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Irina BouianovaView profile

Professor

• Semiconductor Physics
• Spintronics
• Nanomaterials
• +7 more

Irina Bouianova is a Professor and Head of Unit in the Department of Physics, Chemistry and Biology (IFM) at Linköping University, Sweden. She leads research in the Functional Electronic Materials unit, focusing on advanced semiconductor materials for next-generation electronic and photonic applications. Research Interests: Her work centers on semiconductor physics, spintronics, nanomaterials, and functional electronic materials. Key areas include exciton dynamics in nanowires, defect passivation via hydrogenation, and room-temperature spin transport in quantum structures. Her research bridges fundamental physics with applications in quantum computing and energy-efficient electronics. The recent publications (2024–2025) highlight her leadership in understanding localized excitons, spin-conserved transport, and antiferromagnetic coupling in novel semiconductors. These works reflect a strong trend toward quantum materials, defect engineering, and sustainable semiconductor technologies. Scientific Awards and Grants: SEK 20 million research grant from the Swedish Energy Agency and Swedish Research Council for energy-oriented basic research Advising and Funding: As a senior professor and unit head, she mentors researchers and leads large-scale collaborative projects. She has secured significant long-term funding, enabling sustained research in semiconductor spintronics and energy materials. Her work involves multi-institutional collaborations, as seen in studies on organic solar cells and topological insulators. Labs and Teams: She is part of the Advanced Functional Materials and Electronic and Photonic Materials divisions at IFM, Linköping University. Her team specializes in optical spectroscopy, nanomaterial synthesis, and spin-dependent transport measurements, contributing to breakthroughs such as room-temperature spin-light interfaces for quantum computing.

Brian AullView profile

Professor

• Photon-counting imaging
• Wavefront sensing
• Lidar technology
• +3 more

Brian Aull is a Professor of the Practice in Electrical and Computer Engineering at Tufts University, concurrently serving as a Staff Scientist in the Advanced Imager Technology Group at MIT Lincoln Laboratory. His research focuses on photon-counting imaging systems, Geiger-mode avalanche photodiode arrays, and their applications in lidar, wavefront sensing, and low-light imaging. He holds dual affiliations with Tufts University’s School of Engineering and the MIT Lincoln Laboratory’s advanced sensor development team. Dr. Aull’s professional experience spans over a decade, with roles including Lecturer (2010–2023) and current Professor of the Practice (2023–present) at Tufts. His work emphasizes integrating silicon-based photon detection technologies with CMOS readout circuits, advancing applications in quantum computing, biomedical optics, and space instrumentation. He actively contributes to technical education through courses on device physics, linear systems, and semiconductor device engineering at Tufts, alongside internal training programs at MIT Lincoln Laboratory. His research portfolio includes innovations in photon-sensitive imagers, crosstalk mitigation in sensor arrays, and theoretical bounds in nanomaterial energy filtering. He has authored/co-authored over 60 peer-reviewed publications and conference papers, with impactful contributions to photonics, quantum sensing, and sensor fabrication. Aull’s interdisciplinary work bridges academic research and applied engineering, addressing challenges in both terrestrial and aerospace imaging systems. His teaching activities span foundational and advanced topics such as Probabilistic Systems Analysis , Semiconductor Devices , and Senior Design Projects , reflecting his commitment to nurturing the next generation of electrical engineers. His lab affiliations include the Advanced Imager Technology Group at MIT Lincoln Lab, where he develops specialized solid-state sensors for defense and space applications.

Barbara M. TerhalView profile

Professor

• Quantum Error Correction
• Superconducting Qubits
• Quantum Computational Advantage
• +4 more

Barbara M. Terhal is a Professor at QuTech, Delft University of Technology, where she leads the Terhal Group in the Department of Applied Mathematics within the Electrical Engineering, Mathematics and Computer Science school. She has held prestigious positions including Professor at RWTH Aachen University (2010-2017), Research Staff Member at IBM Watson Research Center (2001-2010), and Distinguished Visiting Research Chair at Perimeter Institute since 2014. Her research focuses on quantum error correction, superconducting qubits, quantum computational advantage, algorithms, and complexity theory. Terhal coined the term 'Entanglement Witness' and has pioneered concepts including unextendible product bases, remote state preparation, quantum data hiding, and quantum information locking. Her work spans theoretical foundations to practical implementations across various quantum hardware platforms. Terhal's recent publications demonstrate strong trends in quantum error correction (particularly surface codes and topological approaches), quantum algorithms for near-term devices, and theoretical investigations of quantum complexity. Her work bridges fundamental quantum information theory with practical quantum computing implementations, with growing emphasis on hardware-specific error correction techniques for superconducting and semiconductor qubit platforms. Fellow of the American Physical Society (2007) Distinguished Visiting Research Chair at Perimeter Institute for Theoretical Physics (2014-present) Professor Terhal has mentored numerous PhD students and postdocs who have gone on to prominent positions in academia and industry. Her research has been supported by collaborations with major quantum computing initiatives including QuTech, Perimeter Institute, and Forschungszentrum Jülich. The Terhal Group collaborates closely with experimental teams to implement quantum error correction across various hardware platforms, focusing on practical implementations for current quantum devices. Her laboratory, the Terhal Group, works on quantum error correction implementation, superconducting qubit theory, and quantum algorithms for near-term devices. The group maintains strong connections with QuTech's experimental teams and international quantum research centers, positioning itself at the forefront of theoretical quantum computing research with practical applications.

Angela RizziView profile

Professor

• Solid State Physics
• Semiconductor Nanostructures
• Spintronics
• +4 more

Prof. Dr. Angela Rizzi is a Professor for Experimental Physics at the University of Göttingen since 2002. Her research focuses on the electronic properties of semiconductor hetero- and nanostructures, particularly spintronics and semiconductor nanowires. She has held guest positions at institutions like the University of Aix-Marseille II and Forschungszentrum Jülich. 1981: Laurea in Physics, University of Modena, Italy 1987: PhD in Physics, Politecnico di Milano, Italy Her experimental work includes molecular beam epitaxy (MBE) growth of GaN and InN nanowires, lithography, dry etching, and advanced analysis techniques. Key projects involve diluted magnetic semiconductors, AlGaN/GaN-based two-dimensional electron gases, and nanowire applications in solar cells. The 15 most recent publications highlight interdisciplinary expertise, spanning high-energy physics (e.g., Higgs boson searches, top quark polarization, strange hadron production) and semiconductor research (MBE heterostructures, GaN/InN optical properties, nanowire electrical behavior). Several articles address the chiral magnetic effect and detector performance in Large Hadron Collider experiments. 1988-89: Humboldt-Research Fellow, Forschungszentrum Jülich, Germany Angela Rizzi's career includes collaborations at Forschungszentrum Jülich (1988-2002) and academic roles at the University of Modena (1990-2002). Current projects emphasize semiconductor spintronics and nanostructure growth, with contact via arizzi@gwdg.de.

• Embedded Systems Design
• Low-Power Design
• VLSI Architecture for Image Processing
• +4 more

Pasquale Corsonello is a Professor of Electronics at the Department of Informatics, Modeling, Electronics and System Engineering (DIMES) , University of Calabria. He has held academic positions at the University of Reggio Calabria and the University of Rochester (Adjunct Associate Professor). His career spans over three decades in digital electronics, VLSI design, and low-power systems. Education: Master's in Electronic Engineering, University of Naples “Federico II” (1988) Key Roles: Editor-in-Chief (Journal of Low Power Electronics), Senior Area Editor (IEEE Transactions on Circuits and Systems II), Steering Committee Member (IEEE Transactions on VLSI Systems) Research interests include: Embedded systems and low-power design for IoT VLSI architectures for image processing and neural networks FPGA-based accelerators for real-time applications Quantum-dot cellular automata (QCA) circuits His recent publications focus on energy-efficient FPGA implementations, approximate computing for imaging, and QCA-based arithmetic circuits. He has co-authored over 180 technical articles and holds three patents. Awards : BEST ASSOCIATE EDITOR IEEE CASS AWARD (2016) GOLDEN LEAF Certificate (PRIME 2019) Multiple BEST PAPER AWARDS at ICECS, CENICS, and PRIME Top 25 Downloaded Articles (IEEE Transactions on VLSI Systems) Leadership : Coordinated PhD programs in Information and Communication Technologies Directed research units in projects exceeding €8M in funding Member of editorial boards for IEEE Transactions and Electronics journal He leads the Nanoelectronics and Microsystems research group , which integrates material characterization, IC design, and system-level electronics for applications in power systems and photovoltaics.

• Quantum Technologies
• Solid-State Spectroscopy
• Diamond Quantum Science
• +5 more

Marcus Doherty is an Honorary Professor at the Australian National University, affiliated with the Physics Education Centre and leading the Diamond Quantum Science and Technology research program. His career spans theoretical and experimental advancements in diamond-based quantum technologies, including quantum microscopy, computing, and communications. Education: Ph.D. and Bachelor's degrees in Engineering and Science from the University of Melbourne. Research: Focus on optical defects in diamond (particularly NV centers), their theoretical modeling, and applications in quantum technologies. Key Contributions: First self-consistent theory of NV centers, enabling sensitive quantum electrometry, nanothermometry, and biomedical applications like thermoablative cancer therapy. Awards: Ruby-Payne Scott Award (2016), Geoff Opat Award (2015), Chancellor's Prize for Excellence in PhD (2013), and multiple fellowships and grants. Marcus' recent work explores defect discovery, quantum microscopy, and room-temperature quantum computing. His research bridges first-principles defect theory with quantum device design, supported by international collaborations. Scientific awards include: Ruby-Payne Scott Award (2016) Geoff Opat Early Career Prize (2015) Dr Phillip Law AC Postdoctoral Award (2015) Chancellor's Prize for Excellence in PhD Thesis (2013) Nomination for Bragg Gold Medal (2012) Marcus has secured grants from the Australian Research Council (ARC), DAAD-Go8, ANU Major Equipment Committee, and other institutions. He collaborates with leading groups globally, including Harvard University, University of Stuttgart, and University of Ulm.

Yusuf YilmazView profile

Assistant Professor

• Inorganic Chemistry
• Phthalocyanine Chemistry
• Photocatalysis
• +5 more

Yusuf Yilmaz is an Assistant Professor at Gaziantep University's School of Vocational Studies in the Chemistry and Chemical Processing Technologies Department. His research focuses on phthalocyanine chemistry, photocatalysis, and sustainable materials development. Education: PhD in Chemistry (2014), Gaziantep University MSc in Inorganic Chemistry (2010), Yildiz Technical University BSc in Chemistry (2008), Kafkas University His research interests span phthalocyanine-based materials for dye-sensitized solar cells, photocatalytic wastewater treatment, polymer chemistry, and computational studies of molecular properties. He has developed novel phthalocyanine derivatives for environmental and energy applications, with particular emphasis on substituent effects and aggregation behavior. Analysis of his 15 most recent publications reveals strong focus on photocatalytic degradation of pollutants (40%), dye-sensitized solar cell materials (30%), and computational chemistry approaches (20%), with emerging work in medicinal applications of phthalocyanines. His work bridges fundamental molecular design with practical environmental and energy solutions. Scientific Awards: 2014 University Doctoral Thesis Award Professor Yilmaz has supervised two master's theses and secured 18 research projects totaling over 7 years of continuous funding from sources including TÜBİTAK, EU, and industry partners. His projects address critical areas including plastic waste recycling, diabetic foot care, occupational safety for Syrian workers, and polymer manufacturing optimization. He leads multiple laboratories including the Shoe Testing Laboratory and ULUTEM Research Center infrastructure. His collaborative work spans international institutions including Rhodes University (South Africa), with significant contributions to phthalocyanine pigment production and nanomaterial-based environmental remediation technologies.

Alfonso Rafael Cabrera GaliciaView profile

Researcher

• Cryogenic Electronics
• Quantum Computing Hardware
• Semiconductor Device Physics
• +3 more

Alfonso Rafael Cabrera Galicia is a Doctoral Researcher at the Forschungszentrum Jülich, affiliated with the Peter Grünberg Institute (PGI) and its department Integrated Computing Architectures (PGI-4) . His work focuses on cryogenic electronics for quantum computing and semiconductor device physics. Academic Rank: Researcher Location: Wilhelm-Johnen-Str. 1, Jülich, 52428 Contact: +49 2461 61 2425 His research spans cryogenic integrated circuits , power management for quantum systems , and low-temperature semiconductor behavior . Recent publications highlight advancements in voltage regulation, noise thermometry, and cryogenic CMOS optimization for quantum computing. Key trends: Cryogenic compatibility of FDSOI technology Quantum control circuit design Power integrity in large-scale systems Thermal effects in nanoscale transistors Labs/Teams: • Peter Grünberg Institute (PGI-4) - Integrated Computing Architectures

Mohammed QahoshView profile

Researcher

• Condensed Matter Physics
• Materials Science
• Electronic Structure
• +2 more

Mohammed Qahosh serves as a Researcher within the Electronic Properties group (PGI-6) at the Peter Grünberg Institute, Jülich Research Centre. His role contributes to the institute's core mission of advancing quantum materials research and nanoelectronic technologies through fundamental investigations of material properties. His research spans Condensed Matter Physics and Materials Science with specialized focus on electronic structure analysis, nanoscale electronic phenomena, and semiconductor device physics. This work targets the development of novel electronic materials for next-generation computing and energy applications, emphasizing experimental characterization of quantum material behaviors. As part of PGI-6, Qahosh operates within Jülich's integrated research ecosystem, utilizing advanced facilities including neutron scattering and electron microscopy infrastructure. His collaborative work supports the Helmholtz Association's strategic objectives in quantum technologies and sustainable information systems through interdisciplinary projects across energy and information research domains.

• Quantum Physics
• Superconductivity
• Nanowire Devices
• +3 more

Yu Liu is a researcher at the Center for Quantum Devices within the Niels Bohr Institute at the University of Copenhagen. The Center for Quantum Devices focuses on cutting-edge research in quantum physics, particularly in areas related to spin qubits, topological quantum systems, novel devices, superconducting qubits, and quantum materials. Dr. Liu's research spans multiple disciplines within quantum physics and condensed matter. His primary focus appears to be on quantum devices, particularly investigating superconductivity in hybrid nanowire systems with ferromagnetic components. His work explores spin-split superconductivity, supercurrent transport, and spin-polarized bound states in semiconductor-superconductor-ferromagnetic-insulator hybrid structures. Beyond quantum physics, Dr. Liu has also published work in computer vision, mathematics, particle physics, transportation studies, and medical imaging, demonstrating remarkable interdisciplinary breadth. His recent publications (2021-2025) show a strong focus on quantum transport phenomena in hybrid nanostructures, particularly examining the interplay between superconductivity, ferromagnetism, and spin-orbit coupling in nanowire systems. These investigations have important implications for the development of topological quantum computing platforms and novel quantum devices. The observed phenomena include supercurrent reversal near coercive fields of ferromagnetic insulators, spin-splitting exceeding induced superconducting gaps, and percolative supercurrent flow in bilayer systems. Dr. Liu has collaborated extensively with researchers at the Center for Quantum Devices, including P. Krogstrup, S. Vaitiekėnas, C. M. Marcus, M. Leijnse, and R. Seoane Souto. His work often involves experimental measurements combined with theoretical modeling to explain observed phenomena in quantum transport systems, bridging the gap between fundamental physics and potential quantum technology applications.

• Photovoltaics
• Solar Cells
• Semiconductor Physics
• +5 more

Richard Roland King is a Professor at Arizona State University's School of Electrical, Computer and Energy Engineering and a Senior Global Futures Scientist. His research focuses on high-efficiency photovoltaic technologies, including multijunction solar cells, defect tolerance in semiconductors, and societal integration of solar energy. William R. Cherry Award (2010) IEEE Senior Member R&D 100 Award recipient His work spans fundamental physics of semiconductor defects to commercial deployment of solar technologies, with notable contributions to achieving 40%+ solar cell efficiency. The King Lab explores recombination mechanisms, thin-film tandem cells, and aesthetic-functional PV integration in urban environments. He teaches graduate-level courses in solar cells, semiconductor characterization, and device theory while mentoring students in the NSF-funded QESST Engineering Research Center.

• Condensed Matter Theory
• Theoretical Particle Astrophysics
• Cosmology
• +5 more

Harsh Mathur is a Professor in the Department of Physics at Case Western Reserve University , where he also serves as Associate Dean for Academic Affairs. His research spans theoretical physics, with primary contributions to condensed matter theory and cosmology, and interdisciplinary projects linking physics to art and history. Education B. Tech., Indian Institute of Technology, Kanpur (1987) Ph.D., Yale University (1994) Research Interests Condensed Matter Theory: Focus on mesoscopic systems, quantum dots, and localization phenomena. Cosmology: Investigates primordial gravitational radiation and cosmic microwave background physics. Interdisciplinary Work: Applies statistical physics to art authentication (Pollock’s fractal analysis) and language evolution. Publications Recent work (2008) explores gravitational radiation from phase transitions and critiques of fractal authentication of Pollock paintings. Earlier publications (1992-2003) address quantum transport, Berry phase effects, and localization models.

Robert W. MeulenbergView profile

Professor

• Electronic structure of nanoscale materials
• Surface and interfacial physics of nanostructures
• Novel materials for alternative energy applications
• +5 more

Robert W. Meulenberg is a Professor of Physics at the University of Maine. Effective January 2025, he will be on leave to the National Science Foundation. He earned his B.S. from Florida State University in 1998 and his Ph.D. from the University of California, Santa Barbara in 2002. His office is located in 251 ESRB at the University of Maine. 1998: B.S., Florida State University 2002: Ph.D., University of California, Santa Barbara Meulenberg’s research focuses on the electronic structure of nanoscale materials, surface and interfacial physics of nanostructures, and novel materials for alternative energy applications. He also investigates magnetometry and magnetic materials, utilizing synchrotron radiation techniques such as x-ray absorption, photoemission, and emission spectroscopy. His recent publications highlight advancements in perovskite nanocrystals, quantum dot engineering, and environmental remediation materials. Key trends include the development of lead-free perovskites for enhanced stability and optical properties, directional dopant migration in core/multi-shell quantum dots, and innovative methods for capturing radioactive pertechnetate using nanotraps. Meulenberg is affiliated with prominent research institutions, including the Frontier Institute For Research in Sensor Technologies (FIRST), National Synchrotron Light Source, Advanced Photon Source, and Advanced Light Source. He can be contacted at 207-581-2245 or via email at robert.meulenberg@maine.edu.

• Condensed Matter Physics
• Materials Science
• Quantum Physics
• +3 more

Samuel Brem is a Researcher at Chalmers University of Technology , affiliated with the Condensed Matter and Materials Theory department. His work focuses on excitons , transition metal dichalcogenides , and van der Waals heterostructures , with particular emphasis on optical properties , ultrafast dynamics , and phonon interactions . Research Interests Condensed Matter Physics : Theoretical and computational modeling of excitonic states and charge transfer in 2D materials. Nanotechnology : Engineering moiré patterns and interlayer coupling for tailored optoelectronic properties. Quantum Physics : Probing Coulomb correlations, dark excitons, and hybridized interlayer excitons. Publication Trends : His recent work explores twisted bilayer systems , electrically tunable excitons , and phonon-assisted optical processes in 2D semiconductors. Projects : Samuel is a key participant in the Graphene Core Project 3 (2020–2023), part of the Graphene Flagship initiative, collaborating with researchers across materials theory, condensed matter, and nanotechnology. Affiliations : Condensed Matter and Materials Theory , Chalmers University of Technology Graphene Flagship (European Commission-funded consortium)

• Compound Semiconductor Electronics
• GaN Device Technologies
• Terahertz Electronics
• +4 more

Edward Wasige is Professor of High Frequency Electronics in the Division of Electronics and Nanoscale Engineering at the University of Glasgow's School of Engineering, where he leads the High Frequency Electronics (HFE) Group. His research spans compound semiconductor devices, including GaN technologies for power/microwave electronics and InP-based systems for terahertz applications. Education: BSc (Eng.) in Electrical Engineering (First Class Honours), University of Nairobi, 1988 MSc in Microelectronics & Telecommunications, University of Liverpool, 1990 PhD in Electrical Engineering (with Distinction), Kassel University, 1999 Research Focus: His group pioneers high-frequency semiconductor devices with emphasis on neuromorphic photonics (RTD-based spiking neurons), terahertz wireless systems, and GaN HEMT advancements. Current work includes photonic-electronic integration for brain-inspired computing and thermal optimization of wide-bandgap devices. Publication Trends: Recent articles (2023-2024) demonstrate strong focus on terahertz instrumentation (35%), neuromorphic hardware (40%), and GaN device innovation (25%), with emerging themes in cryogenic characterization and 6G communications testbeds. Awards: UNESCO Postdoctoral Fellowship (Technion, Israel) Laboratories: Leads the HFE Group with capabilities in nanofabrication (sub-100nm processes), on-wafer characterization up to 1.7 THz, and semiconductor device testing across temperature ranges (77K–400K).