
The course is Primarily for Students of Physics and Engineering having exposure to basic quantum mechanics and knowledge of Linear Algebra.

The course is Primarily for Students of Physics and Engineering having exposure to basic quantum mechanics and knowledge of Linear Algebra.

Explore quantum networks for quantum computers, focusing on advanced concepts and applications in this comprehensive lecture by Juan José García Ripoll.

Explore prospects and challenges of quantum machine learning with Marco Cerezo, delving into advanced concepts and potential applications in this comprehensive lecture.

Explore prospects and challenges of quantum machine learning with Marco Cerezo, delving into cutting-edge research and potential applications in this advanced lecture.

Dive into trapped ion quantum processors with Markus Hennrich, exploring cutting-edge developments in quantum computing technology and their potential applications.

Explore quantum networks for quantum computers, focusing on advanced concepts and applications in this comprehensive lecture by Juan José García Ripoll.

Explore moduli spaces of topological theories, their homotopy types, and applications to Hastings-Haah floquet codes in quantum error correction and quantum gravity.

Explore GKP Codes for fault-tolerant quantum computation, examining logical Clifford gates, complex elliptic curves, and geometric understanding of fault-tolerance. Discover connections between physics and modern mathematics.

Explore an extended spin-statistics theorem for loops using Klein bottle representation. Examine new solvable lattice models for topological phases and fermionic loop excitations in higher dimensions.

Delve into quantum metrological limits, exploring how restricted quantum controls affect parameter estimation precision and the achievability of Heisenberg and standard quantum limits in noisy systems.

Explores recent advancements in quantum LDPC codes, focusing on asymptotically good properties. Discusses theoretical developments and potential applications in quantum error correction and fault-tolerant quantum computing.

Explore advanced concepts in quantum physics with Oxford researcher Sakura Schafer-Nameki, focusing on the Categorical Landau Paradigm and SymTFT in relation to quantum error correction and gravity.

Explore topological dualities connecting toric code, superconductors, and Ising model using matchgate tensor networks. Unifies approaches to non-local duality between fermionic and bosonic systems.

Exploring local topological order in quantum systems, focusing on holographic principles and entanglement in boundary algebras to recover bulk topological properties.

Explorez la dualité holographique entre le modèle vectoriel O(N) libre et la gravité de spin supérieur, en examinant le spectre et la construction de la théorie gravitationnelle.

Explorez la dualité holographique entre le modèle vectoriel O(N) libre et la gravité de spin supérieur, en examinant le spectre et la construction de la théorie gravitationnelle.

Explore prethermalization and black hole evaporation in quantum systems, bridging quantum information theory with gravity concepts for insights into spacetime emergence and information dynamics.

Explores quantum information in AdS/CFT correspondence, focusing on spacetime emergence, quantum gravity, and information theory applications in black hole physics and quantum field theories.

Explores quantum information localization in gravity, focusing on AdS/CFT correspondence and its implications for spacetime emergence, black hole physics, and quantum field theories.

Explores quantum information in AdS/CFT correspondence, focusing on spacetime emergence, quantum gravity, and information theory applications in physics and many-body systems.