The specifics of optimizing regular reflective activities by means of using neural network support: Evaluating the quality of cognitive load redistribution in favor of meaningful analysis
2 Tyumen State University
Introduction. This paper examines the insufficient theoretical development of regular reflection in master’s programs to enhance the efficiency of project-based foreign language teaching. The research focuses on the identified contradiction between the need to evaluate the effectiveness of neural network support for optimizing reflective activities and the lack of theoretically sound criteria for assessing its impact on the quality and effectiveness of oral communication. The lack of data on the methods of organizing and, ultimately, the effectiveness of reflective practices using neural network support does not allow us to judge the feasibility of using AI tools. Therefore, the aim of this study is to analyze the potential and identify the specifics of the influence of neural network optimization on the effectiveness of regular reflective activities to improve communicative competence within project-oriented learning.
Materials and Methods. The study is based on a systems-activity approach, which allows us to consider reflective activity as an integral component of the holistic pedagogical process and neural network optimization as a tool that guides reflection. This research analyzes reflection as a mechanism for understanding how to solve communicative problems, and the results of applying various reflection modes are assessed from the perspective of a cognitive-task approach. A typology method is used to identify and organize types of reflective activities by revealing essential characteristics and grouping them based on communication types. The empirical method was implemented by introducing regular reflective activities into the structure of classes within the ‘Foreign Language for Academic Purposes’ course. Experimental data were processed using mathematical statistics and comparative analysis to provide a scientific interpretation of the dynamics of the recorded results. Testing, validation, and cognitive analysis of a number of available neural networks were conducted to identify and subsequently evaluate the compliance of neural network-generated texts with the stated research objectives and to select the most appropriate and productive AI tool for optimizing the reflection process.
Results. The study revealed the specific impact of neural network optimization on the potential and effectiveness of regular reflective activities when assessing communicative activities in project-based learning. Analysis of the experimental data identified criterion differences in the results of reflective acts with and without using neural network support. Based on communication modes, the distinctive features of various types of reflective activities – linear, horizontal, and written – were identified and classified. It was found that neural network optimization is primarily applicable to guided reflection. The results of a cognitive analysis of available neural network products are summarized, revealing that the specific features of neural network optimization depend on the neural network architecture. DeepSeek is emphasized to provide the greatest variability and semantic accuracy in generating reflective supports. The authors note that the quantitative difference is a reduction in teacher preparation and reflection time, while the qualitative difference is a redistribution of cognitive load in favor of content analysis.
Conclusions. The study concludes that neural network support enables a systematic approach to regular reflection, optimizing both teacher preparation time and postgraduate students’ learning, demonstrating the potential for improved performance using a guided reflection mode. The typology of reflections simplifies the selection of prompts for generating reflective supports, further contributing to the optimization of reflective activities. More sustainable learning outcomes are achieved by combining the guiding function of AI tools with the teacher’s ability to provide education, ethical assessment, and encourage analytical thinking skills, critical analysis, and awareness in choosing self-education trajectories.
Neural network optimization; Communicative competence; Typology of reflective activities; Guided reflection; AI tools; Project-oriented method.
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