Laser-Based Measurements for Time and Frequency Domain Applications
Taylor & Francis – 2013 – 764 pages
Foreword by Nobel laureate Professor Theodor W. Hänsch of Ludwig-Maximilians-Universität München
Based on the authors’ experimental work over the last 25 years, Laser-Based Measurements for Time and Frequency Domain Applications: A Handbook presents basic concepts, state-of-the-art applications, and future trends in optical, atomic, and molecular physics. It provides all the background information on the main kinds of laser sources and techniques, offers a detailed account of the most recent results obtained for time- and frequency-domain applications of lasers, and develops the theoretical framework necessary for understanding the experimental applications.
After a historical introduction, the book describes the basic concepts and mathematical tools required for studying the physics of oscillators. It then discusses microwave and optical resonators, crucial aspects of operation and fundamental properties of lasers, and precision spectroscopy and absolute frequency metrology. It also focuses on microwave and optical frequency standards and explores current and potential research directions.
Accessible to scientists, postdoc researchers, and advanced undergraduate students, this self-contained book gives a wide-ranging, balanced overview of the areas—including frequency standards and clocks, ultra-high-precision spectroscopy, quantum information, and environmental metrology—revolutionized by the recent advent of optical frequency comb synthesizers (OFCSs) based on femtosecond mode-locked lasers. The book is also a useful guide to cutting-edge research for manufacturers of advanced laser systems and optical devices.
"The authors have made a considerable effort to make this book useful and interesting to different kinds of readers: they provide a detailed treatment of the basic concepts of time and frequency measurements, carefully describe different kinds of lasers and some of the most advanced laser-based measurement techniques, and finally present the latest developments in the field, with a hint to the possible future trends in applications and fundamental science.
Being among the many important actors in this long story, the authors of this book are privileged witnesses of the evolution of time and frequency measurements, and can provide an informed and wide vision of this developing field from many different viewpoints."
—From the Foreword by Nobel laureate Professor Theodor W. Hänsch, Ludwig-Maximilians-Universität München
Shedding Light on the Art of Timekeeping
The great show of time and light, the curtain rises!
Brief history of timekeeping. Time-frequency equivalence
The parallel story of the speed of light
In the end, time and light met up again. Optical atomic clocks and outline of the book
Characterization and Control of Harmonic Oscillators
The ideal harmonic oscillator
The noisy oscillator
Phase noise modeling
Noise reduction in oscillators
Phase noise measurements
Amplitude noise measurements
Basic properties of bulk optical cavities
Cavity design considerations
Whispering gallery mode resonators
Continuous-Wave Coherent Radiation Sources
Principles of masers
Compendium of laser theory
Achieving single-mode oscillation
The laser output
Laser frequency fluctuations and stabilization techniques
Some specific laser systems
High-Resolution Spectroscopic Frequency Measurements
Interferometric wavelength measurements
Spectroscopic frequency measurements
Frequency modulation spectroscopy
Magnetic rotation spectroscopy
Doppler-free saturation spectroscopy
Doppler-free polarization spectroscopy
Doppler-free two-photon spectroscopy
Second-order Doppler-free spectroscopy
Sub-Doppler spectroscopy in atomic/molecular beams
Laser frequency standards using thermal quantum absorbers
Fourier transform spectroscopy
Time and Frequency Measurements with Pulsed Laser Systems
Theory of mode-locking
Mode-locking mechanisms and dispersion compensation schemes
Optical frequency comb synthesis from mode-locked lasers
Extension of OFCSs into novel spectral regions
General features of frequency standards and clocks
Cryogenic sapphire oscillators
Photonic microwave oscillators based on WGM resonators
Generation of ultrastable microwaves via optical frequency division
Trapping and cooling of neutral atoms
Cold stable molecules
Trapping and cooling of ions
Microwave atomic standards
Time transfer and frequency dissemination
Future Trends in Fundamental Physics and Applications
Optical atomic clocks
The hydrogen atom as an inexhaustible wellspring of advances in precision spectroscopy
Spectroscopy of cold, trapped metastable helium
Measurements of fundamental constants
Constancy of fundamental constants
Tests of fundamental physics laws
Perspectives for precision spectroscopy of cold molecules
Tests of general relativity: from ground-based experiments to space missions
Quantum-enhanced time and frequency measurements
Pasquale Maddaloni is a research scientist at the National Institute for Optics (INO) of the National Research Council (CNR) in Naples. His research focuses on nonlinear optics and precision spectroscopy assisted by optical frequency comb synthesizers as well as cold stable molecules. He earned a Ph.D. in physics from the University of Padua.
Marco Bellini is a senior researcher at the National Institute for Optics (INO) of the National Research Council (CNR) in Florence. His research deals with ultrashort and ultraintense laser pulses to produce highly nonlinear interactions with matter, the production and applications of high-order laser harmonics, and the development of new tools in quantum optics. He earned a Ph.D. in physics from the University of Florence.
Paolo De Natale is a staff scientist and director of the National Institute for Optics (INO) of the National Research Council (CNR) in Florence. He is a SPIE fellow, is the author of 200 papers, and holds five patents. His research activities focus on atomic, molecular, and optical physics, including novel optoelectronic devices, sub-Doppler molecular spectroscopy, optical frequency comb synthesizers, quantum cascade lasers, fiber-based optical sensors, and molecular gas sensing.