Digital Technologies for Teaching for Allied Healthcare Students and Future Directions

Author(s):  
Roselyn Rose'Meyer ◽  
Indu Singh

Digital technologies are an integral component of the allied healthcare curricula, including dental technology, physiotherapy, pharmacy, nutrition, nursing, and laboratory medicine. Various digital technologies are implemented for the education of allied healthcare students. They have been used for curriculum design, engaging and facilitating the understanding of fundamental concepts in various disciplines, the development of active learning strategies, and designing critical thinking and clinical reasoning education. Online digital atlases and libraries provide flexible resources as study tools for students in the classroom and on industry placement. Adaptive digital learning, communication technologies, and virtual reality for teaching have become an essential component of the allied healthcare education. As students develop skills for their profession, the digital technologies have provided a platform for the documentation of their competencies and progress through industry placement, allowing academic staff to chart their progress and employers to assess the graduate competencies.

Author(s):  
Roselyn Rose'Meyer ◽  
Indu Singh

Digital technologies are an integral component of the allied healthcare curricula, including dental technology, physiotherapy, pharmacy, nutrition, nursing, and laboratory medicine. Various digital technologies are implemented for the education of allied healthcare students. They have been used for curriculum design, engaging and facilitating the understanding of fundamental concepts in various disciplines, the development of active learning strategies, and designing critical thinking and clinical reasoning education. Online digital atlases and libraries provide flexible resources as study tools for students in the classroom and on industry placement. Adaptive digital learning, communication technologies, and virtual reality for teaching have become an essential component of the allied healthcare education. As students develop skills for their profession, the digital technologies have provided a platform for the documentation of their competencies and progress through industry placement, allowing academic staff to chart their progress and employers to assess the graduate competencies.


Author(s):  
Sandra Raquel Gonçalves Fernandes ◽  
Paula Morais ◽  
Diana Mesquita ◽  
Marta Abelha ◽  
Sara Fernandes ◽  
...  

This paper presents part of the change process carried out at the Portucalense University (UPT), Portugal, aimed at promoting student centred teaching and learning. To attain this goal, the Centre for Excellence in Teaching (CET) was created to support academic staff in the achievement of this outcome. The objectives of the CET are to promote pedagogic training sessions for academic staff, to develop pedagogical resources and publications and to create a website for the dissemination of best practices and for the recognition of teaching quality at UPT. The preliminary results of the implementation of the activities developed by the CET reveal a positive participation and involvement of academic staff. Teachers showed interest in developing active learning strategies and openness to change their teaching practices. Some examples of the activities implemented by teachers, in the first semester of 2017/2018, are briefly presemted in this paper.


Kybernetes ◽  
2019 ◽  
Vol 48 (7) ◽  
pp. 1478-1499
Author(s):  
Álvaro Hernán Galvis ◽  
Angélica Avalo ◽  
Alexandra Ramírez ◽  
Diana Carolina Cortés ◽  
Helmman Cantor

Purpose The REDINGE2 – Reengineering Engineering Teaching, version 2 – project seeks to transform engineering education practices at the University of los Andes (UNIANDES) by using technology-based active learning strategies in courses from different disciplines that are to be reformed using a Big-ideas approach. Studies from this two-year project (2017-2018) seek to solve three main questions: What changes in engineering teaching conceptions, methods, tools and practices could be generated by reengineering courses using a Big-ideas approach? What changes in key conditions of learning environments have the students perceived in courses that use a Big-ideas approach? What lessons can be derived from the initial studies of REDINGE2’s pilot experiences? Design/methodology/approach The REDINGE2 project was conceived as a technology-based educational transformation initiative. It is the Faculty of Engineering at UNIANDES’ explicit intention to move engineering teaching from being content-focused to being big-ideas focused. It also wants to migrate from teacher-centered teaching strategies to student- and group-centered approaches. Additionally, this project intends to enrich engineering education ecologies with digital resources by integrating experiential, flexible and collaborative digital learning environments with traditional classroom/workshop/library/home/work learning settings. To promote this organic change, the project implemented a facilitation-from-the side strategy, which redesigned 14 engineering courses: each was given a two-year grant from the Office of the Dean of Engineering to rethink teaching practices and redesign the course. A cybernetic evaluation system was embedded in the life cycle of the transformation process that could support decision-making through each of the project’s stages (Stufflebeam, 1971). Questions of interest in this study are provided with information using triangulation of data at different times during each course’s redesign process. Findings After a year and half of the two-year REDINGE2 project (2017-2018), it is possible to say the following three research questions are fully solved. Concerning Question #1: What changes in engineering teaching conceptions, methods, tools and practices contribute to reengineering courses when using a Big-ideas approach? Participating teaching staff have demonstrated changes in their teaching conceptions, methods and resources, which can be attributed to their exposure to active-learning strategies supported by digital technologies. In fact, each one has redesigned and pilot tested at least one restructured learning unit for one of their courses according to the proposed Big-ideas approach; in addition, most admit to already having adjusted their teaching practices by changing their mindset regarding learning and how to promote it. Concerning Question #2: What changes in key conditions of learning environments have the students perceived in courses that have been redesigned using a Big-ideas approach? Data collected from students and participating staff members, both before the redesign and throughout this process, have provided teachers and students with feedback concerning perceived changes in learning environments. This has had positive results and provided opportunities for improvement. Concerning Question #3: What lessons can be derived from REDINGE2’s pilot experiences? Lessons from this project are multi-dimensional and there are organizational, pedagogic, technological and cultural considerations. A decalogue of critical success factors was established, which considered the things that must go right to successfully accomplish proposed educational transformations. Research limitations/implications This study is a good case of educational transformations in engineering teaching. No generalizations should be made, but it shows that similar processes of planned change can be made in tertiary science, math, engineering and technology (SMET) education. Practical implications The lessons learned from this experience are very valuable for higher education decision-makers who want to innovate by using learning ecologies in their institutions. In addition, theoretical considerations that illuminate the innovation process become very useful to help provide a foundation to similar interventions. Originality/value A non-conventional approach to integrate digital technologies in higher education teaching is the most significant contribution this experience has made. Its focus has been to transform educational practices with pedagogically sound uses of digital technologies instead of just integrating technologies in current SMET teaching practices. Facilitation-from-the-side and embedded cybernetic evaluation through the transformation process are key ideas that add value to organic change processes.


2019 ◽  
Vol 049 (01) ◽  
Author(s):  
Linda Strubbe ◽  
Jared Stang ◽  
Tara Holland ◽  
Sarah Bean Sherman ◽  
Warren Code

Author(s):  
Glenda Hawley ◽  
Anthony Tuckett

Purpose: This study aims to offer guidance to lecturers and undergraduate midwifery students in using reflective practice and to offer a roadmap for academic staff accompanying undergraduate midwifery students on international clinical placements. Design: Drawing on reflection within the Constructivist Theory, the Gibbs Reflective Cycle (GRC) provides opportunities to review experiences and share new knowledge by working through five stages—feelings, evaluation, analysis, conclusion and action plan. Findings:  The reflections of the midwifery students in this study provide insight into expectations prior to leaving for international placement, practical aspects of what local knowledge is beneficial, necessary teaching and learning strategies and the students’ cultural awareness growth. Implications: The analysis and a reflective approach have wider implications for universities seeking to improve preparations when embarking on an international clinical placement. It can also inform practices that utilise reflection as an impetus to shape midwifery students to be more receptive to global health care issues. 


2019 ◽  
Author(s):  
Kalyca N. Spinler ◽  
◽  
René A. Shroat-Lewis ◽  
Michael T. DeAngelis

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