Elements of Quantum Optics [electronic resource] / edited by Pierre Meystre, Murray Sargent.

Contributor(s): Meystre, Pierre [editor.] | Sargent, Murray [editor.] | SpringerLink (Online service)Material type: TextTextPublisher: Berlin, Heidelberg : Springer Berlin Heidelberg, 2007Description: XII, 507 p. online resourceContent type: text Media type: computer Carrier type: online resourceISBN: 9783540742111Subject(s): Physics | Elementary particles (Physics) | Quantum field theory | Quantum optics | Lasers | Photonics | Physics | Elementary Particles, Quantum Field Theory | Laser Technology, Photonics | Quantum OpticsAdditional physical formats: Printed edition:: No titleDDC classification: 539.72 LOC classification: QC793-793.5QC174.45-174.52Online resources: Click here to access online
Contents:
Classical Electromagnetic Fields -- Classical Nonlinear Optics -- Quantum Mechanical Background -- Mixtures and the Density Operator -- CW Field Interactions -- Mechanical Effects of Light -- to Laser Theory -- Optical Bistability -- Saturation Spectroscopy -- Three and Four Wave Mixing -- Time-Varying Phenomena in Cavities -- Coherent Transients -- Field Quantization -- Interaction Between Atoms and Quantized Fields -- System-Reservoir Interactions -- Resonance Fluorescence -- Squeezed States of Light -- Cavity Quantum Electrodynamics -- Quantum Theory of a Laser -- Entanglement, Bell Inequalities and Quantum Information.
In: Springer eBooksSummary: Elements of Quantum Optics gives a self-contained and broad coverage of the basic elements necessary to understand and carry out research in laser physics and quantum optics, including a review of basic quantum mechanics and pedagogical introductions to system-reservoir interactions and to second quantization. The text reveals the close connection between many seemingly unrelated topics, such as probe absorption, four-wave mixing, optical instabilities, resonance fluorescence and squeezing. It also comprises discussions of cavity quantum electrodynamics and atom optics. The 4th edition includes a new chapter on quantum entanglement and quantum information, as well as added discussions of the quantum beam splitter, electromagnetically induced transparency, slow light, and the input-output formalism needed to understand many problems in quantum optics. It also provides an expanded treatment of the minimum-coupling Hamiltonian and a simple derivation of the Gross-Pitaevskii equation, an important gateway to research in ultracold atoms and molecules.
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Classical Electromagnetic Fields -- Classical Nonlinear Optics -- Quantum Mechanical Background -- Mixtures and the Density Operator -- CW Field Interactions -- Mechanical Effects of Light -- to Laser Theory -- Optical Bistability -- Saturation Spectroscopy -- Three and Four Wave Mixing -- Time-Varying Phenomena in Cavities -- Coherent Transients -- Field Quantization -- Interaction Between Atoms and Quantized Fields -- System-Reservoir Interactions -- Resonance Fluorescence -- Squeezed States of Light -- Cavity Quantum Electrodynamics -- Quantum Theory of a Laser -- Entanglement, Bell Inequalities and Quantum Information.

Elements of Quantum Optics gives a self-contained and broad coverage of the basic elements necessary to understand and carry out research in laser physics and quantum optics, including a review of basic quantum mechanics and pedagogical introductions to system-reservoir interactions and to second quantization. The text reveals the close connection between many seemingly unrelated topics, such as probe absorption, four-wave mixing, optical instabilities, resonance fluorescence and squeezing. It also comprises discussions of cavity quantum electrodynamics and atom optics. The 4th edition includes a new chapter on quantum entanglement and quantum information, as well as added discussions of the quantum beam splitter, electromagnetically induced transparency, slow light, and the input-output formalism needed to understand many problems in quantum optics. It also provides an expanded treatment of the minimum-coupling Hamiltonian and a simple derivation of the Gross-Pitaevskii equation, an important gateway to research in ultracold atoms and molecules.

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