Hermann A. Haus – författare

This work presents a theoretical and numerical investigation of high index-contrast (HIC) passive components that can serve as building blocks at the end-points and nodes of WDM communications systems. The main characteristic of these structures is their miniature size and their low radiation loss due to the strong light confinement in high index-contrast systems. Thus large-scale, high-density optical integration may be possible with the associated advantages of increased functionality, compactness and cost. The text presents devices for filtering, optical interconnections and coupling to fibres. The latter part of the book explores coupling structures that are only a few wavelengths long yet can provide efficient coupling. Also discussed are possible future directions for this technology.

Passive Components for Dense Optical Integration presents a theoretical and numerical investigation of high index-contrast (HIC) passive components that can serve as building blocks at the end-points and nodes of WDM communications systems. The main characteristic of these structures is their miniature size and their low radiation loss due to the strong light confinement in high index-contrast systems. Thus large scale, high density optical integration may be possible with the associated advantages of increased functionality, compactness and cost. Passive Components for Dense Optical Integration presents novel devices for filtering, optical interconnections and coupling to fibers. The latter part of the book explores coupling structures that are only a few wavelengths long yet can provide efficient coupling. Also discussed are possible future directions for this technology. Passive Components for Dense Optical Integration will be of interest to researchers and development engineers in integrated optics and fiber optics. It also provides an excellent supplement to a graduate course in optics.

Electromagnetic Noise and Quantum Optical Measurements is the result of more than 40 years of research and teaching. The first three chapters provide the background necessary to understand the basic concepts. Then shot noise and thermal noise are discussed, followed by linear noisy multiparts, the quantum theory of waveguides and resonators, an analysis of phase-insensitive systems, detection, photon probability distributions, solitons, phase-sensitive amplification, squeezing, the quantum theory of solitons and squeezing, and quantum non-demolition measurements. Rich appendices give additional information. The book is intended for graduate students and scientists in physics and engineering. Numerous problems and selected solutions will help readers to deepen their knowledge.