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The aim of this study is to determine teachers' views on metaverse-based education. The research is qualitative and was conducted with a phenomenological design. The maximum diversity sampling technique, one of the purposeful sampling methods of the study group, was used. In this direction, data were collected from as many different teachers as possible, including their age, field of study, school type, and gender. The research was carried out with 32 teachers. The data were collected through face-to-face interviews using a semistructured interview consisting of four questions about personal information and 11 questions about the metaverse. The data were analyzed by a descriptive analysis method using MAXQDA software. Teachers stated that the integration of metaverse technology into education and training processes will increase the quality, efficiency and permanence of this process.

In the ever-changing sector of education, the use of technology has become critical to innovation and increased learning opportunities. This research illustrates the intricate connections that exist between augmented reality [AR] and tremendous educational attributes, thinking about how AR might modify conventional teaching approaches. The important motive is to offer an entire knowledge of how augmented fact influences crucial areas of the educational revel in. Utilizing a quantitative studies method, the study seems at how AR impacts pupil behavior, creativity, and instructional practices, in addition to the mediating and moderating elements that influence these relationships. An online questionnaire was used to collect data from 444 random samples. The relationships between AR, teacher competence, technology acceptance, and educational outcomes were examined. Data shows that augmented reality has a positive effect on creativity, student behavior, and teaching strategies. Teacher competence moderated these relationships, highlighting the critical role of teachers in successfully integrating augmented reality, while technology acceptance emerged as a significant mediator demonstrating the significance of user perceptions. This study has critical implications for educators, administrators, and policymakers interested in using AR to improve instructional development, as well as for the field of generation-infused schooling administration. Additionally, it advances theoretical frameworks through a better understanding of the complicated tactics that impact the uptake and acceptability of AR.

Artificial intelligence (AI) is now affecting all aspects of our social lives. Without always knowing it, we interact daily with intelligent systems. They serve us invisibly. At least that is the goal we assign to them: to make our lives better, task by task. Artificial intelligence has the potential to make biology education more engaging, personalized, and effective by providing students with interactive simulations, personalized learning experiences, and other tools that help them understand complex biological concepts. In this paper, we discuss the integration of AI into the virtual classroom, which significantly enhances student learning experiences in various ways. The study shows that an effective integration of technology into the virtual classroom requires a thoughtful approach that aligns with educational goals and the specific needs of students. In fact, interactive simulations can help make biology more engaging and memorable for students. Besides, personalized learning AI algorithms can help biology students receive a more tailored and effective learning experience, helping them to better understand the course material and develop a deeper appreciation for the natural world. In this work, we will discuss the use of AI to enhance interactive simulation-based cellular processes, with additional application in anatomy, physiology, and ecology teaching. Moreover, this paper discusses how AI could be used to analyze student data and propose personalized learning using adaptive assessments, content recommendations, and data sciences. This paper illustrates examples of AI algorithms that could be useful for teaching biology.

This research is related mainly to the study of the results on the development of digital literacy and digital empathy with micro-learning via activities on metaverse. The main concept of this study is based on the integration of micro-learning process with metaverse technology in order to encourage and provide learners with opportunities to create bodies of knowledge and engage in joint activities through the network system that can be accessed anywhere and anytime. The objectives of this research are (1) to synthesize the conceptual framework of the microlearning via activities on metaverse, (2) to design the micro-learning process via activities on metaverse, and (3) to study the results of the development of digital literacy and digital empathy with the micro-learning via activities on metaverse. Thereby, this study relies on the pre-experimental research method with one-shot case study, in which the research participants are 30 undergraduate students of Pakse Teacher Training College, Lao People's Democratic Republic, who were derived by means of cluster sampling and well protected under the policy of confidentiality and anonymity. The research results show that (1) the students' digital literacy and digital empathy, after learning with the micro-learning via activities on metaverse, are at very good level (mean = 43.20, SD = 2.35), and (2) the overall satisfaction towards the micro-learning via activities on metaverse is at high level (mean = 4.42, SD = 0.78). In reference to the above research results, it is evident that the micro-learning via activities on metaverse enables the students to quickly develop their digital literacy and digital empathy after receiving new experiences and new knowledge because the knowledge gained from the learning of this style is easy to remember and can be applied in an effective manner.

Due to the difficulty of chemical compounds to visualize, augmented reality (AR) integrated with mobile learning has been developed as an alternative media for studying chemistry. This study aims to analyze the use of AR-integrated mobile learning in chemistry education from a bibliometric perspective in the last decade. A total of 225 articles were retrieved and analyzed from the Scopus database in the period from January 2012 to September 2022. The results of the analysis indicated that in the range of 2012-2022, the highest number of publications occurred in 2021, with the United States as the most productive country with a total of 54 publications, followed by China, Indonesia, and Japan. Wojciechowski, R., is the most frequently cited author, followed by Cai, S. "Augmented reality" is the keyword that appears most frequently in publications. This study presents useful findings that can serve as a guide for educators, scholars, policymakers, and educational designers for future research or reference in this area regarding current trends.

This work provides an overview of the use of Virtual Reality (VR) technology in the context of training through the documentation of a project produced by Ohio University's Game Research and Immersive Design (GRID) Lab involving the development of a cine-VR series for police officer training in areas such as suicide prevention, mental health, crisis intervention, domestic violence resolution, and school violence prevention. The article starts by introducing the concept of VR training with its subdivisions and its benefits, including the promotion of learning and empathy through immersion. Followingly, it describes the process of planning for a VR training. Subsequently, it breaks down the several stages of creating VR training content from scenario exploration, scriptwriting, recording, to postproduction. In conclusion, this paper recognizes the challenges of creating compelling VR content such as storytelling, editing, and resources. Additionally, it attempts to pave the way for similar VR training projects by providing recommendations and emphasizing the importance of communication, adaptability, and experimentation.

The purpose of this research was to investigate the effects of short virtual reality (VR) exercises on knowledge retention for adult learners at a contractor safety training organisation supporting the energy industry who took computer-based training (CBT) courses. The intent was to simulate a delay period similar to that experienced by contractors who support work in the energy industry to determine if traditional CBT can be made more effective for stimulating greater transfer of learning with the addition of VR exercises. The experimental group was exposed to CBTs augmented by VR exercises that reinforced the CBT course learning objectives. The control group for this research took the same CBT course without short VR exercises. A quantitative analysis was performed on data collected from a course exam provided immediately after the course delivery and from a separate follow-up quiz delivered 3 days after the course(s) completion. Data from these testing instruments were analysed to determine the participant's likelihood of remembering content from the CBT courses and if there was greater knowledge retention of the course learning objectives and procedures within the experimental group than within the control group. The results found a non-statistically significant relationship between the two groups; however, trends between the groups show that there are benefits for transfer of learning when using short VR exercises compared to those groups without short VR exercises.

Virtual Reality (VR) as an interactive, illustrative, and immersive learning environment has ample opportunities for the development of language skills. Despite a growing literature on VR-assisted language learning, the benefit of VR for L2 listening is in need of further investigation. To fill this lacuna, the current study surveyed the impact of using 360° monoscopic VR videos as pre-listening tasks on language learners' development of listening comprehension. Sixty English as a foreign language (EFL) learners participated in the study as the control and the experimental groups. Their entry level of listening comprehension was evaluated by the B1 Preliminary listening paper before the study. Listening was taught to both groups by the comprehension-based model consisting of a pre-during-post listening cycle. The pre-listening activities of the experimental group included watching and working on 360° VR videos related to the topics of the listening parts of the textbook. The pre-listening phase of the control group included the warmup activities of the textbook. Both groups' listening comprehension was evaluated again at the end of the study. The quantitative data analysis revealed a significant difference between the participants' listening comprehension in favor of those who had worked with VR video as pre-listening tasks. Also, larger effect sizes for Parts 3 and 4 of the test that focused on understanding monologues were evident. The experimental group members were asked to express their perceptions of the experience of working with 360° VR videos in listening instruction by taking part in a structured interview. The results showed that almost all participants found the activities to be inspiring and pedagogically valuable.

This study aims to examine the effectiveness of collaborative learning, augmented reality, and learning cycle models on students' language success. This study employed meta-analysis methodologies to examine data derived from 54 studies with a sample size of 2,837 participants in Turkey. The data sources were obtained from online database searches on national and international databases from 2008 to 2022, published in Turkey. Through the random effects model, data analysis was done by Stata software to determine the overall effect size and the heterogeneity of the studies. The findings showed that all instructional methods were positively effective, including collaborative learning (g = 0.895) and augmented reality (g = 0.856), which had a high effect, while the overall effect of learning cycle models (1.485) had an excellent effect on the language success of students. Additionally, in the moderator analysis, there were no significant differences according to the type of publication, target class, sample sizes, or practice time. The investigators found that the significant positive effects were present for all three contemporary instructional methods. Therefore, these findings highlight that the use of the three examined instructional methods has the potential to improve student language achievement, and suggest that teachers should strongly consider implementing collaborative, augmented reality, and learning cycle activities within their language classrooms.

Purpose: This study investigates middle school students' learning experiences through digital storytelling, applying a multimodal analytical framework to uncover patterns in digital stories. This study explores how participants engage in pedagogical activities, reflect on their learning experiences, and articulate their voices through digital stories. Design/Approach/Methods: Employing qualitative case study methods, we purposefully selected three 12-year-old female students at an urban school in the northern US. Analyses of digital stories and other data sources (interviews, classroom observations, and reflective journals) show that the students were engaged in both teaching and reflection. Findings: The findings describe (1) participants and their learning experiences, (2) students' representational and interpersonal constructs as used in their digital stories, and (3) their participation as teachers as well as learners. Originality/Value: Our multimodal analytical framework illuminates how students express themselves through digital stories. Our discussion focuses on students' learning, their identity development, the effectiveness of the analytical framework, and pedagogical implications.

The use of the metaverse in education has gained increasing attention as a potential supplement to traditional teaching methods. This study aimed to investigate the impact of experiential learning on students' intent to use metaverse learning platforms and to explore how the metaverse can support these approaches. The study included participants from three countries and used metaverse scenes, such as a restaurant or Hong Kong scene, to complete learning tasks and interact with Non-Player Characters (NPCs) to complete assessments over a semester. The results of a correlational analysis showed that pedagogical factors had a greater impact on students' intent to use the metaverse for educational purposes than technical factors, which was unexpected. However, the study also identified challenges in adapting content to match the needs and skills of students who may not be familiar with games, as well as using the metaverse for more advanced pedagogical approaches, due to limitations in integrating content. Based on the findings, recommendations for educators, designers, and researchers are provided to enhance the effectiveness of metaverse-based education. Overall, the results of this study suggest that the metaverse can be a valuable addition to traditional teaching methods. [Note: The publication year (2023) shown in the citation on the PDF is incorrect. The correct publication year is 2024.]

The use of virtual reality and 360° videos has been little researched so far, especially in social work studies and teaching. The reasons for this are the low prevalence of VR headsets in social work courses and the fundamental technological deficit in social work, which means the lack of clear causal chains within it. Professionals must adapt their practical knowledge to the individual framework conditions and problem situations depending on the case situation and field of work. In contrast, in simulation-based approaches, as used in the teaching of many rather object-oriented courses of study, fixed sequences of action usually lead to success. At the same time, 360° videos, with suitable didactic framing, can be used to convey case studies in an immersive manner that can then be continued individually, methodically developed and reflected upon. In the" Teilprojekt XR", two approaches to the use of VR headsets were designed, the first enables remote collaboration, the second offers a chance for analysis and reflection using 360° videos. The first approach is Collaborative work using VR headsets, which is intended to be an addition to communication with existing video conferencing systems. It has the potential to counteract the previous challenges associated with zoom technology and create more proximity. The first few evaluation results (n=11) on the methodological implementation of collaborative work with VR headsets suggest that this approach can bring added value to students. However, getting started with VR headsets is challenging for students and only a few have taken up the offer so far. The integration of 360° videos in education has potential for social work, as the high degree of realism and immersion can improve the link between theory and practice. Students can thus obtain realistic insights into practical examples already during their studies and professionally reflect on their own perspective in the situations. The use of 360° videos using VR headsets has been tested and established in teaching in four seminars so far. The students experience the simulated case situations from the subjective perspective of the different protagonists and can thus more easily put themselves in their individual perspective. Didactically, these observations are professionally framed by teaching content taught in advance, group work in small numbers as well as a collaborative analysis and reflection within the seminar group. The results of the evaluation (n=60) of the integration of 360° videos into teaching are promising and show a clear potential for university didactics. A flow experience and an experience of presence were confirmed by the students when working with the 360° videos. Furthermore, the students reported that the methodological extension supported their comprehension of the course materials and validate the usefulness and advantages of using 360° videos during the seminars.

Social distancing policies during the COVID-19 period have opened a space for interventions in the use of digital technology that was previously rejected by the public. Currently, most of the community activities have been carried out online, including those related to education, such as hosting virtual exhibitions with an educational purpose. Virtual exhibitions (VE) are online exhibitions that display information on specific topics. However, to the best of our knowledge, research on VE in the educational context is still lacking. This study aims to identify the variables that affect users' intentions to attend the virtual exhibition frequently. The channel expansion theory, flow theory, technology acceptance model, and expectation confirmation theory serve as the foundation for the research model that is constructed. The model was tested using data from 321 respondents who had visited VE, then analyzed using Structural Equation Modeling (SEM) with the aid of the SmartPLS application version 3.3.3. The findings show that 11 factors significantly influence the intention to continue using VE, while the other 2 factors have no significant influence. Thus, perceived usefulness has a significant effect on satisfaction and continued use intention to use VE, but not on perceived enjoyment. Furthermore, the perceived ease of use of VE has a significant impact on perceived usefulness and perceived enjoyment. However, media richness does not significantly affect perceived enjoyment. It's just that media richness influences perceived ease of use significantly. Confirmation also has a significant impact on perceived enjoyment, perceived usefulness, and satisfaction. Perceived enjoyment has a significant effect on satisfaction and continued use intention, and satisfaction has a significant effect on continued use intention to use VE. The findings are useful for VE providers and developers in developing a transformation strategy to increase the intention to use VE in every educational exhibition. [The publication year on the PDF is incorrect. The correct year is 2024.]

This article presents a systematic review of the literature with the aim of providing an updated framework for the scientific production developed in the field of digital competence and inclusive education in Higher Education, as indexed in the Web of Science (WoS) and SCOPUS databases. Twenty-one scientific articles published between 2016-2023 were included and analyzed, with no temporal cohort established. The search matches yielded a first document of the topic of study in 2016 in the Social Sciences Citation Index. The results obtained on the conceptual structure of the analyzed documents were carried out through a multiple correspondence analysis (MCA) observing the existence of two dimensions composed of three clusters. Cluster one was composed of studies on digital competence, virtual learning environments, digital divide, and functional diversity, among others. Cluster two comprised studies carried out on digital tools and competencies, inclusive education, educational processes, and digital strategies; while cluster three was made up of educational inclusion related to interculturality and digital competence. Among its limitations, there were aspects related to the heterogeneity of the studies, which make it difficult to compare the data, and the sample and size of the study, which makes the results obtained and the generated data have a lower percentage of generalization compare to studies that use larger simples. This study has implications for researchers and Higher Education institutions interested in research on digital competence for inclusive education, with the possibilities of digital competence for inclusive education being established from the studied variables, allowing teachers to adapt and personalize learning to meet individual student needs. All of this is in line with the goals of the 2030 Agenda, concerning the empowerment of citizens and the digitization of public services to ensure the population's access to such services via the internet.

Virtual reality has emerged as an influential technology in the educational landscape, offering learners and teachers immersive and interactive experiences that enhance traditional teaching methods. However, despite the increasing importance of virtual reality in education, a systematic description and classification of virtual reality use cases in education is still lacking. This limits the understanding and comparability of virtual reality use cases and highlights the need for a structured approach. This study asks the research question: How can virtual reality educational use cases, identified in the literature, be described, and classified? To classify these use cases, this study develops a state-of-the-art taxonomy. The taxonomy was developed in a combination of a conceptual-to-empirical and empirical-to-conceptual approach. The first stage to develop the taxonomy was based on a conceptual-to-empirical approach. Here, the concepts of virtual reality, use case and education serve as meta-characteristics and theoretical structure. To further detail the dimensions and characteristics, a systematic literature review was conducted by following a PRISMA-guided search and selection process. Therefore, the scientific databases Science Direct, AISel and Springer Link were used to search for studies between 2018 and 2023, obtaining a sample of 39 publications. As the conceptual-to-empirical approach did not richly describe the analysed virtual reality use cases from the studies, additional dimensions and characteristics were identified inductively. Therefore, a second iteration was conducted relating to the empirical-to-conceptual approach. This process explored the practical aspects of virtual reality scenarios and added applicable and practical characteristics to the initial theoretical foundation. The result is a comprehensive taxonomy of virtual reality use cases in education that contributes significantly to existing knowledge and provides a solid foundation for future research. The final taxonomy includes 17 dimensions and 37 characteristics. These findings can support educators to understand the nature of virtual reality use cases, enabling them to describe and implement such use cases effectively within educational settings. [Note: The publication year (2023) shown in the citation on the PDF is incorrect. The correct publication year is 2024.]

The main objective of this study was the design and validation of a mobile learning environment (ML) based on Augmented Reality (AR) visualization with the purpose of developing skilled trades in the field of carpentry in indigenous populations. A pedagogical model focused on lifelong learning was used, in order to promote the acquisition of skilled trades and knowledge in carpentry. The implementation of the ML environment was carried out in the Wayuu community, characterized by its high rate of poverty and limited access to education. During face-to-face meetings, three indigenous people participated in a learning process in which they were instructed on the use of trade tools and became familiar with the different types of trees and wood. To support this process, the AR was used together with the M-L environment. Subsequently, the participants built a chair applying the knowledge acquired during the learning process. During this stage, recordings of the indigenous people were made while they carried out the construction. Then, the performance of the apprentices was evaluated through a competency-based evaluation system, in which three experts analyzed the recordings. Finally, the three indigenous people were able to acquire skills in real time through their mobile device, following the instructions and observing 3D images and videos that showed the entire manufacturing process of a wooden chair, from sanding the material to final assembly and polishing. In addition, it was found that these indigenous people were able to successfully market the products they made in the carpentry workshop, thus improving their family income. The fundamental idea behind the pedagogical implementation of this model in the Wayuu indigenous community of northern Colombia is to provide them with training in various trades that allow them to obtain decent jobs and support their families. That is why the ML environment is ideal for vulnerable people, not only indigenous people, but also for those who are displaced, the elderly or deaf-mute. The visual approach used in this method dispenses with the need for voice and text making it accessible to everyone. [Note: The publication year shown on the PDF in the article citation, on page 1 (2023) is incorrect. The correct publication year is 2024.]

Virtual reality (VR) is used across the educational spectrum (higher education, high school, primary school, and even pre-school); however, primary school teachers' perceptions of using VR in their classrooms require further research. A brief review of the literature of 100 existing articles related to teaching within the primary school context was conducted. The articles were obtained by performing a word search within Google Scholar, with the keywords 'virtual reality primary school teachers 2018 - 2023'. Teachers indicated both hesitance and enthusiasm for incorporating VR. The findings of this study indicated that only a low number of articles (n = 11) addressed VR and primary school teachers, compared to the total number of articles reviewed (n=100). Researching VR and teaching assists in supporting the wider fringe aspects of e-learning practices, such as VR. It advances the compass of e-learning knowledge by integrating immersive learning tools into the primary school classroom.

A barrier to teacher retainment is the lack of professional preparedness. Limitations with live, hands-on teacher training can contribute to inadequate preparedness, particularly in home-school collaboration. This pilot feasibility study explored using virtual reality simulation (VRS) technology with ninety-seven pre-service teachers in Norway, embedded within a flipped learning design session. Results from the qualitative post session interviews describe how the VRS training supported pre-service teachers in feeling better prepared with conducting parent-teacher consultations. This is supported by quantitative self-efficacy assessments. Thus, using VRS for supporting niche areas such as parent-teacher consultations can support better preparedness for teachers if it cannot be experienced first-hand.

This research aims to develop ECARsites, an online site designed to support data-related activities in science learning and to facilitate the implementation of data, computational thinking (CT), and self-directed learning (SRL) practices in a more contextualized and relevant way for students. The approach used design-based research (DBR) methods, focusing on developing high-quality learning products or systems that meet user needs. The study was conducted at MA X in Magetan, Indonesia, involving four middle school science teachers and eighteen middle school students. The research findings showed that DBR can be an effective method of professional development for science teachers, focusing on developing relevant and contextual innovations for students. Integrating data practices, CT, and SRL frameworks into the DBR process facilitated the development of students' scientific thinking skills, leading to a more immersive and appropriate science education for today's digital age. The study highlights the importance of using real data in teaching, involving students in data processing, and supporting teachers in designing and implementing data-driven learning. The study also emphasizes the importance of effective professional development in computational thinking and self-directed learning and the need for investment in long-term professional development programs to prepare teachers for an increasingly technology-dependent world of education.

Educational leadership preparation programs are tasked with advancing the development of future educational leaders' instructional capacities, including the ability to engage teachers in instructional conversations through instructional coaching. The educational leadership program studied here includes a mixed reality experience designed to develop future educational leaders' instructional coaching conversation skills. Therefore, the purpose of this research study was to examine future educational leaders' perceptions of the development of instructional coaching conversation skills because of participation in the mixed reality experience. Findings indicated that, overall, participants held positive views of the mixed reality experience in supporting their development of instructional coaching conversation skills. Additionally, participants indicated development of other skills including, on-the-spot thinking, confidence, and reflection, among other skills. Results suggest that mixed reality experiences provide authentic, realistic learning opportunities to develop instructional leadership capacities.

This study aimed to investigate the perception of STEM students (n = 147) on using mobile Augmented Reality (AR) across gender and learning styles in physics online classes. It utilized embedded mixed-method research and purposive sampling. An instrument named Students Perception in Integrating Mobile AR in Physics Class was developed and has undergone a series of validations such as item generation from literature review, content validation, cognitive interview, pilot testing, and exploratory factor analysis revealing two factors, CFA with indices that are of acceptable value, and good Cronbach alpha ([alpha] = 0.86) for reliability. Mean, standard deviation, percentages, two samples t-test, and thematic analysis were used to analyze the data. Results revealed that all students have a source of internet connection as well as a device to use and most of them have a very stable to somewhat stable internet connection. Positive feedback was shown in terms of overall learning experience and perception across gender and learning styles. However, in terms of overall usability, females have more ease of use compared to males and kinesthetic learners only have a positive response. It was also found that there is no significant difference across gender. Moreover, the integration of AR in a physics lesson has received excellent responses from both students with and without prior experience in a classroom setting. All of the difficulties the students encountered were technological in nature. There are also opportunities to improve the integration of mobile AR in the technical and learning process. These results suggest that teachers should integrate mobile AR in online physics classes but should consider factors such as Internet connection, device, gender, and learning styles in developing the application.

Extended reality (XR) -- encompassing virtual reality (VR), augmented reality (AR), and mixed reality (MR) -- emerges as a potential transformative tool in educational realms. This article explores the potential of XR in facilitating mathematics assessments; it proposes a list of mathematical topics that could be effectively mediated by XR's immersive and interactive features. Additionally, it discusses some major challenges which could be barriers to the widespread adoption of XR in educational contexts and sets out a research agenda for further investigation.

The ILM model to promote creative thinking skills is concerning the application of the concepts of virtual technology in the instruction management, which is consistent and appropriate for learners in the digital age, so that they are able to learn anywhere and anytime by means of the brand-new teaching innovations. The objectives of this research are (1) to synthesise the conceptual framework of the ILM model, (2) to develop the ILM model, and (3) to study the results of the development of the ILM model. The research tools include (1) the ILM model, and (2) the evaluation form on the suitability of the ILM model. The results show that (1) the overall suitability of the ILM model (overall elements) is at the highest level (Mean = 4.88, SD = 0.14), and (2) the overall suitability of the ILM model is at the highest level (Mean = 4.90, SD = 0.18). This can be summarised that the ILM model is a kind of learning model that was developed by applying the concepts of virtual technology and imagineering learning process that can be used as guidelines to learn anywhere and anytime for the 21st century learners.

Now days, the level of students' engagement in secondary school chemistry is low. The aim of this study was then to enhance student chemistry engagement through simulation-integrated 7E context-based instructional strategy and compared its efficacy with 7E context-based instructional strategy, simulation-integrated conventional teaching approach, and conventional teaching approach. For the quantitative part, 15-item chemistry engagement scale was utilized to collect data from 229 grade 10 students as part of a quasi-experimental pre/post-test non-equivalent control group design. Both descriptive and inferential statistics were utilized. Semi-structured interviews were used to collect qualitative data. The study's findings revealed that, when compared to the other instructional strategies, the simulation-integrated 7E context-based instructional strategy was the most successful at raising students' overall engagement and its dimensions. This study implies that implementing a simulation-integrated 7E context-based instructional strategy can boost students' overall and individual levels of engagement in chemistry. Thus, to enhance chemistry learning, teachers may progressively move from the conventional approach to the use of simulation-integrated 7E context-based approach over the other strategies.

Learning activities related to students' real-life experiences may create meaningful learning. Integrating traditional games into the physics classroom can reconstruct local knowledge into scientific knowledge. The use of technology can affect student learning achievement. One of the technologies currently attracting attention is Augmented reality (AR). This study investigates the impact of AR-integrated traditional games Nglarak Blarak on students' critical thinking and graphical representation skills. In this study, a quasi-experimental design was used, consisting of 62 10th junior high school students. Class A completed the "work and energy" concept of their physics learning using AR technology, while class B used PowerPoint and textbooks. Class A students had higher critical thinking and graphical representation skills scores than those in class B. In addition, it was found that the critical thinking and graphical representation skills of students in class A who used AR technology showed a significant correlation. The results of this study can be used as a reference for integrating technology and indigenous knowledge in physics learning.

Learning mathematics has been a fundamental subject for students. The sample will be restricted to students in junior high school who had studied learning mathematics using augmented reality. The population was derived from private and public junior high schools in various provinces. Data were collected using an online survey to reach large audiences from different provinces and analyzed using RASH Model. The results were used to classify the level of students' anxiety. Students from public junior high schools of education were more anxious than private ones to solve mathematical problems.

Augmented Reality (AR) has emerged in our educational paradigm as a new tool to accelerate change in the teaching and learning process. This technology can improve students' visualisation skills, which helps them understand abstract concepts, especially in Chemistry. Furthermore, visualisation skills help improve students' critical thinking. This study was conducted with 16 secondary students. Before and after the intervention, students were required to complete a Purdue Spatial Visualisation Test to measure their visualisation skills. During four weeks of intervention, students explored the content using a mobile augmented reality application for learning chemical bonds (called CBOND) and completed critical thinking tasks each week. This study employed data mining using a decision tree to predict the path to improving students' visualisation and critical thinking skills in learning chemical bonds. The results revealed that CBOND had a significant effect on students' visualisation and critical thinking development. Therefore, this study proved that augmented reality technology could help students to visualise abstract concepts, especially in Chemistry, and in turn, foster their higher level of critical thinking.

This study investigates the efficacy of incorporating neuropedagogical elements into virtual simulators for advanced chemistry education in universities. Utilizing a mixed-method approach, it uses questionnaires completed by 50 organic chemistry students. These questionnaires included both general and Likert scale questions, focusing on students' experiences with the PhET Interactive Simulation. The results highlight the positive impact of neuropedagogy on students' learning attitudes, cognitive abilities, and skill development, particularly in areas like critical thinking, analytical skills, and social competencies. A significant portion of students reported enhanced educational outcomes: 76% observed improved training effectiveness, 88% better understood the subject, and 96% found the virtual simulator-based learning more engaging. Furthermore, the study notes improvements in students' problem-solving abilities (68%), logical reasoning (92%), and comprehension of chemical processes (94%). These findings emphasize the value of integrating neuroscience principles in chemical education, potentially benefiting both tertiary and secondary education sectors. They indicate the necessity for educational adaptation in line with interdisciplinary research in cognitive and neurological sciences. This research not only serves as a valuable resource for chemistry teachers but also sets the stage for future empirical studies exploring neuroscience's role in teacher education. The study underscores the importance of further investigation into how teachers implement neuropedagogical techniques and the effectiveness of such applications, advocating for continuous development in educational methodologies.

The study aimed to investigate the effect of computer simulation and animation-integrated instruction on preservice science teacher trainees' conceptual understanding and retention of acid-base chemistry and stoichiometry. A quantitative approach with a pretest-posttest-delayed test quasi-experimental design was used. In the study area, there were only two sections of first-year trainees in the natural science department. So a comprehensive sampling technique of the two intact sections was employed. The two intact classes were randomly assigned to an intervention group (IG) and a comparison group (CG). Data was collected using Acid-Base Chemistry and Stoichiometry Conceptual Understanding of a two-tier multiple-choice Test (ABSCUT). Parametric statistics (independent sample t-test and ANCOVA) were used for the data analysis. The independent sample t-test was used for the pre-test analysis to examine the prerequisite experiences of trainees in the two groups and male and female trainees in the IG before the intervention. The result showed no significant difference between the mean score of the CG and IG. The result also showed no significant difference in the mean score of male and female trainees in the IG. The ANCOVA was used for post-test and delayed test analysis after the intervention. The result indicated that there was a statistically significant difference between the two groups on conceptual understanding, F(1,49)=5.07, p=0.029, partial eta squared=0.094, in favor of IG. This tends to imply the concepts of the trainees who received the intervention outperformed the comparison group. The ANCOVA result also indicated that gender difference has no statistically significant difference in the IG, F(1,24)=3.68, p=0.067. The delayed-test analysis showed that the IG has higher retention than the CG. Based on the results, this study recommended that policymakers, chemistry curriculum experts, chemistry curricular material developers, and practitioners alike consider the application of computer simulation-integrated chemistry instruction to enhance learners' conceptual understanding and retention.

The goal of the study is to examine a comprehensive review of research involving augmented reality (AR) in mathematics teaching during the previous 10 years. For this purpose, the research was conducted using a systematic review technique. It synthesized a set of 60 articles from 2012 to 2021. Two researchers used content analysis to analyze the data. According to the findings, the majority of publications were published in 2019, with studies mostly aiming at assessing the influence of AR applications on mathematical achievement and exposing viewpoints on AR applications used in mathematics education. Also, secondary school students were mostly preferred as participants. Furthermore, most of the studies found that mathematics teaching with AR applications had a positive impact on academic standing and the teaching process, and that AR applications positively affected attitudes in mathematics lessons, increased the motivation of individuals towards mathematics lessons, and improved three-dimensional thinking skills.

This study connects to an ongoing discussion about the limits and affordances of simulators as realistic and relevant contexts for professional learning, in this case in the development of visual expertise. Earlier studies of simulator-based maritime pilot training conclude that there are risks associated with so-called negative skills transfer due to a lack of photorealism in simulator environments. The aim of this study is to carefully examine how visual expertise develops in and through training in a simulated environment. Through a practice-based approach to the development of visual expertise, and by using qualitative interaction analysis of video recorded training sessions, the analytical focus is directed towards maritime pilot trainees' talk about imperfections and inconsistencies in the virtual environment during exercises in a high-fidelity bridge simulator. Considering the multi-layered nature of the maritime pilot's visual expertise, findings show that the maritime pilots in training noticed and adapted to the specific methodological and technological challenges when manoeuvring a simulated vessel. During such reflection-in-action, they also commented on and explored the differences between, navigating in a simulator, on the one hand, and, on the other hand, navigating on board a ship. Instead of concluding that there is a risk for negative skills transfer that follows from the differences between the two contexts of navigating, we argue that the challenges introduced by representations encountered when training in a virtual environment may add to the expertise of the trainees and lead to enriched conceptual, methodological, and technical knowledge regarding the specificities of visually demanding and ambiguous navigation situations. In this way, this study contributes to advance our understanding of learning in virtual environments to the frontline of learning research.

Metaverse is a technology which allow users to "experience" a digital universe and includes several components like augmented and virtual reality. Researchers who wish to research the field may not know where to start or the key features of the field. Thus, the present study aims to discuss the general and social, conceptual, and intellectual structures of the field for future researchers on metaverse. For this purpose, the general structure, scientific maps, and socio-intellectual structure of the field were investigated. Then, recommendations are presented for future researchers by bibliometric analysis results. In the study, the abstracts and keywords in publications indexed in the Scopus database and Web of Science database were reviewed. After the data collected from 439 publications were cleaned and combined, 328 documents were analyzed using R. The performance analysis revealed that the most productive writer in the field was Ayiter E., the most influential writer was Bourlakis M., the journal with the most publications was "The Journal of the Association for Information Systems", and the most cited study was "Avatars, People, and Virtual Worlds: Foundations for Research in Metaverses" published in that journal. The examination of the intellectual, social and conceptual framework within the field unveiled predominant associations of metaverse with keywords such as virtual, second life, augmented reality, avatar, virtual world, and virtual reality. The most frequent collaborations were between Korea, Japan and the United States on second life and e-learning.

The role of emotion in the context of virtual reality learning environments (VRLEs) has lately received increased attention, though there is a gap in the research on VRLEs in criminal justice. The current study examines the impact of a virtual reality experience that focuses on mental illness occurring in those within the criminal justice system. A qualitative methodology was employed to examine student responses from 242 students in five criminal justice classes taught in two states between 2019 and 2020. Three themes emerged from the students' responses, including personal connections, empathy for others, and emotional responses to situational factors. Students experienced considerable presence and immersion during the virtual reality experience, and this generated emotional responses in them to the material. While the use of virtual reality in the pedagogy of social science is still emerging, the current study indicates that student can be provided a high degree of control and value in learning from the experience while simultaneously minimizing student exposure to risk.

Recently, Virtual reality (VR) technologies have started to be used increasingly in the field of education, as in many other fields. With the widespread use of virtual reality applications, there is a need to investigate the effects of virtual reality applications in the field of education. The results obtained from these researches can contribute to the creation of effective and efficient virtual reality-supported learning environments. VR applications, one of the technology-supported learning environments, come to the forefront to help students learn concepts more easily and permanently. Since VR is very new and not a common practice in classrooms yet, it is necessary and important to investigate how VR can be used in science lessons and students' views on these practices. The main goals of this study were to develop the Virtual Reality Solar System Model (VRSSM) for the unit "Sun System and Eclipses" for the 6th grade students and to find out what the students think about using virtual reality applications in science classes. This is a qualitative study and 16 students participated in this study and used the VRSSM. The semi-structured interview form was used as a data collection tool. The data was analyzed using content and descriptive analysis. The results of this research revealed that the students want VR to be used not only in science lessons but also in other lessons, they think that the knowledge they have gained is permanent and that they believe that this application can increase their science achievement. Additionally, students think that the application increases their interest in science lessons and affects their learning positively. Therefore, it is expected that the results of this research will lead to the creation and implementation of three-dimensional virtual reality learning environments related to various subjects and levels of science teaching.

This study aimed to explore the design and development of verbal prompts in virtual reality (VR)-based social skills training for autistic children. Autism indicates a category with neurodiversity that influences individuals' capability to engage in social and cognitive tasks. This complex neurodevelopmental condition manifests in a wide array of patterns, featuring unique experiences of each individual. This study explored both advantages and challenges encountered when autistic children interact with verbal prompts in multi-user, desktop VR-based social skills training. Our explanatory case study involved VR-based learning experiences of four autistic children. We used a qualitative thematic analysis to analyse the study participants' interaction patterns with verbal prompts in the VR-based training. Our research can contribute to both theoretical knowledge and practical design guidelines for the creation of verbal prompts in desktop VR-based training programmes tailored for autistic children.

Concepts related to molecular structure are often challenging for students to visualize and comprehend. Augmented reality has emerged as a promising solution to this problem, providing students with opportunities to manipulate and visualize chemical molecular structures to improve their understanding. Furthermore, collaborative learning environments have the potential to enhance student learning by fostering knowledge sharing and collaborative authoring. However, there is a dearth of research exploring students' acceptance of augmented reality in a collaborative learning context. Therefore, this study aims to investigate the technology acceptance of a wearable collaborative augmented reality system in chemistry education among junior high school students. Specifically, 124 students used "Microsoft® HoloLens 2" device to learn about chemical molecular structure. Data was collected using the Extended Technology Acceptance Questionnaire after participants used the system and analyzed using Partial Least Squares Structural Equation Modeling. The extended model takes knowledge sharing, collaborating learning, and collaborative authoring as exogenous variables with perceived ease of use and perceived usability and finally produces a structural model that leads to behavioral usage intentions. The hypotheses tested in this study were accepted as the relationships were significant. Knowledge sharing, collaborative learning, and collaborative authoring have a positive impact on perceived usefulness and perceived ease of use respectively; and perceived usefulness and perceived ease of use have significant effects on behavioral intention to use respectively. This study conclusively demonstrated the hypothesized relationships. Evidence from these results provides comprehensive insights that can help policymakers and educators better understand the factors influencing the adoption of wearable collaborative augmented reality.

Low levels of critical thinking skills and learning motivation, particularly in physics learning, pose significant challenges that must be promptly addressed to ensure students' future success. To tackle this issue, the present study endeavors to develop a Cooperative Model, Digital Game, and Augmented Reality (CAP)-based learning, which is both valid and practical, to enhance these crucial aspects effectively. This study used Educational Design Research through a non-equivalent control group design in the data collection process. Using purposive sampling method, 54 high school students were divided into two classes were involved. The data collection period was from July to August 2022. The research instruments used include syllabus, lesson plan, Adventuring Physics media, critical thinking test instrument, motivation questionnaire, student response questionnaire, validation questionnaire, and observation sheet. Statistical tests used include descriptive, paired, and independent t-tests. The results reveal that the learning products and instruments exhibit strong validity and reliability, alongside a high degree of practicality in their implementation. The experimental group demonstrated a notable improvement both in critical thinking skills and learning motivation. Additionally, students' feedback regarding this learning approach has been overwhelmingly positive. Consequently, this research highlights the importance of fostering more engaging and enjoyable innovations through digital learning in physics education to achieve optimal learning outcomes and enhance 21st-century skills.

In today's educational environment, the convergence of emerging technologies and active methodologies has become a fundamental driver of change in university education. Emerging technologies, such as artificial intelligence, virtual reality, machine learning, and data analytics, are redefining the dynamics of higher education. Active methodologies, such as problem-based learning, collaborative learning, and flipped learning, center the pedagogical focus on the student, encouraging active participation and problem-solving. The combination of emerging technologies and active methodologies creates a powerful synergy, enabling the effective implementation of personalized and immersive learning experiences. This convergence not only enhances learning, but also prepares students to be autonomous learners, critical thinkers, and 21st century problem solvers.

In the field of complexity, new methodologies emerge, such as horizon architecture, which help to focus solutions that can be integrated to foster innovation in university education. Technologies are also opening up opportunities for training, such as virtual and augmented reality. This article aims to answer the question: What innovations do postgraduate students perceive in environments using horizons architecture to integrate virtual reality? In this project's training experience for students, the horizons architecture strategy was implemented with virtual reality resources and emerging technologies. The present research was conducted with a mixed methodology, using a concurrent triangulation design. The participants were chosen from a sample for non-probability convenience. Three instruments were administered to 99 graduate students in Humanities and Education: i) a semi-structured questionnaire with demographic data and interests in contributing to the Sustainable Development Goals (SDGs), ii) a semi-structured questionnaire on students' perceptions of learning and innovative projects, and iii) a validated Likert-scale questionnaire on elements and types of educational innovation. Virtual and augmented reality supported the distance education modalities and project presentations. The results show that: (a) open and systemic innovation, (b) creation of new products and services, (c) the potential of horizons architecture strategy, (d) motivation boosted by virtual and augmented reality, and (e) critical aspects of integrating virtual and augmented reality (technical and academic). It is concluded that horizons architecture with virtual reality in university education encourages complex reasoning and invites the search for new solutions. The challenge is to train citizens with critical, scientific, systemic, innovative and entrepreneurial thinking, who are also empathetic, cooperative and committed to sustainable development. This study may be valuable to teachers, entrepreneurs, and decision-makers interested in innovative educational environments and technologies, especially those in graduate education.

Digital transformation encompasses all the principles of people, working methods, and technology that support organizations in achieving their goals with the possibilities provided by the constantly developing information technologies that are in almost every aspect of our lives. Today, the impact of digital transformation is visible in every field with constantly developing technologies, and there is a rapid transition to digital innovations in almost all sectors. Web 3.0 and Metaverse, which are two innovations that support each other, are technological developments that can be used in many areas, and it is curious what role they will play in daily life. This study aims to present research on how the education and human-computer interaction fields can be synchronized with Metaverse technology with the impact of the digital age. In this study, the articles accessed by using the systematic analysis method were examined under the headings of subject, journal, year, research method, study group and sample, data analysis method, data collection method, field, country, conclusion, and suggestions for future studies. As a result of the research, 61 articles were found in the Web of Science database. Thus, it is aimed to obtain and discuss the results of how Metaverse technologies are reflected in the fields of education and human-computer interaction, in which direction they evolve, and how they will be reflected in future studies.

This study investigates the challenges of teaching history to primary school students and the endeavour to develop a board game, supported by educational apps and augmented reality, to enhance the learning experience. The initiative is in response to the New Zealand Ministry of Education's mandate that New Zealand's history must be taught in all Kura and schools' local curriculum from 2023. (Ministry of Education, 2023). The study was conducted in two phases. The first phase explored teachers' attitudes towards using technology as a teaching aid and the availability of digital devices for interactive teaching and learning. The results showed that many teachers are supportive of using board games and technology in their teaching. In the second phase, a board game was developed and trialed with a group of teachers and students as expert representatives for the target group. The results showed that the mixed reality board game has great potential and is well worth continued development. The study also suggests that emerging disruptive technologies such as mixed reality can create effective and engaging learning and teaching environments.

This study presents a strengths-based framework for designing virtual reality experiences tailored to the needs and abilities of autistic individuals. Recognizing the potential of virtual reality to provide engaging and immersive learning environments, the framework aligns the strengths and preferences of autistic users with the affordances of virtual reality platforms. Drawing on the existing literature and empirical findings, the framework highlights key areas of alignment, including visual perception, anxiety management, attention to differences, concrete thinking, and response to positive feedback. The framework emphasizes the importance of involving autistic individuals in the co-design and co-creation of virtual reality technologies to ensure a more tailored and preferred user experience. By adopting a strengths-based approach and actively involving autistic individuals, the design and implementation of virtual reality interventions can better address their unique needs and foster positive outcomes. The study concludes by advocating for continued research and collaboration to advance the field of virtual reality technology for autistic individuals and to work toward shared goals with the autistic community.

This paper presents "rational inattention" as a new, transdiagnostic theory of information seeking in neurodevelopmental conditions that have uneven cognitive and socio-emotional profiles, including developmental language disorder (DLD), dyslexia, dyscalculia and autism. Rational inattention holds that the optimal solution to minimizing epistemic uncertainty is to avoid imprecise information sources. The key theoretical contribution of this report is to endogenize imprecision, making it a function of the primary neurocognitive difficulties that have been invoked to explain neurodivergent phenotypes, including deficits in auditory perception, working memory, procedural learning and the social brain network. We argue that disengagement with information sources with low endogenous precision (e.g. speech in DLD, orthography-phonology mappings in dyslexia, numeric stimuli in dyscalculia and social signals in autism) constitutes resource-rational behaviour. We demonstrate the strength of this account in a series of computational simulations. In experiment 1, we simulate information seeking in artificial agents mimicking an array of neurodivergent phenotypes, which optimally explore a complex learning environment containing speech, text, numeric stimuli and social cues. In experiment 2, we simulate optimal information seeking in a cross-modal dual-task paradigm and qualitatively replicate empirical data from children with and without DLD. Across experiments, simulated agents' only aim was to maximally reduce epistemic uncertainty, with no difference in reward across information sources. We show that rational inattention emerges naturally in specific neurodivergent phenotypes as a function of low endogenous precision. For instance, an agent mimicking the DLD phenotype disengages with speech (and preferentially engages with alternative precise information sources) because endogenous imprecision renders speech not conducive to information gain. Because engagement is necessary for learning, simulation demonstrates how optimal information seeking may paradoxically contribute negatively to an already delayed learning trajectory in neurodivergent children.

This study examines the embodied ways in which learners monitor their cognition while learning about exponential functions in an immersive virtual reality (VR) based game, "Pandemic" by Prisms of Reality. Traditionally, metacognitive monitoring has been assessed through behavioural traces and verbalised instances. When learning in VR, learners are fully immersed in the learning environment, actively manipulating it based on affordances designed to support learning, offering insights into the relationship between physical interaction and metacognition. The study collected multimodal data from 15 participants, including think-aloud audio, bird's-eye view video recordings and physiological data. Metacognitive monitoring was analysed through qualitative coding of the think-aloud protocol, while movement was measured via optical flow analysis and cognitive load was assessed through heart rate variability analysis. The results revealed embodied metacognition by aligning the data to identify learners' physical states alongside their verbalised metacognition. The findings demonstrated a temporal interplay among cognitive load, metacognitive monitoring, and motion during VR-based learning. Specifically, cognitive load, indicated by the low- and high-frequency heart rate variability index, predicted instances of metacognitive monitoring, and monitoring predicted learners' motion while interacting with the VR environment. This study further provides future directions in understanding self-regulated learning processes during VR learning by utilizing multimodal data to inform real-time adaptive personalised support within these environments.

This study aimed to examine how the levels of physical fidelity of controllers (high, mid and low) and task repetitions (four trials) influence undergraduate students' perceived task load and performance in an immersive virtual reality (VR)-based simulation. The simulation was developed using the Unity 3D engine. VR controllers were developed to reflect a real power tool in three fidelity levels: high (most realistic: weight and tactile engagement), mid (tactile engagement without weight) and low (control group: only controller). The tasks were designed to reflect complexities with four working postures: no walking & standing up, no walking & bending over, walking & standing up and walking & bending over. Thirty-six healthy undergraduate male students participated in the study. Participants were instructed to complete motor tasks accurately. Audio feedback (drill sound) and haptic feedback (vibration) were activated for three groups when the controller and a screw made contact. Each participant used all three fidelity controllers and repeated the four tasks in a counterbalanced order to account for order effects. The results of a one-way repeated measures MANOVA indicated that two dimensions of task load were significantly different among the three physical fidelity conditions. Also, task completion time, inaccurate operation time and inaccurate counts were significantly shorter when four tasks were repeated. The study findings provide design implications for VR-based training experiences for future workforce development.

Holding learners' attention is challenging, especially when they are asked to listen to long passages. High-immersion virtual reality (VR) can immerse learners in listening tasks, even in such complex languages as Chinese. This exploratory study examined the effect of VR on 43 Chinese language learners' listening comprehension, enjoyment, sense of presence, and cognitive load. Participants were self-selected into two groups without knowing the purpose of the study or the details of their activity. The experimental group (n[subscript 1] = 23) experienced an interactive multimedia story in VR, and the comparison group (n[subscript 2] = 20) watched a screencast video recording of the same story. Multivariate analysis of covariance (MANCOVA) indicated that VR may have a positive effect on the development of listening skills. Compared with the video group, the VR group had significantly higher listening comprehension scores, reported significantly more enjoyment and sense of presence, and reported experiencing less cognitive load. Thus, the findings suggest that VR could be used as a pedagogical tool to enhance foreign language listening skills.

Multisensory-rich VR experiences, which encompass visual, auditory, and haptic stimuli, have the potential to enhance engagement, motivation, and learning. However, extensive sensory stimuli could also compromise learning through sensory overload. In museum settings, visitors who are inundated with excessive stimuli such as unrelated background music or competing visual options may not experience optimal learning. This mixed-methods study addressed this potential problem by exploring the impact of sound on learning, enjoyment, sense of presence, and the development of interest among museum attendees (N = 255) who used two different types of technology: high-immersion VR or a tablet. Results from a one-way MANOVA revealed that learning and sense of presence were unaffected by the technology used unless sound was added. Using a tablet with sound lowered the sense of presence. Participants in the VR condition with or without sound had significantly higher enjoyment scores than those in either tablet condition. The development of interest was not significantly affected by any condition, regardless of whether sound was used. The research findings have implications for implementing VR for learning in museum settings. For instance, VR can enhance a sense of presence in museum exhibits, but a sense of presence may be significantly diminished when museum visitors use tablets with sound. Additional recommendations for the use of multimodal VR in museums are provided.

STEM education is widely recognized as a powerful means of cultivating well-rounded future talent. However, challenges such as difficulties in observation, declining learning interests, and the lack of teaching resources present obstacles to the implementation of STEM education in China. Virtual Reality (VR), with its immersive, interactive, and imaginative capabilities, has the potential to enhance STEM learning by expanding the boundaries of the physical classroom. In light of these considerations and the fact that STEM activities frequently involve project-based learning (PBL), this research conducted a VR-integrated STEM PBL course entitled "Bird Feeder" at a primary school in Guangzhou. The main goal of this research was to investigate how the "VR + STEM" course affected students' comprehension of scientific knowledge, students' design and the acceptance of teacher and students. Twenty-seven Grade 6 students (aged 11-12) participated in the course which comprised four lessons. Two VR coursewares with specific content were developed and used as interventions during the course. Data was collected through pre- and post-tests of scientific knowledge, analysis of students' design drafts, observation of VR learning activities, and interviews. Results from the Wilcoxon matched-pairs signed-rank test (p = 0.000) and content analysis indicated that the "VR + STEM" course significantly improved students' understanding of scientific concepts, enhanced their design skills, and was well-received by both teachers and students. These findings suggest that VR-based STEM project in primary schools is both feasible and effective in addressing the challenges facing STEM education.

Immersive technology plays an increasingly important role in design education, supporting digital literacy and experiential learning in higher education, particularly in the post-COVID-19 context. Many design disciplines, such as Architecture and Landscape Design, which used to rely heavily on physical field trips, and dialogic studios as signature pedagogies, had to adapt to the proliferation of innovative educational technologies due to the suspension of face-to-face teaching and learning. Augmented reality and virtual reality are now extensively used in technology and design education to support a more interactive, collaborative, and student-centred approach to learning. This paper expands on a pilot research study on the transition from traditional signature pedagogies of studio-based design education to technology-enhanced collaborative learning to support experiential learning. Based on Kolb's experiential learning framework concerning four learning modes, namely, concrete experience (CE), reflective observation (RO), abstract conceptualisation (AC), and active experimentation (AE), this paper analyses data from 75 undergraduate students across four cohorts in three different higher education institutions in Hong Kong. They were surveyed on their experiences of synchronous hybrid virtual experiential learning with design and technology curricula. Furthermore, six students were interviewed about their experiences. The research findings confirm two research hypotheses showing that immersive experiential learning could constructively align RO and AE, thus bringing an overall positive impact on the experiential learning process, but shows no conclusive influence on promoting CE, especially AC. The quantitative findings and qualitative results gave new insights into the discussion of the theoretical and practical implications of the study.