296,99 €
inkl. MwSt.
Versandkostenfrei*
Versandfertig in über 4 Wochen
payback
148 °P sammeln
  • Gebundenes Buch

This book describes the physics and architectures of widely tunable lasers. Fully updated and expanded to address important advances in science and technology, the third edition contains new chapters on tunable laser microscopy and laser isotope separation; extends coverage of optical parametric oscillators and their application to biomedicine, counter measures, microscopy, and spectroscopy; and discusses new applications in astronomy and medicine. Featuring fresh contributions from internationally recognized experts-including 100+ new pages and extensive references-this edition provides a timely account of highly successful tunable laser applications.…mehr

Produktbeschreibung
This book describes the physics and architectures of widely tunable lasers. Fully updated and expanded to address important advances in science and technology, the third edition contains new chapters on tunable laser microscopy and laser isotope separation; extends coverage of optical parametric oscillators and their application to biomedicine, counter measures, microscopy, and spectroscopy; and discusses new applications in astronomy and medicine. Featuring fresh contributions from internationally recognized experts-including 100+ new pages and extensive references-this edition provides a timely account of highly successful tunable laser applications.
Autorenporträt
F. J. Duarte is a research physicist with Interferometric Optics, Rochester, New York, USA, and an adjunct professor at the University of New Mexico, USA. His career as a laser physicist encompasses academia, industry, and the defense establishment. He holds a Ph.D in physics from Macquarie University, Sydney, Australia, where he was a student of the famed quantum physicist J. C. Ward. Dr. Duarte is the author of the generalized multiple-prism dispersion theory, has made unique contributions to the physics and architecture of tunable laser oscillators, and pioneered the use of Dirac's quantum notation in interferometry, oscillator physics, and classical optics.