Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

International Conference on Circuit, Power and Computing Technologies

Utilizing the Innovative Block Quantum Computing Approach of BQSAT for Secure Satellite Communication

S. Harshavardhan Naidu, T. R. Dinesh Kumar, C. Rujesh Kumar, Praveen G, G Yokesh

Published Aug 10, 2023• 1 citation
Publisher

Abstract

In order to extend long-distance communication, which has been necessary to connect telecommunications networks between the countries. Satellite communication is the second most widely used technology for global communication networks after terrestrial communication networks. A variety of communication services have been provided by satellite communication to mankind, such as the prediction of weather, storm warning, relaying television programs, digital data for a wide variety of business applications and most recently mobile and telephony communications. But with satellite communication, link security continues to be a big worry. Due to restrictions like a high bit error rate, power control, wide distances among the end nodes, high link as well as link availability. To overcome this issues, this paper proposed Block quantum for secure the satellite communication. Through registration, authentication and revocation, the communication is conducted. As part of this system, the satellite transmits a collected data to a ground base station, which records key parameters on the blockchain as well as clears malicious nodes from the block chain. High security is provided by the proposed satellite-based Blockchain and Quantum Key Distribution system for the upcoming 6G and beyond networks, Internet of Things, self-driving cars as well as other rapidly evolving applications. As a result, this study demonstrate that the suggested approach has an ability to enhance security as well as protection for satellite communications.

DOI
10.1109/iccpct58313.2023.10245881

Related papers

Blockchain and QKD Protocol-based Security Mechanism for Satellite Networks

Ramakrishnan Raman, Kodipaka Rajeshwar Rao, S. John Justin Thangaraj +3 more

The fusion of terrestrial radio and satellite communications will result in a world completely connected with sixth-generation (6G) networks. But there is a limitation of power and space available on satellites due to low computing power, limited storage space, and insufficient security occur. It is critical to utilize information storage and access protection in satellite networks efficiently to prevent data tampering and alteration. Satellite communications play an increasing role in global communication networks, creating security problems. Based on the Quantum Key Distribution (QKD) protocol, this proposal suggests a security and authentication method for satellite communication networks. A wireless and heterogeneous network architecture utilizes both open-source and commercial hardware to enable communication. The three stages of registration, authentication, and cancellation facilitate communication. As data is transmitted to satellites from ground stations, all measurements of significance are then logged on a decentralized blockchain. All certifications generated by rogue nodes are subsequently cleared from the blockchain by ground stations. It has been suggested that the technology be used with upcoming 6G networks, as well as the Internet of Things, self-driving cars, and other rapidly expanding applications.

International Conference on Intelligent Computing and Control Systems (ICICCS)•May 17, 2023•10 citations

Data Security in Communication using Blockchain and Key Based Protocols

S. Prabakaran, K Harinivaash, Prasad R +2 more

The development of global communication networks depends on satellite communication. Due to its lower stability and reach, satellite communication networks have garnered a lot of attention recently as a means of reducing the limitations of terrestrial networks. Numerous inconveniences exist, including inadequate storage space, security, and data processing capacity. Illegal entry turned out to be the difficult one. Satellite physical limitations in terms of available power and area result in limited data processing capability, storage and security limitations, and the data may be exposed to alteration or contamination by intruders. Since satellite communication has become more crucial in the development of global communication networks, there have been worries regarding its security. This project proposes to use the QKD protocol, which relies on identification and privacy protection, along with blockchain technology to create A network of satellite communication. To accomplish this, an architecture that consists of conventional and constrained devices connected to the blockchain via a wireless heterogeneous network has been developed. The communication is conducted by registration, authentication, and revocation. After receiving the data from the satellite, the terrestrial base station will log all important parameters on the distributed blockchain and remove any certificates belonging to rogue nodes. The proposed Chain and QKD system, which is based on satellites, offers a high degree of security for rapidly growing applications such as self-driving cars, future 6G and larger networks, and the Internet of Things.

International Conference on IoT, Communication and Automation Technology (ICICAT)•Nov 23, 2024•0 citations

Protocol-based Security Mechanism for Satellite Networks

Arun Pratap Srivastava, Hemant Singh Pokhariya, Anurag Shrivastava +3 more

A completely linked world with sixth generation (6G) networks is anticipated as a result of the convergence of terrestrial radio and satellite communications. Satellite physical restrictions on the amount of available power and space results in low computing power, constrained storage capacity, and compromised security. Data may therefore be susceptible to modification and contamination by others. Security concerns have arisen as satellite communications have become increasingly important to international communications networks. In satellite networks, it can be difficult to efficiently use storage and secure information access. With regard to satellite communication networks, this proposal suggests a privacy and authentication system based on QKD protocol. This is accomplished by implementing a wireless, heterogeneous network connectivity architecture that combines both open-source and commercially available devices. Registration, authentication, and revocation are the three processes that enable communication. Satellites transmit the gathered data to ground stations, which then record all significant parameters on the system's decentralized blockchain. All certificates from malicious nodes are removed from the blockchain by ground stations. It has been suggested for use with 6G networks in the future and beyond the Internet of Things, self-driving cars, and other quickly developing applications. Excellent security levels are provided by satellite-based blockchain and QKD systems.

International Conference on Pervasive Computing and Social Networking (ICPCSN)•Jun 1, 2023•2 citations

Quantum key distribution for security guarantees over QoS-driven 3D satellite networks

Ping Wang, Xi Zhang, Genshe Chen +2 more

In recent years, quantum-based communication is emerging as a new technique for ensuring secured communications because it can guarantee absolute security between two different remote entities. Quantum communication performs the transmission and exchange of quantum information among distant nodes within a network. Quantum key distribution (QKD) is a methodology for generating and distributing random encryption keys using the principles of quantum physics. In this paper, we investigate the techniques on how to efficiently use QKD in 3D satellite networks and propose an effective method to overcome its communications-distance limitations. In order to implement secured and reliable communications over wireless satellite links, we develop a free-space quantum channel model in satellite communication networks. To enlarge the communications distances over 3D satellite networks, we propose to employ the intermediate nodes to relay the unconditional keys and guarantee the Quantum Bit Error Rate (QBER) for security requirement over 3D satellite networks. We also propose the communication model for QKD security-Quality of Service (QoS) guarantee and an adaptive cooperative routing selection scheme to optimize the throughput performance of QKD-based satellite communications networks. The obtained simulation results verify our proposed schemes.

Proceedings of SPIE, the International Society for Optical Engineering/Proceedings of SPIE•Jun 3, 2014•4 citations

Quantum Communication Protocols for Secure 6G Network for Future Generation

Shweta Meshram, Kapil Jajulwar, Vinay Keswani

As we move toward the rollout of 6G networks, we're stepping into an era of groundbreaking technological advancements. These next-generation networks promise ultra-low latency and seamless integration with artificial intelligence (AI) and the Internet of Things (IoT), unlocking a new level of connectivity and performance. However, with these powerful capabilities come significant security challenges. Traditional encryption methods may not be enough to protect the complex and highly sensitive data traveling through 6G networks. One of the most promising solutions lies in Quantum Communication, particularly Quantum Key Distribution (QKD)-a method that leverages the laws of quantum mechanics to enable highly secure encryption. This paper explores the emerging security risks in both terrestrial and satellite communication channels and reviews current research on integrating quantum communication into 6G infrastructure. Special attention is given to its potential within the metaverse, a rapidly evolving digital environment that demands robust and future-proof security frameworks. Key areas of focus include-Addressing security vulnerabilities in quantum communication, Enhancing infrastructure to support quantum technologies, Reducing error rates in quantum protocols. the paper aims to propose a flexible, forward-looking framework designed to ensure fast, secure communication for critical sectors such as finance, defense, and healthcare.

International Conference on Emerging Trends in Engineering and Technology (ICETET)•Aug 1, 2025•1 citation

Optimal Entanglement Distribution Problem in Satellite-Based Quantum Networks

Xinliang Wei, Jiyao Liu, Lei Fan +3 more

Satellite-based quantum networks are emerging as a promising solution for the development of a global quantum internet in the near future. The ability to leverage the advantageous lower attenuation of optical signals from satellites to ground presents an exciting opportunity to establish a robust and secure quantum communication infrastructure on a global scale. By utilizing a constellation of satellites, it becomes feasible to continuously distribute high-fidelity quantum entanglements among ground stations over long distances, overcoming the limitations of traditional terrestrial-based quantum communication systems. In this article, we first provide a brief survey of existing solutions for satellite-based entanglement distribution, highlighting the various approaches and technologies that have been employed in this rapidly evolving field. We then delve into a formulated optimal entanglement distribution problem, aiming to optimize the distribution of quantum entanglement resources across the satellite network to maximize efficiency and reliability. This problem is addressed through a detailed exploration of several different methodologies and algorithms, each tailored to specific operational settings and constraints. Our experimental results confirm the efficiency of these approaches and provide valuable insights into their practical implementation and performance. Finally, we identify several key directions for further study and development in the realm of satellite-based quantum networks.

IEEE Network•May 8, 2024•20 citations
In order to extend long-distance communication, which has been necessary to connect telecommunications networks between the countries. Satellite communication is the second most widely used technology for global communication networks after terrestrial communication networks. A variety of communication services have been provided by satellite communication to mankind, such as the prediction of weather, storm warning, relaying television programs, digital data for a wide variety of business applications and most recently mobile and telephony communications. But with satellite communication, link security continues to be a big worry. Due to restrictions like a high bit error rate, power control, wide distances among the end nodes, high link as well as link availability. To overcome this issues, this paper proposed Block quantum for secure the satellite communication. Through registration, authentication and revocation, the communication is conducted. As part of this system, the satellite transmits a collected data to a ground base station, which records key parameters on the blockchain as well as clears malicious nodes from the block chain. High security is provided by the proposed satellite-based Blockchain and Quantum Key Distribution system for the upcoming 6G and beyond networks, Internet of Things, self-driving cars as well as other rapidly evolving applications. As a result, this study demonstrate that the suggested approach has an ability to enhance security as well as protection for satellite communications.
The fusion of terrestrial radio and satellite communications will result in a world completely connected with sixth-generation (6G) networks. But there is a limitation of power and space available on satellites due to low computing power, limited storage space, and insufficient security occur. It is critical to utilize information storage and access protection in satellite networks efficiently to prevent data tampering and alteration. Satellite communications play an increasing role in global communication networks, creating security problems. Based on the Quantum Key Distribution (QKD) protocol, this proposal suggests a security and authentication method for satellite communication networks. A wireless and heterogeneous network architecture utilizes both open-source and commercial hardware to enable communication. The three stages of registration, authentication, and cancellation facilitate communication. As data is transmitted to satellites from ground stations, all measurements of significance are then logged on a decentralized blockchain. All certifications generated by rogue nodes are subsequently cleared from the blockchain by ground stations. It has been suggested that the technology be used with upcoming 6G networks, as well as the Internet of Things, self-driving cars, and other rapidly expanding applications.
The development of global communication networks depends on satellite communication. Due to its lower stability and reach, satellite communication networks have garnered a lot of attention recently as a means of reducing the limitations of terrestrial networks. Numerous inconveniences exist, including inadequate storage space, security, and data processing capacity. Illegal entry turned out to be the difficult one. Satellite physical limitations in terms of available power and area result in limited data processing capability, storage and security limitations, and the data may be exposed to alteration or contamination by intruders. Since satellite communication has become more crucial in the development of global communication networks, there have been worries regarding its security. This project proposes to use the QKD protocol, which relies on identification and privacy protection, along with blockchain technology to create A network of satellite communication. To accomplish this, an architecture that consists of conventional and constrained devices connected to the blockchain via a wireless heterogeneous network has been developed. The communication is conducted by registration, authentication, and revocation. After receiving the data from the satellite, the terrestrial base station will log all important parameters on the distributed blockchain and remove any certificates belonging to rogue nodes. The proposed Chain and QKD system, which is based on satellites, offers a high degree of security for rapidly growing applications such as self-driving cars, future 6G and larger networks, and the Internet of Things.
A completely linked world with sixth generation (6G) networks is anticipated as a result of the convergence of terrestrial radio and satellite communications. Satellite physical restrictions on the amount of available power and space results in low computing power, constrained storage capacity, and compromised security. Data may therefore be susceptible to modification and contamination by others. Security concerns have arisen as satellite communications have become increasingly important to international communications networks. In satellite networks, it can be difficult to efficiently use storage and secure information access. With regard to satellite communication networks, this proposal suggests a privacy and authentication system based on QKD protocol. This is accomplished by implementing a wireless, heterogeneous network connectivity architecture that combines both open-source and commercially available devices. Registration, authentication, and revocation are the three processes that enable communication. Satellites transmit the gathered data to ground stations, which then record all significant parameters on the system's decentralized blockchain. All certificates from malicious nodes are removed from the blockchain by ground stations. It has been suggested for use with 6G networks in the future and beyond the Internet of Things, self-driving cars, and other quickly developing applications. Excellent security levels are provided by satellite-based blockchain and QKD systems.
In recent years, quantum-based communication is emerging as a new technique for ensuring secured communications because it can guarantee absolute security between two different remote entities. Quantum communication performs the transmission and exchange of quantum information among distant nodes within a network. Quantum key distribution (QKD) is a methodology for generating and distributing random encryption keys using the principles of quantum physics. In this paper, we investigate the techniques on how to efficiently use QKD in 3D satellite networks and propose an effective method to overcome its communications-distance limitations. In order to implement secured and reliable communications over wireless satellite links, we develop a free-space quantum channel model in satellite communication networks. To enlarge the communications distances over 3D satellite networks, we propose to employ the intermediate nodes to relay the unconditional keys and guarantee the Quantum Bit Error Rate (QBER) for security requirement over 3D satellite networks. We also propose the communication model for QKD security-Quality of Service (QoS) guarantee and an adaptive cooperative routing selection scheme to optimize the throughput performance of QKD-based satellite communications networks. The obtained simulation results verify our proposed schemes.
As we move toward the rollout of 6G networks, we're stepping into an era of groundbreaking technological advancements. These next-generation networks promise ultra-low latency and seamless integration with artificial intelligence (AI) and the Internet of Things (IoT), unlocking a new level of connectivity and performance. However, with these powerful capabilities come significant security challenges. Traditional encryption methods may not be enough to protect the complex and highly sensitive data traveling through 6G networks. One of the most promising solutions lies in Quantum Communication, particularly Quantum Key Distribution (QKD)-a method that leverages the laws of quantum mechanics to enable highly secure encryption. This paper explores the emerging security risks in both terrestrial and satellite communication channels and reviews current research on integrating quantum communication into 6G infrastructure. Special attention is given to its potential within the metaverse, a rapidly evolving digital environment that demands robust and future-proof security frameworks. Key areas of focus include-Addressing security vulnerabilities in quantum communication, Enhancing infrastructure to support quantum technologies, Reducing error rates in quantum protocols. the paper aims to propose a flexible, forward-looking framework designed to ensure fast, secure communication for critical sectors such as finance, defense, and healthcare.
Satellite-based quantum networks are emerging as a promising solution for the development of a global quantum internet in the near future. The ability to leverage the advantageous lower attenuation of optical signals from satellites to ground presents an exciting opportunity to establish a robust and secure quantum communication infrastructure on a global scale. By utilizing a constellation of satellites, it becomes feasible to continuously distribute high-fidelity quantum entanglements among ground stations over long distances, overcoming the limitations of traditional terrestrial-based quantum communication systems. In this article, we first provide a brief survey of existing solutions for satellite-based entanglement distribution, highlighting the various approaches and technologies that have been employed in this rapidly evolving field. We then delve into a formulated optimal entanglement distribution problem, aiming to optimize the distribution of quantum entanglement resources across the satellite network to maximize efficiency and reliability. This problem is addressed through a detailed exploration of several different methodologies and algorithms, each tailored to specific operational settings and constraints. Our experimental results confirm the efficiency of these approaches and provide valuable insights into their practical implementation and performance. Finally, we identify several key directions for further study and development in the realm of satellite-based quantum networks.