Joni Lämsä, Pablo Uribe, Abelino Jiménez, Daniela Caballero, Raija H. Hämäläinen, R. Araya
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引用次数: 12
摘要
学者们将自动内容分析应用于计算机支持的协同学习(CSCL)中计算机中介交流的研究。由于CSCL也发生在面对面的交流中,我们研究了人工转录的面对面交流的自动编码准确性。我们在一个真实的高等教育物理环境中进行了我们的研究,在这个环境中,计算机支持的协作式探究式学习(CSCIL)是一种流行的教学方法。由于CSCIL学习者在不同的探究阶段(定向、概念化、调查、结论和讨论)对支持的需求不同,我们首先研究了五种计算模型(基于词嵌入和具有注意层的深度神经网络)在不同的探究学习阶段(IBL)的编码精度与人类编码的差异。其次,我们研究了表现最好的计算模型的不同特征如何提高编码精度。研究表明,表现最好的计算模型(预训练静态嵌入的差异化注意)的准确性略好于人类编码员(58.9% vs. 54.3%)。我们还发现,考虑前后话语以及话语的相对位置,可以提高模型的准确性。我们的方法说明了如何通过使用预训练的模型,为小数据集训练计算模型以达到特定目的(例如,对IBL阶段进行编码)。
Deep Networks for Collaboration Analytics: Promoting Automatic Analysis of Face-to-Face Interaction in the Context of Inquiry-Based Learning
Scholars have applied automatic content analysis to study computer-mediated communication in computer-supported collaborative learning (CSCL). Since CSCL also takes place in face-to-face interactions, we studied the automatic coding accuracy of manually transcribed face-to-face communication. We conducted our study in an authentic higher-education physics context where computer-supported collaborative inquiry-based learning (CSCIL) is a popular pedagogical approach. Since learners’ needs for support in CSCIL vary in the different inquiry phases (orientation, conceptualization, investigation, conclusion, and discussion), we studied, first, how the coding accuracy of five computational models (based on word embeddings and deep neural networks with attention layers) differed in the various inquiry-based learning (IBL) phases when compared to human coding. Second, we investigated how the different features of the best performing computational model improved the coding accuracy. The study indicated that the accuracy of the best performing computational model (differentiated attention with pre-trained static embeddings) was slightly better than that of the human coder (58.9% vs. 54.3%). We also found that considering the previous and following utterances, as well as the relative position of the utterance, improved the model’s accuracy. Our method illustrates how computational models can be trained for specific purposes (e.g., to code IBL phases) with small data sets by using pre-trained models.