Challenge: Curriculum learning has improved efficiency across machine learning domains, but remains underexplored for language model pretraining.
Approach: They present a systematic investigation of curriculum learning in LLM pretraining . they use vanilla curriculum learning, pacing-based sampling, and interleaved curricula .
Outcome: The proposed framework accelerates convergence in early and mid-training phases, reducing training steps by 18-45% to reach baseline performance.

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Your Pretrained Model Tells the Difficulty Itself: A Self-Adaptive Curriculum Learning Paradigm for Natural Language Understanding (2025.acl-srw)

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Challenge: Existing curriculum learning approaches rely on manually defined difficulty metrics which may not accurately reflect the model’s own perspective.
Approach: They propose a self-adaptive curriculum learning paradigm that prioritizes fine-tuning examples based on difficulty scores predicted by pre-trained language models (PLMs) they evaluate four datasets covering binary and multi-class classification tasks.
Outcome: The proposed model leads to faster convergence and improved performance compared to standard random sampling.
In-sample Curriculum Learning by Sequence Completion for Natural Language Generation (2023.acl-long)

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Challenge: Existing work on curriculum learning rely on task-specific expertise and cannot generalize to different tasks.
Approach: They propose to do in-sample curriculum learning for natural language generation tasks using human-crafted rules and a numeric score for each sample based on domain expertise to rank the model.
Outcome: The proposed learning strategy generalizes well to different tasks and achieves significant improvements over baselines.
Curriculum Learning for Natural Language Understanding (2020.acl-main)

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Challenge: Pre-trained language models can be fine tuned to perform NLU tasks in a straightforward manner.
Approach: They propose a pretrain-finetune paradigm for natural language understanding (NLU) they propose 'a cross-trainset' approach that allows users to distinguish easy from difficult examples .
Outcome: The proposed approach achieves significant performance improvements on a wide range of NLU tasks.
What Makes a Good Curriculum? Disentangling the Effects of Data Ordering on LLM Mathematical Reasoning (2026.acl-long)

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Challenge: Curriculum learning (CL) orders data corpus by difficulty, but prior work employs disparate difficulty metrics and training setups.
Approach: They propose a framework that decomposes curriculum difficulty into five dimensions: Problem Difficulty, Model Surprisal, Confidence Margin, Predictive Uncertainty and Decision Variability.
Outcome: The proposed framework decomposes curriculum difficulty into five dimensions . the results show that no curriculum strategy dominates universally .
Deciphering the Impact of Pretraining Data on Large Language Models through Machine Unlearning (2024.findings-acl)

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Challenge: Existing studies have suggested that the composition of the pretraining corpus exerts a significant impact upon the performance of LLMs.
Approach: They analyze the impact of 48 datasets from 5 major categories of pretraining data of Large Language Models and measure their impacts on LLMs using benchmarks about nine major categories.
Outcome: The proposed analysis provides insights into the organization of data to support more efficient pretraining of Large Language Models.
Efficient Vision-Language pre-training via domain-specific learning for human activities (2024.emnlp-main)

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Challenge: Current vision-language models owe their success to large-scale pretraining on web-collected data.
Approach: They propose a domain-aligned pretraining strategy that aligns the downstream tasks to the downstream domain without additional data collection.
Outcome: The proposed method outperforms existing models on large-scale vision-language training datasets while preserving generalist knowledge.
Demystifying Data Organization for Enhanced LLM Training (2026.acl-long)

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Challenge: Large Language Models (LLMs) have revolutionized various fields, yet their training efficiency is heavily reliant on effective data curation.
Approach: They propose to reuse pre-computed sample-level scores originally generated for data efficiency and introduce two new data ordering methods to improve LLM training.
Outcome: The proposed methods improve the stability and performance of LLM training.
Does the Order of Training Samples Matter? Improving Neural Data-to-Text Generation with Curriculum Learning (2021.eacl-main)

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Challenge: Recent advances in data-to-text generation have been focused on curriculum learning, which is a process of presenting training data in a specific order, starting from easy examples and moving on to more difficult ones, as the learner becomes more competent.
Approach: They propose to use a curriculum learning process to change the order of training samples in a model based on the model's competence to improve model performance and convergence speed.
Outcome: The proposed model shows faster convergence speed and reduced training time by 38.7% and performance by 4.84 BLEU.
Efficient Contrastive Learning via Novel Data Augmentation and Curriculum Learning (2021.emnlp-main)

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Challenge: Recent studies describe how to apply contrastive learning to the language domain but it is difficult to apply data augmentation methods directly to language modeling.
Approach: They propose a memory-efficient continual pretraining method that applies contrastive learning with novel data augmentation and curriculum learning.
Outcome: The proposed method outperforms baseline models on sentence-level tasks with only 70% of memory compared to the baseline model.
SPaCe: Unlocking Sample-Efficient Large Language Models Training With Self-Pace Curriculum Learning (2026.findings-acl)

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Challenge: Existing training pipelines sample training examples uniformly across steps or epochs, ignoring differences in difficulty, redundancy, and learning value, which slows learning and wastes computation.
Approach: They propose a self-paced learning framework that enables efficient learning based on the capability of the model being trained through optimizing which data to use and when.
Outcome: The proposed framework achieves comparable or better accuracy than state-of-the-art baselines while using up to (100 times) fewer samples.

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