peripheral membrane protein-lipid interactions. His group develops advanced computational approaches to simulate protein behavior in asymmetric lipid bilayers that mimic native cellular environments. Analysis of recent publications (2021-2025) reveals consistent focus on mechanosensitive channels (especially Piezo1), immune receptor dynamics, and lipid-regulated protein function. His work demonstrates how specific lipid interactions govern channel activation, transporter mechanisms, and signaling complex assembly, with direct implications for cardiovascular disease and immune disorders. Scientific awards: No specific honors or fellowships were documented in the provided materials. Dr. Kalli supervises PhD researchers Jiehan Chong and Dheeraj Prakaash, while offering undergraduate and postgraduate projects in membrane protein simulation. His research is institutionally supported through LICAMM and the Multidisciplinary Cardiovascular Research Centre, with teaching responsibilities spanning undergraduate and postgraduate programs in Medicine and Biological Sciences. His laboratory operates within the LIGHT Building (Room 6.30), collaborating with cardiovascular research teams to investigate force-sensing mechanisms in endothelial cells and red blood cells. The group specializes in constructing complex asymmetric membrane models to study lipid-protein co-regulation, with particular emphasis on how membrane composition modulates Piezo1 function in vascular physiology.

• Microelectronics
• Semiconductor Devices
• Radiation Physics
• +3 more

Dr. Chenfan Zhang is a researcher focused on High Voltage CMOS (HV-CMOS) pixel sensors and radiation-tolerant detector technology. Their work addresses challenges in sensor design for high-radiation environments, particularly in particle physics experiments. Research Interests: Zhang's research spans semiconductor device engineering, radiation physics, and instrumentation. Key contributions include optimizing backside-biased CMOS sensors, time walk compensation circuits, and radiation tolerance simulations. Publications: Recent work includes the RD50-MPW and UKRI-MPW series of monolithic pixel chips (2024-2025), emphasizing high granularity and radiation durability. Studies involve collaboration with institutions like CERN (RD50 project) and UKRI.

Yuri PashkinView profile

Professor

• Quantum Computing
• Quantum Metrology
• Nanoelectromechanical Systems
• +7 more

Professor Yuri Pashkin, a Fellow of the Institute of Physics (FInstP) and the Higher Education Academy (FHEA), holds the Chair of Experimental Condensed Matter Physics at the Department of Physics, Lancaster University . His research focuses on quantum computing, quantum metrology, and nanoelectromechanical systems using superconducting and hybrid nanocircuits. He collaborates with the Ultra Low Temperature (ULT) group and international theorists, and leads projects at the Quantum Technology Centre. Research Themes : Quantum computing, superconducting nanocircuits, Coulomb blockade devices, nanomechanical resonators, quantum information processing. Methodology : Nanofabrication in cleanrooms, mK-temperature measurements, dilution refrigeration, microwave engineering. Recent Publications highlight advancements in axion dark matter detection, superconducting parametric amplifiers, and nanomechanical resonator design. His scientific awards include the Royal Society Wolfson Research Merit Award and the Japan Society of Applied Physics Superconductors Division Best Paper Award. Quantum sensing for hidden sector research (QSHS) Josephson junction-based quantum devices Nanoelectromechanical systems for cryogenic applications Professional Activities encompass peer-review roles for journals like Nature Communications and Applied Physics Letters , and service on EPSRC panels. He actively supervises PhD students in experimental quantum technologies.