Enhancing Engineering Education through Laboratory Test Benches: A Pedagogical Framework for Global Knowledge Exchange

Enhancing Engineering Education through Laboratory Test Benches: A Pedagogical Framework for Global Knowledge Exchange
Authors
Sondes Skander-Mustapha

Universite de Tunis El Manar, Ecole Nationale d’Ingenieurs de Tunis, LR11ES15 Laboratoire de Systemes Electriques, 1002 Tunis; & Universite de Carthage, Ecole Nationale d’Architecture et d’Urbanisme, 2026 Sidi Bou Saïd (Tunisia)

Marwa Ben Said-Romdhane

Universite de Tunis El Manar, Ecole Nationale d’Ingenieurs de Tunis, LR11ES15 Laboratoire de Systemes Electriques, 1002 Tunis; & Universite de Gabès, Institut Superieur des Sciences Appliquées et de Technologie de Gabes, 6029 Gabes (Tunisia)

Publication Information

Journal Title: International Journal of Research and Innovation in Social Science (IJRISS)
Author(s): Mustapha,Sondes Skander;Romdhane,Marwa Ben Said
Published On: 03/10/2026
Volume: 9
Issue: 26
First Page: 9325
Last Page: 9334
ISSN: 2454-6186

Cite this Article Mustapha,Sondes Skander;Romdhane,Marwa Ben Said
,Enhancing Engineering Education through Laboratory Test Benches: A Pedagogical Framework for Global Knowledge Exchange, Volume 9 Issue 26, International Journal of Research and Innovation in Social Science (IJRISS),9325-9334, Published on 03/10/2026, Available at https://rsisinternational.org/journals/ijriss/view/enhancing-engineering-education-through-laboratory-test-benches-a-pedagogical-framework-for-global-knowledge-exchange

Abstract

Advances in renewable energy integration, smart grids, and power electronics have led to the development of sophisticated laboratory platforms, including grid emulators, microgrid test benches and digital twin models. Originally conceived for research purposes, these platforms also offer powerful tools for engineering education. This paper explores how research-grade test benches developed in our laboratory can be systematically integrated into engineering curricula to bridge the gap between theory, simulation, and experimental practice. By mapping each platform to specific curricular modules, such as power systems, renewable energy integration, control engineering, and optimization, we demonstrate their capacity to foster experiential learning and strengthen competencies in modeling, system analysis, and real-time implementation. Case examples illustrate how students can engage in project-based learning by designing controllers, analyzing grid fault responses, or optimizing microgrid performance using digital twin frameworks. Beyond enhancing local curricula, these platforms enable global knowledge exchange through open-source models, remote laboratory access, and international collaborative initiatives. This work contributes to educational research by showing how cutting-edge laboratory infrastructures can enrich pedagogy, cultivate practical engineering skills, and promote collaborative learning across borders.

Keywords:

Smart Grid Education, Laboratory-Based Learning

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