Frank Marsiglio: Unraveling the Many-Body Mysteries of Superconductivity
Superconductivity remains one of the most fascinating phenomena in condensed matter physics, and Frank Marsiglio is at the forefront of decoding its many-body complexities. As a theoretical condensed matter physicist, Dr. Marsiglio explores the intricate interplay between electrons, phonons, and other fundamental forces that define superconducting materials.
A major focus of his work is electron-phonon-driven superconductivity, particularly the role of polarons—quasi-particles crucial to understanding superconducting behavior. He has also investigated alternative models, such as hole superconductivity, offering new insights into how materials can conduct electricity without resistance. Beyond superconductors, Dr. Marsiglio’s research spans magnetic systems and trapped Fermi gases, expanding the broader field of quantum interactions.
In addition to his research, Dr. Marsiglio is deeply committed to education. He strives to modernize undergraduate quantum physics curricula, ensuring students gain a clearer understanding of complex quantum phenomena. Through collaborative research with undergraduates, he has published several pedagogical papers that bridge theoretical advancements with effective learning strategies.
From uncovering the mysteries of superconductors to mentoring future physicists, Frank Marsiglio’s work continues to push the boundaries of quantum science.
Lindsay LeBlanc: Unlocking the Potential of Quantum Systems
At the Ultracold Quantum Gases Laboratory, Lindsay LeBlanc leads research at the intersection of fundamental quantum science and cutting-edge applications. Her expertise in atomic physics drives breakthroughs in quantum communication, simulation, and sensing—advancing Canada’s quantum technology ecosystem. As the lead investigator of the NSERC Quantum Alliance Consortium ARAQNE and director of Quantum Alberta, she plays a vital role in fostering national collaboration in quantum research.
Her team’s work explores three main areas: quantum simulations with ultracold atoms, quantum memories in atomic systems, and microwave atom-optical systems. By engineering synthetic Hamiltonians, they simulate intricate quantum behaviors and examine quantum state manipulations. Their research in quantum memory has led to the development of the “Autler-Townes Splitting” protocol, which enables precise storage and retrieval of quantum information. Meanwhile, their work with warm-atom systems investigates microwave-enhanced interactions for applications in quantum magnetometry and quantum memory.
Through pioneering experiments and collaborative efforts, Dr. LeBlanc is paving the way for real-world quantum technologies, bringing theoretical concepts closer to practical implementation.
Gil Porat: Quantum Technologies at Room Temperature
While many quantum systems require extreme cooling, Gil Porat is developing quantum technologies that operate at room temperature—broadening their potential for real-world applications. As a member of both the Department of Electrical and Computer Engineering and Department of Physics, Dr. Porat specializes in laser physics, ultrafast and nonlinear optics, and laser-matter interactions to advance novel quantum sensing and measurement techniques.
His research encompasses quantum magnetic sensing, environmental isotope analysis, and MRI contrast agents, each leveraging quantum principles for enhanced precision. He also works on airborne standoff quantum sensing to detect pipeline leaks remotely, an innovation with significant industrial and environmental implications.
Additionally, Dr. Porat is pioneering high-power, ultrafast infrared fiber lasers with frequency conversion into THz, visible, and ultraviolet ranges. His work in portable frequency comb lasers is enhancing atomic clock accuracy, pushing the frontiers of precision measurement and quantum sensing.
By developing quantum technologies that function under everyday conditions, Dr. Porat is expanding the accessibility and applicability of quantum science, making breakthroughs more practical for industries and society.