Quantifying equivocation for finite blocklength wiretap codes
Title | Quantifying equivocation for finite blocklength wiretap codes |
Publication Type | Conference Paper |
Year of Publication | 2017 |
Authors | Pfister, J., Gomes, M. A. C., Vilela, J. P., Harrison, W. K. |
Conference Name | 2017 IEEE International Conference on Communications (ICC) |
Date Published | may |
ISBN Number | 978-1-4673-8999-0 |
Keywords | algebraic codes, Binary codes, binary erasure wiretap channel, channel coding, Channel models, coset-based wiretap codes, Decoding, encoding, error correction codes, finite blocklength wiretap codes, forward error correcting codes, forward error correction, mirrors technique, Monte Carlo methods, Monte Carlo strategy, pubcrawl, quantifying equivocation, Resiliency, Scalability, security, Wireless communication, Zinc |
Abstract | This paper presents a new technique for providing the analysis and comparison of wiretap codes in the small blocklength regime over the binary erasure wiretap channel. A major result is the development of Monte Carlo strategies for quantifying a code's equivocation, which mirrors techniques used to analyze forward error correcting codes. For this paper, we limit our analysis to coset-based wiretap codes, and give preferred strategies for calculating and/or estimating the equivocation in order of preference. We also make several comparisons of different code families. Our results indicate that there are security advantages to using algebraic codes for applications that require small to medium blocklengths. |
URL | https://ieeexplore.ieee.org/document/7996925 |
DOI | 10.1109/ICC.2017.7996925 |
Citation Key | pfister_quantifying_2017 |
- forward error correction
- Zinc
- Wireless communication
- security
- Scalability
- Resiliency
- quantifying equivocation
- pubcrawl
- Monte Carlo strategy
- Monte Carlo methods
- mirrors technique
- algebraic codes
- forward error correcting codes
- finite blocklength wiretap codes
- error correction codes
- encoding
- Decoding
- coset-based wiretap codes
- Channel models
- channel coding
- binary erasure wiretap channel
- Binary codes