This volume from the Wiley Series in Pure and Applied Optics offers a thorough examination of optical radiation detectors, covering both foundational principles and advanced topics. The text systematically addresses the physics of photon detection, including semiconductor-based photodetectors, thermal detectors, and photomultiplier tubes. Each chapter is structured to provide clear explanations of operating mechanisms, performance metrics, and practical limitations. The content emphasizes quantitative analysis, with equations and diagrams that support rigorous understanding. Readers will find detailed discussions on responsivity, noise characteristics, and spectral response, making it a useful resource for designing and evaluating detection systems.

The book is organized to serve as both a learning tool and a reference. It begins with a review of electromagnetic radiation basics before moving into specific detector types. Later chapters cover signal processing, calibration techniques, and system integration. The material is presented in a logical progression, allowing readers to build knowledge incrementally.

Numerous examples and problem sets reinforce key concepts, while the references point to primary literature for deeper exploration. The binding and paper quality are typical of academic hardcovers, designed to withstand frequent handling in lab or office settings. The typography is clear, with well-labeled figures and tables that facilitate quick lookup. This work is particularly suited for graduate students and researchers in optics, physics, and electrical engineering.

It also serves practicing engineers who require a comprehensive yet accessible guide to detector selection and characterization. The content remains relevant across various application domains, including spectroscopy, imaging, and remote sensing. Because the principles discussed are fundamental, the book retains its value over time without reliance on rapidly changing commercial specifications. Its affordability—offered at a very low price—makes it an attractive addition to institutional or personal libraries, especially for those seeking to build a focused collection in optical sciences.

The combination of authoritative authorship and practical coverage positions this title as a reliable educational and reference tool. It avoids unnecessary jargon while maintaining technical depth, striking a balance that benefits both newcomers and experienced practitioners. The price point is remarkably low for a work of this caliber, ensuring accessibility without compromising content quality. Whether used as a course textbook or a self-study resource, this book supports a solid grasp of optical radiation detection principles and their real-world implementation.