Abstract

The efficiency and reliability of power supply system's play a critical role in the operation of space rocket complexes, where stringent requirements for power quality, stability, and control must be met. This study explores various power supply architectures and technologies suitable for space applications, emphasizing the importance of power quality management and control strategies. The research analyzes key factors affecting power system performance, including voltage regulation, frequency stability, harmonic distortion, and electromagnetic compatibility. Advanced methods for monitoring and optimizing power distribution within rocket complexes are also examined. By comparing different power supply configurations and their impact on operational efficiency, this study provides recommendations for enhancing the resilience and sustainability of energy systems in space missions. The findings contribute to the development of more robust and efficient power infrastructure for modern and future space exploration endeavors.

Keywords: space rocket complexes, power supply systems, power quality management, voltage regulation, frequency stability, harmonic distortion, electromagnetic compatibility

References

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