APPLICATION OF PHASE-LOGIC ELEMENTS IN RADIOENGINEERING COMMUNICATION SYSTEMS

Abstract

This article is devoted to the study of the effectiveness of phase-logic methods for signal processing in telecommunication systems, in comparison with traditional approaches. The key advantages of phase-logic elements are analyzed, in particular their ability to reduce noise and distortions, enhance resistance to external interferences, and lower power consumption. Unlike classical logic structures, phase-logic elements use the phase of a signal as the primary logical parameter, which enables reliable data transmission even under significant noise load. Under network congestion, these approaches demonstrate stable signal quality indicators.

The study is based on the results of numerical modeling and analysis of experimental data, reflecting the behavior of systems with phase-logic structures under various scenarios—from high noise levels to limited bandwidth. Particular attention is paid to the comparative evaluation of such characteristics as data loss, energy consumption, and resistance to interference in phase-logic and traditional signal processing schemes. A methodology is also proposed for assessing efficiency considering environmental factors, traffic intensity, and the types of communication protocols used.

The results of the study confirm the feasibility of integrating phase-logic elements into modern telecommunication systems, in particular for use in 5G, 6G networks, and the Internet of Things (IoT). Potential directions for the practical implementation of the proposed methods in real communication infrastructures are presented, along with an outline of future scientific developments in the field of microelectronics and phase-logic information processing.