Development of Enhanced Security Techniques for Securing Satellite Communication Using Advanced Cybersecurity Protocols

Abstract

The increasing reliance on satellite communication for critical applications, such as navigation, remote sensing, and communication, has made it a prime target for cyber-attacks. The unique characteristics of satellite communication, including its broadcast nature and long signal propagation delays, make it particularly vulnerable to various types of cyber threats. To address these security concerns, this research paper proposes the development of enhanced security techniques for securing satellite communication using advanced cybersecurity protocols. This study begins by investigating the existing security protocols and techniques used in satellite communication, identifying their limitations. It then introduces a novel framework that integrates advanced cybersecurity protocols, such as quantum key distribution (QKD), blockchain, and artificial intelligence (AI), to provide comprehensive end-to-end security for satellite communication.

The proposed framework is structured into three layers: the physical layer, the network layer, and the application layer. At the physical layer, quantum key distribution is employed for secure key exchange, ensuring that the encryption keys are transmitted without being intercepted. The network layer utilizes blockchain technology to secure data transmission, providing a decentralized and tamper-proof ledger for transaction and data management. Finally, the application layer leverages artificial intelligence for threat detection and mitigation, enabling real-time identification and response to potential security threats. The proposed framework is rigorously evaluated using simulations and experimental results. These evaluations demonstrate the framework's effectiveness in preventing various types of cyber-attacks, including eavesdropping, jamming, and spoofing. The results show a significant improvement in security compared to existing protocols, with notable reductions in the bit error rate and increases in the signal-to-noise ratio. Overall, the proposed framework offers a robust and efficient solution for enhancing the security of satellite communication systems, addressing the unique challenges posed by the broadcast nature and long signal delays of these systems.