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Hamid Abdolvand is an Associate Professor and Tier-2 Canada Research Chair in Advanced Materials for Low-Emission Energies in the Department of Mechanical and Materials Engineering at Western University's Faculty of Engineering. He earned his PhD in Mechanical and Materials Engineering from Queen's University in 2012, followed by a three-year postdoctoral position at the University of Oxford focusing on electron and synchrotron x-ray diffraction analysis. Prior to Oxford, he developed finite element codes for Rolls-Royce Plc and AMEC-Europe at the University of Manchester. His research integrates computational and experimental approaches across multiple scales, with core expertise in: Deformation and failure mechanisms of engineering materials Fatigue, fracture, and (irradiation) creep phenomena Finite element, crystal plasticity, and dislocation dynamics modeling Synchrotron x-ray, neutron, and electron diffraction/tomography techniques Dr. Abdolvand's Tier-2 Canada Research Chair recognizes his leadership in developing advanced materials for sustainable energy applications, bridging industrial collaboration with fundamental materials science. He leads an active research group utilizing multi-scale methodologies to address critical challenges in material behavior under extreme conditions, with strong connections to national facilities and industry partners.

• Mechanics of Materials
• Fatigue, Fracture, and Creep
• Computational Mechanics
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Abdallah Elsayed, Ph.D., P.Eng., is an Associate Professor in the Department of Mechanical Engineering at the University of Guelph. His research focuses on casting and solidification of light alloys, materials characterization (including OM, SEM, TEM, XRD, DSC), and in-situ neutron diffraction for solidification/phase analysis. He also investigates molten metal treatment, defect/inclusion analysis, and nanoparticle applications in agriculture and environmental sustainability. His work bridges metallurgy with biomedical and environmental engineering, emphasizing sustainable materials innovation. Dr. Elsayed teaches undergraduate courses ENGG 2160 (Engineering Mechanics II) and ENGG 2120 (Materials Science). He leads the Gryphon Solidification and Materials Processing Laboratory (SaMPL), advancing research in alloy development and casting technologies. Recent work explores nanoparticle-based solutions for food preservation, water treatment, and nutrient recovery from industrial waste. His publications (2023-2025) emphasize interdisciplinary approaches, including novel alloys for biomedical implants, eco-friendly coatings, and sustainable agricultural practices. Key themes include optimizing electrical conductivity in aluminum alloys, mitigating alloy oxidation, and leveraging nanoparticles for environmental remediation. His research underscores both technical innovation and real-world applications in sustainability.

• Casting and Solidification of Light Alloys
• Materials Characterization
• Neutron Diffraction Analysis
• +7 more

David Cory is a Professor and Canada Excellence Research Chair Laureate in Quantum Information Processing at the University of Waterloo's Department of Chemistry. He is affiliated with the Institute for Quantum Computing and the Waterloo Institute for Nanotechnology. His research focuses on quantum information science, neutron interferometry, structured light applications, and spin systems. Cory's work bridges quantum physics, materials science, and biomedical imaging, with contributions to quantum control, entanglement, and advanced neutron beam technologies. He has pioneered methods for generating structured neutrons and developing quantum measurement devices, including phase grating neutron interferometers. Scientifically, Cory has advanced quantum simulations of mesoscopic systems, explored thermal state structures in quantum models, and applied structured light for biomedical diagnostics. His recent articles highlight innovations in neutron Airy beam generation, robust micro-macro entanglement, and psychophysical studies of light perception. Awards include the Canada Excellence Research Chair, recognizing his leadership in quantum technologies. Awards: Canada Excellence Research Chair Laureate in Quantum Information Processing Labs/Teams: Institute for Quantum Computing, Waterloo Institute for Nanotechnology

• Quantum Information Processing
• Neutron Interferometry
• Quantum Control and Dynamics
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Dmitry Pushin is an Associate Professor at the University of Waterloo and a Faculty member of the Institute for Quantum Computing (IQC). He holds a PhD in Physics from MIT (2006), and prior degrees from Moscow Institute of Physics and Technology (BSc 1995, MSc 1997). His research focuses on advancing neutron interferometry to address fundamental physics questions, including quantum information science, condensed matter physics, and dark energy studies. He explores applications like magnetic material characterization and spintronics development, with recent work on chameleon scalar field constraints via neutron experiments. Teaching includes courses such as MNS 321 (Electrical/Optical Properties of Materials), MNS 410 (Special Topics in Solid-State Materials), and graduate courses in Quantum Information Processing (QIC 890). His experimental work leverages neutron optics to study quantum coherence effects at macroscopic scales, with contributions to structured neutron waves and precision measurements. Key research areas include quantum information processing, magnetic materials, and fundamental physics inquiries like Born’s Rule verification. His team pioneered methods for neutron orbital angular momentum (OAM) generation and applied interferometry to study novel materials. Recent advancements include high-precision silicon interferometer fabrication and PROSPECT experiment contributions in antineutrino physics. Notable collaborations involve the PROSPECT reactor antineutrino experiment, focusing on short-baseline oscillations and dark matter limits. He also explores human perception of structured light phenomena, linking quantum optics to vision science.

• Neutron Physics
• Quantum Information Science
• Condensed Matter Physics
• +4 more

R. Klassen is a Professor in the Department of Mechanical and Materials Engineering at Western University, located in London, Ontario. He holds a Ph.D. from the University of Toronto (1990) and has extensive industry experience as a Scientist/Engineer at Atomic Energy of Canada Ltd. (1990–1999). His research focuses on experimental studies of rate-dependent plasticity, particularly the role of microstructural interfaces (e.g., grain boundaries) in material deformation. Education: Ph.D., Metallurgy and Materials Engineering, University of Toronto (1990) M.Sc., Mechanical Engineering, University of Manitoba (1986) B.Sc., Mechanical Engineering, University of Manitoba (1984) Awards: Dr. Terry Base Memorial Teaching Award (2009, 2013) R. Klassen’s lab is equipped with high-temperature nano/micro-indentation facilities and collaborates with specialized characterization centers like Surface Science Western and the Brockhouse Institute. His research group investigates materials such as zirconium alloys, nickel-based superalloys, and magnesium, focusing on deformation mechanisms, irradiation effects, and high-temperature behavior. Current students include postdoctoral researchers and Ph.D. candidates exploring topics like ion-implanted nickel alloys and irradiated zirconium. His articles emphasize nanomechanical testing, indentation-based stress analysis, and the impact of microstructural features on material performance. Key themes include FCC alloy behavior, flow forming processes, and the mechanical properties of nuclear materials. In teaching, he instructs graduate courses on plasticity and undergraduate courses in materials science and nuclear engineering. His lab also hosts projects like micro-pillar compression and micro-sphere testing, supported by advanced microscopy and diffraction techniques.

• Materials Science
• Mechanical Engineering
• Plasticity of Materials
• +6 more

Dr. Drew Marquardt is an Associate Professor in the Department of Chemistry and Biochemistry at the University of Windsor. His research focuses on biomembrane structure and dynamics, particularly using neutron and X-ray scattering techniques. He holds a PhD in Physics from Brock University (2014) and completed postdoctoral training at the University of Graz (Austria) and Oak Ridge National Laboratory (USA). Research Interests : Biomembrane mimetics, lipid-small molecule interactions, pulmonary surfactant function, and compact accelerator-based neutron sources (CANS). His work bridges physics, chemistry, and biology to address fundamental questions in health and disease, including vitamin E's antioxidant role and vaping-related lung injury mechanisms. Selected Projects : Development of asymmetric lipid vesicles for realistic membrane models Biophysical mechanisms of vitamin E in lipid membranes Neutron scattering-based studies of lipid dynamics and domain formation Pulmonary surfactant stability under vaping toxin exposure Design of a Canadian CANS facility for neutron research Collaborations : Industry partnerships with Catalent Inc. for lipid-based drug delivery systems. Active in national neutron science initiatives, including the Canadian Institute for Neutron Scattering.

• Biophysics
• Membrane Biology
• Lipid Dynamics
• +7 more

Dr. Michael Robertson is a Professor of Physics at Acadia University, located in Mi'kma'ki. His research focuses on the application of electron microscopy techniques to study semiconductor nanostructures and interdisciplinary collaborations between geology and physics. He holds the Jodrey Chair in Physics and previously served as a Canada Research Chair in Materials Science (2002-2012). His work includes developing numerical simulations for TEM image analysis and exploring optical methods for restoring faded historical documents. Dr. Robertson has supervised numerous undergraduate and graduate students in diverse fields like materials science, geology, and nanotechnology. Education: B.Sc. and Ph.D. from the University of Waterloo. Industrial experience includes roles at Noranda Forest Recycled Papers, JDS Uniphase Corp., and others. He teaches courses such as Quantum Mechanics I & II and Data Acquisition & Control. Awards: Acadia Student Union Teaching Award (2009-10), Jodrey Chair (2016-present) Research Themes: Cathodoluminescence systems, MnSi thin films, nano-crystalline silicon structures, and historical document restoration using optical methods. Publications span over three decades, with recent work on bentonite characterization, electron tomography, and skyrmion physics. He is affiliated with the Acadia Centre for Microstructural Analysis and actively engages in interdisciplinary projects.

• Semiconductor Physics
• Materials Science
• Nanotechnology
• +4 more

Jeffrey G. Rau serves as an Associate Professor at the University of Windsor, specializing in theoretical condensed matter physics with emphasis on quantum magnetism and emergent phenomena in frustrated quantum systems. His academic journey includes: Undergraduate studies at the University of Windsor Ph.D. from the University of Toronto Postdoctoral research at the Max Planck Institute for the Physics of Complex Systems and the University of Waterloo Dr. Rau's research centers on quantum mechanical emergence in magnetic materials, investigating order-by-disorder mechanisms, altermagnetic phases, and spin dynamics in frustrated anisotropic systems. His work bridges theoretical models with experimental validation, particularly through neutron scattering techniques. Recent publications (2025) demonstrate concentrated focus on altermagnetism, including theoretical frameworks for collinear systems and experimental neutron-based verification in materials like MnF 2 . His spectral analysis of quantum disorder effects represents innovative cross-methodological approaches. He leads an active research group at the University of Windsor, as indicated by dedicated group resources referenced on his academic profile.

• Quantum Magnetism
• Altermagnetism
• Frustrated Systems
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Bruce D Gaulin is a Professor in the Department of Physics & Astronomy at McMaster University, renowned for his work in condensed matter physics and quantum materials . His research focuses on geometrically frustrated magnets , including pyrochlore antiferromagnets , spin ice systems , and cuprate superconductors , using advanced techniques like neutron scattering , muon spin relaxation , and high-resolution x-ray diffraction . Key contributions include understanding quantum spin ice dynamics , magnetoelastic couplings , and the interplay of magnetic order with superconductivity in doped systems. He has led major projects funded by the Canada Foundation for Innovation , advancing neutron spectroscopy and high-magnetic-field instrumentation. Research Trends : His recent work explores dipole-octupole pyrochlore magnets , quantum spin liquids , and electronic nematicity in cuprates, with a focus on ground state selection , magnetic monopole confinement , and phase competition near critical points. Scientific Awards : Lee Osheroff Richardson Science Prize (2021) for contributions to low-temperature physics. Collaborations & Facilities : He collaborates with institutions like the Spallation Neutron Source (SNS) and Canadian Neutron Beam Centre , and has developed specialized devices for single-crystal spectroscopy and high-field x-ray studies .

• Condensed Matter Physics
• Quantum Physics
• Neutron Scattering
• +4 more

Warren Poole is a Professor in the Department of Materials Engineering at the University of British Columbia (UBC) and holds the Canada Research Chair in Through Process Modelling of Advanced Structural Materials and the Rio Tinto Aluminium Chair in Materials Process Engineering . He earned his B.E.Sc. (Western) and Ph.D. (McMaster) in materials engineering. His research focuses on advanced aluminum alloys, high-strength steels, and metal matrix composites, with an emphasis on microstructure/property modeling and computational approaches to industrial processes. Research Interests : Microstructural engineering for property optimization Mechanical behavior of two-phase materials Physical modeling of deformation mechanisms Integration of process knowledge for industrial applications Recent Article Trends : His work spans advanced aluminum alloys, magnesium composites, and steel processing, with a focus on microstructure evolution, deformation modeling, and computational analysis of material properties. Scientific Awards : Canada Research Chair in Through Process Modelling of Advanced Structural Materials Rio Tinto Aluminium Chair in Materials Process Engineering Collaborations & Funding : He collaborates with industry leaders such as Rio Tinto, ArcelorMittal Dofasco, and U.S. Steel Canada, integrating empirical and computational approaches to materials processing. His research group at UBC’s Microstructure Group drives interdisciplinary projects in metallurgical modeling.

• Advanced Aluminum Alloys
• High-Strength Steels
• Metal Matrix Composites
• +4 more

Professor Sumanth Shankar is affiliated with McMaster University's Faculty of Engineering , Department of Mechanical Engineering . His research focuses on advanced manufacturing and materials processing. B.Tech (Metallurgical Engineering), Institute of Technology – Banaras Hindu University (IT-BHU), 1996 Ph.D (Materials Science and Engineering), Worcester Polytechnic Institute (WPI), 2000 Research areas include: Metal Casting and Solidification Processing Semi-Solid Metal Casting (Rheo-Casting, Thixo-casting) Diffusion Analysis and Molten Metal Rheology Advanced Microscopy (SEM, TEM, FIB, LEAP) Microstructure-Property-Performance-Cost Relationships Recent publications focus on Aluminum-Silicon alloys , Solidification Dynamics , Intermetallic Phase Evolution , and Advanced Casting Processes like Controlled Diffusion Solidification (CDS) and Tilt-Pour Casting. Key themes include Microstructure Control , Viscosity Analysis , and X-ray/Neutron Diffraction techniques. Scientific recognition: Best Paper Award, Aluminum Division (2005) Teaching responsibilities include: Mechanical Engineering (MECH ENG 4W03: Air Conditioning & Refrigeration Systems) Solidification Processing (MECH ENG 714/MATLS 715) MATLS 3MF3: Materials Fabrication Contact: shankar@mcmaster.ca | Office: JHE 102 | Phone: 905-525-9140 ext. 26473

• Materials Science
• Metallurgical Engineering
• Solidification Processing
• +5 more

John S. Tse is a Professor at the University of Saskatchewan, affiliated with the Canadian Light Source (CLS), and a leading researcher in computational and experimental high-pressure materials science. His work focuses on understanding material behavior under extreme conditions, including structural prediction, superconductivity, and energy-related materials. He has pioneered computational methods such as ab initio molecular dynamics and synchrotron-based experimental techniques to study phenomena like hydrate formation, phase transitions, and electronic properties under pressure. Affiliations: University of Saskatchewan, Canadian Light Source (CLS) Research Themes: High-pressure physics, superconductivity, energy materials, structural prediction, and synchrotron/neutron spectroscopy His research spans experimental and theoretical studies of materials under extreme conditions, including minerals, superconductors, and energy storage materials. Key contributions include elucidating mechanisms of pressure-induced phase transitions and reactions, predicting novel superconducting phases, and advancing computational tools for materials discovery. Collaborations with institutions worldwide have enabled groundbreaking insights into Earth’s deep mantle chemistry and planetary materials.

• Computational Physics
• Experimental Synchrotron and Neutron Spectroscopy
• High Pressure Science
• +5 more

R.J. Klassen is a Professor in the Department of Mechanical & Materials Engineering at Western University, where he conducts research on experimental studies of rate-dependent plasticity in materials with a focus on microstructural interfaces. His work bridges fundamental materials science with practical applications in nuclear engineering and manufacturing processes. Education: Ph.D. in Metallurgy and Materials Engineering, University of Toronto (1990) M.Sc. in Mechanical Engineering, University of Manitoba (1986) B.Sc. in Mechanical Engineering, University of Manitoba (1984) Dr. Klassen's research primarily focuses on understanding how microstructural interfaces such as grain boundaries and interphase boundaries affect local variations in plasticity in materials. His laboratory at Western University is equipped with High Temperature Nano/Micro-Indentation facilities, which he uses to investigate deformation behavior in various metallic systems. His work spans fundamental studies of plastic deformation mechanisms to applied research on nuclear materials and manufacturing processes. A significant portion of his research examines how materials behave under extreme conditions relevant to nuclear reactors, including irradiation effects and high-temperature deformation. Dr. Klassen's recent publication record demonstrates consistent productivity in the fields of materials characterization, nanoindentation, and nuclear materials. His work shows a clear progression from fundamental studies of plastic deformation mechanisms to increasingly applied research addressing challenges in nuclear engineering and advanced manufacturing. His research group has made significant contributions to understanding the mechanical behavior of zirconium alloys used in nuclear pressure tubes, high-temperature deformation of materials for next-generation nuclear reactors, and the mechanics of manufacturing processes like flow forming. Scientific Awards: Dr. Terry Base Memorial Teaching Award, 2009 Dr. Terry Base Memorial Teaching Award, 2013 Dr. Klassen has successfully supervised numerous graduate students through their Ph.D. and Master's programs, with many of his former students now working in academia and industry. His research has been supported by various funding sources that enable the operation of his specialized laboratory facilities. His collaborations extend beyond Western University to include researchers at other institutions and national laboratories, particularly in the nuclear materials field. Dr. Klassen leads a research group equipped with High Temperature Nano/Micro-Indentation facilities at Western University. His team includes postdoctoral researchers, Ph.D. candidates, and Master's students working on various aspects of materials deformation behavior. The group frequently collaborates with other researchers at Western and at other universities in Southern Ontario to access specialized materials characterization facilities.

• Materials Science
• Mechanical Properties of Materials
• Plasticity
• +5 more

Eric Johnston is an Adjunct Assistant Professor at the Department of Physics & Astronomy , McMaster University . His research focuses on Medical Physics , Radiation Research , and Space Instrumentation . Specialties: X-ray Fluorescence, Neutron Dosimetry, Radiation Detection Systems, Space Mission Design Dr. Johnston's recent publications highlight his work on: Space Instrumentation: NEUDOSE CubeSat mission for radiation dosimetry in Low-Earth Orbit Medical Physics: Advanced X-ray detection systems for breast cancer diagnostics Radiation Safety: Neutron field characterization in isotope production facilities Email: johnsem2@mcmaster.ca

• Medical Physics
• Radiation Research
• X-ray Fluorescence
• +3 more

Holger Kleinke is a Professor at the University of Waterloo , specializing in Inorganic Chemistry . His research focuses on thermoelectric materials , crystal structure analysis , and machine learning applications in materials discovery . He can be reached at kleinke@uwaterloo.ca . Research Interests Professor Kleinke's work spans: Thermoelectric materials for energy conversion Zintl phases and intermetallic compounds Machine learning for materials prediction Solid-state synthesis techniques Crystal structure-property relationships Nanostructure engineering for enhanced performance Scientific Contributions Developed explainable AI models for thermoelectric property prediction Pioneered fast cooling methods to improve SnSe thermoelectric performance Investigated complex bismuthide structures like Ba8Zn2-xIn3+xBi10 Explored organic cathode materials through coordination polymer design Optimized electrochemical interfaces for fast-charging batteries

• Materials Science
• Inorganic Chemistry
• Thermoelectric Materials
• +3 more