Offering a one-stop reference, this book provides an understanding of the physical phenomena, process principles, latest achievements, and applications from the key researchers and research groups that focus on precision micro- and nano-scale laser processing.

Quantum Entanglement Engineering and Applications, the first of its kind, focuses on the practical mathematical tools necessary to handle quantum entanglement and requirements to design optical configurations for quantum entanglement-based systems in quantum communications and quantum computing.

This book explores the basics of how to construct a laser isotope separation experiment, as well as a laser cooling magneto optical trap. It reviews the basic optics, quantum mechanics and the atom-field equations and rate equations that include the transition probabilities for lithium and rubidium. The book includes a full description of different diode laser cavities and the methods used to assemble and tune lasers. Throughout the work detailed step-by-step thorough explanations of these experimental techniques are provided.

The key readership includes upper level undergraduate and graduate level students on courses such as modern techniques in experimental physics lab.

Key Features:

Provides experimental details for laser cooling and trappingIncludes laser isotope separationDescribes the basic optics fundamentals needed to understand the experimentsIncludes chapter problems, exercises, and examplesExplains the components and equipment needed

Offering a one-stop reference, this book provides an understanding of the physical phenomena, process principles, latest achievements, and applications from the key researchers and research groups that focus on precision micro- and nano-scale laser processing.

Quantum Entanglement Engineering and Applications, the first of its kind, focuses on the practical mathematical tools necessary to handle quantum entanglement and requirements to design optical configurations for quantum entanglement-based systems in quantum communications and quantum computing.

This book explores the basics of how to construct a laser isotope separation experiment, as well as a laser cooling magneto optical trap. It reviews the basic optics, quantum mechanics and the atom-field equations and rate equations that include the transition probabilities for lithium and rubidium. The book includes a full description of different diode laser cavities and the methods used to assemble and tune lasers. Throughout the work detailed step-by-step thorough explanations of these experimental techniques are provided.

The key readership includes upper level undergraduate and graduate level students on courses such as modern techniques in experimental physics lab.

Key Features:

Provides experimental details for laser cooling and trappingIncludes laser isotope separationDescribes the basic optics fundamentals needed to understand the experimentsIncludes chapter problems, exercises, and examplesExplains the components and equipment needed