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X-WR-CALDESC:Events for Stewart Blusson Quantum Matter Institute
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DTSTART;TZID=America/Vancouver:20211116T140000
DTEND;TZID=America/Vancouver:20211116T150000
DTSTAMP:20211029T204737Z
CREATED:20211029T204737Z
LAST-MODIFIED:20211029T204737Z
UID:3533-1637071200-1637074800@qmi.miffanytark.com
SUMMARY:Careers in Industry
DESCRIPTION:Speakers: \n\nPrakash Verma\, PhD in Theoretical Chemistry (University of Florida)\, Computational Chemist\, 1Qbit – a scientist with a background in quantum chemistry research\, most of which is in developing and benchmarking computational tools to compute molecular properties accurately and efficiently.\nChristin Wiedemann\, PhD in Physics (University of Stockholm)\, Director of Quality Engineering\, Slalom Build\, – an inclusive leader focused on strategic planning\, team management\, data analysis and interpretation\, innovation\, coaching\, training\, mentoring\, software development and testing.\nReza Rezaee\, PhD in Physics (University of Tennessee)\, postdoctoral research fellow at the Department of Physics and Max Planck Centre for Extreme and Quantum Photonics\, University of Ottawa and an entrepreneur. His research includes exotic quantum light sources and quantum optics with years of experience in experimental physics and scientific instrumentation\, laser spectroscopy\, quantum sensing using color centers\, and laser scanning confocal microscopy. In addition to experimental physics\, he also has experience in computational quantum chemistry. His mission is to accelerate the commercialization of quantum technologies.
URL:https://qmi.miffanytark.com/event/careers-in-industry/
LOCATION:B.C.
CATEGORIES:Student event
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=America/Vancouver:20211104T100000
DTEND;TZID=America/Vancouver:20211104T110000
DTSTAMP:20211028T191424Z
CREATED:20211028T191424Z
LAST-MODIFIED:20211028T191424Z
UID:3518-1636020000-1636023600@qmi.miffanytark.com
SUMMARY:Abhay Pasupathy: Recent progress in moiré materials
DESCRIPTION:https://ubc.zoom.us/j/66879995529?pwd=dHpQb25LSGVZK3ozY243em5tenRWQT09\nMeeting ID: 668 7999 5529\nPasscode: 113399 \n  \n\nSpeaker: Abhay Pasupathy\, Columbia University \nAbstract: I will discuss two recent sets of experiments from my group on moiré materials. In the first experiment\, I will discuss transport experiments on twisted bilayers of the monolayer semiconductor WSe2 (Wang et al\, Nature Materials 19\, 861 (2020) and Ghiotto et al Nature 597\, 345 (2021)). In these experiments\, we see the presence of an insulating state at half filling of the lowest subband of this material driven by electron correlations. I will describe our recent efforts to understand transport properties of this material and the evidence that there exist a ring of quantum critical points in this system at the metal-insulator transitions driven by doping and electric field. Time permitting\, I will then discuss scanning tunneling microscopy experiments on magic-angle twisted trilayer graphene where superconductivity has recently been observed. These imaging experiments show that the atomic and electronic structure of twisted trilayer graphene has a number of unique differences from its elder brother\, twisted bilayer graphene. I will speculate on the importance of these differences for superconductivity in this material. \n  \nBio: Abhay Pasupathy is a Professor of Physics at Columbia University (since 2009) and a group leader in the Condensed Matter Physics and Materials Science Department at Brookhaven National Laboratory (since 2019). His group uses scan probe microscopies and electron transport measurement to study emergent quantum phases in materials. Two-dimensional materials including exfoliated and thin-film grown materials are of particular interest.
URL:https://qmi.miffanytark.com/event/abhay-pasupathy-recent-progress-in-moire-materials/
LOCATION:B.C.
CATEGORIES:CM Seminar
ORGANIZER;CN="Kaho Saito":MAILTO:kaho.saito@ubc.ca
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=America/Vancouver:20211028T100000
DTEND;TZID=America/Vancouver:20211028T230000
DTSTAMP:20211019T145814Z
CREATED:20211019T145814Z
LAST-MODIFIED:20211019T145814Z
UID:3472-1635415200-1635462000@qmi.miffanytark.com
SUMMARY:Shanti Deemyad: Physics of Light Dense Matter: Quantum and Classical Effects in Dense lithium
DESCRIPTION:https://ubc.zoom.us/j/66879995529?pwd=dHpQb25LSGVZK3ozY243em5tenRWQT09\nMeeting ID: 668 7999 5529\nPasscode: 113399 \n  \n\nSpeaker: Prof. Shanti Deemyad\, University of Utah \n  \nRestricting the volume of a material\, through application of pressure\, changes the dominance of interactions within the material\, and exposes unnatural states of matter not found in our predominantly adiabatic universe.  One of the most exotic phenomena in condensed matter is the phase transitions purely driven by quantum effects. While quantum fluctuations in electronic states are always relevant\, it is also possible to observe quantum effects in lattice of very light elements. At ambient conditions\, the lightest metal of the periodic system is lithium. Similar to hydrogen and helium even at zero temperature lattice of lithium remains far from static and a fascinating system to explore the lattice quantum effects in light dense matter. \nIn this talk I will review some of the major goals of research in high pressure physics in exploring the quantum effects in ultra-light dense matter and discuss how nuclear quantum effects affect the structural stability and superconductivity of lithium and other ultra-light materials. I will present our studies on exploring the signature of lattice quantum contributions to the structural phase transitions of lithium at low temperature\, the effect of pressure on the evolution of Fermi surface of lithium and present our results on resolving the long-lasting mystery of lithium ground state. \n 
URL:https://qmi.miffanytark.com/event/shanti-deemyad-physics-of-light-dense-matter-quantum-and-classical-effects-in-dense-lithium/
LOCATION:B.C.
CATEGORIES:CM Seminar
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=America/Vancouver:20211021T100000
DTEND;TZID=America/Vancouver:20211021T110000
DTSTAMP:20211014T184841Z
CREATED:20211014T184841Z
LAST-MODIFIED:20211014T184841Z
UID:3429-1634810400-1634814000@qmi.miffanytark.com
SUMMARY:Vedika Khemani: Non-unitary dynamics via spacetime duality
DESCRIPTION:https://ubc.zoom.us/j/66879995529?pwd=dHpQb25LSGVZK3ozY243em5tenRWQT09\nMeeting ID: 668 7999 5529\nPasscode: 113399 \n  \n\nAbstract: The addition of non-unitary ingredients to many-body quantum dynamics has led to a series of exciting developments in recent years\, including new out-of-equilibrium entanglement phases and phase transitions enabled by quantum measurements. I will present recent work [1] in which we show that a duality transformation between space and time on one hand\, and unitarity and non-unitarity on the other\, can be used to realize non-unitary evolutions whose steady states exhibit a rich variety of behavior in the scaling of their entanglement with subsystem size — from logarithmic to extensive to fractal. These fractally entangled states add a qualitatively new entry to the families of many-body quantum states that have been studied as energy eigenstates or dynamical steady states\, whose entropy almost always displays either area-law\, volume-law or logarithmic scaling. The range of steady-state entanglement scalings for the non-unitary evolution are closely related to the question of entanglement growth in time under different kinds of unitary dynamics\, from localized to chaotic. This connection is sharpened by an exact mapping to unitary evolution with edge decoherence\, in which  information is irreversibly “radiated  away” from one edge of the system. Finally\, I will discuss how these ideas could be experimentally realized with present-day or near-term quantum technologies\, and how spacetime duality allows us to mitigate (or eliminate altogether) the overhead from “postselection” of random measurement outcomes [2]. \n  \n[1] Matteo Ippoliti\, Tibor Rakovszky\, Vedika Khemani\, arxiv:2103.06873\n[2] Matteo Ippoliti\, Vedika Khemani\, PRL 126\, 060501 (2021) \n  \nBio: Vedika Khemani is an assistant professor of physics at Stanford University. After completing her Ph.D. at Princeton University in 2016\, she did her postdoctoral work as a Junior Fellow at Harvard. She is a recipient of an Alfred P. Sloan Fellowship\, a DOE Early Career Award\, the William L. McMillan Award\, an APS George E. Valley Jr. Prize\, the Breakthrough New Horizons in Physics Prize and the Packard Fellowship in Science and Engineering. \n 
URL:https://qmi.miffanytark.com/event/vedika-khemani-non-unitary-dynamics-via-spacetime-duality/
LOCATION:B.C.
CATEGORIES:CM Seminar
ORGANIZER;CN="Kaho Saito":MAILTO:kaho.saito@ubc.ca
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=America/Vancouver:20211014T100000
DTEND;TZID=America/Vancouver:20211014T110000
DTSTAMP:20211004T145423Z
CREATED:20211004T145423Z
LAST-MODIFIED:20211004T145423Z
UID:3374-1634205600-1634209200@qmi.miffanytark.com
SUMMARY:CM Seminar - Andrew Potter
DESCRIPTION:https://ubc.zoom.us/j/66879995529?pwd=dHpQb25LSGVZK3ozY243em5tenRWQT09\nMeeting ID: 668 7999 5529\nPasscode: 113399 \n  \n\nAbstract: Quantum computation tantalizing promises efficient solutions to a broad range of classically-hard materials and chemistry simulation problems of interest to both basic science and practical applications. However\, nascent quantum processors are severely limited in both memory and accuracy\, and remain a long way from surpassing state-of-the-art classical computational methods. In this talk\, I will review recent progress in bridging this gap by leveraging efficient quantum data compression afforded by tensor network representations\, along with opportunistic midcircuit qubit reset and re-use in order to simulate large-scale models of quantum materials with relatively few qubits. I will highlight recent experimental implementations of quantum tensor network algorithms for simulating entangled ground-states and non-equilibrium dynamics of correlated spins and electrons on a trapped ion quantum processor. \n  \nBio: Andrew Potter is an assistant professor in the physics and astronomy department at UBC\, and SBQMI principle investigator\, working on theoretical problems at the intersection of quantum matter\, dynamics\, information\, and computing. Before joining UBC/SBQMI obtained his PhD from MIT\, was a Gordon and Betty Moore foundation postdoctoral fellow at UC Berkeley\, an assistant professor of physics at the University of Texas at Austin\, and a principle theoretical physicist at Honeywell | Quantum Solutions. \n  \nhttp://qmi.ubc.ca/news/new-investigator-meet-andrew-potter/
URL:https://qmi.miffanytark.com/event/andrew-potter-simulating-highly-entangled-matter-with-quantum-tensor-networks/
LOCATION:B.C.
CATEGORIES:CM Seminar
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=America/Vancouver:20211007T100000
DTEND;TZID=America/Vancouver:20211007T110000
DTSTAMP:20210928T161002Z
CREATED:20210928T161002Z
LAST-MODIFIED:20210928T161002Z
UID:3322-1633600800-1633604400@qmi.miffanytark.com
SUMMARY:CM Seminar - Benjamin Frandsen
DESCRIPTION:Talk title: From Quantum Magnets to Magnetic Thermoelectrics: Short-Range Spin Correlations and the Secrets They Keep \nSpeaker: Benjamin Frandsen\, Brigham Young University \nAbstract: Short-range magnetic correlations have been increasingly recognized in recent years for their importance in contexts as widely varied as geometrically frustrated magnetism and functional magnetocaloric materials. Neutron scattering provides experimental access to these short-range correlations through magnetic diffuse scattering\, but characterizing magnetic short-range order with quantitative accuracy has remained a difficult task. Here\, I introduce magnetic pair distribution function (mPDF) analysis as a powerful tool for the detailed elucidation of shortrange magnetic correlations by Fourier transforming the diffuse magnetic scattering into real space\, and I present the application of mPDF to two material systems for which the details of the short-range magnetic correlations are crucial for their unusual properties. The first is TmMgGaO4\, an Ising triangular lattice antiferromagnet with rich low-temperature behavior\, including a predicted topological Kosterlitz-Thouless transition. Our mPDF results reveal intricate spin correlations consistent with this theoretical prediction\, providing strong experimental support for the proposed Kosterlitz-Thouless phase. The second material is MnTe\, an antiferromagnetic semiconductor with excellent thermoelectric properties at elevated temperatures. The presence of short-range antiferromagnetic correlations above the Neel temperature contributes to the enhanced thermoelectric response. Using mPDF\, we reveal the real-space nature of these magnetic correlations and gain deeper insight into the origin of the unusually large thermopower of MnTe. \nBio: Ben Frandsen is an assistant professor in the Department of Physics and Astronomy at Brigham Young University in Utah. He earned his PhD in condensed matter physics at Columbia University in New York in 2016\, working with Professors Tomo Uemura and Simon Billinge on muon spin relaxation and x-ray and pair distribution function studies of strongly correlated electron systems. His graduate research took him to beautiful Vancouver many times to perform muon experiments at TRIUMF. Following his graduate work\, he joined the group of Bob Birgeneau at UC Berkeley in California as a postdoctoral researcher\, working primarily on experimental studies of iron-based superconductors. He joined the faculty at BYU in August 2018. His research at BYU is focused on investigating the local atomic and magnetic structure of complex materials using beams of x rays\, neutrons\, and muons. He was selected as a recipient of the U.S. Department of Energy Early Career Award in 2020 to study local atomic and magnetic structure in energy-relevant materials.
URL:https://qmi.miffanytark.com/event/cmseminar-benjamin-frandsen/
LOCATION:B.C.
CATEGORIES:CM Seminar
ORGANIZER;CN="Kaho Saito":MAILTO:kaho.saito@ubc.ca
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=America/Vancouver:20210923T100000
DTEND;TZID=America/Vancouver:20210923T110000
DTSTAMP:20210916T154920Z
CREATED:20210916T154920Z
LAST-MODIFIED:20210916T154920Z
UID:3192-1632391200-1632394800@qmi.miffanytark.com
SUMMARY:Jason Alicea: Internally engineered Majorana modes in twisted bilayer graphene
DESCRIPTION:Abstract: Twisted bilayer graphene (TBG) realizes an exquisitely tunable\, strongly interacting system featuring superconductivity and various correlated insulating states.  In this talk I will introduce gate-defined wires in TBG as an enticing platform for Majorana-based fault-tolerant qubits.  Our proposal notably relies on “internally” generated superconductivity in TBG – as opposed to “external” superconducting proximity effects commonly employed in Majorana devices – and may operate even at zero magnetic field.  I will also describe how electrical measurements of gate-defined wires can reveal the nature of correlated insulators and shed light on the Cooper-pairing mechanism in TBG. \nBio: Jason Alicea received his PhD from UC Santa Barbara in 2007 and then held a postdoc fellowship at Caltech.  In 2010 he joined the faculty at UC Irvine before returning to Caltech as a professor in 2012.  His research explores novel phases of matter in various physical settings\, often motivated by fault-tolerant quantum computing applications.
URL:https://qmi.miffanytark.com/event/cm-seminar-internally-engineered-majorana-modes-in-twisted-bilayer-graphene/
LOCATION:B.C.
CATEGORIES:CM Seminar
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=America/Vancouver:20210916T100000
DTEND;TZID=America/Vancouver:20210916T110000
DTSTAMP:20210907T212539Z
CREATED:20210907T212539Z
LAST-MODIFIED:20210907T212539Z
UID:3134-1631786400-1631790000@qmi.miffanytark.com
SUMMARY:CM Seminar:  Controlling Emergent Behavior in Quantum Matter from a Theory Perspective
DESCRIPTION:Speaker: Prineha Narang\, Assistant Professor at Harvard University \n  \nMy group’s research focuses on how quantum matter behaves\, particularly away from equilibrium\, and how we can harness emergent effects in these systems. In this context\, I will focus on our newly introduced approaches to describe excited-states in quantum matter\, including electron-electron and electron-phonon interactions beyond leading order\, and predicting emergent states introduced by external drives. Next\, I will discuss a class of exotic collective excitations which are unique to time-reversal symmetry breaking (TRSB) superconductors and propose a number of means by which these excitations can be experimentally detected\, introducing a notion of “collective mode spectroscopy” of TRSB superconductors1. Building on this\, I will present avenues in using electromagnetic cavities and resonators to probe and control quantum matter discussing methods to treat electrons\, photons and phonons on the same quantized footing\, accessing new observables in strong light-matter coupling 2\,3. Understanding the role of such strong light-matter interactions in the regime of strongly-correlated electronic systems is of paramount importance to fields of study across condensed matter physics\, quantum optics\, and quantum chemistry 4-6. Our theoretical and computational framework7-9 opens new routes by which the important problem of strongly-correlated quantum dynamics may be studied in these fields. Finally\, I will give an outlook on driving correlated quantum systems far out-of-equilibrium to control the coupled electronic and lattice degrees-of-freedom and connect these recent predictions with ultrafast THz experiments underway. \n  \n\nPoniatowski\, N. R.\, Curtis\, J. B.\, Yacoby\, A. & Narang\, P. Spectroscopic signatures of time-reversal symmetry breaking superconductivity. arXiv [cond-mat.supr-con] (2021).\nSchäfer\, C.\, Flick\, J.\, Ronca\, E.\, Narang\, P. & Rubio\, A. Shining Light on the Microscopic Resonant Mechanism Responsible for Cavity-Mediated Chemical Reactivity. arXiv [quant-ph] (2021).\nPhilbin\, J. P. et al. Room temperature single-photon superfluorescence from a single epitaxial cuboid nano-heterostructure. arXiv [physics.optics] (2021).\nJuraschek\, D. M.\, Meier\, Q. N. & Narang\, P. Parametric Excitation of an Optically Silent Goldstone-Like Phonon Mode. Phys. Rev. Lett. vol. 124 (2020).\nJuraschek\, D. M.\, Narang\, P. & Spaldin\, N. A. Phono-magnetic analogs to opto-magnetic effects. Phys. Rev. Research 2\, 043035 (2020).\nJuraschek\, D. M.\, Neuman\, T.\, Flick\, J. & Narang\, P. Cavity control of nonlinear phononics. Phys. Rev. Research 3\, L032046 (2021)\n    Rivera\, N.\, Flick\, J. & Narang\, P. Variational Theory of Nonrelativistic Quantum Electrodynamics. Phys. Rev. Lett. 122\, 193603 (2019).\nFlick\, J.\, Rivera\, N. & Narang\, P. Strong light-matter coupling in quantum chemistry and quantum photonics. Nanophotonics 7\, 1479–1501 (2018).\nFlick\, J. & Narang\, P. Cavity-Correlated Electron-Nuclear Dynamics from First Principles. Physical Review Letters vol. 121 (2018).\n\n  \nBiosktech: Prineha Narang came to Harvard University from the Massachusetts Institute of Technology where she worked as a Research Scholar in Condensed Matter Theory in the Department of Physics. She received an M.S. and Ph.D. in Applied Physics from the California Institute of Technology (Caltech). Prineha’s work has been recognized by many awards and special designations\, including a Friedrich Wilhelm Bessel Research Award from the Alexander von Humboldt Foundation\, a Max Planck Sabbatical Award from the Max Planck Society\, and the IUPAP Young Scientist Prize in Computational Physics in 2021\, an NSF CAREER Award in 2020\, being named a Moore Inventor Fellow by the Gordon and Betty Moore Foundation for pioneering innovations in quantum science\, CIFAR Azrieli Global Scholar by the Canadian Institute for Advanced Research\, and a Top Innovator by MIT Tech Review (MIT TR35).
URL:https://qmi.miffanytark.com/event/cm-seminar-16sep2021/
LOCATION:B.C.
CATEGORIES:CM Seminar,Public
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=UTC:20210624T090000
DTEND;TZID=UTC:20210624T170000
DTSTAMP:20210105T060045Z
CREATED:20210105T060045Z
LAST-MODIFIED:20210105T060045Z
UID:985-1624525200-1624554000@qmi.miffanytark.com
SUMMARY:Event Five
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URL:https://qmi.miffanytark.com/event/event-one-2/
LOCATION:Location\, 419 East 20th Ave\, Vancouver\, B.C.\, v5v 1m6\, Canada
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DTSTART;VALUE=DATE:20210606
DTEND;VALUE=DATE:20210612
DTSTAMP:20210602T161031Z
CREATED:20210602T161031Z
LAST-MODIFIED:20210602T161031Z
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SUMMARY:TEST
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URL:https://qmi.miffanytark.com/event/test/
LOCATION:Location\, 419 East 20th Ave\, Vancouver\, B.C.\, v5v 1m6\, Canada
ORGANIZER;CN="John Doe":MAILTO:name@email.com
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=UTC:20210401T090000
DTEND;TZID=UTC:20210401T170000
DTSTAMP:20210105T060019Z
CREATED:20210105T060019Z
LAST-MODIFIED:20210105T060019Z
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SUMMARY:Name Of Event
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URL:https://qmi.miffanytark.com/event/name-of-event/
LOCATION:Location\, 419 East 20th Ave\, Vancouver\, B.C.\, v5v 1m6\, Canada
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END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=UTC:20210331T090000
DTEND;TZID=UTC:20210331T170000
DTSTAMP:20210105T060031Z
CREATED:20210105T060031Z
LAST-MODIFIED:20210105T060031Z
UID:984-1617181200-1617210000@qmi.miffanytark.com
SUMMARY:Event Three
DESCRIPTION:Lorem ipsum dolor sit amet\, consectetur adipiscing elit\, sed do eiusmod tempor incididunt ut labore et dolore magna aliqua. Ut enim ad minim veniam.
URL:https://qmi.miffanytark.com/event/event-three/
LOCATION:Location\, 419 East 20th Ave\, Vancouver\, B.C.\, v5v 1m6\, Canada
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ORGANIZER;CN="John Doe":MAILTO:name@email.com
END:VEVENT
BEGIN:VEVENT
DTSTART;TZID=UTC:20210305T090000
DTEND;TZID=UTC:20210305T170000
DTSTAMP:20210105T055934Z
CREATED:20210105T055934Z
LAST-MODIFIED:20210105T055934Z
UID:979-1614934800-1614963600@qmi.miffanytark.com
SUMMARY:Event One
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URL:https://qmi.miffanytark.com/event/event-one/
LOCATION:Location\, 419 East 20th Ave\, Vancouver\, B.C.\, v5v 1m6\, Canada
ATTACH;FMTTYPE=image/png:https://qmi.miffanytark.com/wp-content/uploads/2021/01/UBC_2020-03-13_PJ_5235.png
ORGANIZER;CN="John Doe":MAILTO:name@email.com
END:VEVENT
END:VCALENDAR