Optimizing Error-Correcting Codes and Machine Unlearning Techniques

The current developments in the research area of error-correcting codes and machine unlearning are notably advancing the field. In the realm of error-correcting codes, there is a significant focus on optimizing polar and LDPC codes for various applications, particularly in 5G NR and beyond. Innovations include the analysis and enhancement of rate-compatible polar codes, the optimization of puncturing patterns for LDPC codes to improve decoding performance under few-iteration constraints, and the establishment of partial orders for sequential rate-matched polar codes. These advancements are crucial for improving the efficiency and reliability of communication systems, especially in scenarios requiring ultra-reliable low-latency communications and massive machine-type communications.

In the domain of machine unlearning, the field is witnessing a surge in novel techniques aimed at enhancing privacy and trust in machine learning models. Key developments include the introduction of forgetting neural networks for machine unlearning, the use of data-model matching for efficient unlearning, and the application of layer-wise relevance analysis and neuronal path perturbation for zero-shot class unlearning. These methods address the critical need for privacy protection in AI systems by enabling the selective removal of specific data influences from trained models without extensive retraining.

Noteworthy papers include one that presents a novel construction method for concatenated polar codes, demonstrating significant advantages over previous methods based on density evolution. Another notable contribution is the proposal of a new machine unlearning technique using forgetting neural networks, which shows great potential for addressing the machine unlearning problem through successful experimental results on privacy-sensitive datasets.

Sources

Stopping Set Analysis for Concatenated Polar Code Architectures

On the Weight Spectrum of Rate-Compatible Polar Codes

Optimizing Puncturing Patterns of 5G NR LDPC Codes for Few-Iteration Decoding

Partial Orders of Sequential Rate-Matched Polar Codes

Machine Unlearning using Forgetting Neural Networks

Attribute-to-Delete: Machine Unlearning via Datamodel Matching

Zero-shot Class Unlearning via Layer-wise Relevance Analysis and Neuronal Path Perturbation

Nested Symmetric Polar Codes

A Comparative Study of Ensemble Decoding Methods for Short Length LDPC Codes

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