Search

Ensuring equity in education is a goal for sustainable development. Among the factors that hinder equity, socioeconomic status (SES) has the highest impact on learning Mathematics. This paper addresses the issue of equity at the secondary school level by proposing an approach based on adopting automatic formative assessment (AFA). Carefully designed mathematical activities with interactive feedback were experimented with a sample of 299 students of grade 8 for a school year. A control group of 257 students learned the same topics using traditional methodologies. Part of the sample belonged to low SES. The learning achievement was assessed through pre-and post-tests to understand if the adoption of AFA impacted learning and whether the results depended on the students' SES. The results show a positive effect of the experimentation (effect size: 0.42). Moreover, the effect size of the experimentation restricted to the low-SES group is high (0.77). In the treatment group, the results do not depend on SES, while in the control group, they do, suggesting that AFA is an equitable approach while traditional instruction risks perpetuating inequalities.

Background: Augmented reality (AR) is receiving increasing interest as a tool to create an interactive and motivating learning environment. Yet, it is unclear how instructional support affects performance in AR. Objectives: This study sought to explore how varying the instructional support in AR can affect performance-related behaviours of students with low cognitive abilities during assembly work. Methods: A total of 90 Belgian secondary school students repeatedly executed four different realistic assembly tasks. Three levels of instructional support (low, medium, and high) in AR as well as a control condition with paper instructions with a high level of detail were systematically varied across tasks and participants. Results and Conclusions: Multilevel regression analyses showed that AR instructions yielded lower assembly times and a lower perceived physical effort than paper instructions. Additionally, participants perceived tasks as less complex when given AR instructions with a high or a medium level of detail than when given a low level of detail. No effects of instructional support were established for other performance-related behaviours, namely necessary assistance, error-making, cognitive load, competence frustration, and stress. Effect sizes were small, at least among the instructional support conditions studied, yielding a limited base for adaptivity. Presumably, tailoring the instructional support in AR is only beneficial for highly complex tasks. The results might be useful for the design and implementation of AR in educational settings.

While augmented reality (AR) technology has shown the potential to facilitate students' hands-on activities, few studies have explored its effectiveness in acoustic topics. This paper introduces an AR-based application for learning about the Doppler effect and investigates its educational effectiveness on students' learning achievement, interest, and attitude compared to a two-dimensional (2D) learning tool. Eighty-five junior high school students participated in our study, and they were randomly assigned to two groups (AR: n = 44, 2D: n = 41). The results revealed that students in the AR group outperformed those in the 2D group in terms of their learning achievement and interest. Both groups showed positive attitude toward the Doppler class and physics learning. Moreover, students presented a high level of cognitive perception toward the AR learning tool. This study provides a case for the application of AR in acoustics learning.

This paper investigates the impact of digital creativity educational practices on the improvement of academic performance and creative thinking development of Chinese high school students. The study defined the importance of the concept of STEM learning in the development of modern skills needed to live and work in a digital socio-economic change caused by the development of Industry 4.0. An educational experiment involving 60 9th grade Chinese students evaluated the impact of digital creativity learning practices on the development of students' creative thinking on such indicators as fluency, flexibility, originality, detailing, and metaphoricity. The impact of digital creative learning practices on the performance of students in the control group and the experimental group was assessed. The analysis of the results of practical research on the impact of digital tools and pedagogical models of learning on the acquisition of students' creative thinking skills was conducted, which proved that the digital environment is the optimal place for students' creative manifestations and provides opportunities to improve creative thinking skills by implementing learning practical activities using innovative tools for the manifestation of digital creative skills.

Computational thinking (CT) has become an essential skill for students to develop in preparation for an increasingly digital world. CT is widely recognized as a fundamental literacy important for student success across disciplines. However, significant barriers exist to integrating CT initiatives in secondary grades due to packed curricula, assessments, lack of teacher preparation, and the perception of CT as an isolated skill. This narrative review aims to analyze secondary schools' major obstacles and the significant advantages they can attain in instituting computational thinking programs. A narrative analysis of recent literature synthesizes the two key themes, namely the barriers and benefits related to secondary CT integration to elucidate the necessary trade-offs, priorities, and costs to provide wellinformed, equitable recommendations for implementing solutions. In summary, while the integration of CT in secondary schools is imperative for equipping students with future-ready skills, it requires addressing teacher misconceptions and structural barriers. Properly prioritized, CT literacy has the potential to revolutionize secondary education pedagogy and empower students to become proactive creators of technology. [ABSTRACT FROM AUTHOR]