Abstract
This study focuses on exploring the possibilities of improving the efficiency of radiolocation and radiodirection-finding systems by integrating optical and acoustic sensors. Accurate detection of frequency variations enhances the quality of radio signal reception and direction finding, impacting the overall performance of the systems. Materials and Methods: The study used optical sensors with high sensitivity for processing signals at a frequency of 50 Hz and acoustic sensors for monitoring signals at a frequency of 120 Hz in space. The spectral correlation method enabled fast and precise signal processing in the frequency domain. Additionally, improving the signal-to-noise ratio (SNR) was aimed at enhancing the system's resistance to noise. Results: The integration of optical and acoustic sensors increased the performance of radiolocation systems by up to 30%. The system's energy efficiency and spatial data collection capabilities also improved. Faster signal processing and precise direction detection of radio signals significantly enhanced the speed and accuracy of the system compared to traditional methods. Conclusion: The integration of optical and acoustic sensors significantly improves the performance and reliability of radiolocation and radiodirection-finding systems. This method enhances the system's resistance to noise and energy efficiency, ultimately increasing the overall effectiveness of radiolocation systems.