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Concept

Spin echo

Related lectures (32)

Spin Echo Formation: Fundamentals of Biomedical Imaging MOOC: Fundamentals of Biomedical Imaging: Magnetic Resonance Imaging (MRI)

Delves into the formation of spin echoes in MRI imaging and the mathematical formulation behind it, emphasizing the role of RF pulses and gradients.

Spin echoes & coherence transfer

Explores spin echoes, coherence transfer, product operator formalism, and the INEPT experiment in NMR spectroscopy.

Quantum Description of Pulsed NMR

Explores the quantum principles behind Pulsed NMR Spectroscopy, including Zeeman interaction and spin manipulation through radiofrequency irradiation.

Quantum Sensing with Single Spins

Covers quantum sensing with single spins, focusing on the Nitrogen-Vacancy center in diamond and its applications in antiferromagnetic materials.

Spin Dynamics: Introduction to the course

Covers spintronics concepts, magnetism, transport, relaxation, coherences, course structure, and learning outcomes.

Quantum Reservoir Engineering

Explores Quantum Reservoir Engineering, energy relaxation, and quantum phasing in systems, discussing equations of motion and spectral densities.

Basic Steps in Magnetic Resonance

Covers the basic steps in magnetic resonance, including NMR experiments and signal averaging.

Spin Coherence: Double Quantum Coherence

Explores spin echo, quadrupolar echoes, and double quantum coherence in spin dynamics.

Quantum Optics I: Stern-Gerlach Experiment

Explores the Stern-Gerlach experiment, strong measurements, cavity quantum electrodynamics, and quantum optomechanics.

Blood flow and signal phase MOOC: Fundamentals of Biomedical Imaging: Magnetic Resonance Imaging (MRI)

Covers the impact of blood flow on the rephased signal in biomedical imaging.

Spin Relaxation in Magnetic Resonance

Introduces the fundamentals of spin relaxation in magnetic resonance, covering spin-lattice and spin-spin relaxation, and rotational motion in liquids.

Spin Relaxation: Examples and Mechanisms

Explores spin relaxation mechanisms in magnetic resonance, with examples like protein structure determination and solid benzene.

NMR Experiments: Basics and Applications

Explores the basic steps in magnetic resonance, including INEPT pulse sequences and two-dimensional NMR experiments like COSY and NOESY.

Intro to Quantum Sensing with Diamond NV Centers

Introduces quantum sensing with diamond NV centers, covering properties, applications, and techniques.

Introduction to Magnetic Resonance

Covers the fundamental principles of magnetic resonance and its applications in chemistry.

Nuclear Overhauser Effect

Explores the Nuclear Overhauser effect in magnetic resonance and its impact on spin relaxation and enhancement.

Inelastic Neutron Scattering: Spin Waves and Stoner Excitations

Explores inelastic neutron scattering, spin waves, Stoner excitations, and dispersion relations in itinerant magnets.

Single Electron Spin Qubits

Explores spin qubits in quantum dots, real-time single-electron detection, tunneling response, energy-selective readout, T₁ relaxation time, spin relaxation, and coherent spin control.

Energy Relaxation in Quantum Systems

Explores energy relaxation and dephasing in quantum systems, discussing their mechanisms and impact.

Spin relaxation mechanism

Explores spin relaxation mechanisms, perturbation theory, relaxation rates, momentum conservation, phonon drag, electron-magnon interactions, and symmetries.