Ronny Stolz is Head of the Quantum Systems Department at the Leibniz Institute of Photonic Technology (Leibniz IPHT) in Jena, Germany. He also serves as head of the Magnetometry group at Leibniz IPHT since 2007 and head of the research group "Near surface geophysics" at Friedrich Schiller University in Jena since 2010. In 2022, he was appointed Honorary Professor at the Technical University of Ilmenau with a focus on Quantum Engineering. His educational background includes: State Doctorate degree in Physics (2006), Friedrich-Schiller-University Jena Ph.D. in Physics (1995), Friedrich-Schiller-University Jena Ronny Stolz's research focuses on cutting-edge quantum technologies, particularly in the development of superconducting and quantum electronics. His work spans quantum sensing and metrology using SQUID sensors and optically pumped magnetometers, quantum computation with superconducting qubits, superconducting radiation detectors, and hybrid superconducting and photonic circuits. His group develops high-precision measurement systems for applications in geophysical instrumentation, including SQUID-based receivers for electromagnetic measurements and Full Tensor Magnetic Gradiometry for exploration and archaeology. Analysis of his recent publications reveals a strong focus on advancing quantum sensing technologies, particularly in magnetometry and superconducting electronics. His work demonstrates a clear progression from fundamental quantum device development toward practical applications in security, mineral exploration, and scientific instrumentation. The research spans theoretical modeling, device fabrication, and real-world implementation across multiple disciplines including physics, engineering, and geophysics. Professor Stolz has received numerous prestigious awards for his contributions to quantum technology: SAGA 2024 Industry Innovation Award ESAS Award for Excellence, EUCAS2017, Geneva Gold medal from the International Trade Fair for "Ideas, Inventions, Innovations" (iENA) Thuringian Research Award, category Transfer International Mining Research Award for the IPHT team Innovations awards of IPHT (2003, 2005) Ron Ono Memorial Award, ISEC2003, Sydney With over 265 scientific papers, 150+ technical reports, 3 book chapters, and multiple patents including 4 patent families, Professor Stolz has established himself as a leading researcher in quantum technologies. His work has been supported by significant research grants that have enabled the development of advanced quantum sensing systems. He actively collaborates with industry partners through the European FLUXONICS foundry initiative, translating academic research into practical applications. Professor Stolz leads a multidisciplinary research team at Leibniz IPHT focused on quantum systems. The group maintains state-of-the-art fabrication facilities for superconducting electronics and collaborates with major research institutions including CERN and GSI. His laboratory specializes in the development of quantum magnetometers for geophysical applications and superconducting circuits for quantum computing interfaces.
جستجوی استاد راهنمای دانشگاهی
برای مسیر پژوهشیتان، استاد راهنما، استاد دانشگاه و پژوهشگر مناسب را پیدا کنید و با آنها ارتباط بگیرید.
نمایش ۱-۱۵ از ۱۹ استاد راهنما
اطلاعات پروفایلها از صفحات عمومی دانشگاهها گرفته شده و ممکن است بهروز نباشد.
- Superconductivity
- Quantum Sensors
- Geophysics
- +۶ مورد دیگر
Dr. Vyacheslav Zakosarenko is a part-time researcher at the Leibniz Institute of Photonic Technology (IPHT) in Jena, Germany, specializing in superconducting quantum interference devices (SQUIDs) and cryogenic sensor systems. His work bridges quantum electronics with geophysical applications and particle beam diagnostics. As a key member of the Quantum Circuits group within the Quantum Systems department, he collaborates on advanced SQUID technologies for mineral exploration, magnetic field measurements, and accelerator physics. His research focuses on superconductivity , quantum sensor design , and noise optimization in cryogenic environments. Specific interests include Josephson junction fabrication, magnetic shielding geometry, and flux transformer configurations. He has contributed to innovations in long-baseline SQUID gradiometers , coreless cryogenic current comparators , and microwave SQUID multiplexers . Zakosarenko’s publications highlight trends in millikelvin superconducting electronics , airborne magnetic gradiometry , and high-inductance CCC systems . His work demonstrates the integration of quantum sensors into real-world applications, from mineral exploration to advanced particle accelerator diagnostics. Current projects include optimizing shield geometries and noise performance in Nb-based SQUID arrays. He has developed technologies for commercial SQUID-based airborne magnetic gradiometers and next-generation cryogenic current comparators for charged particle beamlines. His collaborations span institutions like CERN and GSI, and he employs finite element simulations, low-temperature LsR measurements, and flux noise analysis to advance sensor performance.
Dr. Leonie Kaczmarek is a Researcher at the Leibniz Institute of Photonic Technology (IPHT) in Jena, Germany, where she works in the Research Department Quantum Systems within the Quantum Circuits work group. Her office is located in room HG147 and she can be reached at leonie.kaczmarek@leibniz-ipht.de. Dr. Kaczmarek's research focuses on the development and fabrication of superconducting quantum circuits and related technologies. Her expertise spans quantum computing hardware development and geophysical applications of superconducting devices. She specializes in wafer-scale fabrication processes, Josephson junction technology, and magnetic field sensor systems. Her publication record shows a clear progression from geophysical applications of superconducting devices (2018) to advanced quantum computing hardware fabrication (2025). Both papers appeared in IEEE Transactions on Applied Superconductivity, demonstrating her technical expertise in superconducting electronics. Her recent work addresses critical challenges in quantum computing scalability including crosstalk mitigation and interconnection technologies. Dr. Kaczmarek collaborates extensively with researchers including Schmelz, Matthias; Peiselt, Katja; Sultanov, Aidar; Mutsenik, Evgenia; Oelsner, Gregor; and Stolz, Ronny on quantum circuit development, and with IJsselsteijn, Rob; Zakosarenko, Vyacheslav; Chwala, Andreas; Meyer, Hans-Georg; Meyer, Matthias; and Stolz, Ronny on SQUID applications.
Dr. Volkmar Schultze is a Researcher in the Quantum Systems Work Group Quantum Magnetometry at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany. His work focuses on developing high-resolution magnetic field sensors using optically pumped magnetometers (OPMs) and superconducting quantum interference devices (SQUIDs) for applications in geomagnetic prospection (e.g., archaeometry) and biomedical investigations (e.g., magnetoencephalography). His research spans sensor design, noise reduction, and orientation error compensation. Key contributions include innovations in light-shift dispersed Mz (LSD-Mz) mode and heading error mitigation in Earth’s magnetic field. He collaborates on magnetorelaxometry imaging and quantum-limited resolution systems, with a focus on eliminating magnetic shielding requirements. Recent publications highlight advancements in portable OPM systems (2022), dead-zone-free sensors (2023), and spin-exchange relaxation suppression (2016). His work bridges quantum physics , applied instrumentation , and cross-disciplinary applications in geophysics and medicine. Labs & Teams : He collaborates with interdisciplinary teams at Leibniz-IPHT, including co-authors like Gregor Oelsner, Christian B. Schmidt, and Ronny Stolz. His work integrates theoretical modeling (e.g., density-matrix simulations) with experimental sensor development.
Kai Buckenmaierمشاهده پروفایل
پژوهشگر ارشد
Dr. Kai Buckenmaier is a Project Leader at the Max Planck Institute for Biological Cybernetics in Tübingen, Germany, leading the High-field Magnetic Resonance Department. His research focuses on advancing ultralow-field MRI technologies, hyperpolarization techniques, and SQUID-based sensor applications. He holds a PhD in Physics from the University of Tübingen and has held roles at the University of Tübingen and the University of Berkeley (USA) before his current position. Education: 2001-2006: Diploma in Physics at University of Tübingen (Diploma thesis: 'Spectroscopy of fractional Josephson vortices') 2006-2010: PhD at University of Tübingen ('Activation energy of fractional vortices and spectroscopy of vortex molecules in long Josephson Junctions') Research Interests: Kai’s work bridges physics and biomedical engineering, with emphasis on developing hyperpolarization methods (e.g., ODNP, parahydrogen) for ultralow-field MRI. He explores SQUID sensors to enhance signal detection at kHz frequencies and investigates safety-critical RF coil designs for high-field MRI systems (e.g., 9.4 T). His long-term goal is to integrate functional MRI at ultralow fields with MEG for combined high-resolution neuroimaging. Current Projects: Development of low-noise NMR/MRI setups using SQUID sensors Optimization of hyperpolarized contrast agents for in vivo applications Safety simulations for RF coils in high-field MRI environments Advising & Grants: Kai mentors researchers in the High-field Magnetic Resonance group and coordinates interdisciplinary projects at the institute. His work is supported by core facilities including the Imaging and Scientific Support unit. Labs/Teams: Leads the High-field Magnetic Resonance research group at the Max Planck Institute, collaborating with the Fine Mechanical Workshop and Electronic Workshop for hardware development.
Gabriel Ziegerمشاهده پروفایل
پژوهشگر
Dr. Gabriel Zieger serves as Group Leader (Arbeitsgruppenleiter) in the Photonics and Quantum Detection Department at the Leibniz Institute of Photonic Technology (Leibniz-IPHT) in Jena, Germany, where he heads the IR Radiation Detection working group. His research spans advanced materials engineering with particular focus on nanoporous platinum structures, thermoelectric materials, and infrared detection systems. With continuous publication output from 2017 through 2025, Dr. Zieger maintains an active research program within this photonics research institute. Dr. Zieger's research interests center around the development and characterization of novel photonic materials, particularly platinum-based nanostructures for infrared applications. His work explores electrochemical fabrication methods for nanoporous materials, optical properties of nanoscale structures, and energy conversion technologies. He investigates how material composition and nanostructure affect optical absorption, electrical conductivity, and thermoelectric performance across various applications from security imaging to wearable energy harvesting systems. His research bridges fundamental materials science with practical device engineering for photonics applications. Analysis of Dr. Zieger's publication record reveals consistent focus on material engineering for photonics applications, with particular emphasis on platinum-based nanostructures for infrared detection. His work demonstrates progression from fundamental studies of nanoporous platinum growth mechanisms toward increasingly applied research in thermoelectric devices and security imaging systems. The interdisciplinary nature of his publications spans materials science, optics, electrochemistry, and device engineering, showing collaboration across multiple research groups at Leibniz-IPHT. Recent publications indicate growing emphasis on practical applications including textile-based energy generation and terahertz security cameras. As Arbeitsgruppenleiter, Dr. Zieger leads the IR Radiation Detection research group, which appears to focus on developing advanced materials for infrared sensor applications. His laboratory work involves electrochemical deposition techniques, materials characterization using electron microscopy and spectroscopy, and device testing for optical and thermoelectric properties. The group maintains strong collaborative ties within Leibniz-IPHT, particularly with researchers working on nanomaterials, sensor development, and photonic devices.
Dr. Sven Peter Linzen is a quantum physicist and project leader at the Leibniz Institute of Photonic Technology in Jena, Germany. His research bridges quantum electronics and geoarchaeology , with a focus on superconducting devices and their applications in magnetic field sensing for archaeological investigations. He has led EU flagship projects like 'Quantum E-LEAPS' and participated in Mongolian-German archaeological collaborations since 2009. Key Research Themes: Development of superconducting NbN nanowires and hybrid quantum technologies Quantum metrology standards (Josephson voltage/current effects) Geophysical prospection in wetland environments using SQUID-based systems Archaeological mapping of Mongol Empire sites like Karakorum Material science of ultrathin superconducting films Scientific Leadership: Collaborated with institutions including UC Berkeley (Humboldt Fellowship 2002-2003), D-Wave Systems (2006-2007), and Mongolian research teams. His recent work demonstrates dual quantum effects like AC coherent phase slips in nanowires, while archaeological projects combine quantum sensors with historical investigations.
Matthias Schmelz is a researcher at the Leibniz Institute of Photonic Technology, working in the Quantum Circuits group under the Research Department Quantum Systems. His work focuses on the development of superconducting quantum circuits and cryogenic electronics, with a particular emphasis on Josephson junction fabrication, SQUID-based readout systems, and wafer-scale integration for scalable quantum technologies. Key research contributions include the design of adiabatic quantum flux parametrons (AQFP), development of high-inductance cryogenic current comparators (CCC), and optimization of microwave SQUID multiplexer (µMUX) architectures for terahertz security cameras. His projects involve collaborations with institutions like CERN and GSI Darmstadt, addressing challenges in millikelvin thermalization, noise reduction, and quantum device characterization. Recent publications highlight advancements in cross-type Josephson junction fabrication, controllable mode coupling in coplanar waveguides, and hybrid NbN-Al quantum technologies. These works span journals including Physical Review B and IEEE Transactions on Applied Superconductivity , with applications in quantum computing, particle beam diagnostics, and high-sensitivity optical sensor readouts.
Luis Eduardo Ardila Perez is a Researcher at the Institute for Data Processing and Electronics (IPE) within the Karlsruhe Institute of Technology , affiliated with the Karlsruhe School of Elementary Particle and Astroparticle Physics . His work focuses on high-performance computing architectures for particle physics experiments. PhD Topic: Real-Time High-Performance Readout System (100 Tb/s) for the CMS Track Trigger Supervisor: Prof. Dr. Marc Weber His research spans high-energy physics detector systems , with expertise in: FPGA-based track triggering GPU acceleration for real-time processing ATCA modular electronics High-throughput data acquisition Cryogenic sensor readout Publication trends highlight: Advancements in quantum computing interfaces (RFSoC, SQUID multiplexers) Innovations in detector electronics (CMS, PANDA) Optimization of real-time data systems for extreme environments Development of scalable hardware architectures for large-scale experiments He contributes to: CMS experiment at CERN KSETA collaborative research school OpenIPMC open-source hardware initiatives
Gregor Oelsnerمشاهده پروفایل
پژوهشگر
Dr. Gregor Oelsner is a researcher at Friedrich Schiller University Jena, affiliated with the Quantum Circuits work group under the Research Department Quantum Systems. He specializes in superconducting quantum circuits, Josephson junctions, and quantum sensing technologies. Education: Diplom in Physics (2008), PhD in superconducting qubits (2016) from Friedrich Schiller University Jena. His research spans circuit quantum electrodynamics, quantum metamaterials, and hybrid quantum systems. Recent work focuses on scalable fabrication of Josephson junctions, microwave photon detection for axion searches, and cryogenic sensor development. Key article trends include advancements in quantum circuit integration , Josephson junction reliability , and magnetic field sensing . He collaborates on projects involving alkali vapor cells and superconducting resonators . His team develops wafer-scale fabrication processes for quantum devices, optimizing critical current control and low-inductance interconnects . Applications include quantum computing and ultrasensitive magnetic field detection .
Prof. Menno Poot holds the Rudolph Mössbauer Chair in the Department of Physics at the Technische Universität München (TUM). He leads a research group focusing on quantum technologies, with expertise in optomechanical systems, nanomechanical resonators at ultra-low temperatures, and integrated quantum optics. His work includes developing photonic chips for single-photon manipulation and superconducting detector arrays. Education: Applied Physics degrees (BSc/MSc/PhD) from TU Delft (Kavli Institute of Nanoscience), followed by a Rubicon Fellowship at Yale University's Electrical Engineering Department. Research interests center on quantum optomechanics, nanomechanical systems in quantum regimes, and hybrid photonic circuits. Key projects involve creating silicon nitride-based photonic components for quantum computing and space applications, as well as studying nonlinear dynamics in micromechanical resonators. Awards include the NWO Rubicon Scholarship (2010) and multiple TU Delft academic honors. His lab focuses on advancing quantum technologies through integrated photonic platforms and optomechanical interfaces.
Detlef Bornمشاهده پروفایل
پژوهشگر
Dr. Detlef Born is a Researcher at the Leibniz Institute of Photonic Technology (IPHT) in Jena, Germany, working within the Research Department Photonics and Quantum Detection and specifically in the Work group Radiometry. His research focuses on developing advanced imaging systems using superconducting detector technologies for security applications and fundamental physics investigations. Dr. Born's primary research interests center around superconducting detector technology, particularly transition-edge sensors (TES) and superconducting quantum interference devices (SQUIDs) for submillimeter-wave and terahertz imaging. His work spans both applied security technology and fundamental physics, with significant contributions to understanding fluxoid dynamics in type-II superconductors, Josephson junction behavior, and quantum detection phenomena. His research has enabled the development of passive video imaging systems operating at 350 GHz with exceptional sensitivity (pixel NETD well below 1 K), allowing for security screening at standoff distances of up to 25 meters with high spatial resolution. Analysis of Dr. Born's publication record from 2012-2025 reveals a consistent focus on advancing superconducting detector technology for security applications while simultaneously exploring fundamental superconducting phenomena. His work demonstrates a progression from foundational research on detector materials and quantum effects toward increasingly sophisticated integrated imaging systems capable of real-time video at practical standoff distances. The research spans multiple subfields including cryogenic detector physics, quantum transport phenomena, and optical system design for submillimeter radiation. Dr. Born collaborates extensively with researchers across multiple institutions, as evidenced by his publication record. His work involves sophisticated experimental setups requiring cryogenic systems operating below 1 K, precision optical components including free-form mirrors, and advanced electronic readout systems. The research group he works within at IPHT appears to be a leading center for developing practical applications of superconducting detector technology for security screening and scientific instrumentation.
Prof. Peter Fierlinger is Chair of Precision Measurements at Extreme Conditions at the Technical University of Munich (TUM) School of Natural Sciences. His research focuses on precision experiments to probe fundamental physics questions, particularly the matter-antimatter asymmetry in the Universe and CP violation through electric dipole moment (EDM) measurements. Key Techniques: Ultra-cold neutrons, hyperpolarized noble gases, SQUID magnetometry Applications: Fundamental symmetry tests, fetal cardiac monitoring, quantum sensing Research Trends: Recent publications highlight EDM searches ( 2025 ), neutron-antineutron oscillation experiments at the European Spallation Source ( 2024 ), and quantum sensor applications in medical diagnostics ( 2023 ). His work bridges particle physics , cosmology , and applied quantum technologies . Scientific Awards: Changjiang Scholar Award (2019) Karl-VanBibber Fellowship (2007) Academic Journey: PhD from ETH Zurich (2005) Junior Research Group Leader at Cluster of Excellence 'Origin and Structure of the Universe' (2008) Founded Fierlinger Magnetics GmbH for commercializing quantum sensors
Thomas Schönauمشاهده پروفایل
پژوهشگر
Thomas Schönau is a Researcher at the Leibniz Institute of Photonic Technology within the Quantum Systems department. His work focuses on advancing superconducting sensor technologies for precision magnetic field measurements. Quantum Systems Department Leibniz Institute of Photonic Technology Research Interests: Schönau specializes in SQUID-based technologies, magnetometry, and cryogenic current comparators. His research addresses noise reduction, field stability, and sensor optimization for applications in particle physics and geophysics. Recent Publications: His 2025 work on optically pumped vector magnetometers demonstrates unshielded ultrasensitive measurements. 2024 studies focus on high-inductance CCCs for beamline diagnostics, achieving sub-pA noise levels. Earlier works (2021-2017) cover SQIF-based sensors, flux trapping analysis, and nanoSQUID development. Technical Contributions: Schönau has pioneered innovations in: Background field-tolerant sensors Coreless SQUID comparators Submicron Josephson junctions Mobile magnetometry systems
Aidar Sultanovمشاهده پروفایل
پژوهشگر
Dr. Aidar Sultanov is a Scientist at the Leibniz Institute of Photonic Technology, working in the Quantum Systems department within the Quantum Circuits work group. His research focuses on the development and fabrication of superconducting quantum circuits and related photonic technologies for quantum computing applications. His research interests include: Quantum Computing Hardware Development Wafer-Scale Fabrication of Superconducting Circuits Cryogenic Optical Sensing Technologies Josephson Junction Characterization Quantum Circuit Design and Optimization Dr. Sultanov's recent publications demonstrate expertise in practical quantum computing implementation challenges. His work shows significant advancements in wafer-scale fabrication techniques achieving critical current standard deviations of approximately 3% on-chip and 7% on-wafer. He has developed transmon-type qubits with relaxation and decoherence times of T1 = 12.5 µs and T2 = 15.0 µs. His research also extends to cryogenic optical sensing, demonstrating fluoride fiber Bragg gratings with detectable sensitivity of 0.5-1.7 pm/K below 50 K. Dr. Sultanov collaborates extensively with researchers including Evgenia Mutsenik, Matthias Schmelz, Gregor Oelsner, and Ronny Stolz across multiple publications. His work bridges theoretical quantum computing concepts with practical manufacturing solutions for scalable quantum technologies.