Seminars
Seminars
Past Events
- Superconducting Circuits for Noise-Resilient Qubits (Max Hays, Massachusetts Insitute of Technology) -
- Revealing the physics of reionization with high-redshift quasars, JWST observations, and simulations of the IGM (Christopher Cain, Arizona State University) -
- Tracing light: on Linear and Nonlinear Terahertz Polaritonics in Quantum Paraelectrics (Zhanybek Alpichshev, Austria Institute of Science and Technology) -
- What is a degree of freedom? Configuration spaces and topology (Juan Margalef Bentabol, University Charles III of Madrid) -
- Dyon Loops and Abelian Instantons (Isabel Garcia Garcia, University of Washington) -
- Accelerating Scientific Discovery in the Brain in the Age of AI (Lu Mi, Allen Institute for Brain Science & University of Washington) -
- The universe's awkward phase (Gustavo Joaquin Turiaci, University of Washington) -
- Building up quantum spacetimes with BCFT tensor networks and symmetric quantum RG (Yikun Jian, Northeastern University) -
- Taking the measure of quantum dynamics ( Yaodong Li, Stanford university) -
- Object detection enabling data-driven ML training for rare event searches (Jeffrey Schueler, UNM) -
- Peeping at the Universe through the keyhole: cosmology with neutrons (Stéphanie Roccia, Université Grenoble Alpes) -
- Programmable adiabatic demagnetization for systems with trivial and topological excitations (Mark Rudner, University of Washington) -
- Decoding the Mystery of Dark Matter with Celestial Objects (Anupam Ray, UC Berkeley) -
- Advancing Energy Reconstruction in Collider Experiments Using Machine Learning (Yongbin Feng, Texas Tech University) -
- TBA (Lewis Anderson, IBM UK) -
- The speed of sound of nonlinear large-scale structures (Caio Bastos de Senna Nascimento, University of Washington) -
- Error-corrected fermionic quantum processors with neutral atoms (Robert Ott, IQOQI & University of Innsbruck) -
- Game Changer in Semiconductor Industry: Parallel Wave Information Processing and Transport (Makoto Kohda, Tohoku University) -
- Predicting the dark matter - baryon abundance ratio (Anson Hook, University of Maryland) -
- Deep learning algorithms in GW astrophysics: explaining their success (Jess McIver, University of British Columbia) -
- Atomic Tritium Production for the Project 8 Neutrino Mass Experiment (Walter Pettus, Indiana University) -
- Quantum diagonalization methods for lattice models and chemistry beyond the reach of exact solutions (Antonio Mezzacapo, IBM) -
- Post-inflationary axions (Rudin Petrossian-Byrne, ICTP Trieste) -
- Fast scrambling as an uncertainty relation (Amit Vikram, University of Colorado Boulder) -
- Where are the supermassive black holes measured by PTAs? (Gabriela Sato-Polito, IAS) -
- The search for a Kitaev spin liquid: predicting experiments and engineering its realization (Tessa Cookmeyer, UCSB/KITP) -
- Generalized Families of QFTs (T. Daniel Brennan, UC San Diego) -
- Coupled Early Dark Energy (Mark Trodden, University of Pennsylvania) -
- Lindblad engineering for Gibbs state preparation under ETH (Yuta Kikuchi, Quantinuum) -
- What can the high-energy physics and QIS communities learn from each other? (Daniel Bowring, Fermilab) -
- Excitons in the Fractional Quantum Hall Effect ( Naiyuan (James) Zhang, Brown University) -
- Revisiting Standard-Model-induced EDMs (Maxim Pospelov, University of Minnesota) -
- Moiré Physics in Graphene Layers – What’s the “Magic”? (Mei-Yin Chou, Academia Sinica, Taiwan ) -
- Novel aspects of fractionalization in Chern bands (Ahmed Abouelkomsan, MIT) -
- TBA (Lena Funcke, University of Bonn) -
- Visualizing incommensurate inter-valley coherent states in rhombohedral trilayer graphene (Ambikesh Gupta (Weizmann Institute)) -
- Large-scale pretraining on neural data allows for transfer across individuals, tasks and species (Eva Dyer, Georgia Institute of Technology) -
- Thermodynamic computing for AI applications (Patrick Coles, Chief Scientist at Normal Computing) -
- New Pathways to Topological Flat Bands, and Novel Fractional Quantum Anomalous Hall States in moire systems (Xiaohan Wan (University of Michigan)) -
- From Hadronization to Strong CP: A Charcuterie Platter of QCD Matter (Zhiquan Sun) -
- Shining axions through astrophysical walls (Benjamin Safdi, UC Berkeley) -
- Tunable Luttinger Liquid in van der Waals Heterostructures (Tianle Wang, UC Berkeley) -
- Nonlinear magnonics in canted antiferromagnets (Zhuquan Zhang, MIT) -
- Sliding ferroelectricity in stacking-engineered van der Waals materials (Xirui Wang, MIT) -
- Magnons as a Window into Spin Transport and Twist-induced Phenomena in a van der Waals Antiferromagnet (Yue Sun, UC Berkeley) -
- Universal Euler-Cartan Circuits for Quantum Field Theories (Ananda Roy, Rutgers University) -
- Searching for the Quantum Universe (Arsalan Adil, UC Davis) -
- Unveiling Dark Matter through Gravitational Waves (Yue Zhao, University of Utah) -
- Hunting the Unexpected: Anomaly Detection and Real-Time Triggers at the Large Hadron Collider (Jennifer Ngadiuba, Fermilab) -
- Quantum simulation of materials in extreme conditions (Andrew Baczewski, Sandia National Lab) -