Angielski
Wireless Communication Channels delivers a rigorous, systematic introduction to the physical and statistical behavior of radio propagation channels and their direct impact on modern wireless communication systems. This comprehensive resource equips engineers with the critical conceptual and analytical tools required to master the propagation environment, mapping first principles directly to system-level design implications. The text systematically develops classical and empirical models used to predict large-scale path loss across real terrain and cluttered environments. By breaking down the fundamental physics of wave propagation (including reflection, diffraction, and scattering) this book establishes a framework for evaluating real-world link performance.
The text details small-scale channel dynamics, providing extensive coverage of multipath fading, Doppler spread, and time variability through established statistical models, such as Rayleigh, Rician, and Nakagami distributions. It translates these complex channel concepts into actionable communication architecture, addressing diversity techniques, equalization, wideband signaling, and multiple-input multiple-output (MIMO) channels. To reinforce the analytical foundation, the text quantifies complex propagation scenarios through rigorous mathematical modeling. The book emphasizes physical interpretation, core model assumptions, and strict conditions of validity, successfully bridging advanced electromagnetic theory with everyday engineering practice.
The book serves as an indispensable reference and graduate-level text for systems engineers, radio frequency (RF) design engineers, and wireless network researchers working on next-generation communication systems. It provides the foundational theory and engineering strategies necessary to address contemporary propagation challenges, saving significant simulation time and field-testing resources. End-of-chapter problems and practical engineering examples help readers develop the skills needed to design scalable, reliable wireless architectures across a wide range of operating conditions.
