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Cross-Layer Encryption of CFB-AES-TURBO for Advanced Satellite Data Transmission Security
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- Title
- Cross-Layer Encryption of CFB-AES-TURBO for Advanced Satellite Data Transmission Security
- Issued Date
- 2022-06
- Citation
- Jeon, Suhyeon. (2022-06). Cross-Layer Encryption of CFB-AES-TURBO for Advanced Satellite Data Transmission Security. IEEE Transactions on Aerospace and Electronic Systems, 58(3), 2192–2205. doi: 10.1109/TAES.2021.3134988
- Type
- Article
- Author Keywords
- Advanced encryption standard (AES) ; channel coding ; cipher feedback (CFB) mode ; encryption ; satellite communication ; security ; turbo codes
- Keywords
- JOINT ENCRYPTION ; WIRELESS ; THROUGHPUT ; NETWORKS ; SCHEME
- ISSN
- 0018-9251
- Abstract
-
As the advanced satellite network can provide extremely diverse data to various types of users, it is of vital importance to achieve data security using encryption over satellite channels. However, since the avalanche effect makes encryption techniques vulnerable to bit errors in the wireless channel, a
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more powerful encryption technique is required for data confidentiality. In addition, an efficient method for exchanging encryption keys between receivers and transmitters should be capable of managing a large scale of satellites in the network. In this paper, we propose a novel super-encryption method of
joint encryption and channel coding, CFB-AES-TURBO, which combines advanced encryption standard (AES) in the upper layer and turbo coding as bulk encryption in the physical layer. Because we introduce turbo coding in the cipher feedback (CFB) mode with AES for each block, our scheme can accomplish dual goals of data protection and bit error correction. We select a encryption block size to maximize throughput based on channel conditions and the security level required for a user, and present a key exchanging solution. We derive processing time gains and analyze computational complexity of the CFB-AES-TURBO. The bit error rate (BER) performance improvement with about 12 dB coding gain is achieved. We also enhance the security performance by 1015,000 times and provide indistinguishability. Finally, we analyze the total expected latency, suggest the minimum key refresh time of geostationary earth orbit (GEO) satellites. © IEEE
- Publisher
- Institute of Electrical and Electronics Engineers
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Related Researcher
- Kwak, Jeongho곽정호
-
Department of Electrical Engineering and Computer Science
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