Find Academic Supervisors

Neil Drummond is a Senior Lecturer in the Physics Department at Lancaster University, where he conducts research in computational condensed matter physics. He is affiliated with both the Quantum Technology Centre and the Condensed Matter Theory group, focusing on advanced computational methods for studying quantum systems. Dr. Drummond's research interests center on the development and application of quantum Monte Carlo methods for calculating material properties from first principles. His work spans several key areas including two-dimensional materials (particularly graphene, silicene, and transition metal dichalcogenides), materials at high pressure, and electron(-hole) gases. His computational approach enables precise modeling of quantum effects in condensed matter systems that are challenging to study with conventional methods. Analysis of Dr. Drummond's recent publications reveals a strong focus on quantum Monte Carlo techniques applied to two-dimensional electron systems and novel materials. His work consistently addresses fundamental questions about electron correlation, phase transitions, and quasiparticle properties in low-dimensional systems. The research demonstrates increasing computational sophistication, with recent papers exploring GPU acceleration of quantum Monte Carlo codes and reproducibility of computational methods. Dr. Drummond currently supervises two postgraduate research students, James Doughty and Clio Johnson, guiding them in the development and application of quantum Monte Carlo methods. He serves as Principal Investigator for the PAX-HPC (Particles At eXascale On high Performance Computers) project, funded by the Engineering and Physical Sciences Research Council, which runs from December 2021 to March 2025. This project represents significant research funding supporting advanced computational physics research at Lancaster University. Within the Lancaster University research ecosystem, Dr. Drummond contributes to the Quantum Technology Centre, where his computational expertise complements experimental work on quantum materials and devices. His research forms part of the broader condensed matter physics efforts at the university, which spans both fundamental theoretical investigations and potential applications in next-generation electronic materials.

• Quantum Monte Carlo
• Two-dimensional materials
• Graphene
• +5 more

Christopher Wiebe is an Adjunct Professor in the Department of Physics & Astronomy at McMaster University. His research focuses on quantum magnetism , geometric frustration , and spin ice physics , with expertise in high-pressure synthesis and magnetic characterization of novel materials. Key research themes: Quantum spin liquids and spin ices Multiferroic materials Breathing pyrochlores and double perovskites Disorder effects in frustrated systems Recent publications highlight studies on NaTiSi2O6 (NMR), Lu2V2O7 (magnetoresistance), and Pr3Ga5SiO14 (kagome systems). His work employs techniques like muon spin relaxation , neutron scattering , and NMR to explore magnetic ground states and excitations. Dr. Wiebe has contributed to understanding chemical pressure effects and orbital ordering in frustrated magnets, with implications for quantum criticality and multiferroicity.

• Quantum Magnetism
• Geometric Frustration
• Spin Ice Physics
• +6 more

Dr. Andrius Džiaugys is a Senior Research Fellow at the Institute of Applied Electrodynamics and Telecommunications (IAET) , Vilnius University. His work focuses on solid state physics , particularly structural phase transformations , electrical conductivity , and properties of semiconductors and dielectrics . Scientific Interests: His research explores layered ferroelectric and antiferroelectric materials like CuInP2S6 and CuBiP2Se6, examining domain walls, defect mechanisms, and dielectric behavior under varying conditions. He investigates material synthesis, crystal growth, and applications in ultrasonic transducers. Publications: His 15 most recent works span topics in ferroelectrics , condensed matter physics , and nanotechnology , with a focus on piezoelectricity , antiferroelectricity , and structural defects in van der Waals materials. Education & Supervision: He supervised PhD student Ilona Zamaraitė and contributed to studies on crystallography and material science. His work aligns with collaborations across Europe and institutions like CERN.

• Solid state physics
• Structural phase transformations
• Electrical conductivity
• +2 more

Associate Professor Emil Tafra, Ph.D., is affiliated with the Department of Experimental Physics at the Faculty of Science, University of Zagreb. He holds a permanent position since 2020 after progressing from senior assistant (2009-2013) and assistant (2013-2020) roles. His employment history includes postdoctoral research at the Paul Scherrer Institute (Switzerland, 2010-2011). His research focuses on magnetotransport properties of organic conductors , quasi-2D cuprates , manganites , and hybrid organic-inorganic materials , with particular emphasis on charge transport mechanisms and Mott-Anderson localization . He teaches Microelectronics , Low-temperature physics , and Electronics Practicum courses. Current research projects include " Evolution of complex magnetic and polar orders " (HRZZ project, 2023-), " Collective effects and topological transport " (HRZZ, 2017-2022), and international collaborations like the France-Croatia COGITO Program (2013-2014). Key publication trends show expertise in 2D electron systems Mott and Anderson transitions Spin-polarized transport Amorphous alloy properties Pressure-dependent metal-insulator transitions High-mobility oxide interfaces

• Magnetotransport properties
• Charge transport mechanisms
• Mott and Anderson localization
• +7 more

Christopher Bell serves as Associate Professor and Academic Director of Recruitment and Admissions in the School of Physics at the University of Bristol. Holding PhD, MSci, and BA degrees from the University of Cambridge, he leads research at the intersection of condensed matter physics and quantum materials. His institutional profile highlights leadership in academic administration while maintaining active experimental research. Research interests focus on quantum materials engineering , particularly the creation and control of novel electronic phases in low-dimensional systems. His work centers on two-dimensional superconductors , ultrathin ferromagnets , and their coexistence through techniques including field-effect gating, thin film heterostructures, and proximity effects. Research spans condensed matter physics, materials science, and quantum device engineering with emphasis on fundamental low-temperature phenomena. Publications reveal strong thematic concentration in uranium-based quantum materials and oxide heterostructures , with recent work on uranium dioxide thin films, metastable uranium phases, and quantum transport phenomena. His experimental approach combines nanofabrication, epitaxial growth, and low-temperature characterization to explore emergent electronic states. As Principal Investigator, Bell leads three research projects including Advanced Nanofabrication for Quantum Material Exploration (2024-2027). His supervisory record includes 8 postgraduate research projects, with extensive engagement in conference participation (16 instances), peer review (13), and schools outreach. Research groups affiliations include Condensed Matter Physics CDT, Quantum & Soft Matter, and Nanofabrication facilities.

• Quantum Materials
• Superconductivity
• Magnetism
• +5 more

Yves Kwan is an Assistant Professor in the Department of Physics at the University of Texas at Dallas, affiliated with the School of Natural Sciences and Mathematics. He received his DPhil in Theoretical Physics from the University of Oxford in 2022 and is currently a postdoctoral researcher there until 2025. His research focuses on strongly correlated electron systems in moiré materials, particularly graphene-based heterostructures. Key areas include topological insulators, fractional Chern insulators, and quantum phase transitions driven by electron interactions and lattice deformations. Recent publications highlight his work on fluctuation-driven instabilities in rhombohedral graphene, valley spiral order in moiré systems, and unconventional superconductivity in bilayer graphene. His studies employ advanced theoretical frameworks like Hartree-Fock approximations and multi-band exact diagonalization.

• Condensed Matter Physics
• Quantum Mechanics
• Topological Materials
• +6 more

Sergei Simak serves as a Visiting Professor in the Department of Physics and Astronomy at Uppsala University, specializing in Materials Theory. His primary research address is Ångströmlaboratoriet, Regementsvägen 10, Uppsala. Dr. Simak's research spans computational materials science with focus on density functional theory , magnetic materials , and perovskite semiconductors . His recent work explores phase transitions in shape-memory alloys, high-pressure hydride synthesis, and magnetocaloric effects. Notably, he develops machine learning approaches to enhance DFT thermodynamics calculations. Analysis of his 15 most recent publications (2022-2025) reveals dominant research trends: (1) computational investigation of magnetic properties in lead-free double perovskites for optoelectronic applications; (2) high-pressure synthesis and characterization of hydridosilicates; (3) modeling martensitic transitions and phase diagrams under extreme conditions. His work frequently employs first-principles calculations and high-throughput screening methods. Dr. Simak actively collaborates with researchers across international institutions, with recent publications appearing in Physical Review Materials , Nature Materials , and Scientific Reports . His work shows significant interdisciplinary reach between condensed matter physics, materials chemistry, and computational science.

• Computational Materials Science
• Condensed Matter Physics
• Density Functional Theory
• +4 more

Inna Ivashchenko is a researcher at the Department of Biotechnology and Physical Chemistry within the Faculty of Chemical Engineering and Technology at Tadeusz Kościuszko Cracow University of Technology. Her work focuses on advanced materials science, particularly in the development and analysis of chalcogenide glasses, perovskite crystals, and quaternary semiconductor systems. Research areas: Photoluminescence, crystal growth, phase equilibria, and radiation detection materials. Current project: New composite perovskite materials with a double structure, lead-free, with promising luminescent properties (2023–2025). Contact: inna.ivashchenko@pk.edu.pl

• Materials Science
• Solid State Chemistry
• Optical Materials
• +2 more

Martin Peterlechner serves as Head of Transmission Electron Microscopy at Karlsruhe Institute of Technology (KIT), leading a core research facility focused on advanced materials characterization. His role bridges technical leadership and scientific investigation within KIT's research infrastructure. His research spans Materials Science , Electron Microscopy , and Phase Change Materials , with specialized expertise in High-Entropy Alloys , Diffusion Analysis , and Nanomaterial Characterization . He employs techniques including atom probe tomography, nanoindentation, and electron correlation microscopy to study microstructural evolution under deformation, irradiation, and thermal processing. Analysis of his 15 most recent publications (2024-2026) reveals dominant themes in phase change materials (GeSbTe systems), severe plastic deformation effects in alloys, and diffusion mechanisms. His collaborative work frequently appears in high-impact journals like Acta Materialia and Advanced Energy Materials , demonstrating methodological rigor across materials synthesis, characterization, and property analysis. As laboratory head, Dr. Peterlechner directs the Transmission Electron Microscopy group at KIT, providing critical infrastructure for materials research while advancing fundamental understanding of structure-property relationships through his publication record.

• Materials Science
• Electron Microscopy
• Phase Change Materials
• +4 more