Semi-Supervised Noise Adaptation: Transferring Knowledge from Noise Domain
Summary
This paper introduces Semi-Supervised Noise Adaptation (SSNA), a novel framework that uses synthetic noise domains (e.g., Gaussian distributions) as surrogate source domains to improve generalization in semi-supervised learning settings. The proposed Noise Adaptation Framework (NAF) establishes a generalization bound and demonstrates improved target domain performance.
Similar Articles
Robustness of Graph Self-Supervised Learning to Real-World Noise: A Case Study on Text-Driven Biomedical Graphs
This paper introduces NATD-GSSL, a framework evaluating the robustness of Graph Self-Supervised Learning on noisy, text-driven biomedical graphs. It demonstrates that certain GNN architectures and pretext tasks maintain performance despite real-world noise, offering practical guidance for unsupervised learning in imperfect datasets.
Small Data, Big Noise: Adversarial Training for Robust Parameter-Efficient Fine-Tuning
This paper proposes SDBN, a framework combining adversarial training with parameter-efficient fine-tuning to improve robustness of foundation models under noise and limited data, demonstrating substantial improvements in low-resource settings.
Subliminal Learning is Non-Semantic Distillation
This paper investigates subliminal learning in language models, showing that biases can transfer from teacher to student via seemingly random synthetic data. The authors find that adding Gaussian noise to weights increases transfer, and that students inherit not just the semantic bias but also the type of intervention used, with implications for training safety and data auditing.
Structured Noise Adaptation for Sequential Bayesian Filtering with Embedded Latent Transfer Operators
This paper introduces a structured parameterization for noise models in ELTO-based Kalman filters, enabling dynamic adaptation to non-stationary processes and improving state estimation performance in noisy, time-varying environments.
Understanding and Improving Noisy Embedding Techniques in Instruction Finetuning
This paper analyzes noisy embedding techniques for instruction fine-tuning, explains why uniform noise outperforms Gaussian, and introduces SymNoise, a symmetric noise method that significantly improves LLaMA-2-7B performance on AlpacaEval over NEFTune.