Sang-Joon Lee is an Associate Professor in the Department of Mechanical Engineering at San José State University. His research focuses on microfluidics for biomedical engineering and electronic displays, with emphasis on fabrication processes and fluid-structure interaction. He teaches courses in dynamics, fluid mechanics, microfluidics (ME 168), MEMS (ME 169), and biomechanics (ME 267). Education: Ph.D. and M.S. in Mechanical Engineering from MIT, B.S. from Stanford Industry Experience: Semiconductor systems engineering at Applied Materials, micro fuel cell research at Stanford His lab (http://www.sjsu.edu/mems/) explores multiphysics interactions in materials, focusing on microscale prototyping and experimental validation . Research advisees typically commit 16+ weekly hours including on-campus lab work. He previously served as Director of the Microscale Process Engineering Laboratory and Associate Director of the Materials Characterization and Metrology Center.
Olav Solgaard is a Professor of Electrical Engineering at Stanford University and Director of the Edward L. Ginzton Laboratory. He has been a faculty member at Stanford since 1999, progressing from Assistant Professor (1999-2003) to Associate Professor (2003-2012) and Full Professor (2012-present). As Director of the Ginzton Laboratory since 2008, he oversees one of Stanford's premier research centers focused on lasers, photonics, and applied physics. Professor Solgaard's research spans several interconnected areas centered around optical MEMS and photonic devices. His work includes the development of photonic crystal structures for optical filtering and sensing applications, MEMS-based scanning systems for biomedical imaging, and novel approaches to miniaturizing optical systems. A significant portion of his recent work focuses on dual-axis confocal microscopy systems for in vivo medical imaging, with applications in dermatology and gastrointestinal diagnostics. His research integrates microfabrication techniques with optical engineering principles to create practical devices that bridge fundamental science and clinical applications. His publication record shows consistent productivity with over 300 technical papers. His work appears in top journals including IEEE Journal of Microelectromechanical Systems, Optics Express, and Applied Physics Letters. Professor Solgaard has received numerous honors including being named a Fellow of the Optical Society of America (2008) and Fellow of the Norwegian Academy of Technological Sciences (2010). He was a Terman Fellow at Stanford (1999-2002) and received the NSF CAREER Award (1998). Fellow of the Optical Society of America (2008) Fellow of the Norwegian Academy of Technological Sciences (2010) Member of The Royal Norwegian Society of Sciences and Letters (2008) Terman Fellow, Stanford University (1999-2002) National Science Foundation CAREER Award (1998) Royal Norwegian Councils for Scientific and Industrial Research Fellowship (1986) Professor Solgaard has supervised numerous Ph.D. and Master's students who have gone on to successful careers in academia and industry. His research has been supported by various funding sources including the National Science Foundation, NIH, and industry partnerships. The interdisciplinary nature of his work provides students with training in multiple domains including microfabrication, optical design, and biomedical applications. As Director of the Ginzton Laboratory, he plays a key role in shaping photonics research at Stanford and fostering collaborations across engineering and medical disciplines. His laboratory focuses on developing practical optical systems with applications in medical diagnostics and treatment. Current projects include miniaturized confocal microscopes for clinical use, photonic crystal-based sensors, and advanced atomic force microscopy techniques. The lab maintains strong connections with both the engineering and medical communities at Stanford, enabling rapid translation of research concepts into clinical prototypes.
Dr. hab. inż. Wiesław Kordalski is an Associate Professor at the Department of Microelectronic Systems within the Faculty of Electronics, Telecommunications and Informatics at Gdańsk University of Technology. His academic career spans several decades, with documented teaching activities from at least 2002 through the 2024/2025 academic year. He maintains two institutional email addresses: wiekorda@pg.edu.pl and kord@eti.pg.edu.pl. His research interests focus on semiconductor device modeling, particularly MOS transistors, with emphasis on quasi-2D small-signal models, magnetic field sensors (MAGFETs), and parameter extraction methods. He has developed specialized expertise in non-quasi-static modeling of transistors for radio and microwave frequencies, with models verified up to 30 GHz. His work bridges theoretical modeling and practical implementation, addressing both fundamental semiconductor physics and engineering applications. Analysis of his publications reveals a consistent research trajectory centered on MOSFET modeling techniques, with particular focus on quasi-2D representations and non-quasi-static behavior. His work demonstrates progression from basic transistor modeling to more specialized applications like magnetic field sensors. The research shows strong methodological consistency, with recurring themes of physics-based modeling, experimental verification, and practical implementation considerations. Professor Kordalski teaches across multiple departments, primarily offering courses in Electronics, Electronic Circuits, and Electrical Engineering. His teaching portfolio includes courses for Mechanical Engineering, Mechatronics, and Medical and Mechanical Engineering programs, demonstrating interdisciplinary engagement. He has consistently taught these subjects since at least 2012, indicating substantial teaching experience and institutional commitment.
Thanasis Basdanis serves as a Post-doctoral fellow at the National Institute of Applied Sciences of Toulouse (INSA Toulouse), a leading French engineering institution. He is an integral member of the Modeling of Mechanical Systems and Microsystems (MS2M) research group, based at the Espace Clément Ader laboratory located at 3 rue Caroline Aigle, 31400 Toulouse. His scholarly work centers on advanced mechanical systems research with specialized focus areas: Mechanical Engineering Microelectromechanical Systems (MEMS) Modeling and Simulation of complex mechanical behaviors Dr. Basdanis operates within the Espace Clément Ader framework (UMR 5395), a collaborative research unit uniting INSA Toulouse, ISAE-SUPAERO, Mines Albi, and the University of Toulouse to advance innovation in mechanical systems and microtechnology development.
John P. Seymour, PhD is an Associate Professor at The University of Texas Health Science Center at Houston (UTHealth Houston) leading the Translational Bioelectronics Lab. His work spans multiple institutions through key affiliations with the Texas Institute for Restorative Neurotechnologies (TIRN) and Rice University's neuroengineering community. Dr. Seymour's educational background includes: Ph.D. in Biomedical Engineering from the University of Michigan M.S. in Biomedical Engineering from the University of Michigan B.S. in Engineering Physics from Ohio State University His research focuses on developing advanced neural interfaces to treat neurological conditions including epilepsy, aphasia, locked-in syndrome, and ALS. The Translational Bioelectronics Lab addresses critical challenges with current neurotechnology through computational electrode design, microfabrication techniques, and advanced packaging of integrated circuits. Dr. Seymour's work specifically targets reducing brain damage risks, infection potential, and improving clinical outcomes of implantable devices. His lab is part of the Texas Institute for Restorative Neurotechnologies co-directed by neurosurgeon Nitin Tandon, MD, creating a direct bridge between engineering innovation and clinical application. Analysis of Dr. Seymour's publication record reveals strong emphasis on flexible and stretchable neural interfaces, particularly for peripheral nerve applications and bladder monitoring systems. His research integrates materials science, microfabrication, and neuroscience to develop next-generation neural interfaces that minimize tissue damage while maximizing signal quality. Key trends include non-penetrating interfaces, multicolor optogenetic tools, closed-loop neural systems, and advanced materials like PEDOT/CNT coatings for improving chronic stability of neural recordings. Dr. Seymour actively mentors students through his lab which maintains strong connections with both clinical and engineering communities. The lab receives funding through multiple channels including NIH grants, institutional support from UTHealth, and collaborative projects with Rice University. His leadership in the field is evidenced by numerous patents related to neural interface technology. The Translational Bioelectronics Lab operates within specialized facilities including a 'brain kitchen' and 'biomaterials' lab designed for creative engineering work. The lab shares space at a state-of-the-art facility with Rice University neural engineers, providing access to Rice's nanofabrication facility and creating exceptional opportunities for translational neuroengineering research at the Texas Medical Center.
Dr. Ghazal Sheikholeslami serves as Senior Lecturer in Mechanical Engineering at Canterbury Christ Church University within the Sustainable Engineering and the Built Environment school. Her key appointments include: Institution: Canterbury Christ Church University Department: Mechanical Engineering Role: Course Director for BEng/MEng Mechanical Engineering programs Her research spans two primary domains: advanced manufacturing and engineering education. In manufacturing, she investigates laser forming and additive manufacturing of metals, emphasizing process optimization, thermal field dynamics, and metallurgical constraints for materials like AA6061-T6 aluminum and advanced high-strength steels. In education, she implements the CDIO (Conceive, Design, Implement, Operate) framework to enhance student learning experiences, foster growth mindsets, and develop outreach initiatives targeting future engineers—aligning with her school's sustainable engineering mission. Analysis of her 2013-2024 publications reveals consistent innovation in laser-based manufacturing techniques (sheet metal/tube forming, MEMS microfabrication) and educational methodologies. Her technical work addresses thermal efficiency and material constraints, while her pedagogical contributions focus on student engagement and recruitment pipelines. This dual-track approach bridges mechanical engineering fundamentals with transformative educational practices. Scientific Awards: No awards were referenced in source materials. Advising and Grants: Details regarding student supervision or research funding were not provided. Labs and Teams: Specific research facilities or collaborative groups were not mentioned in available documentation.
Dr. Tuan Sang Tran is a Research Fellow at Queensland Quantum and Advanced Technologies Research Institute (QUATRI), Griffith University, within the School of Engineering and Built Environment's Mechanical Engineering and Industrial Design department. He holds a PhD in Engineering from RMIT University (2021) and has previously worked as a Postdoctoral Fellow at RMIT University (2021-2022) and UNSW Sydney (2023-2024). In early 2024, he was awarded the Griffith University (Vice-Chancellor's) Postdoctoral Fellowship to advance his research on flexible sensors with 2D materials. Dr. Tran's educational background includes: PhD in Engineering, RMIT University, Melbourne, Australia (2021) M.E. (Master of Engineering), Gachon University, South Korea (2016) B.E. (Bachelor of Engineering), Industrial University of Ho Chi Minh City, Vietnam (2014) Dr. Tran's research focuses on designing interactions between nanomaterials to enable applications in flexible sensors, high-performance electronics, and renewable energy. His primary expertise is in developing microelectromechanical systems (MEMS) sensors using 2D materials, particularly for wearable device applications. By leveraging the unmatched sensitivity and flexibility of 2D materials like graphene, his work pioneers a new class of optomechanical sensors with extremely low thickness and unprecedented flexibility (2D MEMS). His research spans nanotechnology, nanomaterials engineering, and novel sensing platforms for defense and healthcare applications, with particular emphasis on piezo-optoelectronic effects in SiC semiconductors for self-powered and ultrasensitive sensors. Analysis of Dr. Tran's recent publications reveals a strong focus on nanomaterials engineering, particularly graphene and other 2D materials, for applications in sensing, energy storage, and flexible electronics. His work demonstrates expertise in materials synthesis, functionalization, and device fabrication, with an increasing emphasis on practical applications in wearable technology. A notable trend is the integration of multiple physical phenomena (piezoelectric, pyroelectric, and photovoltaic effects) in single sensor platforms, enabling self-powered, highly sensitive detection systems. His research also shows growing interdisciplinary collaboration across chemistry, materials science, and biomedical engineering, with significant contributions to sustainable manufacturing processes. Dr. Tran has received numerous prestigious awards: Lindau Nobel Laureate Meeting Fellowship (2025) Griffith University Fellowship Accelerator (2024) Griffith University Postdoctoral Fellowship (2023) Best Poster, Materials Horizons, The Royal Society of Chemistry (2022) Best Oral Presentation, Graphene Workshop 2020 Dr. Tran actively mentors the next generation of researchers, currently supervising three PhD students (Buu Ton, Duc Khanh Tran, and Muhammad Tamoor Ansar) working on advanced sensor technologies. He has also successfully guided one Bachelor's (Honors) and two Master's students to completion. His research is supported by significant funding, including the GU Postdoctoral Fellowship ($292,984), Griffith Sciences Equipment Scheme ($66,000), and previous grants from ANSTO and NAFOSTED totaling over $555,000. His current projects focus on 'Optoelectronic coupling of 2D/SiC heterojunctions for ultrasensitive wearable sensors' and 'Advancing physical sensing with two-dimensional materials.' Dr. Tran is an active member of the Queensland Quantum and Advanced Technologies Research Institute (QUATRI) and the Queensland Micro and Nanotechnology Centre at Griffith University. His laboratory specializes in advanced nanomaterials synthesis, characterization, and device fabrication, with custom-built equipment including a high-precision 2D material dry-transfer system. He collaborates extensively with researchers across Australia and internationally, and has served on organizing committees for major conferences including the World Micromachine Summit (MMS 2024) and Bio4Apps 2023.
Julien CARLIER is a Lecturer at the Institut d'Électronique, de Microélectronique et de Nanotechnologie (IEMN) within the Institut des Sciences et Techniques de Valenciennes (ISTV) at the Université de Valenciennes et du Hainaut-Cambrésis (UVHC). He currently serves as Deputy Director of IEMN DOAE since January 2020, having previously served as Head of the MAMINA research group from September 2017 to December 2019. His academic career includes membership in the CSE 63rd section of UVHC (2007-2009), serving on the Board of Directors of ISTV (2007-2012), and managing the SPI Electronics Course at ISTV (2007-2012). Dr. CARLIER earned his HDR (Habilitation à Diriger des Recherches) from the University of Valenciennes in 2016, following his Doctorate in Advanced Instrumentation and Analysis from the University of Lille 1 in 2004. His educational background includes an Engineer's degree from Polytech'Lille's Department of Instrumentation and a Master's in Advanced Instrumentation and Analysis, both obtained in 2001 from the University of Lille 1. Dr. CARLIER's research focuses on high frequency acoustics on silicon, specializing in the development of ultrasonic transducers and high frequency resonators using thin layers of ZnO and monocrystalline LiNbO 3 on silicon for RF applications. His work spans micro and nanotechnology, ultrasonic propagation for biological environment interactions, and acoustic MEMS with applications in lab-on-chip systems. He has international collaborations with Wuhan University and Fudan University in China, as well as with the University of Fanar in Lebanon and IMEC in Leuven. His publication record shows a consistent focus on high-frequency ultrasound applications, with particular emphasis on MEMS integration, acoustic wave propagation in silicon substrates, and lab-on-chip implementations. The research demonstrates progression from fundamental materials characterization to increasingly sophisticated integrated systems for both industrial and biological applications. Dr. CARLIER has coordinated significant research projects including the French-International PICS CNRS program "Lab-on-Chip for biological high frequency acoustic characterization" (2010-2012) with 21k€ funding, participation in the ARCIR project (2007-2009) with 110k€ funding, and the Interreg IV PRISTIMAT project (2008-2010) with 300k€ funding. His international collaborations have resulted in multiple joint publications with Chinese universities. He leads the MAMINA research group at IEMN, focusing on micro and nanotechnology applications in acoustics. His team works on developing high-frequency ultrasonic transducers and resonators, with applications ranging from RF components to biological characterization systems. The group maintains strong international connections, particularly with Chinese institutions, facilitating knowledge exchange and collaborative research in advanced acoustic technologies.
Dorothee DEBAVELAERE-CALLENS is an Associate Professor (Maître de Conférences HC) at ISTV, University of Valenciennes, where she has been working since 1993. Her academic career progressed from Monitor Grantee (1993-1996), to ATER (1996-1997), to Maître de Conférences (1997-2013), and finally to Maître de Conférences HC since September 2013. She earned her Doctorate in Electronics from the University of Valenciennes in 1996, with a thesis titled 'Characterization of Bone Progenitors in Culture. Development of an Ultrasound Technique for Dynamic Analysis.' Prior to this, she obtained a DEA in Ultrasound and Imaging (1993) and a Master's degree in Physics (1992), both from French universities. Her research is multidisciplinary and structured around four main axes: (I) Non-destructive characterization of bone media by ultrasonic waves; (II) Characterization of osteoblast cell adhesion by low-frequency ultrasonic detachment; (III) Characterization of biological cells in Lab-on-a-chip (Bio MEMS); and (IV) Quantification of dairy deposit adhesion and characterization of bacterial proliferation in the food industry. Her work has led to the development of specialized ultrasonic characterization methods and sensors, including a patented Lab-On-Chip technology for acoustic cell characterization at 1 GHz. Her publication record shows a consistent output of high-quality research, primarily focusing on ultrasonic characterization techniques applied to biological systems, materials science, and industrial applications. The publications demonstrate expertise in high-frequency acoustics, microfabrication, and the development of novel measurement protocols. Patent FR2940450 for 'Dispositif et procédé pour étudier une zone d'étude par onde acoustique' filed with CNRS As an educator, she serves as the pedagogical responsible for the 3rd year of License SIAMN (Science de l'Information de l'Audiovisuel et des Médias Numériques) at ISTV. Her teaching portfolio includes Optics, Hyperfrequency, Thermodynamics, and Signal Analysis courses across various engineering programs. Her research has involved collaborations with multiple institutions including the Orthopedic Surgery Department of Henri Mondor Hospital, Val de Marne Blood Transfusion Center, Groupe de Recherche sur les Biomatériaux in Lille, and INRA.
Elhadj DOGHECHE serves as Professor at the University of Valenciennes within the Institute of Technology (IUT Valenciennes), Department of Mechanical and Production Engineering. He holds leadership roles including Head of Ferroelectric Materials Activities for Energy & Photonics Applications, Research Transfer Development Officer, and elected member of the University Scientific Council. Education: 2002: Accreditation to Supervise Research (HDR), University of Valenciennes and Hainaut-Cambrésis 1993: Doctoral Thesis in Microwaves & Semiconductors, University of Lille 1 1990: Diplôme d'Etudes Approfondies (DEA) in Hyperfrequencies and Microelectronics, University of Lille 1 Research Focus: Professor DOGHECHE pioneers piezoelectric energy harvesting through advanced nanomaterial synthesis (ZnO nanowires, GaN nanostructures) and thin film engineering (cathodic sputtering). His work bridges ferroelectrics , plasmonics , and optoelectronics , targeting photovoltaic applications and energy conversion systems. Key innovations include surface plasmon modulation in III-V nitrides and hydrothermal nanostructure fabrication. Publication Trends: Analysis of his 15 most recent publications reveals dominant themes in nanoscale optoelectronics (73% of works), particularly III-V nitride characterization and plasmonic device engineering. 60% focus on energy applications, with strong emphasis on thin film growth techniques (sputtering, MOCVD, hydrothermal) and advanced optical characterization (prism coupling, terahertz spectroscopy). International collaboration is evident in 87% of papers. Professional Leadership: As founding member of Algeria's photonics society (SOAP) and coordinator of three Franco-Asian research programs (PHC Star/Merlion), he bridges European and Asian research communities. His editorial service for Applied Physics Letters and Journal of Applied Physics underscores his standing in materials photonics. Teaching & Operations: Professor DOGHECHE instructs core engineering courses including Electrotechnics, Power Electronics, and Industrial Safety across IUT programs. His administrative impact includes directing Continuing Education Studies (2003-2011) and authoring the University's Research Transfer Contract (COM). Laboratory Network: He leads the Ferroelectric Materials Activities group within UVHC's research ecosystem and maintains critical affiliations with IEMN (Lille) and the CNRS CINTRA international lab, driving semiconductor-photonics integration for energy applications.
