Concept

Nuclear magnetic resonance quantum computer

Related lectures (29)

Quantum Computing: Introduction

Covers quantum computing basics, quantum algorithms, error correction, and quantum bit manipulation.

Quantum Condensed Matters

Covers a quantum description of condensed matters, recent applications, and the quantum treatment of nuclei.

Quantum Dot Physics

Delves into the physics of quantum dots, discussing energy scales, thermal effects, and applications in spin qubits.

Quantum Chemistry Simulation

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

Nanotube Mechanical Resonators: Tiny Electron Forces and Large Electron Backaction

Explores nanotube mechanical resonators, ultrastrong coupling, backaction cooling, and the potential of a mechanical qubit.

Coherent Control of Single Electron Spin

Covers the coherent control of a single electron spin and explores spin qubits in quantum dots, coherence times, and achieving quantum computing.

Magnetic Resonance: Spin Qubits and Their Applications

Covers magnetic resonance principles and their application to spin qubits in quantum science.

Quantum Molecular Simulations

Explores ab initio path integral molecular dynamics simulations, focusing on nuclear quantum effects and their impact on various systems.

Quantum Simulation: Fundamentals and Applications

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

Logarithmic Derivative of Zeta

Explores the logarithmic derivative of the Zeta function using the Hadamard factorization.

Imaginary-Time Path Integrals

Covers Imaginary-Time Path Integrals, classical and quantum systems, convergence in simulations, and integration schemes for molecular dynamics.

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Quantum Optomechanics

Explores the fundamentals of quantum optomechanics, including radiation pressure, gravitational wave detectors, and quantum state manipulation.

Quantum Key Distribution: Security and Implementation

Explores Device Independent Quantum Key Distribution (DIQKD) principles, security proofs, and experimental demonstrations against quantum computer threats.

Path Integral Molecular Dynamics: Quantum Mechanics Applications

Introduces path integral molecular dynamics and its applications in quantum mechanics, focusing on nuclear quantum effects and their implications for molecular simulations.

Cryptography: Introduction

Explores the fundamentals of cryptography, its properties, historical development, and potential challenges from quantum computers.

Quantum and Nanocomputing

Covers the birth of quantum mechanics, Schrödinger's equations, superconductivity, Josephson effect, and the theory of superconductivity.

Quantum and Nanocomputing

Covers the fundamentals of quantum computing, qubit control, readout techniques, qubit controller specifications, Horse Ridge architectures, power breakdown, and more.

Quantum Information Processing: Rydberg Atoms

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

Quantum Compilation: Synthesis and Decomposition

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