Model-Data Dual-Driven Adaptive Prior-Enhanced Intelligent Turbo Decoding Algorithm

To address the inadequate bit error rate (BER) performance of traditional Turbo decoding algorithms, we propose an adaptive prior-enhanced intelligent Turbo decoding algorithm based on Model-Data Dual-Driven.By deeply unfolding the iterative decoding process of the Max-Log-MAP algorithm, we construct the Adaptive Prior-Enhanced Turbo Decoding Network (APE-TurboNet) model. Within this framework, we introduce the Adaptive Prior-Enhanced Module (APEMod), which employs dual-driven deep learning principles. This module utilizes learnable weights to linearly adjust extrinsic information. It further incorporates fully connected layers to enhance parameter differentiability and improve the capabilities of nonlinear feature extraction. Additionally, a learnable mixing coefficient is employed to effectively combine both linear computation results and nonlinear extraction outcomes, leading to a more accurate estimation of extrinsic information. We also propose a novel hybrid loss function to optimize the training process. Simulation results demonstrate that the proposed algorithm significantly outperforms conventional Turbo decoding algorithms in terms of BER performance.

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Publication Details

Published
2025-06-27
DOI
https://doi.org/10.1109/icetis66286.2025.11144173
Primary Topic
Error Correcting Code Techniques
Type
article
Field-Weighted Citation Impact
0.00

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article

Model-Data Dual-Driven Adaptive Prior-Enhanced Intelligent Turbo Decoding Algorithm

Robert K.Y. Li, Lizhe Liu, Yong Li, Yang Shuo et al.
Error Correcting Code Techniques
article

Model-Data Dual-Driven Adaptive Prior-Enhanced Intelligent Turbo Decoding Algorithm

Robert K.Y. Li, Lizhe Liu, Yong Li, Yang Shuo, Bin Wang
article en

Abstract

To address the inadequate bit error rate (BER) performance of traditional Turbo decoding algorithms, we propose an adaptive prior-enhanced intelligent Turbo decoding algorithm based on Model-Data Dual-Driven.By deeply unfolding the iterative decoding process of the Max-Log-MAP algorithm, we construct the Adaptive Prior-Enhanced Turbo Decoding Network (APE-TurboNet) model. Within this framework, we introduce the Adaptive Prior-Enhanced Module (APEMod), which employs dual-driven deep learning principles. This module utilizes learnable weights to linearly adjust extrinsic information. It further incorporates fully connected layers to enhance parameter differentiability and improve the capabilities of nonlinear feature extraction. Additionally, a learnable mixing coefficient is employed to effectively combine both linear computation results and nonlinear extraction outcomes, leading to a more accurate estimation of extrinsic information. We also propose a novel hybrid loss function to optimize the training process. Simulation results demonstrate that the proposed algorithm significantly outperforms conventional Turbo decoding algorithms in terms of BER performance.

Natural Science Foundation of Hebei Province
Openalex Percentile: Top 73%
Error Correcting Code Techniques
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Model-Data Dual-Driven Adaptive Prior-Enhanced Intelligent Turbo Decoding Algorithm — Robert K.Y. Li, Lizhe Liu, et al. · (2025) | TGRS Research Map | TGRS