The World Pendulum project is a European capacity-building project, supported by Erasmus+, and aims to enhance engineering education through international collaboration. It connects institutions from Europe and South America to improve curricula, research, and industry linkages, promoting global cooperation in science and technology.At the core of this initiative is the Pendulum Network, a collaborative framework, and an innovative e-lab hosted by Instituto Superior Técnico (Lisbon, Portugal). The World Pendulum Project consists of a network of remote-controlled pendulums located at universities across the globe. These pendulums are used to study gravity on earth, mechanical energy conservation, oscillatory motion, and other physical phenomena by collecting and sharing experimental data in real time. Through this remote-controlled laboratory, students and researchers can observe how gravitational differences affect the pendulum period at various geographical locations, highlighting the latitude dependence and making complex scientific concepts more accessible and tangible.
The elab platform allows students and faculty from different universities to participate in shared experiments, analyse data, and compare results, fostering international scientific cooperation. The network not only enhances learning but also promotes collaboration in research between partner institutions, further advancing the field of engineering education.
The project involves European institutions such as Instituto Superior Técnico (Portugal), UPC (Spain), Centrale Marseille (France), and Czech Technical University. South American partners include PUC Rio, UESC, and UnB (Brazil), UTP and USMA (Panama), Universidade de Chile and UTFSM (Chile), UniAndes, and UNAD (Colombia). These universities collaborate to strengthen their engineering programs and promote the internationalization of their academic offerings.
A significant component of the project is the exchange of expertise. European partners share knowledge in advanced teaching methods, research practices, and institutional management with their South American counterparts. The collaboration has led to the development of Blueprints, Guidelines for Curricular Reform, and MOOCs. These deliverables aim to improve the quality of engineering education by providing tools that can be applied across different institutions.
By promoting the internationalization of engineering curricula, the project helps graduates acquire the skills needed to address global challenges such as sustainability and technological innovation. The World Pendulum Project, supported by the eLab infrastructure, plays a central role in this initiative by engaging students in hands-on physics experiments. While pendulum systems may appear simple, they offer insights into fundamental physical laws, such as gravity and motion, that have broader implications in engineering. This practical experience bridges the gap between theoretical knowledge and real-world application, making the learning process more effective and engaging.
Moreover, the project strengthens institutional capacity by helping universities develop international collaboration strategies and improve their academic frameworks.
In conclusion, this European capacity-building project demonstrates the value of international collaboration in engineering education. Through the World Pendulum Network, the initiative enhances academic programs, strengthens research capabilities, and builds lasting partnerships between Europe and South America. This collaboration serves as a model for future projects, illustrating how cross-border cooperation can drive innovation and create sustainable educational frameworks that benefit both students and institutions.