جست‌وجوی استاد و پژوهشگر

Bert Stegemannمشاهده پروفایل

استاد

• Photovoltaics
• Physics
• Lasers
• +۵ مورد دیگر

Bert Stegemann is a Professor at HTW Berlin - University of Applied Sciences , affiliated with the Department of Engineering I. His research focuses on Photovoltaics , Lasers , and Materials Science , with specialization in Perovskite solar cells , CIGSe solar cells , and monolithic interconnection schemes . Department: Engineering I Research Clusters: Climate-friendly energy systems, Laser patterning, Tunnel oxide passivation Research Trends (2014-2025): Stegemann has published extensively on laser patterning techniques for photovoltaic modules, particularly analyzing nanosecond vs. picosecond pulse effects on perovskite and CIGSe materials. His work explores interface passivation methods for silicon and chalcopyrite semiconductors, aiming to reduce recombination losses and improve industrial scalability of solar cell fabrication. Collaborative Networks: Stegemann collaborates with institutions like the Helmholtz-Zentrum Berlin and the German-American Fulbright Commission . His publications involve co-authors such as Christian Schultz , Eva Unger , and Markus Fenske . Advising & Institutional Roles: He has supervised 2 doctorates and participates in departmental governance as a member of the Department Council and Renewable Energies committees.

• Advanced silicon sensors
• Electronic design
• High-density interconnection technologies
• +۵ مورد دیگر

Dr. Michele Caselle is a Researcher at the Karlsruhe Institute of Technology (KIT), specifically at the Institute for Process Data Processing and Electronics (IPE). He coordinates the program subtopic "Detection and Measurement" and "Beam Physics Instrumentation" within the Detector Technologies and Systems (MT-DTS) of the Helmholtz Association. He serves as Principle Investigator in the TANGERINE and ACCLAIM innovation programs, Local coordinator of the PANDA experiment at GSI, and is a member of the International Research Program RD 50 at CERN and the CMS experiment at CERN. Dr. Caselle obtained his Master's Degree in electronic engineering with a specialization in microelectronics from the Polytechnic of Bari in 1998, followed by a PhD in microelectronics from the same institution in 2006. He completed a Post-Doctoral position at the Physics Department of the University and INFN Bari (2006-2008). Prior to joining KIT in 2011, he worked at CERN's Microelectronics Group (2008-2011) and held positions at GSI including Head of Department for Experiment Electronics (2019). His research focuses on advanced silicon sensors and electronic design , high-density interconnection technologies and packaging , commissioning of complex detector systems , and high-resolution beam diagnostics . Dr. Caselle has led research groups designing and producing cutting-edge silicon detectors for large physics experiments at CERN and GSI, including the CMS pixel detector for the Phase 1 upgrade. He has also developed beam diagnostic detector systems for synchrotron and free electron laser accelerator machines, and data acquisition systems for next-generation photon science experiments. Dr. Caselle's recent publications demonstrate a strong focus on detector technologies, particularly in silicon-based detectors, data acquisition systems for particle physics experiments, and the application of machine learning techniques to accelerator physics problems. His work spans both theoretical development and practical implementation of detector systems for major international experiments. As Principle Investigator for the TANGERINE and ACCLAIM programs, Dr. Caselle leads efforts in next-generation silicon detectors and the application of artificial intelligence and machine learning to scientific challenges. His coordination of the national program subtopic within the Helmholtz Association's Detector Technologies and Systems highlights his leadership role in advancing detector technologies across Germany. Dr. Caselle has been instrumental in developing several key detector systems, including the KALYPSO line camera for MHz repetition rate applications, the ToASt ASIC for the PANDA experiment's strip detectors, and radiation-hardened silicon sensors for high-luminosity environments. His work bridges the gap between fundamental detector research and practical implementation in major physics experiments.

Andreas Jossenمشاهده پروفایل

استاد

• Battery models
• Battery system technology
• Multicellular battery systems
• +۷ مورد دیگر

Prof. Dr.-Ing. Andreas Jossen holds the Chair of Energy Storage Technology at the TUM School of Engineering and Design , focusing on electrochemical energy storage for stationary, mobile, and portable applications. His research emphasizes battery system technology , modeling of lithium-ion cells , and thermal management of storage systems. He leads teams in Simulation BMD (Battery Management) Application and contributes to tools like accuRate and SimSES for battery modeling.

• Organic Electronics
• Bio-inspired Materials
• Neuroelectronic Interfaces
• +۳ مورد دیگر

Valeria Criscuolo is a Researcher in the Neuroelectronic Interfaces department at RWTH Aachen University. She holds a PhD in Chemical Sciences from the University of Naples Federico II, earned in 2017, and has extensive experience in organic electronics and bio-inspired materials. Her career spans roles at the University of Washington, University of California, Santa Cruz, University of Rome Tor Vergata, and the Italian Institute of Technology. Bachelor’s Degree in Chemistry (2006–2010) Master’s Degree in Chemical Sciences (2010–2013) PhD in Chemical Sciences (2014–2017) Her research focuses on bio-inspired organic materials for optoelectronic devices, including OLEDs and wearable epidermal sensors. Recent work explores azobenzene-based semiconductors for neuromorphic platforms and 3D conductive structures for bioelectronic applications. She has contributed to understanding skin bioimpedances and developing light-driven morphing pillars for biointerfacing. Valeria’s publications highlight interdisciplinary trends merging chemistry, neuroscience, and materials science. Topics include melanin-inspired OLEDs, neurohybrid devices, and sustainable organic electronics. Her work bridges fundamental material synthesis with practical applications in wearable sensors and neuromorphic engineering.

• Visual Neuroscience
• Cognitive Psychology
• Perceptual Illusions
• +۳ مورد دیگر

Ryan E.B. Mruczek serves as an Associate Professor at The College of the Holy Cross, following postdoctoral training at Princeton University with Sabine Kastner and the University of Nevada, Reno with Gideon Caplovitz and Marian Berryhill. He earned his Ph.D. in Neuroscience from Brown University under David Sheinberg. His research centers on visual perception mechanisms, particularly investigating perceptual illusions, attention dynamics, and neural representations of object categories. Key methodologies include high-density electroencephalography (EEG) and computational analysis of visual-evoked potentials. His work demonstrates how motion dynamics, contextual changes, and trajectory manipulations enhance visual size illusions and alter perceptual processing. Analysis of his recent publications reveals consistent focus on three interconnected domains: (1) Visual illusion mechanisms and their neural correlates, (2) Advanced EEG methodologies for spatiotemporal neural mapping, and (3) Educational applications of perceptual neuroscience. His research bridges experimental psychology, cognitive neuroscience, and STEM education initiatives, with strong emphasis on methodological innovation in electrophysiological recording. Mr. Mruczek actively contributes to scientific dissemination as Associate Editor for Neuroscience and Psychology at Frontiers for Young Minds and Review Editor for Visual Neuroscience at Frontiers in Neuroscience. His publications have garnered over 32,000 views, indicating significant scholarly impact. His collaborative network includes prominent researchers like Gideon Caplovitz (University of Nevada, Reno) and Marian Berryhill, with whom he maintains ongoing research partnerships. Current work focuses on integrating motion dynamics with contextual processing in visual perception, extending foundational research on illusions like the Orbiting Circles phenomenon.

• Particle Physics
• Semiconductor Detectors
• High-Energy Physics
• +۲ مورد دیگر

Dr. Fabian Hügging is a researcher at the Physikalisches Institut within the Faculty of Mathematics and Natural Sciences at the University of Bonn. His work focuses on developing advanced particle detection systems for high-energy physics experiments and medical imaging applications. His primary research interests include: Particle detection and tracking in extreme radiation environments Ultra-fast, high-resolution detector systems Semiconductor pixel detector technology X-ray detection and medical imaging innovations Hügging's publications demonstrate a consistent focus on radiation-hardened detector technologies for next-generation particle accelerators. His work combines semiconductor engineering with experimental physics to address challenges in high-radiation environments, with applications extending to medical diagnostics and imaging systems.

• Bioprocess Engineering
• Biopharmaceutical Production
• Fermentation Technology
• +۳ مورد دیگر

Prof. Jørgen Magnus serves as Chair of Bioprocess Engineering at RWTH Aachen University, Germany, with his primary affiliation in the AVT (Aachener Verfahrenstechnik) department under the university's Molecular Science & Engineering (MSE) profile area. He holds a Professor rank and maintains active duties as evidenced by his office location in Research Building NGP2 (Room A-307, Forckenbeckstraße 51, Aachen) and direct contact channels including email jorgen.magnus@avt.rwth-aachen.de. His research program centers on advancing bioprocess engineering through three interconnected domains: biopharmaceutical manufacturing (viral vectors, CHO cell cultures), fermentation innovation (gas fermentations, microbial strain optimization), and process analytics (real-time monitoring, scale-up methodologies). Key specialties include adeno-associated virus (AAV) production, metabolic engineering of hosts like Vibrio natriegens and Komagataella phaffii , and development of novel sensors for dissolved oxygen, biomass, and metabolite tracking across cultivation systems from microtiter plates to industrial bioreactors. Analysis of his 15 most recent publications (2024-2025) reveals consistent emphasis on solving industry-critical bottlenecks in biomanufacturing. A dominant trend involves bridging scale gaps —demonstrated in studies translating microtiter plate data to stirred-tank reactors—and stress mitigation in cell cultures (e.g., hydromechanical stress in CHO cells). His work increasingly integrates renewable feedstocks (e.g., syngas, molasses) with real-time analytics to optimize carbon utilization and product yields, reflecting industry shifts toward sustainable, data-driven bioprocessing.