Find Academic Supervisors

Prof. Vladimir Krasnov is a leading researcher in Experimental Condensed Matter Physics at Stockholm University , focusing on mesoscopic superconductivity, Josephson junctions, and nanoscale quantum phenomena. He heads the Experimental Condensed Matter Physics Group since 2005. Department: Department of Physics Lab: EKMF Lab (SU-KTH collaboration) Key Methodologies: Pulsed laser deposition, FIB nanofabrication, cryogenic measurements (0.25-300 K), THz spectroscopy Research Themes: His work bridges fundamental superconductivity studies (high-Tc cuprates, iron-pnictides) with applied quantum electronics. Notable contributions include Developing vortex-based cryogenic memory Controllable spin-triplet supercurrents in magnetic junctions THz emission from intrinsic Josephson stacks Quantum phase transitions via electrical doping Magnetic field effects on mesoscopic systems Scientific Trends: Analysis of 15 recent publications reveals strong emphasis on Josephson vortex dynamics, superconducting/ferromagnetic hybrid systems, THz applications, and non-equilibrium phenomena in quantum circuits. Facilities: Utilizes Nano-Fab clean-room for sample engineering and Low-T lab for high-field (17T), cryogenic experiments.

• Superconductivity
• Mesoscopic Phenomena
• Quantum Electronics
• +3 more

Ali W. Elshaari is an Associate Professor at the Royal Institute of Technology (KTH) in Stockholm, Sweden. He holds a B.S. in Electrical Engineering from the University of Benghazi (2007) and a Ph.D. in photonics from the Rochester Institute of Technology (2011). His postdoctoral research at TU Delft’s Kavli Institute of Nanoscience focused on quantum transport. Currently, he leads the Quantum Nano Photonics Group, pioneering work in topological and quantum integrated photonics to develop high-performance circuits for communication, sensing, and metrology. His research spans hybrid quantum photonics, strain-tunable systems, and superconducting detectors, with applications in quantum communication and quantum materials characterization. Elshaari's research interests include integrating single-photon emitters into CMOS-compatible platforms, exploring quantum phenomena like entanglement and coherence, and developing advanced photonic materials (e.g., hexagonal boron nitride and Cu₂O). He has contributed to on-chip single-photon generation/filtering, strain-tunable photonic circuits, and slow-wave superconducting detectors. His work bridges experimental and theoretical approaches, leveraging imaging techniques and phase retrieval algorithms. Elshaari is an editorial board member for Nature Portfolio - Scientific Reports , Wiley Advanced Quantum Technologies , and EPJ Quantum Technology . He teaches courses in quantum technology, electromagnetism, and optical physics. His funding includes grants from the Wallenberg Foundation, Swedish Research Council, Vinnova, and the European Research Council. His lab actively recruits students for bachelor’s and master’s projects in quantum photonics and nanophotonics.

• Quantum Photonics
• Topological Photonics
• Quantum Integrated Photonics
• +7 more

Philippe Tassin is a Professor of Physics at Chalmers University, specializing in electromagnetic structured media and computational electrodynamics. He teaches optics, quantum mechanics, and computer science courses, earning recognition through the Golden Chalk award and Chalmers' Pedagogical Prize. M.Sc. and Ph.D. (summa cum laude) from Free University of Brussels Postdoctoral work at Iowa State University and Ames Laboratory (US DOE national lab) His research spans metamaterials, plasmonics, and nanophotonics, with significant contributions to inverse design methodologies using machine learning. He has authored influential papers in Science , Nature Photonics , and Physical Review Letters , and frequently presents at international conferences. Recent publications highlight advancements in liquid metal composites for electromagnetic absorption, AI-driven metasurface design, and adaptive meshing for photonic simulations. His work integrates computational physics with experimental validation across multiple electromagnetic domains. KAW Fellowship Swedish Research Council Grant IEEE & SPIE Fellowships BAEF Alumni Award Frans Van Cauwelaert Award (Royal Flemish Academy) As editor of Photonics and Nanostructures , member of the Young Academy of Sweden, and vice-chair of IEEE Photonics Sweden Chapter, he actively contributes to academic leadership and public science communication.

• Electromagnetic Structured Media
• Metamaterials
• Plasmonics
• +4 more

Professor Igor Abrikosov is a Professor, Head of Division, and Head of Unit at Linköping University's Department of Physics, Chemistry and Biology (IFM), within the Faculty of Science and Engineering. His research group focuses on theoretical simulations to advance materials science and industry applications. He leads projects involving extreme conditions, materials design, and quantum technologies, supported by grants from the Swedish Research Council, SSF, and Wallenberg Foundation. Education includes a Candidate (1991) and Doctorate (1997) in Physics and Mathematics from the Moscow Steel & Alloys Institute, followed by roles at Uppsala University and international collaborations. His research interests span solid-state physics, materials properties under extreme conditions, and computational modeling. Recent work includes discoveries in phase transitions, quantum materials, and defect engineering. His group emphasizes collaborative environments, with systematic credit to contributors. Key projects include materials at extreme pressures, functional carbides, and quantum technologies. He coordinates interdisciplinary initiatives like the Swedish e-Science Research Centre and the International Interdisciplinary Materials Science Laboratory for Advanced Functional Materials. Grants include funding for quantum bit research (Knut & Alice Wallenberg Foundation) and predictive materials design (VR/SSF). His team includes over 40 members, with active PhD students and postdocs. He has pioneered theoretical foundations for novel materials synthesis under high pressure, such as beryllonitrene and silica phases.

• Theoretical Physics
• Materials Science
• Quantum Mechanics
• +3 more

Val Zwiller is a Professor at the Royal Institute of Technology (KTH) in the Department of Quantum and Nanophysics, affiliated with the School of Engineering Sciences (SCI). His research focuses on quantum photonics, superconducting single-photon detectors, nanowire quantum dots, and integrated photonic systems. He teaches and coordinates courses such as Quantum Photonics (SK2900) and Quantum Technology (SK2903), and advises on degree projects in engineering and applied physics. Research Interests: Zwiller's work spans quantum entanglement generation, single-photon detection technologies, and applications in quantum communication and sensing. His recent studies include fractal superconducting nanowire detectors, telecom-band quantum dots, and quantum state tomography. His research bridges fundamental quantum physics with practical photonic device development. Course Responsibilities: Quantum Photonics (SK2900) - Examiner, Course Coordinator, Teacher Quantum Technology (SK2903) - Teacher, Assistant Optical Physics (SK2303) - Examiner Supervision of Degree Projects in Engineering Physics and Applied Physics Publications Trends: Zwiller's recent articles emphasize scalable quantum detection systems, nanowire-based quantum emitters, and advanced LIDAR technologies with single-photon sensitivity. His work frequently intersects quantum optics with material science and engineering. Awards/Grants: No specific awards or grants were explicitly mentioned in the provided texts. Lab/Teams: While not detailed in the input, his affiliation with the Department of Quantum and Nanophysics suggests involvement in KTH's quantum photonics and nanotechnology research groups.

• Quantum Photonics
• Single-Photon Detectors
• Quantum Dots
• +7 more

Andrey Danilov is a Senior Researcher in Quantum Device Physics at Chalmers University of Technology in Gothenburg, Sweden. His research focuses on quantum physics, superconducting circuits, and quantum computing components, with particular emphasis on understanding and mitigating decoherence mechanisms in quantum devices. Dr. Danilov's research spans quantum physics, materials science, and electrical engineering. He specializes in investigating two-level systems and their impact on quantum coherence in superconducting circuits, developing advanced microwave measurement techniques, and exploring novel materials for quantum applications. His work bridges fundamental quantum physics with practical engineering solutions for quantum computing and sensing technologies. Notably, he has made significant contributions to understanding surface spins on aluminum oxide as a source of flux noise in quantum circuits and has developed innovative approaches to suppress quantum decoherence through techniques like immersion cooling. His publication record demonstrates a consistent focus on quantum device physics, with recent work examining quantum bath suppression, two-level system defects, and spin echo phenomena in superconducting circuits. His research shows a clear trajectory toward improving coherence times and measurement fidelity in quantum computing hardware, addressing some of the most significant challenges in the field. Dr. Danilov has led and participated in multiple research projects, including the 'High Frequency Topological Insulator devices for Metrology (HiTIMe)' project (2018-2022) funded by the European Commission and the 'Microwave amplifiers with quantum-limited performance' project (2017-2020) funded by the Swedish Research Council. These projects have resulted in numerous high-impact publications in journals such as Nature Communications, Physical Review Letters, and Science Advances. He maintains an active research group focused on quantum device physics, collaborating extensively with researchers across Europe and beyond. His laboratory likely includes advanced cryogenic measurement setups for characterizing quantum devices at millikelvin temperatures, microwave measurement systems, and nanofabrication capabilities for creating novel quantum circuit designs.

• Quantum Physics
• Superconducting Circuits
• Quantum Computing
• +5 more

Maciej Dendzik is a Researcher at KTH Royal Institute of Technology, affiliated with the Department of Light and Materials Physics within the School of Engineering Sciences. His research focuses on advanced experimental techniques in condensed matter physics, including angle-resolved photoemission spectroscopy (ARPES), ultrafast dynamics, and the study of topological materials, 2D systems, and quantum phenomena. He has contributed to understanding electron-phonon interactions in superconductors, the emergence of Weyl fermions in magnetic materials, and energy transfer mechanisms in nanostructured systems. His work integrates cutting-edge spectroscopic methods with computational tools, such as machine learning for band mapping, to explore electronic structures and dynamics in novel materials. Key areas of investigation include charge density waves in kagome superconductors, ultrafast carrier dynamics in topological insulators like bismuthene, and the development of advanced light sources for time-resolved studies. While no specific awards or grants are explicitly listed, his extensive publication record reflects a commitment to advancing experimental methodologies and unraveling fundamental material properties at the nanoscale. He teaches the Degree Project in Engineering Physics at the undergraduate level, contributing to KTH's educational mission.

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

Magnus Johansson is a Professor at Linköping University's Department of Physics, Chemistry and Biology (IFM), specializing in Theoretical Physics (TEOFY). His research focuses on nonlinear dynamics, topological edge states, and discrete nonlinear Schrödinger systems, with applications in quantum physics and condensed matter physics. Key research interests include topological insulators, soliton dynamics, and the interplay between nonlinearity and lattice structures. His work explores systems such as photonic lattices, Bose-Hubbard models, and waveguide arrays, with recent contributions in edge modes in nonlinear SSH lattices and breathers in nonlinear systems. Publications highlight studies on edge breathers, nonlinear gap modes, and instabilities in discrete systems. His research bridges theoretical physics with applications in optics and materials science, contributing to advancements in nonlinear photonics and quantum systems. Magnus holds the email magnus.x.johansson@liu.se and is affiliated with the Theoretical Physics division at IFM, Linköping University.

• Theoretical Physics
• Nonlinear Optics
• Quantum Physics
• +3 more

Adrien Bouhon is an Assistant Professor at Nordita, affiliated with the University of Stockholm. His research focuses on condensed matter physics, particularly topological materials and quantum phases, with significant contributions to non-Abelian topology, Euler class systems, and Floquet-driven quantum dynamics. His work explores multi-gap systems, symmetry-protected phases, and experimental realizations in phononic and photonic platforms. Key themes include topological invariants, dynamical observables, and phase transitions under disorder or driving conditions. Recent publications highlight the interplay of crystal symmetry with non-Abelian braiding, acoustic manifestations of topological phases, and bounds for topological invariants. He contributes to theoretical frameworks for topological materials, including synthetic dimensions and driven systems.

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

Anton Frisk Kockum is an Associate Professor in Applied Quantum Physics at Chalmers University of Technology. He holds a PhD in Physics from Chalmers (2014) and completed postdoctoral research at RIKEN in Japan (2014–2018), supported by a JSPS Fellowship. He joined the Wallenberg Centre for Quantum Technology in 2018, focusing on theoretical contributions to quantum computing and quantum program design. His research spans quantum optics, quantum information, and quantum machine learning, with emphasis on ultrastrong light-matter coupling, quantum acoustics, and circuit quantum electrodynamics. He explores quantum technologies for building scalable quantum computers and optimizing their applications. Recent work includes entanglement generation in hybrid systems, decoherence mitigation, and quantum process tomography advancements. His publications (67 total) address topics like giant atom dynamics, quantum amplification, and quantum algorithm optimization for real-world problems. He leads projects funded by EU, SSF, and VR, including studies on non-Hermitian topological phases and structured quantum environments.

• Quantum Optics
• Quantum Information
• Quantum Machine Learning
• +3 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.

• Semiconductor Physics
• Spintronics
• Nanomaterials
• +7 more

Jerry Eriksson is an Associate Professor at the Department of Computer Science , Umeå University. He is also affiliated with the High Performance Computing Center North (HPC2N) at the same institution, focusing on computational methods and applications. Academic Rank : Associate Professor Primary Affiliation : Department of Computer Science, Umeå University Secondary Affiliation : High Performance Computing Center North (HPC2N) Email : jerry.eriksson@umu.se Dr. Eriksson's research spans interdisciplinary domains where computer science intersects with applied physics and network engineering . His work includes: Medical Imaging : Fluorescence optical tomography and electromagnetic shape tomography using advanced mathematical models Computational Methods : Implicit radial basis function techniques, Gauss-Newton optimization, and regularization schemes Network Engineering : Collision detection algorithms in wireless networks and peer-to-peer streaming protocols 3D Measurement : Bundle adjustment formulations for photogrammetry and robotics applications Article trends show a focus on applied inverse problems (2003-2017) with emphasis on: Medical imaging reconstruction algorithms Wireless network optimization techniques Geometric computing for 3D modeling Mathematical methods in computational engineering

• Computer Science
• Computational Science
• Medical Imaging
• +5 more

Jack Lidmar is an Associate Professor in the Department of Physics at KTH Royal Institute of Technology. His research focuses on statistical physics, condensed matter physics, and biological physics, with emphasis on fluctuation phenomena in superconductors, phase transitions, quantum phase transitions, disordered systems, and the development of efficient Monte Carlo simulation methods. He has contributed to studies of superconducting nanostructures, spin glasses, and biological systems such as virus structural mechanics. Lidmar teaches several courses at KTH, including Computational Physics , Statistical Physics , and Quantum Information , and oversees multiple degree projects. His work integrates theoretical modeling with advanced simulation techniques, such as the Accelerated Weight Histogram (AWH) method, to explore rare events and free energy landscapes in materials and biological systems. Recent research highlights include investigations of superconducting nanostrips, phase transitions in two-dimensional materials, and the application of simulation methods to predict material properties like skin permeability. His interdisciplinary approach bridges condensed matter physics with computational biology and engineering applications.

• Statistical Physics
• Condensed Matter Physics
• Biological Physics
• +6 more

Venkata Kamalakar Mutta is an Associate Professor in Quantum Technology at the Department of Physics and Astronomy, Uppsala University , where he leads the Quantum Material Devices group. His research focuses on atomically thin quantum materials, including graphene, 2D semiconductors, and van der Waals heterostructures, to develop next-generation quantum and energy-efficient electronic devices. His research interests span quantum technology, spintronics, nanomagnetism, 2D materials, and condensed matter physics . He investigates charge, spin, and orbital transport phenomena using advanced nanofabrication, low-temperature magnetotransport, magneto-optic techniques, and X-ray spectroscopy. His group has achieved milestones such as record spin communication in graphene and electrical control of magnetization dynamics. The recent publications highlight a strong trend in 2D materials engineering, spin-based devices, and quantum heterostructures , with applications in nanoelectronics, neuromorphic computing, and optoelectronics. His work frequently appears in high-impact journals such as ACS Nano , Physical Review Letters , and Scientific Reports . Scientific Awards: Thuréus Prize Funding and Teaching: His research is supported by the European Research Council (Consolidator Grant 2020), Swedish Research Council, Knut and Alice Wallenberg Foundation, and others. He coordinates the Quantum Technology Master’s programme and teaches Applied Molecular Physics , Spin-based Technology , Nanoscience , and Condensed Matter Physics . He served as Outreach Coordinator for X-ray Photon Science (2021–2023). Laboratory: The Quantum Material Laboratory integrates material synthesis, nanofabrication, and quantum measurement techniques down to 10 mK, enabling cutting-edge research in quantum devices and low-dimensional systems.

• Quantum Technology
• Spintronics
• Nanomagnetism
• +13 more

Lukas Splitthoff is a postdoctoral researcher at the Department of Microtechnology and Nanoscience (MC2) at Chalmers University of Technology, Sweden. He is part of the 202q-lab led by Simone Gasparinetti, focusing on advancing bosonic quantum computing architectures using superconducting circuits. His work integrates topological systems, quantum coherence, and hybrid qubit designs. Education: PhD in Physics, Technical University of Delft, The Netherlands (2024) – Thesis: 'Gate-tunable kinetic inductances for superconducting circuits' MSc in Physics, University of Münster, Germany (Exchange at Université Paris-Sud, France) – Thesis: 'Tantalum pentoxide nanophotonic circuits for integrated photonics' Research Interests: Lukas explores superconducting circuits for quantum computing, topological phases in condensed matter systems, and nanophotonic integration. His projects emphasize gate-tunable devices, topological protection of qubit states, and scalable quantum architectures. He also investigates quasiparticle loss mitigation and hybrid spin-transmon systems for enhanced coherence. Labs & Affiliations: Core member of the 202q-lab at MC2, collaborating with leading groups in superconducting qubit research. His work bridges theoretical models with experimental implementations in cryogenic environments.

• Quantum Computing
• Superconducting Circuits
• Nanophotonics
• +3 more