INTEGRATION OF SIMULATION TECHNOLOGIES INTO PRACTICAL TEACHING OF HISTOLOGY, CYTOLOGY, AND EMBRYOLOGY OF BSMU

The article examines the implementation of a simulation-based approach in the educational process during the practical training stage of students in the disciplines of histology, cytology, and embryology. Emphasis is placed on the advantages of using simulation technologies for the development of clinical thinking, visualization of microstructures, and enhancement of practical skills. The effectiveness of simulation-based learning is analyzed in comparison with traditional teaching methods. The simulation approach contributes to improving the quality of material assimilation, increasing student engagement in the learning process, and enhancing their readiness for future professional activity.Purpose. To analyze the simulation approach and technologies in teaching at the Department of Histology, Cytology and Embryology of BSMU.Material and methods. The introduction of simulation technologies in teaching at the Department of Histology, Cytology and Embryology of the BSMU is due not only to the development of digital technologies, but also to the need to increase the level of material mastery and the development of practical skills among students of the specialty «Medicine» and the creation of educational and methodological materials for teaching at the department.Results. The application of the simulation-based approach in the Department of Histology during practical classes has enabled a deeper understanding of the educational material. As a result, students have improved their assimilation of the morphological features of cells and tissues through visualization and interactive work with virtual specimens. Additionally, this has contributed to the development of clinical thinking. The integration of clinical test tasks into practical sessions allowed students to link morphological characteristics with clinical data and enhanced their preparation for the licensing exam KROK 1. Involving students in scientific activities using 3D modeling, digital specimens, and the availability of high-quality educational content through digital online platforms during scientific club meetings—with free access to a vast collection of high-quality histological images—helps increase students’ interest and motivation in learning.Conclusions. The application of a simulation-based approach in histology education significantly enhances the quality of the learning process, as it promotes better material retention, the development of analytical thinking, and practical skills in using modern digital technologies. This approach enables the modeling of real-life scenarios in a safe educational environment, creating favorable conditions for a deeper understanding of morphological processes and the pathogenesis of diseases at the cellular level. The integration of simulation technologies into histology training is a necessary educational trend that aligns with current demands for the preparation of future healthcare professionals. Interactive digital platforms greatly improve access to learning materials, particularly histological slides, allowing students to independently engage with virtual specimens at a convenient time and pace. Moreover, the simulation-based approach encourages active student participation in the learning process, fosters a responsible attitude toward professional training, and facilitates the acquisition of essential clinical and diagnostic competencies required for future medical practice.