Aug 2026· International Journal of Electronics and Communication Engineering· Vol 13, pp. 369-381· 0 citations· 24 references
TL;DR
The paper proposes the recent advances made in decoding algorithms and hardware implementations, with particular emphasis on recent improvements to Successive Cancellation List (SCL) decoders, which work to improve decoding speed and latency while reducing power area constraints of the decoders, thus making polar codes ever closer to real-time deployments in contemporary communication systems.
Abstract
Polar codes have become a milestone in forward error correction, as they can achieve the channel capacity for Binary-input Memoryless Symmetric (BIMoS) channels and Binary input Partial Response (BPR) channels. Nowadays, their practical deployment still suffers challenges, particularly at short to moderate block lengths, because of the high computational complexity and limited level of parallelization offered by polar codes. The paper proposes the recent advances made in decoding algorithms and hardware implementations, which particular emphasis on recent improvements to Successive Cancellation List (SCL) decoders. The developments can be categorized into three: algorithmic enhancements (Fast-SSCL, polarization-adjusted convolutional codes), parallelization schemes (g-computation, g-branching), and hardware accelerations (unrolled architectures, approximate maximum-likelihood decoding). Together, they work to improve decoding speed and latency while reducing power area constraints of the decoders, thus making polar codes ever closer to real-time deployments in contemporary communication systems. Integrating these methodologies with polar codes may significantly enhance communication. The comparative study of the literature survey demonstrates the high performance of decoder, which can reduce implementation complexity. Existing studies largely focus on terrestrial channels, with insufficient domain-specific evaluation of advanced FEC schemes under GNSS and optical satellite channel impairments. This is one of the research gaps identified.
Polar codes are a leading candidate for forward error correction (FEC) in short-block, burst-mode communication systems, yet few researchers have examined how they should be implemented in practice, including where the codec should sit on a mixed FPGA–processor platform. This paper evaluates that choice under direct-se...
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Driven by the stringent demands of the sixth-generation (6G) networks and future deep-space exploration for ultra-reliable and high-throughput wireless transmission, advanced channel coding schemes have become increasingly critical. While Low-Density Parity-Check (LDPC) codes are widely adopted for their near-Shannon-l...
Jing-Nong Luo· ITM Web of Conferences· 0 citations
Newgen 5G networks need enhanced polar code decoding to balance throughput, energy economy, and error resiliencefor ultra-reliable low-latency communication. Although theoretically valid, polar code decoding algorithms have high latencies,energy consumption, and low channel and hardware flexibility, making them unsuita...
A. Peshattiwar, A. Khobragade· International journal of com...· 0 citations
The numerical results demonstrate that the modified polarization-adjusted convolutional (MPAC) codes offer competent decoding performance when compared with PAC codes using Fano decoding and CRC-polar codes using SC list (SCL) decoding.
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LoRa is widely used for low-power long-range communication, yet its legacy forward error correction (FEC) based on Hamming codes provides limited error correction capability. This study investigates the use of non-binary low-density paritycheck (NB-LDPC) codes as an alternative FEC scheme for LoRa, operating over Galoi...
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