Numerical Analysis for Hamiltonian Simulation and Hamiltonian Learning
Offered By: Institute for Pure & Applied Mathematics (IPAM) via YouTube
Course Description
Overview
Explore numerical analysis techniques for Hamiltonian simulation and learning in this 52-minute lecture presented by Di Fang from Duke University at IPAM's Tensor Networks Workshop. Delve into two crucial aspects of quantum information science: simulating Hamiltonian dynamics and learning Hamiltonian structures. Examine methods to mitigate the strong operator norm dependence in quantum dynamics simulation accuracy, with a focus on the semiclassical Schrödinger equation. Discover the groundbreaking algorithm achieving the Heisenberg limit for efficiently learning interacting N-qubit local Hamiltonians. Gain insights into the challenges and advancements in quantum information processing and computational methods for complex quantum systems.
Syllabus
Di Fang - Numerical Analysis for Hamiltonian Simulation and Hamiltonian Learning - IPAM at UCLA
Taught by
Institute for Pure & Applied Mathematics (IPAM)
Related Courses
Atomic and Optical Physics I– Part 1: ResonanceMassachusetts Institute of Technology via edX Topological Pumping into Strongly Correlated Prethermal States - Benjamin Lev
Kavli Institute for Theoretical Physics via YouTube Inelastic Photon Scattering off a Josephson Junction at the Schmid Transition - Leonid Glazman
Kavli Institute for Theoretical Physics via YouTube Non-Ergodicity and Emergent Hilbert-Space Fragmentation in Tilted Fermi-Hubbard Chains
Kavli Institute for Theoretical Physics via YouTube Spin and Energy Hydrodynamics in Low-Dimensional Materials - Joel Moore
Kavli Institute for Theoretical Physics via YouTube