209,769 research outputs found

    Digital badges for STEM learning in secondary contexts: A mixed methods study

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    The deficit in STEM skills is a matter of concern for national economies and a major focus for educational policy makers. The development of Information and Communications Technologies (ICT) has resulted in a rapidly changing workforce of global scale. In addition, ICT have fostered the growth of digital and mobile technologies which have been the learning context, formal and informal, for a generation of youth. The purpose of this study was to design an intervention based upon a competency-based, digitally-mediated, learning intervention: digital badges for learning STEM habits of mind and practices. Designed purposefully, digital badge learning trajectories and criteria can be flexible tools for scaffolding, measuring, and communicating the acquisition of knowledge, skills, or competencies. One of the most often discussed attributes of digital badges, is the ability of badges to motivate learners. However, the research base to support this claim is in its infancy; there is little empirical evidence. A skills-based digital badge intervention was designed to demonstrate mastery learning in key, age-appropriate, STEM competencies aligned with Next Generation Science Standards (NGSS) and other educational standards. A mixed methods approach was used to study the impact of a digital badge intervention in the sample middle and high school population. Among the findings were statistically significant measures which substantiate that in this student population, the digital badges increased perceived competence and motivated learners to persist at task

    Technology and Care to Promote Students\u27 Success

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    Join the Wally Cordes Teaching and Faculty Support Center for an informal conversation about teaching with the February Cordes Chairperson, Dr. Adnan Alrubaye. Alrubaye teaches courses in both the poultry science and biological sciences departments, and he serves as the associate director for the cell and molecular biology graduate program. He teaches multiple sections of the General Microbiology course, with courses sizes ranging between 30 and 400 students. Alrubaye’s topic will be about tools he uses to provide the best learning experiences for students to help them achieve their learning goals. His philosophy when it comes to working with students is to value their success as his own. He uses advanced teaching technologies to promote students\u27 learning and success that would apply to any course size. Alrubaye is widely recognized for his contributions to students and academic success. In recent years he has received the Dr. John and Lois Imhoff Award for Outstanding Teaching and Student Mentorship, the Fulbright College Master Teacher Award, the Collis Geren Award for Excellence in Graduate Education, the Hoyt H. Purvis Award for Service in International Education, the Golden Tusk award from the Division of Diversity, Equity, and Inclusion, and the U of A Most Outstanding Faculty Member from the Associated Student Government. He is a Senior DEI Fellow for International Support and a member of the Teaching Academy. The Wally Cordes Teaching and Faculty Support Center invites six outstanding teaching faculty each academic year to serve as Wally Cordes Chairs. Faculty are selected as Cordes Chairs because they embody the student-centered teaching excellence that late University Professor Emeritus Wally Cordes exhibited throughout his 40+ year UA career

    Mobile technologies: prospects for their use in learning in informal science settings

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    Recent developments in mobile technologies have offered the potential to support learners studying a variety of subjects. In this paper we explore the possibilities related to science learners and in particular focus on science learners in informal settings and reflect on a number of recent projects in order to consider the prospects for such work. The debate on informal learning acknowledges the complexity of the area and the difficulty of defining informal learning. One view is to consider the settings in which learning takes place as a continuum from formal settings, e.g. university, to social structures, e.g. friendship groups (Sefton-Green, 2004). The literature on science learning with mobile devices at this very 'informal' end of the spectrum is currently sparse and so in the paper we reflect on some projects and possibilities across the continuum. Our main focus is how mobile devices can support informal learning in science and research possibilities. Some of the recent research on mobile learning has used an activity theoretical perspective, including one of the case studies we discuss and in the final part of the paper we highlight the influence of activity theory in helping us to consider the complexity of the learning settings

    A case study for measuring informal learning in PLEs

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    The technological support for learning and teaching processes is constantly changing. Information and Communication Technologies (ICT) applied to education, cause changes that affect the way in which people learn. This application introduces new software systems and solutions to carry out teaching and learning activities. Connected to ICT application, the emergence of Web 2.0 and its use in learning contexts enables an online implementation of the student-centred learning paradigm. In addition, 2.0 trends provide “new” ways to exchange, making easier for informal learning to become patent. Given this context, open and user-centered learning environments are needed to integrate such kinds of tools and trends and are commonly described as Personal Learning Environments. Such environments coexist with the institutional learning management systems and they should interact and exchange information between them. This interaction would allow the assessment of what happens in the personal environment from the institutional side. This article describes a solution to make the interoperability possible between these systems. It is based on a set of interoperability scenarios and some components and communication channels. In order to test the solution it is implemented as a proof of concept and the scenarios are validated through several pilot experiences. In this article one of such scenarios and its evaluation experiment is described to conclude that functionalities from the institutional environments and the personal ones can be combined and it is possible to assess what happens in the activities based on them.Peer ReviewedPostprint (published version

    Innovation in Mobile Learning: A European Perspective

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    In the evolving landscape of mobile learning, European researchers have conducted significant mobile learning projects, representing a distinct perspective on mobile learning research and development. Our paper aims to explore how these projects have arisen, showing the driving forces of European innovation in mobile learning. We propose context as a central construct in mobile learning and examine theories of learning for the mobile world, based on physical, technological, conceptual, social and temporal mobility. We also examine the impacts of mobile learning research on educational practices and the implications for policy. Throughout, we identify lessons learnt from European experiences to date

    Human Factors and Innovation with Mobile Devices

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    Advancements in technology are a significant driving force in educational innovation, but a strong focus on technology means that human aspects and implications may not be given the attention they deserve. This chapter examines usability issues surrounding the use of mobile devices in learning. A key aim is to empower educators and learners to take control of personal devices and realise their potential in relation to teaching and learning. The background section reviews the development of usability studies and explores why mobile device usability presents specific new challenges. The impact of changing requirements in education, and new visions for ways of thinking and competences that learners should be acquiring, are also examined. Finally, the chapter provides a set of concepts that can inform conversations between educators and learners, mobile system engineers, developers, support staff, and others
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