Quantum Phononics, 1st ed. 2019
Introduction to Ultrafast Dynamics of Optical Phonons
Springer Tracts in Modern Physics Series, Vol. 282

Author:

Language: English

147.69 €

In Print (Delivery period: 15 days).

Add to cartAdd to cart
Quantum Phononics
Publication date:
Support: Print on demand

147.69 €

In Print (Delivery period: 15 days).

Add to cartAdd to cart
Quantum Phononics
Publication date:
142 p. · 15.5x23.5 cm · Hardback

This book presents quantum phononics as an exciting new field of research, and introduces readers to the quantum nature of phonons and their application to quantum technologies. Both the theory of and recent experiments in ?quantum phononics,? involving e.g. coherent phonons, phonon squeezing, coherent control, and phonon quantum technologies, are presented. The theoretical background of the generation and detection of phonons is described in a way that will be easy to understand for graduate students and experimental scientists who are newcomers to the field.

Moreover, the book focuses on coherent phonons produced by ultrafast laser pulses, which can be used for the coherent control of atomic motions in solids and phase transformation. The laser-matter interaction is treated using a density matrix formalism of the time-dependent Schröedinger equation. In addition, the third-order nonlinear optical response of condensed matter is also described.

1.       Introduction

2.       Phonons

2.1. Classical description of lattice vibration

2.2. Harmonic oscillator (creation and annihilation operators, coherent states, squeezed states)

2.3. Quantum description of phonons

3.       Coherent phonons

3.1. Generation mechanism of coherent phonons (Theory)

3.2. Detection mechanism (Theory) (optical detection, diffraction detection)

3.3. Experimental Examples (semimetals, semiconductors, super conductors, Topological insulators and other new functional materials)

4.       Phonon squeezing

4.1. Squeezed state of phonons

4.2. Two-phonon squeezing

5.       Coherent control of phonons

5.1. Introduction to coherent control

5.2. Theory of coherent control of phonons

5.3. Single-mode control

5.4. Multi-model control

6.       Phonon quantum technology

6.1. Phonon quantum memory

6.2. Entanglement of phonons

7.       Optomechanics

8.       Phonon assisted phenomena 

Kazutaka Nakamura is an Associate Processor at the Laboratory for Materials and Structures, Institute of Innovative Research at Tokyo Institute of Technology.  He received his doctoral degree in Nuclear Engineering from Tokyo Institute of Technology and previously served as a senior scientist at the Science and Technology Agency’s National Research Institute for Metals (Japan).  He is the author of over 200 scientific articles and reviews, spanning laser spectroscopy, chemical reaction dynamics, shock-induced high-pressure science, ultrafast phenomena, light/matter interactions, and the coherent control of phonons using laser light.

Explains the quantum nature of phonons as classical vibrations

Addresses applications to quantum technologies

Presents both the theory of and recent experiments involving phonons, e.g. coherent phonons, coherent control, and phonon quantum technologies