University of Waterloo
200 University Avenue West
Waterloo, Ontario, Canada N2L 3G1
Phone: (519) 888-4567 ext 32215
Fax: (519) 746-8115
Dr. Afshordi dabbles in Astrophysics, Cosmology, and Physics of gravity and is obsessed with observational hints that could help address problems in fundamental physics.
Professor Balogh's research uses the world’s largest telescopes to study the physical properties of distant galaxies. Through spectroscopy we can learn about the distances, ages, chemical composition and star formation histories of these galaxies.
Dr. Bizheva's research focuses on the development of novel optical imaging technology (Optical Coherence Tomography - OCT) that can be used in clinics to image various part of the human body for diagnostic purposes or for monitoring the outcome of drug therapy or surgery.
Dr. Broderick works to explain the fundamental physics of black holes and their observable characteristics. Black holes are sites where strong gravity dominates everything, from the dynamics of orbiting material to the shape of spacetime itself. As a result, they are the engines that power some of the brightest objects in the universe.
Professor Budakian's work in the past decade has focused on developing the experimental tools for ultra sensitive detection of electron and nuclear spins. He explores the application of these tools to address fundamental questions ranging from biology to quantum information.
Dr. Burkov is a theoretical condensed matter physicist, currently focusing on the effects of nontrivial electronic structure topology and electron-electron interactions on experimentally observable properties of quantum materials.
Dr. Campbell leads a highly multidisciplinary research group where they study ocular development, eye disease, and linear and non-linear optics of the eye. They investigate the fundamental refractive properties of the eye's components to improve diagnosis and therapy for various ocular conditions.
On sabbatical until February 28, 2018
Soft matter is a cross disciplinary research field involving physics, chemistry, biology, and materials science. It studies physical systems that can be deformed relatively easily in response to external and internal physical and chemical conditions.
Dr. Choi's research focuses on the development and application of the most advanced techniques in cold atom physics and quantum optics to probe the fundamental nature of the quantum world and to investigate macroscopic quantum phenomena with strongly interacting atoms and photons near nanoscale structures.
Dr. Fich is an astronomer specializing in studies of star formation, the interstellar medium, and the structure of galaxies. His recent research activities have focused on “small scale” formation studies of low and intermediate mass stars, circumstellar disks, and the formation of proto-solar systems.
Dr. Forrest's research is focused on the behaviour of soft materials at the nanoscale. This includes self assembly of polymers, dynamics in thin films and near surface and interfaces. He has a long standing interest on the dynamics of glassy materials.
Professor Gingras’ main interests are in the field of theoretical condensed matter physics, with a focus on systems with random disorder. He is also interested in strongly correlated classical and quantum condensed matter systems subject to strongly competing, or frustrated, interactions.
In Professor Ha's research group, they explore a few theoretical problems in soft matter and biophysics, namely, chromosomes in living cells and lipid bilayer membranes.
The Quantum Materials Spectroscopy group, led by Dr. Hawthorn, studies Quantum Materials using resonant soft x-ray scattering and x-ray absorption spectroscopy at synchrotrons such as the Canadian Light Source. We use these tools to investigate intertwinned order in Quantum Materials and shed light on the long-standing mysteries of high temperature superconductors.
On sabbatical until August 31, 2018
Dr. Hill's research is focused on the experimental study of materials whose exotic properties are dominated by the collective quantum mechanical nature of their electrons and defy explanation using current theoretical paradigms.
On sabbatical until August 31, 2018
Broadly speaking, Professor Hudson's research is in observational and theoretical cosmology, particularly Galaxy Formation, and measuring the properties of dark matter and dark energy through Gravitational Lensing, Cosmic Flows and Large-scale Structure.
Simulating interacting quantum many-body systems on a conventional computer is hard, and often practically impossible. Because, the laws of quantum mechanics are not inbuilt in the workings of a (classical) computer.
Dr. Jennewein's main research passion is how to achieve quantum communications and a Quantum Internet on a global scale. In particular he is currently pursuing the use of satellites to accomplish intercontinental distances, and is possible with today’s technology.
Dr. Kycia's group works on the experimental investigation of superconducting and quantum mechanical devices; in particular Superconducting Quantum Interference Devices (SQUIDs), Transition Edge Sensors (TESs) Kinetic Inductance Detectors (KIDs), GaAs quantum dots (Spin Qubits).
Would using quantum mechanics for information processing be an impediment or could it be an advantage? This is the fundamental question in the field of quantum information processing (QIP). QIP is a young field with an incredible potential impact reaching from the way we understand fundamental physics to technological applications.
Dr. Leonenko leads a nanoscale biophysics research group which uses advanced scanning probe microscopy methods to study biophysics of lipids and lipid-protein interactions, interactions of nanoparticles with lipid membrane and monolayers, and to develop novel application of lipid films in biomedical nanotechnology and biosensing.
Professor Lu’s research programs cross disciplines in physics, chemistry, environment, climate, biology and medicine, particularly focusing on femtomedicine and cancer therapy, as well as the sciences of atmospheric ozone depletion (the ozone hole) and global climate change (“global warming”).
Dr. Lupascu is an experimental physicist interested in the quantum dynamics of various types of physical systems and the application of quantum effects to build new types of detectors and quantum information processors. His Superconducting Quantum Device lab focuses on experimental research with superconducting devices, ranging from quantum bits for quantum information experiments, to superconducting resonators for loss characterization, among other projects.
On sabbatical until December 31, 2017
Professor Lütkenhaus' research group explores the interface between quantum communication theory and quantum optical implementations. They translate between abstract protocols (described by qubits) and physical implementations (described for example by laser pulses); they benchmark implementations to properly characterize quantum advantage and exploit quantum mechanical structures for use in quantum communication.
Professor Mann works on gravitation, quantum physics, and the overlap between these two subjects. He is interested in questions that provide us with information about the foundations of physics, particularly those that could be tested by experiment.
Dr. Mariantoni has a strong background in cutting-edge research on superconducting qubits and circuit quantum electrodynamics. He specializes in the experimental realization of low-level microwave detection schemes and pulsing techniques that allow for the measurement of ultra-low quantum signals generated by superconducting qubits coupled to on-chip resonators.
Giant black holes weighing upwards of one billion times the mass of the Sun are thought to lurk at the centers of all massive galaxies. Energy released by spin breaking and infalling matter onto such supermassive black holes may be regulating the growth of galaxies and clusters of galaxies.
Dr. Melko's research interests involve strongly-correlated many-body systems, with a focus on emergent phenomena, ground state phases, phase transitions, quantum criticality, and entanglement. He emphasizes computational methods as a theoretical technique, in particular the development of state-of-the-art algorithms for the study of strongly-interacting systems.
Dmitry Pushin uses his broad background to apply quantum information processing methods to improve neutron interferometry, with the goal of making it accessible to the general scientific community as a resource for studying fundamental questions of physics, dark energy, phase transitions in condensed matter, magnetic materials in functional devices and materials science.
Dr. Resch uses experimental quantum physics to understand photon entanglement and quantum information science. His work focuses on generating new quantum states of light with applications ranging from quantum computing to future medical imaging.
Dr. Sanderson's research and that of his students focuses on the study of how matter interacts with intense Femtosecond laser pulses.
One of the ways which the interaction of matter with femtosecond laser pulses can be utilised is as a means of imaging some of the smallest fastest moving and most complex units of matter, molecules.
Office: PHY 358
Phone: (519) 888-4567 ext. 32213
Dr. Senko’s research focuses on using trapped ions for quantum simulations and quantum computing applications. Her work also explores qudits and how to improve the efficiency of encoding a logical unit of information using the multiple levels of a qudit.
Dr. Strickland's ultrafast laser group develops high-intensity laser systems for nonlinear optics investigations.
Dr. Taylor is using whatever tools he can, including numerical simulations, astrophysical theory and observational data, to try to figure what dark matter is, where it is, and how it behaves. His research includes gravitational lensing and dynamical studies of galaxy clusters, the properties of the smallest galaxies in the local universe, and the theory behind dark matter halos around galaxies and clusters.
Dr. Thompson's research explores block copolymer behaviour using self-consistent field theory (SCFT), one of the best theoretical tools available in soft condensed matter physics. The structures of nanocomposite materials are examined, and nanoscale filler particles are added to the polymer matrix to create hybrid materials. The mechanical properties of both nanocomposite and pure block copolymer systems are also being predicted using the SCFT approach.
Professor Yevick' s research group delivers practical, innovative and leading-edge solutions to industry while developing general physical and mathematical results and techniques that can be employed in wide areas of applied physics.