Conference Agenda
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Please note that all times are shown in the time zone of the conference. The current conference time is: 19th Aug 2026, 21:28:37 EET
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22 SES 08 A: Digital Learning
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22. Research in Higher Education
Paper The Untold Side of Digital Learning: Behind-the-Scenes Activity in Hybrid Education kibbutzim college of education, Technology and the Arts, Israel Presenting Author:In recent years, higher education institutions have increasingly adopted hybrid learning models that combine in-person and distance instruction (Author2 et al., 2024). This shift has required adaptation to new technological, pedagogical, and social learning environments. While distance learning provides flexibility, autonomy, and time efficiency, it also presents challenges such as screen fatigue, technical barriers, isolation, and lower engagement (Salta et al., 2022). Recent research, enhanced by AI-based tools, explores learning processes, collaboration, and innovative teaching (Castellanos-Reyes et al., 2025). Many studies underscore that effective distance learning requires self-regulated learning, innovative pedagogy, and strong academic self-efficacy (Yoo & Jung, 2022). However, little attention has been given to what occurs behind the scenes of distance learning, teaching, and assessment. Distance Learning and Teaching in Higher Education The pandemic forced higher education systems worldwide into fully remote learning. Research on this transition revealed student dissatisfaction with fully remote learning, citing stress, isolation, and prolonged screen time (Shraga-Roitman et al., 2022). First-year students found distance learning less effective than advanced students (Stevanovic et al., 2021). Gender differences were also reported: female students demonstrated greater adaptability, self-regulation, and more positive attitudes than males (Aristovnik et al., 2020; Author2 et al., 2024). Students with specific learning disorders (SLD) or ADHD expressed lower satisfaction and engagement (Sarid & Lipka, 2024). Concerns about the quality and sustainability of distance learning persist, particularly regarding assessment practices (Toumpalidou & Konstatoolaki, 2023). To address these concerns, researchers stress the need for investment in developing students’ digital skills and self-efficacy (Author2 et al., 2024). Academic Self-Efficacy (ASE) and Distance Learning Efficacy Academic self-efficacy (ASE) refers to an individual’s belief in their ability to meet academic challenges (Bandura, 2018). High ASE correlates with academic achievement, adaptation, satisfaction, and engagement in distance learning (Sarid & Lipka, 2024). Building ASE requires persistence and resilience. Students with SLD or ADHD consistently report lower ASE than peers without disabilities, both before and after the transition to distance learning (Mana et al., 2022). In online environments, distance learning self-efficacy is an important subdomain of ASE. It predicts students’ conceptions of learning, social presence, and epistemological beliefs (Yavuzalp & Bancivan, 2021). Engaging students in active, problem-oriented learning, such as formulating questions or designing solutions, enhances both efficacy and wellbeing (Vilhunen et al., 2025). The current study was conducted at a college of education. The study aimed to explore students’ perceptions of distance learning, particularly their views of the “behind-the-scenes” activities: actions occurring during online lessons but not directly related to instruction (e.g., chatting, multitasking, browsing). This research offers a perspective contrasting students’ experiences and examining both explicit (pedagogical) and implicit (behavioral, social) aspects of online education. Understanding these dynamics can guide institutions seeking to enhance hybrid learning and decision-making processes. Based on existing literature, four directional hypotheses were proposed: H1. Advanced-year students will show stronger preference and higher self-efficacy for distance learning than first-year students (Stevanovic et al., 2021). Methodology, Methods, Research Instruments or Sources Used The study included a convenience sample of 242 students enrolled in bachelor’s and master’s degree programs at a teacher education college. The participant pool exhibited heterogeneity across several key demographics and learning profiles. A large majority of participants were female (86% in the bachelor’s program and 78% in the master’s program). The average age differed substantially between the groups, with bachelor’s students having a mean age of 27 years (SD = 7.23) and master’s students having a mean age of 42 years (SD = 9.92). Regarding learning profiles, 49% of bachelor’s students and 24% of master’s students reported having a diagnosed Specific Learning Disorder (SLD) or ADHD. The study employed a multi-instrument approach comprising two main questionnaires: 1. Distance Learning Perception and Preference Questionnaire (DLPQ): This instrument was developed specifically for this research to assess several core constructs related to online learning. Key scales included: o Distance Learning Preference: Measuring students' overall preference for online instruction versus face-to-face instruction. o Perceived Proportion of Online Instruction: Assessing the proportion of online instruction students preferred to have in their programs. o Distance Learning Self-Efficacy: Measuring students’ confidence in successfully completing online learning tasks. o Behind-the-Scenes Activities (BTS): Scales measuring the perceived scope (frequency) of off-task behaviors during online lessons (e.g., private messaging, social media use, browsing) and the perceived negative influence of these activities on their academic performance. o Lecturer Support: Assessing students' perceptions of the level of instructional and interpersonal support received from their lecturers during online modules. 2. Academic Self-Efficacy Scale (ASES): The established scale developed by Zimmerman, Bandura, & Martinez-Pons (1992) was utilized to measure general Academic Self-Efficacy (ASE), assessing students' belief in their ability to meet broad academic challenges. Data was collected using an online format (questionnaires) distributed to students by the college’s Research Authority. Prior to participation, students received detailed information about the study’s purpose, assurance of full anonymity and confidentiality, and provided voluntary consent in accordance with institutional ethical guidelines. Data analysis involved descriptive Statistics to report general preferences and frequencies; Inferential Statistics to examine subgroup differences across demographic variables (sex, year of study, SLD/ADHD presence) concerning ASE, distance learning efficacy, and preference; and Hierarchical Multiple Regression Analysis was used to identifying the predictors of students' preference for distance learning, controlling for demographic variables. Conclusions, Expected Outcomes or Findings This study provides crucial empirical evidence regarding students’ perceptions of distance learning, moving beyond traditional metrics to explore the nuanced behavioral and psychological realities of the hybrid classroom. Students generally expressed a favorable and pragmatic view of distance learning, valuing its flexibility and autonomy. They reported a moderate level of behind-the-scenes activity (multitasking, browsing) but perceived its overall impact on their academic success as minimal, suggesting a potential normalization of these behaviors in modern digital learning or possibly an overconfidence in their ability to multitask. The most significant conclusion is the established role of distance learning efficacy as the primary determinant of preference for online instruction. The finding that this specific efficacy belief overshadowed general Academic Self-Efficacy and demographic variables highlights the need to focus interventions specifically on building students' confidence in navigating the practical and technological demands of remote learning. Subgroup differences emphasize the need for differentiated strategies. The higher preference and efficacy found among female and advanced students suggest that institutions should provide targeted support for first-year students and male students to enhance their adaptation. Furthermore, while students with SLD/ADHD reported lower general ASE, the fact that their preference for distance learning did not differ significantly from their peers suggests that the online format may offer compensatory benefits (e.g., self-paced engagement, reduced social pressure) that should be strategically utilized in inclusive course design. Ultimately, the study confirms that the success of hybrid education depends not solely on technological readiness but critically on relational and psychological factors. Fostering Academic Self-Efficacy, enhancing perceived lecturer support, and designing interactive environments are essential strategies to mitigate disengagement and ensure the psychological sustainability of hybrid learning models in contemporary higher education. References Author et al., 2024 Aristovnik, A., Keržiˇc, D., Ravšelj. D., Tomaževiˇc, N., & Umek, L. (2020). Impacts of the COVID-19 pandemic on life of higher education students: A global perspective. Sustainability, 12, Issue 20. Bandura, A. (2018). Toward a psychology of human agency: Pathways and reflections. Perspectives on Psychological Science, 13(2), 130–136. Castellanos-Reyes, D., Olesova, L., & Sadaf, A. (2025). Transforming online learning research: Leveraging GPT large language models for automated content analysis of cognitive presence. The Internet and Higher Education. Advance online publication. Mana, A., Saka, N., Dahan, O., Ben-Shimon, A., & Margalit, M. (2022). Implicit theories, social support, and hope as serial mediators for predicting academic self-efficacy among higher education students. Learning Disability Quarterly, 45(2), 85–95. Salta, K., Paschalidou, K., Tsetseri, M., & Koulougliotis, D. (2022). Shift from a traditional to a distance learning environment during the COVID 19 Pandemic. Science & Education, 31, 93–122. Sarid, M., & Lipka, O. (2024). The relationship between academic self-efficacy and class engagement of self-reported LD and ADHD in Israeli undergraduate students during COVID-19. European Journal of Psychology of Education, 1-22. Shraga-Roitman, Y., Hellwing, A., Almog, N., & Goffer, A. (2022). The adjustment to emergency remote teaching during the COVID-19 global crisis among diverse students in higher education. Intercultural Education. Stevanovic, A., Božic, R., & Radovic, S. (2021). Higher education students' experiences and opinion about distance learning during the Covid-19 pandemic. Journal of Computer Assisted Learning, 37, 1682–1693. Toumpalidou, S.A., & Konstantoulaki, K. (2023). Education in the pandemic economy: attitudes towards distance learning as a drive of university students’ decision making. International Journal of Organizational Analysis, 31(1), 50-62. Vilhunen, E., Vesterinen, V.-M., Äijälä, M., Salovaara, J. J., Siponen, J. O., Lavonen, J., Salmela-Aro, K., & Riuttanen, L. (2025). Promoting university students’ situational engagement in online learning for climate education. The Internet and Higher Education, 65. Yavuzalp, N., & Bahcivan, E. (2021). Examining the relationships among self-efficacy, social presence and learning beliefs. Asian Journal of Distance Education, 16(2), 98-117. Yoo, L., & Jung, D. (2022). Teaching presence, self-regulated learning and learning satisfaction on distance learning for students in a nursing education program. International Journal of Environmental Research and Public Health, 19, 4160. Zimmerman, B. J., Bandura, A., & Martinez-Pons, M. (1992). Self-motivation for academic attainment: The role of self-efficacy beliefs and personal goal setting. American Educational Research Journal, 29, 663–676. 22. Research in Higher Education
Paper Learning-Supportive Model: A Digital and Experiential Pedagogical Model in Higher Education Ludovika University of Public Service, Hungary/Learning Institute, Hungary Presenting Author:Research Topic This research applies the Flow-based Pedagogical Model (FPM) (Dominek, 2022), integrating experiential, game-based, and collaborative teaching methods with a strong emphasis on group synchronicity, learner engagement, and sustained motivation. The FPM is a learning-supportive model based on flow theory, structuring learning situations through clear goals, optimal challenge, and continuous feedback to enhance students’ engagement and intrinsic motivation. This focused experiential state improves attention, perseverance, and deeper understanding, resulting in more effective learning. The research examines how flow-oriented pedagogy, supported by digital tools, enhances students’ professional and digital communication skills, creativity, and learning effectiveness in higher education. It addresses current challenges, including declining student engagement, limited creative problem-solving capacity, and increasing labor market demands. Objective & Research Questions The primary objective of this research is to examine the pedagogical effectiveness of the FPM in the Communication Basics course. The research is guided by the following research questions: (1) How does the application of the FPM influence students’ professional and digital communication skills through real-time simulations, collaborative tasks, and experiential activities? (2) How does the FPM support students’ creativity, motivation, and active participation through flow-based elements such as optimal challenge, focused attention, immediate feedback, and learner autonomy? (3) How does the use of digital tools within the FPM enhance experiential and constructivist learning in digital, blended or interactive learning environments? (4) How can classroom-based research applying the FPM contribute to methodological innovation and educational policy development in higher education? Based on these questions, we hypothesize that the FPM facilitates a flow state characterized by deeply immersion and focused engagement, which shows a strong statistically significant relationship (P<0.001), enabling students to temporarily ignore external distractions and fully engage in collaborative, experiential, and digitally supported learning activities. This state is expected to enhance communication skills, creativity, motivation, and active participation, improving overall learning outcomes and confirming the pedagogical effectiveness of the FPM. Theoretical Framework The theoretical framework integrates constructivist pedagogy (Eppler, 2006), experiential learning (Megat et al., 2020), and flow theory (Csíkszentmihályi, 1990), forming the conceptual foundation of the FPM. Constructivist pedagogy conceptualizes learners as active participants who construct knowledge through interaction, collaboration, and reflection. Within this framework, students are not passive recipients but actively shape learning, engaging with peers, digital resources, and authentic problem-solving contexts (Nahalka, 1997). Experiential learning theory focuses on learning through experience, reflection, and application (Ertmer & Ottenbreit-Leftwih, 2010). The FPM operationalizes experiential learning through real-time communication simulations, collaborative group work, and creative problem-solving tasks, supporting deeper cognitive processing and the development of transferable competencies. Flow theory describes optimal learning experiences with deep concentration, motivation, and enjoyment (Csíkszentmihályi, 1990). The FPM integrates flow-based elements—clear goals, balanced challenge–skill relations, immediate feedback, and learner autonomy—to sustain engagement and performance. The flow approach also mitigates blockages encountered with complex or unfamiliar tasks, promoting flexible thinking, ownership of ideas, and collaborative inspiration (Dominek & Barnucz, 2022). The FPM addresses a systemic educational challenge: traditional education often prioritizes content transmission over creativity development. Embedding creativity, problem-solving, and innovation in digitally supported lessons contributes to adaptive and engaging learning environments (Dominek et al., 2025). Finally, the research aligns with the University’s Institutional Development Plan (2020–2025), emphasizing experiential pedagogy, digital skills, and modernization. Classroom-based research demonstrates that flow-based experiential pedagogy provides a sustainable framework for improving teaching quality, student satisfaction, and long-term learning outcomes. Methodology, Methods, Research Instruments or Sources Used The research applies research-based best practices to enhance students’ learning experience, creativity, and competence development. The methodological framework integrates constructivist and experiential pedagogy with flow theory to sustain engagement, motivation, and creative performance. The FPM assumes meaningful learning arises when educational content triggers novelty, optimal challenge, and positive emotional involvement, fostering psychological safety and intrinsic motivation. The model enables educators to design playful, experience-based learning environments supporting the development of transversal competencies such as critical thinking, problem-solving, collaboration, and professional communication. This approach aligns with Csíkszentmihályi’s conceptualization of flow as an optimal experiential state characterized by deep immersion and reduced anxiety. Classroom-based research from was conducted in different higher education institutions within the Communication Basics curriculum over three semesters (autumn 2023/2024: traditional, spring 2023/2024: digital, autumn 2024/2025: blended). Participants included first- and second-year full-time university students from diverse disciplines (N=155): 50 students in Institution1 (traditional methodology without FPM) and 55 students in Institution 2 (digital FPM-based methodology). Study and control groups were formed to allow comparative analysis across traditional, digital, and blended teaching methodologies, both with and without the FPM. The primary research instrument was the Dominek Learning Flow Questionnaire (DLFQ), a validated 20-item self-report instrument measuring students’ perceived learning flow across challenge–skill balance, immersion, competence, and action–awareness, using a five-point Likert scale. The DLFQ was administered at the end of selected lessons to assess students’ engagement and flow experience. Data collection relied on anonymized questionnaires, with quantitative analysis conducted using manual and computer-assisted statistical procedures, including correlation analyses, cross-institutional experiments, one-way ANOVA, Turkey HSD post-hoc test, Welch’s two-sample t-test conducted with SPSS software. This mixed-method classroom research design validated the FPM-based best practices. The intervention employed blended and digital learning environments supported by ICT tools such as Canva, Genially, Padlet, smartphones, YouTube, QR code generators, and Google Maps. Students worked in small groups on simulation-based tasks enabling experiential knowledge reconstruction and collaborative problem-solving. The methodological design demonstrates how digitally supported, flow-based pedagogy systematically enhances engagement, creativity, and communication competence in higher education. Conclusions, Expected Outcomes or Findings This research examined the effectiveness of the FPM through cross- and within-institution classroom experiments using traditional, digital, and blended teaching methodologies. Results demonstrate that FPM significantly enhances student engagement and sustains a flow state, regardless of instructional format or disruptions, with strong statistical significance (p<0.001) compared to non-FPM instruction, addressing the research questions and confirming the hypothesis of flow immersion and focused engagement. Cross-institutional experiments revealed substantial differences between lessons with and without FPM. In Institution 1, using traditional instruction without FPM achieved a low flow score (50.93%), indicating limited engagement. Institution 2, using digital FPM-based practices, reached 81.59%, showing high immersion and challenge–skill balance. These differences were confirmed by one-way ANOVA and Tukey HSD post-hoc test, validating continuous engagement and improved learning effectiveness (Chinta et al., 2024). Within-institution longitudinal experiments further validated the model’s robustness. Across three consecutive semesters, FPM-based practices consistently produced high flow scores (86–100%) under all teaching conditions. Lessons with deliberate “glitch or twist” situations did not undermine learning outcomes. Correlation analyses and Welch’s two-sample t-tests showed these authentic disruptions enhanced students’ creativity, adaptability, and collaborative problem-solving while maintaining immersion and challenge–skill balance (Csajka & Pozsegovics, 2019). Overall, flow scores exceeding 80% highlight the methodological strength of FPM, confirming sustained flow immersion and focused task engagement. The model offers a flexible pedagogical framework transforming uncertainty and human error into meaningful experiential learning opportunities, providing empirical support for the research questions and the hypothesis, and demonstrating its potential as a transferable, evidence-based approach for sustaining engagement, resilience, and deep learning in higher education. References Chinta, S. V., Wang, Z., Yin, Z., Hoang, N., Gonzalez, M., Quy, T. L., & Zhang, W. (2024). FairAIED: Navigating fairness, bias, and ethics in educational AI applications. Csajka, E., & Csimáné Pozsegovics, M. (2019). A szociális kompetenciák fejlesztési lehetőségei az élménypedagógia módszerével hátrányos helyzetű gyermekek körében. Képzés és Gyakorlat, 17(2), 67–78. Csikszentmihályi, M. (1990). Flow: The psychology of optimal experience. Harper & Row. Dominek, D. L. (2022). On a flow-based pedagogical model: The emergence of experience and creativity in education. Eruditio – Educatio, 17(3), 72-81. Dominek, D. L., & Barnucz, N. (2022). The educational methodology of flow at the University of Public Service. Practice and Theory in Systems of Education, 17(1), 1–7. Dominek, D. L., Barnucz, N., Vaughan, G., Szűts, Z., & Balázs, L. (2025). Emerging learning paradigms: the role of interactive technologies and flow-oriented pedagogy. Educational Media International, 62(4), 459–477. Ertmer, P. A., & Ottenbreit-Leftwich, A. T. (2010). Teacher technology change: How knowledge, confidence, beliefs and culture intersect. Journal of Research on Technology in Education, 42(3), 255–284. Eppler, M. J. (2006). A comparison between concept maps, mind maps, conceptual diagrams, and visual metaphors as complementary tools for knowledge construction and sharing. Information Visualization, 5(3), 202–210. Megat Mohd. Zainuddin, N., Mohd Azmi, N. F., Mohd Yusoff, R. C., Shariff, S. A., & Wan Hassan, W. A. (2020). Enhancing classroom engagement through Padlet as a learning tool: A case study. International Journal of Innovative Computing, 10(1). Nahalka, I. (1997). Konstruktív pedagógia - egy új paradigma a láthatáron (I.). Iskolakultúra, 7(2), 21–33. 22. Research in Higher Education
Paper Visualizing Metacognitive Knowledge of Information Media: Enhancing Report Writing Practices in Higher Education Kansai University, Japan Presenting Author:In higher education, report writing represents a core academic practice through which students are expected to develop epistemic judgment, critical engagement with sources, and structured academic argumentation. However, students’ report-writing practices are increasingly shaped by digitally mediated information environments in which web-based sources and generative AI tools are readily available. While these media offer immediacy and convenience, concerns have been raised in higher education research regarding students’ limited critical scrutiny of information and the potential weakening of academic writing practices. Although instructors often emphasize the educational purposes of report writing—such as fostering critical thinking and academic literacy—these intentions do not always resonate with students whose everyday information practices are embedded in media-saturated contexts. This study addresses this pedagogical challenge by focusing on students’ metacognitive knowledge of information media in higher education. Rather than framing students’ media use as a problem to be corrected, the study conceptualizes learners’ perceptions of different information media as meaningful resources for reflection and academic development. It proposes a course-based instructional intervention that visualizes learners’ metacognitive knowledge of information gathering, making their perceptions of media characteristics and selection tendencies explicit. By engaging students in structured reflection on their own information practices, the study aims to support the development of more intentional and reflective academic writing in higher education. The primary objective of this study is to examine whether integrating the visualization of learners’ metacognitive knowledge into report-writing instruction enhances students’ awareness of information media and contributes to improvements in the quality of academic writing. To achieve this objective, the study investigates how students in higher education perceive various information media—books, television, the web, social networking services, and generative AI—before and after a report-writing task, and how these perceptions relate to their academic writing practices. The study is guided by the following research questions:
Conceptually, the study draws on three intersecting strands of research relevant to higher education. Second, the study is informed by information and media literacy research in higher education, which has traditionally emphasized normative criteria for evaluating information quality. However, such approaches often overlook how students subjectively conceptualize media characteristics and how these beliefs shape academic practices. By foregrounding learners’ comparative judgments of media, this study adopts a learner-centered perspective that treats these perceptions as objects of pedagogical reflection. Third, the study builds on research on educational visualization and learner-facing analytics, conceptualizing visualization as a pedagogical design that supports reflection and metacognitive awareness. By visualizing students’ information-gathering profiles, the intervention positions learners as active interpreters of their academic practices, linking media awareness, metacognitive development, and academic writing in higher education. Methodology, Methods, Research Instruments or Sources Used The study adopts a survey-based, course-embedded design conducted in two higher education contexts at National University N. Participants and Contexts. Study 1 involved 20 students enrolled in a course on information media utilization for library faculty training (August 2024). Study 2 involved 64 students enrolled in courses on information education theory and lifelong learning and media (October 2025). In both studies, participation was voluntary, and only data from students who provided informed consent were included in the analysis. Data Collection. As a preliminary survey, students were asked to comparatively evaluate the characteristics of different information media relevant to academic work. In Study 1, the media included books, newspapers, television, the web (WWW), and social networking services (SNS). In Study 2, generative AI was included as an additional medium. Media were evaluated in terms of immediacy, accuracy, preference, and convenience. To analyze these evaluations, the Analytic Hierarchy Process (AHP) was employed. Under the overarching objective of “obtaining information useful for study or academic work,” students conducted pairwise comparisons of media based on criteria such as searchability, immediacy, convenience, and preference. Priority weights for criteria and media alternatives were calculated using the eigenvalue method, and the results were visualized using spreadsheet-based AHP tools. In addition, students reported their frequency of media use for each medium using a six-point scale ranging from daily use to non-use. This enabled examination of the relationship between perceived media characteristics and actual information practices in higher education contexts. Instructional Intervention. Following data collection, time was allocated within the courses to provide students with visualized feedback representing their individual and aggregated information-gathering profiles. These visualizations were used as prompts for guided reflection, encouraging learners to reconsider their habitual media selection in relation to the epistemic demands of academic writing. Analysis of Academic Writing. Finally, the study examined relationships between changes in learners’ metacognitive knowledge and the quality of report assignments. Students’ reports were analyzed qualitatively to identify how different information media—particularly generative AI—were positioned and justified within their academic writing. Conclusions, Expected Outcomes or Findings The study is expected to show that visualizing learners’ metacognitive knowledge of information media supports more differentiated and reflective academic practices in higher education. Across both studies, students tended to recognize books and newspapers as reliable academic sources, while evaluating web-based media and social networking services as advantageous in terms of timeliness. These patterns suggest that students possess nuanced, though often implicit, understandings of media characteristics relevant to academic work. With respect to generative AI, preliminary analyses indicate that media exposure plays a significant role in shaping evaluations. Students with higher exposure to generative AI tended to evaluate it more positively in terms of convenience and searchability, while students with lower exposure expressed more cautious and distanced perspectives. These differences were also reflected in academic writing. Students with lower AI exposure tended to position generative AI cautiously, emphasizing verification and reliability concerns, whereas students with higher exposure more frequently described AI as a tool for supporting academic processes such as idea generation or organizing thoughts prior to writing. Importantly, even among high-exposure students, positive evaluations coexisted with explicit awareness of risks related to over-reliance. Taken together, these findings suggest that pedagogical approaches focusing on metacognitive reflection rather than regulation of tool use can support more intentional engagement with information media in higher education. By making students’ information practices visible and open to reflection, the study highlights report writing as a site for developing academic judgment in digitally mediated environments. This study contributes to Research in Higher Education by demonstrating how learner-facing visualization of metacognitive knowledge can function as a pedagogical design to support reflective academic writing practices, offering empirical insight into how higher education teaching can respond to digital and AI-related transformations of academic work. References Carless, D., & Boud, D. (2018). The development of student feedback literacy: Enabling uptake of feedback. Assessment & Evaluation in Higher Education, 43(8), 1315–1325. https://doi.org/10.1080/02602938.2018.1463354 Gotoh,Y. Oyanagi,W. & Terashima,K.(2024). Case Study on Media Cognition and Self-Reflection on Media Exposure Levels. JSET2024-4-B1, 77-84. https://doi.org/10.15077/jsetstudy.2024.4_77 Gotoh,Y. Oyanagi,W. & Terashima,K.(2025). Stability of Media Perception. JSET2025-2-E6, 372-377. https://doi.org/10.15077/jsetstudy.2025.2_372 Gruenhagen, J. H., Sinclair, P. M., Carroll, J., Baker, P. R. A., Wilson, A., & Demant, D. (2024). The rapid rise of generative AI and its implications for academic integrity: Students’ perceptions and use of chatbots for assistance with assessments. Computers and Education: Artificial Intelligence, 6, 100273. https://doi.org/10.1016/j.caeai.2024.100273 Kahne, J., & Bowyer, B. (2017). Educating for democracy in a partisan age: Confronting the challenges of motivated reasoning and misinformation. American Educational Research Journal, 54(1), 3–34. https://doi.org/10.3102/0002831216679817 Mennella, T., & Quadros-Mennella, P. (2024). Student use, performance and perceptions of ChatGPT on college writing assignments. Journal of University Teaching and Learning Practice, 21(1). https://doi.org/10.53761/pgwk1a93 Metzger, M. J., & Flanagin, A. J. (2013).Credibility and trust of information in online environments: The use of cognitive heuristics. Journal of Pragmatics, 59, 210–220. https://doi.org/10.1016/j.pragma.2013.07.012 Su, Y., Lin, Y., & Lai, C. (2023). Collaborating with ChatGPT in argumentative writing classrooms. Assessing Writing, 57, 100752. https://doi.org/10.1016/j.asw.2023.100752 Tarchi, C., Zappoli, A., Casado Ledesma, L., & Wennås Brante, E. (2025). The use of ChatGPT in source-based writing tasks. International Journal of Artificial Intelligence in Education, 35, 858–878. https://doi.org/10.1007/s40593-024-00413-1 van Niekerk, J., Delport, P. M. J., & Sutherland, I. (2025). Addressing the use of generative AI in academic writing. Computers and Education: Artificial Intelligence, 8, 100342. https://doi.org/10.1016/j.caeai.2024.100342 Verbert, K., Duval, E., Klerkx, J., Govaerts, S., & Santos, J. L. (2013). Learning analytics dashboard applications. American Behavioral Scientist, 57(10), 1500–1509. https://doi.org/10.1177/0002764213479363 Wang, C., Aguilar, S. J., Bankard, J. S., Bui, E., & Nye, B. (2024). Writing with AI: What college students learned from utilizing ChatGPT for a writing assignment. Education Sciences, 14(9), 976. https://doi.org/10.3390/educsci14090976 Wineburg, S., & McGrew, S. (2017).Lateral reading: Reading less and learning more when evaluating digital information. Teachers College Record, 119 (13), 1–40. | ||
