Abstract

This research addresses the challenges related to the collection and transmission of measurement data during the monitoring of military and other strategically significant objects. The solution involved creating a proprietary distributed system that operates on Wi-Fi technology and leverages the national military radio communication system for long-distance data transfer. Measurements were gathered for several key parameters, including the distance between cracks and joints, magnetometer readings, and the position and potential tilt of objects across three axes based on accelerometer and gyroscope data. A significant aspect of the study was the server setup, which allowed for the creation of new data reception channels. These channels were essential for the further processing and analysis of measurement results. This system is capable of addressing complex issues such as predicting the technical condition of strategically important objects. The thoroughness of the analysis enables the identification and diagnosis of potential errors, as well as the detection of delays within the communication system. Additionally, optimizing energy consumption parameters extended the duration of research activities at remote locations, which ultimately prolongs the lifespan and maintenance intervals of the control system. The flexibility in programming the module boards and compatibility with various electronic measuring sensors make it possible to adjust the system for a wide range of applications. This adaptability significantly broadens the scope of research, expanding it to diverse fields such as agriculture, ecology, energy, healthcare, meteorology, and more.