A Chaos MIMO-Based Polar Concatenation Code for Secure Channel Coding
Title | A Chaos MIMO-Based Polar Concatenation Code for Secure Channel Coding |
Publication Type | Conference Paper |
Year of Publication | 2019 |
Authors | Ito, Keita, Masuda, Yoshihiro, Okamoto, Eiji |
Conference Name | 2019 International Conference on Information Networking (ICOIN) |
Keywords | 5 G, 5G networks, bit error rate performance, block codes, C-MIMO transmission scheme, channel coding, chaos, chaos multiple-input multiple-output-based polar concatenation code, chaos transmission, chaotic communication, chaotic MIMO block modulation, composability, concatenated codes, convolutional code, Convolutional codes, cyber physical systems, Decoding, error correction ability, error correction codes, error statistics, iterative decoding, LDPC-concatenated transmission, LLR-based outer channel coding, LLR-based turbo code, log-likelihood ratio, low-density parity check code, Maximum likelihood decoding, Metrics, MIMO communication, modulation, modulation coding, network coding, numerical analysis, numerical evaluation, parity check codes, physical layer security, polar code, polar code concatenation, polar codes, pubcrawl, resilience, Resiliency, SCAD, secure channel coding effect, sequential LLR |
Abstract | For secure and high-quality wireless transmission, we propose a chaos multiple-input multiple-output (C-MIMO) transmission scheme, in which physical layer security and a channel coding effect with a coding rate of 1 are obtained by chaotic MIMO block modulation. In previous studies, we introduced a log-likelihood ratio (LLR) to C-MIMO to exploit LLR-based outer channel coding and turbo decoding, and obtained further coding gain. However, we only studied the concatenation of turbo code, low-density parity check (LDPC) code, and convolutional code which were relatively high-complexity or weak codes; thus, outer code having further low-complexity and strong error correction ability were expected. In particular, a transmission system with short and good code is required for control signaling, such as in 5G networks. Therefore, in this paper, we propose a polar code concatenation to C-MIMO, and introduce soft successive decoding (SCAD) and soft successive cancellation list decoding (SSCLD) as LLR-based turbo decoding for polar code. We numerically evaluate the bit error rate performance of the proposed scheme, and compare it to the conventional LDPC-concatenated transmission. |
DOI | 10.1109/ICOIN.2019.8718168 |
Citation Key | ito_chaos_2019 |
- parity check codes
- LLR-based turbo code
- log-likelihood ratio
- low-density parity check code
- Maximum likelihood decoding
- Metrics
- MIMO communication
- modulation
- modulation coding
- network coding
- numerical analysis
- numerical evaluation
- LLR-based outer channel coding
- physical layer security
- polar code
- polar code concatenation
- polar codes
- pubcrawl
- resilience
- Resiliency
- SCAD
- secure channel coding effect
- sequential LLR
- composability
- 5G networks
- bit error rate performance
- block codes
- C-MIMO transmission scheme
- channel coding
- chaos
- chaos multiple-input multiple-output-based polar concatenation code
- chaos transmission
- chaotic communication
- chaotic MIMO block modulation
- 5 G
- concatenated codes
- convolutional code
- Convolutional codes
- cyber physical systems
- Decoding
- error correction ability
- error correction codes
- error statistics
- iterative decoding
- LDPC-concatenated transmission