Adapting to Complexity: Teacher-Student Interactions in Synchronous Online Language Classes through a Dynamic Systems Lens

Loading...
Thumbnail Image

DOI

Open Access Location

Journal Title

Journal ISSN

Volume Title

Publisher

Science Direct

Rights

(c) 2025 The Author/s
CC BY 4.0

Abstract

Teacher-student interaction is widely recognized as critical to the success of language learning. However, there remains a significant gap in understanding these interactions from a non-linear systems perspective, particularly in online learning environments. This study applies Complex Dynamic Systems Theory (CDST) to investigate the co-adaptive patterns of teacher-student exchanges in online Chinese language classes. By examining real-time interactions and their dynamic nature, we analyzed how interactional patterns evolved and shaped the learning process, using a visualized coding scheme to focus on variations within and between teachers. The study involved 23 adult students studying Chinese as a second language in a Chinese university, with data collected from 12 lessons across a semester. Our analysis identified predominant patterns, such as a frequent reliance on closed questions followed by short responses. While students adjusted their answers based on question complexity, teachers often did not, revealing a lack of adaptability in their questioning techniques. The study calls for further exploration and improved training in adaptive questioning strategies, as this remains a challenge across both online and offline settings. These findings highlight the need for flexible and responsive teaching to meet the increasing demands of dynamic online learning environment.

Description

Citation

Li S, Huang H, Dai C. (2025). Adapting to Complexity: Teacher-Student Interactions in Synchronous Online Language Classes through a Dynamic Systems Lens. System. 103732. 133. (pp. 2-16).

Collections

Endorsement

Review

Supplemented By

Referenced By

Creative Commons license

Except where otherwised noted, this item's license is described as (c) 2025 The Author/s