Lecture

Topological Matter with Ultracold Dysprosium Atoms

Graph Chat

Chat with Graph Search

Ask any question about EPFL courses, lectures, exercises, research, news, etc. or try the example questions below.

DISCLAIMER: The Graph Chatbot is not programmed to provide explicit or categorical answers to your questions. Rather, it transforms your questions into API requests that are distributed across the various IT services officially administered by EPFL. Its purpose is solely to collect and recommend relevant references to content that you can explore to help you answer your questions.

Related lectures (64)

Topological matter and quantum gases

Explores topological matter, edge channels, periodic lattices, Berry curvature, and the Haldane model, focusing on their exploration with quantum gases.

Quantum Computational Advantage: Recent Progress and Next Steps

Explores recent progress in quantum computational advantage and discusses the challenges in achieving quantum supremacy.

Quantum Learning: Complexity and Predictive Models

Covers the complexity and learnability in complex quantum systems, focusing on quantum advantages in learning and predicting properties of quantum states.

Quantum Couplers: Hamiltonians and Coupling Mechanisms

Covers quantum couplers, focusing on Hamiltonians, coupling mechanisms, and their applications in quantum computing.

Quantum Information: Superdense Coding

Explores superdense coding in quantum information, covering encoding protocols, entanglement, and classic hits in communication.

Quantum Bits: Axioms and Examples

Explores quantum bits, axioms, examples, Shor algorithm, measurements, Hilbert space, and dynamics.

Quantum Information Processing: Rydberg Atoms

Explores Rydberg atoms for quantum information processing, highlighting their scaling properties and strong interactions for entangled states.

Quantum Repeaters and Memories: Basics and Applications

By Mikael Afzelius explores quantum repeaters, memories, light-matter interactions, and the Bloch sphere representation in quantum information processing.

Quantum Computational Advantage

Explores testing quantum systems in the high-complexity regime and the challenges of demonstrating quantum computational advantage.

Density matrix and von Neumann entropy: first intro

Introduces density matrix and von Neumann entropy in quantum systems.

Quantum Measurements

Explores projective quantum measurements, system-meter formulation, observable outcomes, and coupling between systems and meters.

Fragmentation in Spin Ice Systems

Delves into fragmentation in spin ice systems, covering magnetic ice rules, monopole vacuum, emergent gauge fields, topological defects, and quantum Monte Carlo simulations.

Novel Materials Discovery in Silico

Explores computational discovery of novel materials, focusing on quantum spin Hall insulators and topological phases in transition metal dichalcogenides.

Quantum and nanocomputing

Explores quantum computing fundamentals, qubit realization, control, scalable quantum computers, and spin qubits.

Quantum Chemistry Simulation

Discusses the need for Quantum Computers in simulating Quantum Chemistry and explores physically implementing them.

Quantum Information Elements

Covers the fundamentals of quantum information, including quantum simulation and logic gates.

Quantum Information: Principles and Applications

Explores quantum information principles, including Larmor precession and quantum states evolution in magnetic fields.

Introduction to Quantum Computing: NISQ and IBM Q

Covers the basics of quantum computing, focusing on NISQ and IBM Q, including qubits, superposition, and quantum information processing.

Quantum Compilation: Synthesis and Decomposition

Covers quantum computing fundamentals, compilation, error correction, unitary synthesis, quantum gates, and FPGA-based ADCs.

Quantum Simulation: Fundamentals and Applications

Covers the fundamentals of quantum simulation, challenges in classical simulation, Trotter approximation, and applications in inelastic neutron scattering.