How scenarios can impact small models for QA task in education?

The overwhelming amount of online information often hinders students’ understanding and concentration in digital learning environments, making it challenging to navigate course resources and retain key concepts. To address this issue, Question Answering (QA) models, particularly Large Language Models (LLMs), are frequently employed to assist students with their queries. Current approaches commonly leverage large-scale models alongside various techniques to refine and control the models’ text generation capabilities, optimizing their effectiveness in educational contexts. However, small-scale models are gaining increasing recognition among researchers for their lower computational costs and ease of deployment, making them more practical for educational settings. This study focuses on enhancing the performance of a small generative model for QA tasks. Indeed, we introduce an innovative module that leverages techniques such as curriculum learning and reverse thinking QA tasks to reach our purpose. Using five custom datasets derived from the same source, we investigate various scenarios using the small model. Compared to the basic scenario one scenario emerges as the most balanced approach, achieving a 29% improvement in faithfulness (score: 0.91) while maintaining comparable QA-coherence (0.84). These findings demonstrate how strategic scenario optimization can enhance small-scale models, positioning them as cost-effective yet high-performance solutions for educational QA systems.

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Publication Details

Journal
Procedia Computer Science
Published
2025-01-01
DOI
https://doi.org/10.1016/j.procs.2025.09.525
Primary Topic
Topic Modeling
Type
article
Field-Weighted Citation Impact
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article

How scenarios can impact small models for QA task in education?

Amal Tarifa, Chaima Chabir
Procedia Computer Science
Topic Modeling
article

How scenarios can impact small models for QA task in education?

Amal Tarifa, Chaima Chabir
article en

Abstract

The overwhelming amount of online information often hinders students’ understanding and concentration in digital learning environments, making it challenging to navigate course resources and retain key concepts. To address this issue, Question Answering (QA) models, particularly Large Language Models (LLMs), are frequently employed to assist students with their queries. Current approaches commonly leverage large-scale models alongside various techniques to refine and control the models’ text generation capabilities, optimizing their effectiveness in educational contexts. However, small-scale models are gaining increasing recognition among researchers for their lower computational costs and ease of deployment, making them more practical for educational settings. This study focuses on enhancing the performance of a small generative model for QA tasks. Indeed, we introduce an innovative module that leverages techniques such as curriculum learning and reverse thinking QA tasks to reach our purpose. Using five custom datasets derived from the same source, we investigate various scenarios using the small model. Compared to the basic scenario one scenario emerges as the most balanced approach, achieving a 29% improvement in faithfulness (score: 0.91) while maintaining comparable QA-coherence (0.84). These findings demonstrate how strategic scenario optimization can enhance small-scale models, positioning them as cost-effective yet high-performance solutions for educational QA systems.

Procedia Computer ScienceVol. 270
Manouba University (TN)
Openalex Percentile: Top 83%
Topic Modeling
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