CCSW‐RLNC: A Deep Learning‐Enhanced Color‐Coded Sliding Window Approach for Efficient Network Coding

ABSTRACT This paper focuses on developing an innovative Color‐Coded Sliding Window Random Linear Network Coding (CCSW‐RLNC) strategy, where the sliding window size dynamically adapts based on network conditions, including intermediate node availability, power limitations, channel noise, and multihop transmission characteristics. The system features a special two‐direction mechanism, where data windows are moved from left to right as color priority is shifted from right to left. The central color has the highest weightage to ensure data integrity. The enhancement of this approach is through a deep learning model, which optimizes the window parameters and adaptation process. The primary targets are to enhance energy efficiency and maximize throughput through the optimal synchronization of encoder and decoder and to achieve minimum latency. The color‐coding scheme serves as both a data representation system and a priority management system, enabling the more accurate reconstruction of original data packets. This new hybrid, combining RLNC, color‐coding, and deep learning adaptability addresses realistic network limitations while enhancing system performance and overall reliability.

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Publication Details

Journal
International Journal of Communication Systems
Published
2026-05-12
DOI
https://doi.org/10.1002/dac.70516
Primary Topic
Cooperative Communication and Network Coding
Type
article
Field-Weighted Citation Impact
0.00
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article

CCSW‐RLNC: A Deep Learning‐Enhanced Color‐Coded Sliding Window Approach for Efficient Network Coding

J. Martin Leo Manickam, G. Akilandeswary
International Journal of Communication Systems
Cooperative Communication and Network Coding
article

CCSW‐RLNC: A Deep Learning‐Enhanced Color‐Coded Sliding Window Approach for Efficient Network Coding

J. Martin Leo Manickam, G. Akilandeswary
article en

Abstract

ABSTRACT This paper focuses on developing an innovative Color‐Coded Sliding Window Random Linear Network Coding (CCSW‐RLNC) strategy, where the sliding window size dynamically adapts based on network conditions, including intermediate node availability, power limitations, channel noise, and multihop transmission characteristics. The system features a special two‐direction mechanism, where data windows are moved from left to right as color priority is shifted from right to left. The central color has the highest weightage to ensure data integrity. The enhancement of this approach is through a deep learning model, which optimizes the window parameters and adaptation process. The primary targets are to enhance energy efficiency and maximize throughput through the optimal synchronization of encoder and decoder and to achieve minimum latency. The color‐coding scheme serves as both a data representation system and a priority management system, enabling the more accurate reconstruction of original data packets. This new hybrid, combining RLNC, color‐coding, and deep learning adaptability addresses realistic network limitations while enhancing system performance and overall reliability.

International Journal of Communication SystemsVol. 39(9)
Saint Joseph's College (US), St. Joseph's Institute of Technology (IN)
Affordable and clean energy
Openalex Percentile: Top 4%
Cooperative Communication and Network Coding
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CCSW‐RLNC: A Deep Learning‐Enhanced Color‐Coded Sliding Window Approach for Efficient Network Coding — J. Martin Leo Manickam, G. Akilandeswary · International Journal of Communication Systems (2026) | TGRS Research Map | TGRS