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Wendy MaoView profile

Professor

• Materials Science
• Planetary Science
• Geophysics
• +3 more

Wendy Mao is a Professor of Earth and Planetary Sciences, Photon Science, and (by courtesy) Geophysics at Stanford University, affiliated with SLAC National Accelerator Laboratory. Her research focuses on materials under extreme conditions, particularly high pressure, to understand planetary interiors, energy materials, and novel phases. Key interests include phase transitions in minerals, silicate melts, and light-element alloys, with applications in planetary core modeling and hydrogen storage. Education: Ph.D. in Geophysical Sciences from the University of Chicago (2005). Teaching includes Earth's interior dynamics, mineralogy, and a freshman seminar on diamonds. Research emphasizes high-pressure experimentation using diamond anvil cells and synchrotron X-ray techniques. Recent work explores metallic hydrogen, iron spin states in super-Earths, and amorphization in halide perovskites. Collaborations leverage machine learning and advanced imaging for material characterization. Her lab develops methods to stabilize metastable phases and study ultrafast structural responses under shock compression. The group also investigates defects in quantum sensors and novel synthesis pathways for energy materials.

Patrick MaletinskyView profile

Professor

• Quantum Physics
• Nanotechnology
• Quantum Sensing
• +3 more

Prof. Patrick Maletinsky is a Full Professor and Head of the Department of Physics at the University of Basel. He leads the Maletinsky Research Group focused on quantum sensing and nanoscale magnetometry using nitrogen-vacancy (NV) centers in diamond. His academic journey includes a PhD from ETH Zurich (2010 Schläfli Prize recipient) and postdoctoral research at Harvard University. Current research emphasizes quantum technologies for imaging exotic materials and mesoscopic systems, with applications in condensed matter physics and quantum computing. Key projects include the QuantumLeap initiative and leadership in NCCR SPIN for silicon-based quantum computing. Education: PhD in Physics, ETH Zurich (2008) Studies at École Normale Supérieure Paris and JILA, Boulder Research interests span quantum sensing, nanoscale magnetometry, and NV center-based tools for probing magnetic materials. His group pioneered cryogenic nanoscale magnetometers and demonstrated imaging of cuprate superconductors. Awards include the Georg-H.-Endress Professorship (2012) and promotion to Associate Professor (2017) before becoming Full Professor and Department Head. Scientific achievements include coupling NV spins to mechanical oscillators, strain-based sensing, and nanophotonics in diamond nanostructures. His work bridges quantum technologies with condensed matter challenges, targeting exotic states like topological materials and strongly correlated systems.

• Semiconductor Defects
• Quantum Materials Engineering
• Infrared Photonics
• +3 more

Kunal Mukherjee serves as an Assistant Professor in the Department of Materials Science and Engineering within Stanford University's School of Engineering. His teaching portfolio includes core courses such as MATSCI 152: Electronic Materials Engineering and MATSCI 183/213: Defects and Disorder in Materials, alongside extensive supervision of graduate research through MATSCI 300 (Ph.D. Research) and undergraduate studies. His research centers on semiconductor defects and quantum materials engineering, with particular expertise in dislocation dynamics, heteroepitaxial growth, and quantum emitter systems. Key focus areas include: Defect engineering in diamond for quantum sensing applications Mid-infrared photonic materials (PbSe, PbSnSe) for room-temperature operation Quantum dot laser reliability on silicon substrates Nanoscale positioning of color centers in diamond nanostructures Chalcogenide thin film growth for infrared photonics Analysis of his 15 most recent publications reveals a strong emphasis on defect-mediated phenomena across multiple material systems. His work bridges fundamental materials science with photonic applications, particularly in quantum technologies and infrared optoelectronics. The research demonstrates sophisticated control over dislocation formation, strain management, and phase stability in heterostructures. No scientific awards are documented in the provided materials. His academic supervision spans Ph.D. candidates (MATSCI 300), Master's students (MATSCI 200), and undergraduate researchers across multiple independent study courses, though specific student names are not listed. His laboratory work focuses on advanced materials growth and characterization, particularly employing correlative microscopy techniques to study dislocation luminescence and quantum emitter systems. Current efforts target scalable quantum photonic platforms and high-reliability infrared emitters through precise defect engineering.

Jeff DerbyView profile

Professor

• Transport Phenomena
• Advanced Material Processing
• Numerical Simulations
• +9 more

Jeff Derby is a Professor at the University of Minnesota within the College of Science and Engineering , affiliated with the Department of Chemical Engineering and Materials Science . He leads the Derby Group , focusing on computational modeling of materials processing. His research integrates transport phenomena , phase change , and reaction dynamics to advance crystalline material growth techniques. Contact: derby@umn.edu | 612/625-8881 | 239 Amundson Hall, 421 Washington Avenue SE, Minneapolis, MN 55455 Research Interests span nonlinear phenomena in crystal growth , microstructure evolution , defect formation , and high-pressure growth processes for semiconductors (e.g., II-VI crystals), silicon, sapphire, and diamond substrates. His group develops open-source computational tools to model incompressible fluid dynamics , heat/mass transfer , and radiation heat transfer . Scientific Awards : Distinguished McKnight University Professor Labs & Collaborations : The Derby Group collaborates with experimental teams to validate simulations and optimize materials processing across applications in semiconductors , photovoltaics , and optical systems .

Paul StevensonView profile

Assistant Professor

• Biophysics
• Quantum Engineering
• Quantum Sensing
• +3 more

Paul Stevenson is an Assistant Professor of Physics at Northeastern University's College of Science, leading the Stevenson Group. His research focuses on quantum sensing and biophysical dynamics using solid-state spins, particularly nitrogen vacancy centers in diamond. He develops nanoscale sensors for probing molecular motion and quantum communication technologies. Notably, his work bridges physics, chemistry, and biology, addressing challenges such as magnetism in complex systems and single-molecule imaging. He is a 2023 TIER1 Awardee and collaborates with institutions like Brown University and UC Berkeley. Stevenson's lab explores quantum materials and spintronics, leveraging interdisciplinary approaches to advance quantum hardware and biophysical understanding. His group's innovations include ultrasensitive magnetometers and tools for studying antiferromagnetic ordering. Contact: p.stevenson@northeastern.edu .

Brian D. GerardotView profile

Professor

• Quantum Photonics
• Condensed Matter Physics
• Materials Science
• +4 more

Brian D. Gerardot is a Professor at the School of Engineering & Physical Sciences , Heriot-Watt University , where he leads the Quantum Photonics Laboratory within the Institute of Photonics and Quantum Sciences. His research focuses on creating ultra-coherent quantum photonic devices that bridge quantum optics, condensed-matter physics, materials science, and nano-optics. BSc in Materials Science from Purdue University (1998) PhD from UC Santa Barbara (2004) His work explores semiconductor quantum dots and defect centers in diamond, utilizing advanced nano-fabrication techniques to design and characterize photonic structures. Research outputs highlight quantum technologies, entangled imaging, exciton dynamics in 2D materials, and coherence in photon emission systems. Scientific Awards include: Chair in Emerging Technologies (Royal Academy of Engineering, 2018) Wolfson Merit Award (Royal Society, 2018) ERC Consolidator Grant (2018) ERC Starting Grant (2013) Personal Research Fellowship (Royal Society of Edinburgh, 2006-2009) University Research Fellowship (Royal Society, 2009-2017) Challenging Engineering award (2011) He manages the NanoFab Disco Saw facility and has secured significant grants for quantum technologies and nanophotonic research, with collaborations spanning international institutions and datasets supporting breakthroughs in exciton-polarons, quantum imaging, and photonic coherence.

Andrea PickelView profile

Assistant Professor

• Nanoscale Heat Transfer
• Luminescence Nanothermometry
• Super-Resolution Imaging
• +7 more

Andrea Pickel is an Assistant Professor at the University of Rochester, holding joint appointments in the Department of Mechanical Engineering, Materials Science, and the Institute of Optics, while also serving as a Scientist at the Laboratory for Laser Energetics (LLE). She received her PhD in Mechanical Engineering from UC Berkeley (2019) and a BS from Carnegie Mellon University (2014). Her research focuses on nanoscale heat transfer, leveraging luminescent materials and super-resolution imaging to address challenges in thermal management, catalysis, and energy systems. Education: PhD, Mechanical Engineering, UC Berkeley, 2019 BS, Mechanical Engineering, Carnegie Mellon University, 2014 Research interests include luminescence nanothermometry, single-nanoparticle imaging, and high-temperature thermal metrology. Her work integrates experimental methods like stimulated emission depletion (STED) imaging and operando spectroscopy to advance understanding of energy transport at the nanoscale. Notable awards include the NSF CAREER Award (2022), ACS PRF Doctoral New Investigator Award (2020), and Furth Fund Award (2021). She was also named a Scialog Fellow in 2024. Advancing thermal measurement techniques, her group collaborates across disciplines to tackle applications in carbon capture, battery technology, and plasmonic photocatalysis. Current projects emphasize developing dual-mode sensing tools for real-time thermal and chemical monitoring. Labs/Teams: Active at the Laboratory for Laser Energetics (LLE) and leads the Pickel Research Group in the Department of Mechanical Engineering.

Andrew LogsdailView profile

Professor

• Computational Chemistry
• Catalysis
• Materials Science
• +4 more

Dr. Andrew Logsdail is a Reader in Catalytic and Computational Chemistry at Cardiff University’s School of Chemistry, part of the Cardiff Catalysis Institute (CCI). He holds a PhD in Chemistry (University of Birmingham), an MRes in Materials and Nanochemistry, and a BSc in Natural Sciences. His research focuses on computational modeling of catalytic materials, software development (e.g., ChemShell), and heterogeneous catalysis with applications in energy and sustainability. He is a Fellow of the Higher Education Authority and a Chartered Chemist with the Royal Society of Chemistry. Key roles include UKRI Future Leaders Fellow (2020–2024) and leadership in international organizations like the IUPAC Division II. His work is funded by UKRI, EPSRC, and industry partners like BP and Johnson Matthey. Research interests span computational catalysis, nanomaterials, and data-driven materials discovery. Notable projects include QM/MM simulations for catalytic systems, development of the ChemShell software, and studies on zeolites, palladium catalysts, and CO₂ reduction. He supervises PhD students and contributes to teaching at undergraduate and postgraduate levels. Dr. Logsdail’s achievements include over 100 peer-reviewed publications and significant contributions to software development in computational chemistry. His awards include the UKRI Future Leaders Fellowship and leadership roles in national and international scientific committees. He actively engages in outreach, promoting chemistry education and catalysis research.

Philip HemmerView profile

Professor

• Quantum Optics
• Quantum Computing
• Nanodiamonds
• +5 more

Philip Hemmer is a Professor in the Department of Electrical and Computer Engineering at Texas A&M University, affiliated with the College of Engineering. He holds a Ph.D. in Physics from MIT (1984) and a B.S. from the University of Dayton (1976). His research focuses on quantum optics, nanodiamond-based quantum sensing, and advanced optical materials for applications in quantum computing, biosensing, and thermal imaging. Key areas include solid-state quantum systems, upconversion nanoparticles, and fiber-optic sensor technologies. Dr. Hemmer's work spans interdisciplinary fields such as quantum communication, luminescent thermometry, and nanotechnology. His lab develops novel materials like GeV color centers in diamonds for high-precision sensing and explores applications in medical diagnostics, environmental monitoring, and fundamental physics. Awards include the National Science Foundation Fellowship and multiple AFOSR Star Team Awards. Education: Ph.D., Physics, Massachusetts Institute of Technology, 1984 B.S., University of Dayton, 1976 Awards: National Science Foundation Fellowship Summa Cum Laude, University of Dayton Air Force Research Laboratory Chief Scientist's Award AFOSR Star Team Award (three-time recipient) His recent publications emphasize quantum-enhanced biosensing, nanodiamond engineering, and fiber-optic quantum sensors. Research trends highlight innovations in thermal imaging using diamond defects, multiplexed sensing platforms, and scalable quantum technologies.

Jani KotakoskiView profile

Professor

• Graphene
• Two-Dimensional Materials
• Carbon Nanotubes
• +5 more

Jani Kotakoski is a Full Professor at the University of Vienna's Faculty of Physics, leading the Physics of Nanostructured Materials research group. He additionally holds an adjunct professorship at the University of Helsinki since May 2011. Education: Ph.D. in Physics, University of Helsinki (2007). Dissertation: Irradiation-mediated tailoring of carbon nanotubes Research Focus: Kotakoski pioneers atomic-scale manipulation of 2D materials using electron and ion beams. His work centers on defect engineering in graphene, carbon nanotubes, and transition metal dichalcogenides to control electronic, mechanical, and catalytic properties. Key methodologies include scanning transmission electron microscopy (STEM), slow highly charged ion irradiation, and in situ characterization within integrated vacuum systems. His fingerprint reveals dominant expertise in graphene (100%), two-dimensional materials (27%), carbon nanotubes (26%), and scanning transmission electron microscopy (20%). Publication Trends: Recent works (2024-2025) demonstrate a strategic shift toward functional applications: pore-engineered MoS 2 for hydrogen evolution catalysis, corrugation-controlled mechanical properties in graphene, and metal atom chains at graphene edges. His group increasingly combines defect creation with advanced imaging techniques like ptychography to resolve atomic structures of dopants and vacancies. Research Leadership: MECS (2023-2028): Materials for Energy Conversion and Storage Quantum Centers in Diamond (2021-2025): Creating quantum emitters DCAFM (2020-2025): Doctoral College for Advanced Functional Materials training Laboratory Infrastructure: His group operates an integrated vacuum system coupling graphene growth, manipulation, and atomic-resolution STEM imaging, enabling real-time observation of beam-induced dynamics from pristine to amorphous structures.

• Genetic Disorders
• Human Infertility
• Embryonic Development
• +3 more

Odelya Hartung Kaufman, MD, PhD, is a Clinical Geneticist and Associate Research Scientist in the Department of Genetics at Yale School of Medicine. She specializes in diagnosing and managing genetic conditions in children and adults, with expertise in developmental disabilities, inherited eye disorders, hearing loss, and congenital birth defects. Her research focuses on genetic mechanisms underlying early embryonic defects, human infertility (e.g., unexplained female infertility and recurrent pregnancy loss), and rare undiagnosed diseases via the Undiagnosed Disease Network. Education & Training: MD and PhD in Biomedical Sciences from Albert Einstein College of Medicine (2016) Pediatrics and Medical Genetics Residency at Mount Sinai Hospital (2020) Research Interests: Dr. Kaufman’s work combines clinical practice with research into genetic causes of rare diseases. Her studies utilize zebrafish models to investigate RNA binding proteins’ roles in ovary development and Balbiani body architecture. Recent publications highlight advancements in understanding nutrient sensing pathways and genetic mutations linked to syndromes like Shwachman–Diamond syndrome. Awards & Grants: No specific awards listed, though her work aligns with NIH-funded initiatives through the Undiagnosed Disease Network. Grants and funding sources are not detailed in the provided text. Labs & Teams: Member of the Jiang Lab at Yale School of Medicine, collaborating on interdisciplinary projects at the intersection of genetics and clinical care.

Christopher Paul AndersonView profile

Assistant Professor

• Quantum Physics
• Quantum Engineering
• Materials Science
• +5 more

Christopher Paul Anderson is an Assistant Professor affiliated with the University of Illinois at Urbana-Champaign, holding joint appointments in the Departments of Materials Science and Engineering, Physics, and Electrical and Computer Engineering. He is also associated with the Micro and Nanotechnology Lab and the Materials Research Lab. His research focuses on quantum systems, semiconductor materials, and spintronics, particularly exploring defect qubits in materials like silicon carbide and diamond. Anderson leads a team advancing quantum coherence times and applications in quantum computing/sensing. Research Interests : Quantum Coherence and Control Defect-Based Qubits (e.g., Spin Qubits in Diamond, Silicon Carbide) Electro-Optic and Piezoelectric Materials for Quantum Technologies Photoluminescence and Magnetic Materials Key Achievements : Recipient of the NSF CAREER Award (2025) Author of over 36 peer-reviewed publications, including work on tin-vacancy qubits, microwave spin control, and quantum critical materials. Labs/Teams : Anderson’s work is conducted in the Micro and Nanotechnology Lab and Materials Research Lab, focusing on experimental and theoretical advancements in quantum materials.

Rachel OliverView profile

Professor

• Gallium Nitride
• Quantum Technology
• Materials Science
• +5 more

Rachel Oliver is a Professor of Materials Science at the University of Cambridge and Director of the Cambridge Centre for Gallium Nitride. Her research focuses on characterisation techniques for gallium nitride materials used in LEDs and laser diodes, with an emphasis on nanostructure engineering and quantum technology. Awarded OBE (2025), Fellow of the Royal Academy of Engineering (FREng) (2021), and Fellow of the Institute of Materials, Minerals and Mining (FIMMM) (2019) Developed atom-probe tomography and scanning capacitance microscopy to study nitride devices Her work on quantum dots and single-photon emitters has advanced quantum crystallography and optoelectronics. Recent publications highlight trends in nitride semiconductors , solar cell efficiency , and quantum device fabrication . Scientific Awards Royal Society University Research Fellowship (2006-2011) Chair in Emerging Technologies (2023) Grants EPSRC grant for semi-polar nitride structures Oliver's lab at the Department of Materials Science and Metallurgy explores nanoscale nitride structures for future devices, while advocating for gender equality in STEM.

Harshad Kumar Dharamshi Hansraj BhadeshiaView profile

Professor

• Metallurgy
• Phase transformations in steel
• Computational modeling
• +12 more

Sir Harshad Bhadeshia is a renowned Indian-British metallurgist and Professor of Metallurgy at Queen Mary University of London since 2022. Previously, he held the Emeritus Tata Steel Professorship at the University of Cambridge, where he worked from 1980 until his move to Queen Mary. His research focuses on the theory of solid-state transformations in multicomponent steels , aiming to create novel alloys and processes with minimal resource use. Education: BSc from City of London Polytechnic, PhD from University of Cambridge (1980) under David V. Edmonds Research Areas: Phase transformations in steel, computational modeling, neural networks, Bainite, welding technology, hydrogen embrittlement resistance, nanostructured materials Scientific Awards: Bessemer Gold Medal (2006), Hume Rothery Prize (1992), Rosenhain Medal (1994), Knight Bachelor (2015), Adolf Martens Medal (2017), William Menelaus Medal (2025) Editorial Roles: Editor for Materials Science and Engineering: A , Materials Science and Technology , and Science and Technology of Welding and Joining Students: Roger Reed, Rachel Thomson His Google Scholar publications (over 650) cover topics in metallurgy, phase transformations, computational modeling, hydrogen resistance, and AI in materials science, with a significant emphasis on Bainite, welds, and nanostructured steels. The SKF University Technology Centre (2009-2019) and Computational Metallurgy Laboratory (2005-18) highlight his leadership in industrial collaborations and international research. His scientific awards and fellowships (Royal Society, Royal Academy of Engineering, Institute of Materials, Minerals and Mining) underscore his global recognition.

He BinView profile

Professor

• Diamond and related materials
• Thin film technology
• Nanostructures and applications
• +6 more

Professor He Bin is Dean of the Department of Materials Science and Engineering at the Shenzhen University of Technology , where he has served since 2025.01. He is a core member of the Guangdong Provincial Higher Education Crystal Growth and Application Engineering Technology Center and recognized as a Shenzhen Overseas High-Level Talent . Previously, he was an Associate Professor at Shenzhen University of Technology (2018-2025) and held research positions at Southern University of Science and Technology and University of Hong Kong. PhD in Materials Physics and Chemistry from Beijing University of Technology (2008) Bachelor in Materials Forming and Control Engineering from China University of Petroleum (1998) His research focuses on diamond and related materials , thin film technology , and nanostructures , with applications in thermal management , photoelectrocatalysis , precision tooling , cultured diamond , 3D printing , and ultra-wide bandgap semiconductors . Recent publications highlight advancements in photoelectrochemical systems , electrocatalytic water splitting , and surface engineering . Scientific achievements include: Shenzhen University of Technology Major Project and Scientific Research Platform Construction Award (2019) First Prize for High-level Paper (2018) Peacock Talents Category C (2018) He has secured over 20 research grants, including projects from the Shenzhen Higher Education Stable Support Program and Guangdong Province Characteristic Innovation Projects. His work spans 12 representative papers , 3 book chapters , and 6 national patents in diamond-based technologies and heterojunction systems.