Dr. Bassem Badawi is a researcher at the Department of Experimental Physics at the University of Innsbruck, specializing in quantum physics and nanofabrication techniques. His work focuses on ion trapping technologies and grayscale lithography modeling, contributing to advancements in semiconductor manufacturing and quantum computing hardware. He operates within the department's research infrastructure under the leadership of Univ.-Prof. Hanns-Christoph Nägerl. Bassem Badawi's research interests include: Development of electrode structures for ion traps Mathematical modeling of grayscale lithography processes Prediction of resist characteristics in semiconductor manufacturing Quantum device fabrication techniques Advanced micro/nanofabrication methods Optimization of 3D electrode assemblies His recent publications demonstrate expertise in: Ion trap manufacturing (2024) Grayscale lithography modeling (2021-2023) Resist profile simulation Precision microfabrication
Pablo Giménez-Gómez is a researcher at Stockholm University's Department of Chemistry, specializing in microfluidic lab-on-a-chip devices for biomedical and environmental applications. With a PhD in Electrochemistry from the Autonomous University of Barcelona (2017) and extensive postdoctoral experience across Europe, he secures competitive grants and leads R&D projects with total budget of €1.1M. Chemical Engineer (2009, University of Murcia) Master in Occupational Health & Safety (2010, Bureau Veritas) Master in Electrochemistry (2011, Polytechnic University of Cartagena) PhD in Electrochemistry (2017, Autonomous University of Barcelona) His research focuses on: Microfabricated electrochemical transducers , Biofunctionalization techniques , Integrated biosensing systems , and Technological transfer in analytical chemistry . Recent projects include a DVD-readable opto-electrochemical Lab-on-a-Disc for obesity management and paper-based analytical devices for environmental monitoring. Publications demonstrate expertise in: Microfluidic extraction-quantification integration , Optical-microfluidic coupling , and Biocompatible sensor design . He has authored 34 publications including 24 peer-reviewed journal articles and 8 conference papers, with 1 licensed patent. 2023: First author on fiber-optic tissue stretch monitoring 2025: Developed cafetière-based soil nutrient PAD 2023: Created DIC quantification PAD for freshwater 2019-2025: Ongoing contributions to diabetes monitoring and environmental sensing Active in both fundamental research through his work with Nicole Pamme's group and applied technology development via industry contracts. His teaching includes Analytical Chemistry Basic Course (VT24).
Atsuko Takamatsu is a Professor at the School of Advanced Science and Engineering of Waseda University. Her work bridges biophysics, mathematical biology, and nonlinear dynamics through experimental and theoretical studies of biological systems. PhD in Science from Tokyo Institute of Technology Key memberships: Japanese Society for Mathematical Biology, Physical Society of Japan, Biophysical Society of Japan Research Interests focus on: Biological Pattern Formation in Physarum slime mold and cyanobacteria Coupled Oscillator Systems (cilia, cellular oscillations) Cell Competition Dynamics and its role in tissue homeostasis Hydrodynamic Interactions in left-right symmetry determination Article Trends reveal expertise in mathematical modeling of biological networks, with applications to Physarum transport systems, ciliary synchronization, and cellular decision-making. Notable work includes uncovering how minimal ciliary systems generate embryonic symmetry and modeling energy-efficient biological networks. Research Projects funded by Japan Society for the Promotion of Science include studies on: Chrono-health science and irregular lifestyle effects Spatio-temporal oscillation patterns in slime mold Cell competition mechanisms in Drosophila Adaptive network morphology in Physarum Her bio-inspired algorithms (e.g., Physarum-based transport optimization) demonstrate practical applications of biological principles to engineering challenges.
Yoshito Nozaki serves as an Assistant Professor (Junior Researcher) at Waseda University's Research Organization for Nano & Life Innovation since 2015, currently holding this position as of 2023. His work bridges microfluidics, thin film physics, and nano/micro-systems with applications in chemical synthesis and materials science. His research focuses on advanced microfluidic systems for precise droplet generation, enabling breakthroughs in chemical synthesis, organic reactions, and microreactor design. Key innovations include 3D microchannel architectures for sub-10μm droplet production, tail-breakup mechanisms for single-micron droplets, and organic solvent-compatible devices. His work demonstrates significant reductions in reagent consumption, reaction times, and byproducts compared to conventional methods. Analysis of his 13 publications (2016-2021) reveals consistent focus on droplet manipulation physics and thin film magnetic materials . The publications show strong international collaboration (Scopus h-index: 5) with primary emphasis on experimental device fabrication and fluidic characterization. His most impactful work involves microdroplet-based azo compound synthesis achieving 900x faster reaction times and 10x lower reagent concentrations. Professional memberships include: Japan Society of Applied Physics (2014-present) Surface Science Society of Japan (2013-present) His laboratory within the Research Organization for Nano & Life Innovation specializes in microfabrication techniques including soft lithography, focused ion beam machining, and silicon/glass device integration. Current projects emphasize chemical applications of microdroplets and magnetic thin film development for next-generation electronic devices.
Matthew Ryen Lockett is an Associate Professor in the Department of Chemistry at the University of North Carolina at Chapel Hill, with strong affiliations to the UNC School of Medicine. His research focuses on developing innovative 3D cell culture platforms and measurement tools that better mimic in vivo tissue environments, with particular emphasis on oxygen's role in tissue homeostasis and cancer progression. Dr. Lockett received his BS in Chemistry from the University of Pittsburgh in 2005, followed by a PhD in Chemistry from the University of Wisconsin-Madison in 2009 working with Lloyd M. Smith. He completed his postdoctoral training at Harvard University with George M. Whitesides from 2010-2013. His research program addresses two major areas: tissue engineering and surface chemistry. In tissue engineering, his lab develops paper-based 3D culture systems that maintain physiologically relevant microenvironments for studying cancer biology, drug metabolism, and cellular responses to oxygen gradients. For surface chemistry, his group creates novel methods for modifying carbon and silicon electrodes to improve stability and functionality for applications in electrocatalysis and sensing. His interdisciplinary approach integrates concepts from chemistry, biomedical engineering, cellular and molecular biology, materials science, and toxicology to solve complex biological problems. Dr. Lockett's recent publications reveal a strong trend toward increasingly sophisticated 3D tissue models with precise oxygen control, alongside continued innovation in surface modification techniques for electrochemical applications. His work bridges fundamental chemical principles with translational biomedical applications, particularly in cancer research and drug development. Dr. Lockett has received numerous prestigious awards recognizing his contributions to analytical chemistry and biomedical research: Fellow, Royal Society of Chemistry (2024) The Analytical Scientist Power List, Mentors and Educators category (2023) Center for Environmental Health and Susceptibility Rising Star Award (2019) Top 40 under 40 Power List, The Analytical Scientist (2018) BioAnalysis Zone New Investigator Award (2017) Eli Lilly Young Investigator Award in Analytical Chemistry (2016) Dr. Lockett actively mentors graduate students and postdoctoral researchers in his lab, with several recent PhD graduates and undergraduate researchers. His lab operates with strong core values emphasizing creativity, inclusivity, and teamwork, maintaining a zero-tolerance policy against all forms of oppression. The lab has secured significant funding to support its research on tissue engineering and surface chemistry, enabling the development of novel platforms for studying cellular behavior in controlled microenvironments. The Lockett Lab maintains two primary research subgroups: a surfaces subgroup focusing on carbon-based electrodes for (photo)electrosynthesis and measuring wetting dynamics, and a cells subgroup developing microfluidic 3D liver models to quantify cellular metabolism. The lab is known for its collaborative spirit and interdisciplinary approach, working with researchers across chemistry, biomedical engineering, and toxicology departments.
Dr. Yong Wang is an Associate Professor in the Department of Physics within the College of Arts & Sciences at the University of Arkansas. His research bridges physics, nanotechnology, and biology, focusing on single-molecule and single-cell biophysics. He leads an active research laboratory that develops cutting-edge biophysical tools to advance biological understanding and applies physical principles to solve biological problems. Dr. Wang's educational background includes: Ph.D. in Physics from University of California Los Angeles (UCLA) - 2011 M.S. in Physics from University of California Los Angeles (UCLA) - 2007 B.S. in Physics from University of Science and Technology of China (USTC) - 2005 Dr. Wang's research program focuses on the intersection of physics, nanotechnology, and biology. His laboratory develops and applies advanced biophysical techniques to investigate fundamental questions in biological systems. Current research directions include studying antibiotic mechanisms of metal nanostructures (nanoparticles, nanowires, and 2D materials), examining dynamics of biological molecules in living systems (bacteria and animal cells), investigating mechanical properties of biological systems (proteins, DNA and bacteria), and developing nano-bio sensors and devices for various applications. His work often involves single-molecule and single-cell measurements, combining experimental and computational approaches to uncover physical principles governing biological phenomena. Analysis of Dr. Wang's recent publications reveals a strong focus on bacterial response to nanomaterials, particularly silver-based nanostructures, and their antimicrobial mechanisms. His research also explores DNA mechanics and its applications in biosensing, as well as microfluidic systems for manipulating and studying microorganisms. The interdisciplinary nature of his work is evident in the diverse range of journals where his papers appear, spanning physics, microbiology, materials science, and engineering disciplines. Dr. Wang has received several significant research awards and grants, including: Tenure and promotion to Associate Professor (2022) Arkansas Biosciences Institute equipment grants for ddPCR and high-performance computing (2022) UA Chancellor's Gap Fund for Commercialization for bent DNA constructs development (2022) Arkansas Biosciences Institute grant for applying bent DNA to RNA research (2021) National Science Foundation I-Corps Program grant (2021) USDA/NIFA grant for studying antibiotic resistance genes in agricultural water (2020) His students have also received prestigious awards including the Ray Hughes Graduate Fellowship and the Chan and Chen Endowed Research Scholarship. Dr. Wang actively mentors numerous graduate and undergraduate students, with recent PhD graduates including Dr. Venkata Krishnamurthi, Dr. Ariel Rogers, and Dr. Diksha Shrestha. His laboratory has successfully guided multiple students through honors theses and research projects. He has secured substantial external funding from agencies including NSF, USDA, and the Arkansas Biosciences Institute, demonstrating the significance and impact of his research program. The Wang Lab at the University of Arkansas maintains a vibrant research environment with multiple PhD students, master's students, and undergraduates working collaboratively on cutting-edge biophysics projects. The lab utilizes advanced instrumentation for single-molecule imaging, nanofabrication, and bacterial studies, supported by recent equipment grants. Current research directions continue to expand the understanding of nano-bio interactions while developing novel biophysical tools with potential applications in medicine and environmental science.
Claude Leiner is a researcher at JOANNEUM RESEARCH working within the MATERIALS – Institute for Sensorics, Photonics and Production Technologies. His primary focus is on Light and Optical Technologies, where he conducts research on visible light positioning systems, micro-optical elements, and optical simulation. Dr. Leiner's research interests center on optical engineering with emphasis on visible light communication, micro-optics fabrication, and light management systems. His work bridges theoretical optical simulation with practical applications in positioning technology, illumination systems, and renewable energy. Recent publications demonstrate expertise in freeform optical design, laser lithography techniques, and multiscale optical simulation methods. Analysis of Dr. Leiner's publication record from 2014-2022 shows consistent contributions to the field of optical engineering, with particular emphasis on practical applications of micro-optical elements. His work spans visible light positioning systems, photovoltaic efficiency improvements, and advanced optical simulation techniques, demonstrating both theoretical depth and practical implementation focus. Dr. Leiner maintains active research collaborations within JOANNEUM RESEARCH, working with colleagues across multiple projects related to photonics and optical technologies. His research appears to be well-integrated within the institution's focus on applied research and technology development. His laboratory work focuses on the Light and Optical Technologies research group, where he contributes to the development of advanced optical elements using techniques like laser lithography and roll-to-roll manufacturing processes for micro-optical components.
Dr. Waseem Asghar serves as Associate Chair and Professor in both the Department of Electrical Engineering and Computer Science and Department of Biomedical Engineering at Florida Atlantic University. Leading the Micro and Nanotechnology in Medicine Lab, his research develops revolutionary point-of-care diagnostic platforms for HIV, Zika, Ebola, cancer, and fertility applications. His work bridges engineering innovation with clinical impact, focusing on disposable, refrigeration-free technologies deployable in resource-limited settings worldwide. Dr. Asghar earned his Ph.D. from the University of Texas at Arlington and previously held a position at Harvard University before joining FAU. His educational background underpins his interdisciplinary approach to biomedical device development. His research program centers on microfluidics and biosensors for decentralized diagnostics. Key projects include NIH-funded CD4+ T cell counters for HIV monitoring, smartphone-integrated Zika detectors for airport screening, and self-regulating CSF shunt devices developed with Boca Raton Regional Hospital. The lab specializes in paper-based microfluidics and flexible substrates that enable multiplexed biotarget detection without complex instrumentation. Recent work emphasizes eliminating cold-chain requirements for viral load testing and creating home-based semen analysis tools. Dr. Asghar's publication portfolio demonstrates consistent high-impact contributions in point-of-care diagnostics. His work spans infectious disease detection (Ebola, HIV, Zika), cancer diagnostics (circulating tumor cells), and reproductive health (sperm analysis), frequently appearing in journals like Nature Scientific Reports, Biotechnology Advances, and ACS Biomaterials Science & Engineering. The research shows a clear trajectory toward field-deployable, low-cost solutions validated in clinical environments. His scientific recognition includes: NSF CAREER Award (2020) FAU Researcher of the Year (2020, 2023) ASEE SE New Faculty Researcher Award (2020) Engineers’ Council Outstanding STEM Educator Award (2018) Humanity in Science Award (2016) FAU Mentoring Award (2015) Dr. Asghar actively mentors PhD and Master's students, with recent graduates including Amy Makler (2023), Kabir and Bob (2021), and Mazhar Sher (2020). His NIH-funded projects provide robust research support, while industry collaborations ensure real-world relevance. Students regularly win awards for poster presentations and leadership, reflecting the lab's emphasis on professional development alongside technical excellence. The Micro and Nanotechnology in Medicine Lab operates as a dynamic interdisciplinary hub where electrical engineers, biomedical researchers, and computer scientists collaborate. The team focuses on translating lab innovations into deployable solutions, evidenced by media coverage from ABC, NPR, and Cheddar News. Current efforts target commercialization of Zika detection devices and HIV viral load assays, with strong emphasis on global health equity through accessible diagnostics.
Diana Hoover serves as Associate Professor of Chemistry at Seton Hill University, teaching across Biochemistry, Chemistry, and Forensic Science programs. Her academic foundation includes a Ph.D. in Analytical Chemistry from the University of North Carolina at Chapel Hill and a B.S. in Chemistry with Forensic Science concentration from Edinboro University of Pennsylvania. Research Expertise: Hoover's work bridges surface chemistry with biological applications, focusing on nanoarray development for cell adhesion studies, electroactive biosensors, and spectroscopic instrumentation. She extends this into chemistry education through mobile technology integration, creating accessible laboratory experiences that connect fundamental analytical techniques with real-world forensic and biochemical contexts. Scholarly Output: Her publication record (2007-2012) demonstrates consistent contributions to surface science and chemistry education literature, with recent conference presentations (through 2018) showing continued innovation in pedagogical methods and interdisciplinary research approaches. Awards & Recognition: Edinboro University Distinguished Young Alumna Award (2016) Tussey Mountain School District Distinguished Alumni Award (2010) UNC Chapel Hill Francis P. Venable Award (2005-2006) Research Leadership: As co-PI on NSF and Spectroscopy Society of Pittsburgh grants, Hoover directs projects enhancing laboratory science education through design-based learning and portable instrumentation. She actively mentors students through the Griffins @ Work service club and research collaborations, fostering hands-on experience with advanced analytical techniques. Professional Engagement: Her active participation in ACS, MAALACT, and national conferences reflects commitment to advancing chemistry education and interdisciplinary research collaboration within the academic community.
Dr. Jinde Zhang is an Assistant Research Professor at the University of Massachusetts Lowell's Nanomanufacturing Center, specializing in advanced polymer engineering and functional surfaces. His work bridges nanomaterials and industrial-scale manufacturing. Education: Ph.D., University of Massachusetts Lowell (2016) M.S., University of Science and Technology of China (2011) B.S., Xidian University (2007) His research focuses on bio-inspired surface engineering, including superhydrophobic/omniphobic coatings, and roll-to-roll manufacturing of polymer nanocomposites. He pioneers scalable methods for creating functional textiles and corrosion-resistant materials, with applications in flexible electronics and sustainable manufacturing. Recent publications (2016-2021) demonstrate a strong emphasis on polymer recycling science, superhydrophobic surface optimization, and roll-to-roll microfabrication. The research consistently integrates materials characterization, industrial processing, and environmental safety considerations. Dr. Zhang leads research at the Center for High-rate Nanomanufacturing , focusing on translating nanomaterial innovations into high-speed industrial processes.
Jose Alvarez is a researcher affiliated with the Laboratory of Electrical and Electronic Engineering in Paris, focusing on semiconductor devices and materials characterization. Research spans diamond-based photovoltaic systems Investigates graphene doping techniques Develops silicon heterojunctions for solar cells Works on UV detectors using wide bandgap materials Applies advanced characterization methods like photoluminescence and conductive AFM His recent publications highlight innovations in Schottky diodes, epitaxial graphene modification, and 3D micro-structuring of diamond materials. Collaborations include Jean-Paul Kleider, Mohamed Boutchich, and Y. Koide. Key technologies involve photodiode geometry optimization, surface conductivity analysis, and UV-visible selectivity enhancement.
Pedro Viana Baptista serves as a Full Professor at the Faculty of Science and Technology (FCT) of Nova University of Lisbon, where he maintains an active research laboratory focused on nanomedicine and nanotheranostics. His office is located in room 308 with contact information prominently displayed, indicating his current active status at the institution. Dr. Baptista's research program centers on nanotechnology applications for molecular diagnostics and gene therapy, with particular expertise in gold and silver nanoparticles for DNA/RNA detection, mutation characterization, and cancer therapy. His work spans biosensor development for mutation detection using microfluidics platforms, nanoparticle-mediated gene delivery and silencing, and targeted drug delivery systems. The interdisciplinary nature of his research bridges nanotechnology, molecular biology, and clinical applications, with emphasis on translating laboratory findings into practical diagnostic and therapeutic approaches. Analysis of his recent publication record reveals a strong focus on cancer theranostics using nanoparticle platforms, with significant contributions to tumor-on-chip technology, KRAS mutation profiling in pancreatic cancer, miRNA detection and silencing, and 3D tumor spheroid models for drug testing. His research demonstrates consistent innovation in adapting nanotechnology for clinical applications, particularly in overcoming challenges related to drug resistance and improving cancer diagnostics. Dr. Baptista actively collaborates with numerous researchers across Portugal and internationally, as evidenced by his extensive co-authorship record. His laboratory appears to be well-integrated within the UCIBIO research unit at FCT, focusing on interdisciplinary approaches to biomedical challenges. The consistent output of high-impact publications demonstrates sustained research productivity and leadership in the nanomedicine field.
Professor Yael Hanein is a Full Professor at the School of Electrical Engineering, Tel Aviv University, where she also serves as the head of the University Center for Nanoscience and Nanotechnology. She established the Neuro-Engineering Lab in 2003 as one of six core laboratories of the Tel-Aviv University Center for Nanoscience and Nanotechnology and is affiliated with the Sagol School of Neuroscience. Her research focuses on: Nanotechnology applications for neuronal interfaces Micro and nano devices for direct and indirect brain interfacing Novel materials for artificial retina applications Skin electronics for electrophysiology Microfabrication methods for biological applications Professor Hanein's recent work demonstrates significant trends in applying nanotechnology to medical diagnostics, particularly in developing printed electrode technology for home-based sleep monitoring as an alternative to traditional polysomnography, addressing limitations in availability, cost, and labor intensity. Her scientific recognition includes: ERC grant for young researchers (2012) World Economic Forum's Young Scientists selection (2009) Membership in the Young Israeli Academy of Sciences (since 2012) Membership in the World Academy of Young Scientists (since 2010) Professor Hanein's research is supported by diverse funding sources including ISF, ERC, GIF, Israeli Ministry of Science, Israeli Ministry of Industry and Trade, and industrial partnerships. She also serves as VP at 'Nano Retina,' an Israeli startup developing retinal implants, demonstrating the translational potential of her academic work. The Neuro-Engineering Lab maintains strong interdisciplinary connections across the university's neuroscience and engineering disciplines.
Jay Grate serves as a Lab Fellow and Chemist in the Materials Sciences division at Pacific Northwest National Laboratory (PNNL), a U.S. Department of Energy national laboratory operated by Battelle. With over three decades of research experience, he has established himself as a leading expert in chemical sensing technologies and analytical methodologies. His work bridges fundamental science with practical applications in national security, environmental monitoring, and industrial processes. Dr. Grate received his educational foundation with a BA in Chemistry (summa cum laude) from Rollins College in 1978, followed by an MS in 1980 and PhD in Chemistry from the University of California, San Diego in 1983. His academic training provided the foundation for his subsequent groundbreaking work in analytical chemistry and materials science. His research interests focus on the development of chemically selective materials, chemical microsensors, and analytical fluidics systems. Dr. Grate's work integrates chemical sciences, material sciences, and measurement sciences to create innovative microanalytical principles, methods, and systems. He has made significant contributions to chemical vapor sensing, biological toxin and pathogen detection, radionuclide sensing, and the application of nanostructured materials in analytical chemistry and catalysis. His research spans from basic scientific investigations to prototype detector development for real-world applications. Analysis of his publication record reveals a consistent trajectory of innovation in sensor development and analytical methodologies. His work demonstrates expertise across multiple domains including polymer chemistry for sensing applications, radiochemical analysis techniques, microfluidic systems, and advanced chemometric methods for data interpretation. The interdisciplinary nature of his research connects materials science with analytical chemistry, environmental science, and national security applications. R&D 100 Award (2004) for work in developing rationally designed polymers for chemical threat detection ACS Northwest Regional Industrial Innovation Award (2007) Battelle Distinguished Inventor recognition (2009) Dr. Grate has authored or co-authored over 100 peer-reviewed journal articles and more than a dozen book chapters, demonstrating significant scholarly impact. He holds 17 patents, several of which have been commercially licensed, indicating the practical value of his research. His work has been featured in prominent scientific journals and has appeared on the covers of Analytical Chemistry, Chemical Reviews, and Polymer News, reflecting the significance of his contributions to the field. His research has received coverage in major scientific news outlets including Chemical and Engineering News, Science, and Physics Today.
Michael T. Bowser is a Professor in the Department of Chemistry at the University of Minnesota's College of Science and Engineering. He leads the Bowser Research Group, which focuses on developing innovative bioanalytical technologies for studying biological and medical problems at unprecedented scales and timeframes. The lab specializes in microfluidics, electrophoresis, nucleic acid assays, and cell culture techniques. Professor Bowser's research interests span several interconnected areas within analytical and bioanalytical chemistry. His group develops micro free-flow electrophoresis (µFFE) systems for continuous monitoring of dynamic biological processes, creates catalytic nucleic acid platforms for quantification and characterization, and investigates how single-stranded nucleic acids can regulate key proteins in cardiac calcium cycles. Applications of particular interest include adipocyte signaling in obesity, modulation of heart function using oligonucleotides, aptamer-based cell delivery systems, and high-speed multidimensional separations for biomarker detection. The research publications from the Bowser lab show a consistent focus on advancing microfluidic separation technologies, with recent work emphasizing surface chemistry in microfluidic devices, 3D printing for rapid prototyping, and applications in cardiovascular and metabolic research. The lab has developed specialized techniques for continuous monitoring of biochemical messengers, representing significant methodological advances in the field. NIH Grant: $1.25 million for 'Online Affinity Micro Free Flow Electrophoresis Assays for Continuous Monitoring of Biochemical Messengers' Safest Lab Award (Fall 2023) 2022 GSRS Award (to student Gretchen) NOBCChE Conference grant (to student Sandra) Professor Bowser actively mentors students, currently advising five PhD candidates working on projects related to micro free-flow electrophoresis and catalytic oligonucleotides. His lab has a strong track record of student success, with alumni securing positions at leading companies including Bio-Techne, Eli Lilly, and Beckman Coulter, as well as government and academic positions. The lab maintains a strong safety culture, having been recognized as one of the chemistry department's safest labs. The Bowser Group operates as a multidisciplinary research team combining expertise in analytical chemistry, microfluidics, molecular biology, and biomedical applications. The lab culture emphasizes innovation, rigorous scientific methodology, and collaborative problem-solving to address challenging questions at the interface of chemistry and biology.
