Lecture
Rydberg Atoms: Interactions & Blockade
In course
DEMO: Lorem enim incididunt
Minim fugiat excepteur tempor Lorem est cupidatat cillum officia aliqua non cillum. Et amet anim ea est labore Lorem mollit aliqua veniam ea pariatur laboris aliquip veniam. Eiusmod ipsum irure velit sunt nulla laboris. Sunt ullamco ex officia laboris sint deserunt cupidatat ad quis ipsum velit reprehenderit ea laboris.
Description
This lecture delves into the physics of Rydberg atoms, focusing on their highly excited orbits and strong interactions. The van der Waals interaction between polarizable atoms is explained, leading to the concept of Rydberg blockade, where one atom in a highly excited state prevents the excitation of another. The lecture explores the scaling of interactions with principal quantum number and the conditions for blockade to occur, highlighting its significance in quantum information processing tasks.
Instructor
culpa Lorem elit
Deserunt consequat ex aliqua Lorem nisi ea exercitation ut incididunt labore et ullamco proident irure. Nulla anim velit officia mollit proident tempor. Consequat voluptate anim proident labore velit ea excepteur tempor duis elit est cillum proident veniam. Quis culpa cupidatat ex fugiat id occaecat. Officia cillum velit laboris est culpa velit laborum enim. Qui velit duis minim ad do aliquip sit sit nostrud fugiat laborum non est adipisicing.
Official source
About this result
This page is automatically generated and may contain information that is not correct, complete, up-to-date, or relevant to your search query. The same applies to every other page on this website. Please make sure to verify the information with EPFL's official sources.
Ontological neighbourhood
Related lectures (36)
Quantum Computing: Introduction
Covers quantum computing basics, quantum algorithms, error correction, and quantum bit manipulation.
Quantum Simulation with Cold Atoms
Covers the principles of quantum simulation with cold atoms, including optical dipole potentials and Feshbach resonances.
Input State Preparation and Output Measurement
Covers input state preparation, output measurement, digital quantum computing paradigm, Pauli rotations, C-Z gates, and Solovay-Kitaev theorem.
Quantum Information and Computation
Covers quantum information, computation, advantages, challenges, error correction, and quantum algorithms.
Quantum Information Processing
Covers the basics of quantum information processing, including quantum bits manipulation and quantum entanglement.