Abstract:

In an increasingly globalized and interconnected context, education in Biomedical Engineering calls for pedagogical models that integrate internationalization, methodological innovation, and competency-based learning. The educational initiative presented here is structured as a hybrid model that combines an initial on-campus phase — including courses delivered entirely in English — with a progressively international academic pathway. This initial stage enables students to consolidate fundamental scientific and technical knowledge while becoming familiar with international academic standards and professional communication practices.

As students advance through the program, face-to-face instruction is complemented by virtual courses taught by internationally recognized faculty members with expertise in key areas such as biomechanics, advanced biosensor technologies, and multimodal bioimaging. Their contribution ensures alignment with current research developments, introduces diverse scientific perspectives, and exposes students to different academic cultures and innovation ecosystems, thereby strengthening academic rigor and broadening students’ professional outlook.

Methodologically, the model combines structured lecture-based sessions with active learning strategies that emphasize collaboration and applied problem-solving. Virtual classes incorporate digital platforms that support online teamwork through breakout rooms, where students work in small groups on guided activities such as solving technical challenges, designing biomedical devices, and critically discussing recent scientific literature. In addition, each module integrates case-based learning grounded in authentic Biomedical Engineering scenarios, addressed through both synchronous discussion and asynchronous assignments, fostering deeper conceptual understanding and continuity of engagement.

To evaluate the effectiveness of the program, a mixed-methods approach was implemented, combining quantitative and qualitative data. Student performance was assessed through continuous evaluation, including project-based assignments and case study analyses, while learning outcomes and competency development were measured through pre- and post-course surveys and standardized rubrics. In addition, student satisfaction and perceived skill acquisition were collected through structured feedback questionnaires.

The results indicate a high level of student engagement and satisfaction, together with measurable improvements in both technical competencies and transversal skills such as teamwork, communication, and critical thinking. Students particularly valued the international dimension of the program and the opportunity to collaborate in multicultural environments. These findings support the effectiveness of the proposed model in enhancing both academic and professional preparedness.

During the fourth year, the program transitions to a fully remote and asynchronous format, enabling students to complete their Final Year Project from any geographical location and facilitating participation in international research groups, clinical collaborations, or industry-based projects. Overall, the model promotes intercultural exchange, digital competence development, and the acquisition of global professional skills, responding to the evolving demands of Biomedical Engineering education.

Keywords:

Virtual education, hybrid model, biomedical engineering, internationalization.