Simulation-based Learning

This study primarily aims to evaluate the impact of a 12-week peer role-play simulation model on the professional development of undergraduate physiotherapy students. Unlike traditional teacher-led case discussions, this study explores the effect of active participation in clinical scenarios, in which students alternate between the roles of 'clinician' and 'patient', on their academic achievement, self-efficacy and perceived clinical readiness. Specifically, the study aims to determine whether this interactive, low-cost pedagogical approach is a superior alternative to conventional lecture-based methods for preparing students for real-world clinical environments, particularly in high-enrolment academic settings.

This study examines whether physical therapy faculty can reliably and feasibly use the Lasater Clinical Judgment Rubric adapted for physical therapy (LCJR-PT) to score students' clinical judgment during a recorded simulation experience. Multiple trained faculty raters will independently score the same student videos, and the level of agreement between raters will be measured. Faculty will also report how long scoring takes and their perceptions of the rubric's usefulness.

The responsibility for the management of pressure injuries belongs to nurses; the development of pressure injuries indicates that nursing care is not adequate. Pressure injury management should be addressed starting from undergraduate education in line with current guidelines. However, programs in which traditional education methods are used in pressure injury management are insufficient. Therefore, pressure injuries should be addressed with a structured simulation practice integrated with advanced technological methods. Any study using mixed reality in pressure injury management was not found in the literature. There is a study using augmented reality with a smartphone to measure wounds and a study examining the effectiveness of augmented reality in leg ulcer care. The use of mixed reality simulation in pressure injury management is one of the unique values of the project. Within the scope of the project, anchoring and monitoring physical objects in all application steps in pressure injury management and creating a digital twin is the most important original value of this project, which is that the student is immersed in the virtual reality environment in real-time and experiences all the processes physically-haptically. The digital twin-haptic integrated mixed reality simulation proposed in this project will contribute to the pressure injury literature and education by increasing the retention of information in memory and providing a realistic experience to the student, as it appeals to both visual, auditory, and tactile senses. The main aim of this project is to develop a digital twin-haptic integrated mixed reality simulation in pressure injury management and to compare the effect of the developed digital twin-haptic integrated mixed reality simulation and the high reality simulation in the institutional infrastructure on the students' knowledge level, skill performance, perceived learning level, satisfaction, and confidence level in learning. The project is planned as a randomized and comparative type and will last 24 months. A total of 130 second-year nursing undergraduate students will be stratified and randomized into the digital twin-haptic integrated mixed reality simulation and high-fidelity simulation groups based on their course grades and gender. Data will be collected using tests and scales. In terms of project management, the project has been handled in four phases with six work packages; in the first preparation phase, validity and reliability studies of the data collection tools, scenarios, and theoretical training module developed by the project team will be carried out, and participant randomization will be carried out. In the second phase, simulation laboratories will be prepared. In the third stage, the mixed-reality simulation software will be created and tested. In the last stage, pre-test application, training with the theoretical training module, simulation application, post-test, and follow-up will be carried out. Data will be analyzed using SPSS®23. All work to be carried out within the scope of the project is defined concretely and according to the workflow, and who/s will carry out each work is defined according to the field of expertise. All possible risks that may be encountered during the project have been foreseen, and measures for risk management have been prepared as Plan B. Within the scope of the project, importance was given to the use of the facilities, infrastructure, and equipment available in the institution. Within the scope of the project, the digital twin-haptic integrated mixed reality simulation will be developed entirely with national resources and registered. The mixed reality simulation software will be commercialized for educational purposes. In addition, with the use of the digital twin-haptic integrated mixed reality simulation program in the management of pressure injury, the quality of education in the field of health will increase, and the IT infrastructure of the training curricula will be supported, and a standard will be provided throughout the country, thus creating a sufficient and qualified workforce in this field. As a result of this qualified training, it is predicted that pressure injury rates will decrease and patient safety will increase in the long term. With the mixed reality simulation program, the leadership power of our country in the international arena, its potential, and recognition in the field of education and technology will be increased.

Simulation is a cornerstone of health sciences education, with debriefing being its most critical component for fostering clinical skills. While various debriefing styles exist, there is limited evidence comparing the effectiveness of instructor-centered (ICT) versus learner-centered (LCT) approaches, specifically on the development of clinical judgment in nursing students.