Challenge: Dynamic Adversarial Data Collection (DADC) is a time-consuming and costly approach . DADC is based on training data collected from adversarial and out-of-domain settings .
Approach: They propose a dynamic data collection approach that uses generator-in-the-loop models to provide real-time suggestions that annotators can approve, modify, or reject.
Outcome: The proposed model is more robust in adversarial and out-of-domain settings and harder for humans to fool.

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Analyzing Dynamic Adversarial Training Data in the Limit (2022.findings-acl)

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Challenge: Dynamic adversarial data collection (DADC) can be used to build models that are robust across a wide range of test inputs.
Approach: They propose to run Dynamic adversarial data collection over many rounds to maximize its training-time benefits.
Outcome: The proposed model makes 26% fewer errors on the premise paragraphs compared to models trained on non-adversarial examples.
On the Efficacy of Adversarial Data Collection for Question Answering: Results from a Large-Scale Randomized Study (2021.acl-long)

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Challenge: Existing studies have shown that adversarial data collection (ADC) models perform better on other adversarially collected data but are liable under plausible domain shifts.
Approach: They conduct a large-scale controlled study on question answering by assigning workers at random to compose questions either adversarially (with a model in the loop) or in the standard fashion (without a modeling).
Outcome: The proposed model performs better on other adversarial datasets but worse on diverse collection of out-of-domain evaluation sets.
Improving Question Answering Model Robustness with Synthetic Adversarial Data Generation (2021.emnlp-main)

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Challenge: a new approach to generate adversarial data is needed to improve question answering models . crowdworkers can fool a model only 8.8% of the time, compared to 17.6% for a trained model without synthetic data.
Approach: They develop a pipeline that generates questions and then filters or labels them to improve quality.
Outcome: The proposed approach improves state-of-the-art on a human-written adversarial dataset by 3.7F1 and improves model generalisation on nine of the twelve MRQA datasets.
Beat the AI: Investigating Adversarial Human Annotation for Reading Comprehension (2020.tacl-1)

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Challenge: Innovations in annotation methodologies have been a catalyst for Reading Comprehension (RC) datasets and models.
Approach: They propose to use a model-in-the-annotation-loop approach to train adversarial models in three different settings to explore reproducibility of the adversarial effect, transfer from data collected with varying model- in-the loop strengths, and generalization to data collected without a modeling model.
Outcome: The proposed approach achieves 39.9F1 on questions it cannot answer when trained on SQUAD, but lower than when trained using RoBERTa itself (41.0F1).
Evaluating Rewards for Question Generation Models (N19-1)

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Challenge: Recent approaches to question generation have used modifications to a Seq2Seq architecture inspired by advances in machine translation.
Approach: They propose to use a Seq2Seq architecture to train models to generate one-step-ahead predictions, but at test time, the model is asked to generate a whole sequence, causing errors to propagate through the generation process.
Outcome: The proposed model is trained to generate a plausible question, conditioned on an input document and answer span within that document.
GAN-BERT: Generative Adversarial Learning for Robust Text Classification with a Bunch of Labeled Examples (2020.acl-main)

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Challenge: Recent Transformer-based architectures provide impressive results in many NLP tasks, but obtaining high-quality annotated data is expensive and time consuming.
Approach: They propose a semisupervised learning method that ex- tends the fine-tuning of BERT-like architectures with unlabeled data in a generative adversarial setting.
Outcome: The proposed method reduces the requirement for annotated examples while achieving good performance in sentence classification tasks.
Select High-quality Synthetic QA Pairs to Augment Training Data in MRC under the Reward Guidance of Generative Language Models (2024.lrec-main)

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Challenge: Existing approaches focus on downstream metrics to select QA pairs, which lack generalization across different datasets.
Approach: They propose a general selection method that uses a large pre-trained language model as a reward model in a Reinforcement Learning framework for the training of the selection agent.
Outcome: The proposed method improves performance on generative and extractive datasets.
Crowd-sourcing annotation of complex NLU tasks: A case study of argumentative content annotation (D19-59)

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Challenge: Recent advances in machine reading and listening comprehension involve the annotation of long texts.
Approach: They propose a way to perform a sentence-by-sentence annotation task with crowd annotators.
Outcome: The proposed approach can be used to identify claims in a debate speech.
Continually Improving Extractive QA via Human Feedback (2023.emnlp-main)

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Challenge: a study of extractive question answering systems using human feedback shows promising potential for continual learning.
Approach: They study extractive question answering system by using user feedback to improve it . they design and deploy an iterative approach where users ask questions and provide feedback .
Outcome: The proposed model improves over time across different data regimes and domains . human user feedback is more affordable and abundant than annotations provided by trained experts .
A Closer Look into the Robustness of Neural Dependency Parsers Using Better Adversarial Examples (2021.findings-acl)

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Challenge: Neural network-based models have been successful in a wide range of NLP tasks, but their performance is undermined by adversarial examples that would pose no confusion for humans.
Approach: They propose a method to generate high-quality adversarial examples with a higher number of candidate generators and stricter filters and then verify their quality using automatic and human evaluations.
Outcome: The proposed method improves the robustness of English parsing models by relying on adversarial training and model ensembling.

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