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Results for "parameter-efficient fine-tuning"

Parameter-Efficient Fine-Tuning for NLP Models

MBZUAI ·

The article discusses parameter-efficient fine-tuning methods for large NLP models, highlighting their importance due to the increasing size and computational demands of state-of-the-art language models. It provides an overview of these methods, presenting them in a unified view to emphasize their similarities and differences. Indraneil, a PhD candidate at TU Darmstadt's UKP Lab, is researching parameter-efficient fine-tuning, sparsity, and conditional computation methods to improve LLM performance in multilingual, multi-task settings. Why it matters: Efficient fine-tuning techniques are crucial for democratizing access to and accelerating the deployment of large language models in the region and beyond.

SALT: Parameter-Efficient Fine-Tuning via Singular Value Adaptation with Low-Rank Transformation

arXiv ·

Researchers introduce SALT, a parameter-efficient fine-tuning method for medical image segmentation that combines singular value adaptation with low-rank transformation. SALT selectively adapts influential singular values and complements this with a low-rank update for the remaining subspace. Experiments on five medical datasets show SALT outperforms state-of-the-art PEFT methods by 2-5% in Dice score with only 3.9% trainable parameters.

Adapting AI to identify Arabic dialects

KAUST ·

KAUST researchers have developed a parameter-efficient learning approach to identify Arabic dialects using limited data and computing power, fine-tuning the Whisper model with a dataset of 17 dialects. The model achieves high accuracy using only 2.5% of the parameters of the larger model and 30% of the training data. Srijith Radhakrishnan presented the findings at EMNLP 2023 and Interspeech 2023. Why it matters: This research addresses the challenge of dialect identification in Arabic NLP and enables more efficient use of large language models in resource-constrained environments.

YaPO: Learnable Sparse Activation Steering Vectors for Domain Adaptation

arXiv ·

The paper introduces Yet another Policy Optimization (YaPO), a reference-free method for learning sparse steering vectors in the latent space of a Sparse Autoencoder (SAE) to steer LLMs. By optimizing sparse codes, YaPO produces disentangled, interpretable, and efficient steering directions. Experiments show YaPO converges faster, achieves stronger performance, exhibits improved training stability and preserves general knowledge compared to dense steering baselines.

Knowledge distillation and the greening of LLMs

MBZUAI ·

Researchers from MBZUAI, University of British Columbia, and Monash University have created LaMini-LM, a collection of small language models distilled from ChatGPT. LaMini-LM is trained on a dataset of 2.58M instructions and can be deployed on consumer laptops and mobile devices. The smaller models perform almost as well as larger counterparts while addressing security concerns. Why it matters: This work enables the deployment of LLMs in resource-constrained environments and enhances data security by reducing reliance on cloud-based LLMs.

LLM Post-Training: A Deep Dive into Reasoning Large Language Models

arXiv ·

A new survey paper provides a deep dive into post-training methodologies for Large Language Models (LLMs), analyzing their role in refining LLMs beyond pretraining. It addresses key challenges such as catastrophic forgetting, reward hacking, and inference-time trade-offs, and highlights emerging directions in model alignment, scalable adaptation, and inference-time reasoning. The paper also provides a public repository to continually track developments in this fast-evolving field.

Training Deep Neural Networks in Tiny Subspaces

MBZUAI ·

Xiaolin Huang from Shanghai Jiao Tong University presented a talk at MBZUAI on training deep neural networks in tiny subspaces. The talk covered the low-dimension hypothesis in neural networks and methods to find subspaces for efficient training. It suggests that training in smaller subspaces can improve training efficiency, generalization, and robustness. Why it matters: Investigating efficient training methods is crucial for resource-constrained environments and can enable broader access to advanced AI.