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Background Objectives Methods Results and Conclusions This paper examines the use of augmented reality (AR) as a concept‐association tool in schools, with the aim of enhancing primary school students' learning outcomes and engagement. Conflicting findings exist in previous studies regarding the cognitive load of AR‐enriched learning, with some reporting reduced load and others indicating increased demand and poorer performance. Understanding these implications is essential for effectively leveraging AR in education. The study offers a fresh perspective on the potential of AR technology in improving educational experiences.The primary goal of this research was to evaluate the effectiveness of an AR‐assisted concept‐association strategy for improving essential knowledge acquisition and skills outcomes, increasing cognitive load, and increasing self‐efficacy and learning motivation among primary school students.A quasi‐experimental design with a control group was employed to investigate the effectiveness of the intervention.The results demonstrate that the implementation of the AR‐assisted concept‐association strategy effectively enhanced essential knowledge acquisition and skills outcomes, increased cognitive load, and increased self‐efficacy and learning motivation among primary school students. These findings highlight the potential of AR technology to improve the learning experience and engagement of primary school students. The study contributes to the existing literature on the effectiveness of AR technology in education, suggesting future research directions. Ultimately, it offers a practical solution for improving the learning experience by presenting a new approach for teaching using AR technology. [ABSTRACT FROM AUTHOR]

Societal Impact Statement: Plant biology is an essential discipline for addressing global challenges from food security to climate change. In order to achieve this, we need to educate plant biologists who can contribute to research, enterprise, policy, public engagement and beyond. This article explores the potential of competency‐based education, which emphasises what students can do rather than what we know. A flexible and adaptable model of competency based plant biology education is presented, along with practical suggestions and examples. This provides a framework through which we can educate plant biologists equipped to address major scientific and societal challenges of the future. Summary: Plant biology is an essential discipline for addressing global challenges from food security to climate change. In order to achieve this we need to educate plant biologists who can contribute to research, enterprise, policy, public engagement and beyond. In this article, I explore some of the issues and challenges facing plant biology education from authentic research driven curricula to the impact of AI. In order to effectively educate the plant biologists of the future I propose moving to a competency based approach to education. Competency based education emphasises what students can do rather than what they know. I present a three‐domain competency model for plant biology, structured around (i) knowledge and information literacy (ii) disciplinary and professional experience and (iii) self‐awareness and personal development as three interdependent aspects of competency. I accompany this with twelve proposed competencies for plant biologists. The model is flexible, robust and adaptable to specific local requirements and future demands of plant biology education. In reimagining plant biology education in this way we can present our discipline as exciting and relevant to students, and equip them with the capabilities required to contribute to plant biology activity from research to public policy. [ABSTRACT FROM AUTHOR]

This study evaluated the use of interactive, branched videos compared with traditional passive linear delivery for enhancing student engagement and learning in online courses. Undergraduate biology students were provided with either branched decision‐based or linear videos on cell biology and protein purification as self‐guided or consolidation activities. While the interactive branched videos did not improve learning gains, thematic analysis revealed that students found them more enjoyable and preferable for revision. However, most students felt linear passive videos were more logically structured for core content delivery. In a revised format, with clearer scaffolding, the interactive branched videos were perceived as significantly more engaging and useful when utilised for a problem‐solving activity. Students welcomed the autonomy of directing their learning path but desired support to avoid missing critical information. Overall, thoughtfully designed branched videos can increase student motivation, but their utility depends on context. Our findings indicate the importance of balancing interactivity, clear organisation and purpose when incorporating these innovative formats into online learning. Branched videos show promise for increasing engagement but require intentional instructional design tailored to learning objectives. [ABSTRACT FROM AUTHOR]