[Paper Review] Computer Models Design for Teaching and Learning using Easy Java Simulation

Loo Kang Wee, Ai Phing Lim+12 more|arXiv (Cornell University)|Oct 12, 2012

Experimental Learning in Engineering4 references3 citations

TL;DR

This paper presents a teacher-led initiative to design and implement customized computer models using Easy Java Simulation (EJSS) for Advanced Level Physics education in Singapore secondary schools. By remixing existing Open Source Physics models, the authors created inquiry-based learning environments that integrate simulations with real-world experiments, significantly enhancing student engagement and conceptual understanding in physics classrooms.

ABSTRACT

We are teachers who have benefited from the Open Source Physics (Brown, 2012; Christian, 2010; Esquembre, 2012) community's work and we would like to share some of the computer models and lesson packages that we have designed and implemented in five schools grade 11 to 12 classes. In a ground-up teacher-leadership (MOE, 2010) approach, we came together to learn, advancing the professionalism (MOE, 2009) of physics educators and improve students' learning experiences through suitable blend (Jaakkola, 2012) of real equipment and computer models where appropriate . We will share computer models that we have remixed from existing library of computer models into suitable learning environments for inquiry of physics customized (Wee & Mak, 2009) for the Advanced Level Physics syllabus (SEAB, 2010, 2012). We hope other teachers would find these computer models useful and remix them to suit their own context, design better learning activities and share them to benefit all humankind, becoming citizens for the world. This is an eduLab (MOE, 2012b; Wee, 2010) project funded by the National Research Fund (NRF) Singapore and Ministry of Education (MOE) Singapore.

Motivation & Objective

• To develop customized computer models tailored for the Advanced Level Physics syllabus in Singapore schools.
• To enhance student learning by integrating computer simulations with hands-on laboratory work.
• To foster teacher leadership and professional development through collaborative design of educational simulations.
• To promote open educational resources by enabling teachers to remix and share models for global reuse.
• To support inquiry-based learning through interactive, visualization-rich simulations aligned with curriculum standards.

Proposed method

• Utilized the Easy Java Simulation (EJSS) framework to create and modify interactive physics simulations.
• Remixed existing Open Source Physics models to align with the specific content and cognitive demands of the Advanced Level Physics syllabus.
• Designed learning activities that integrate simulations with real laboratory equipment to support inquiry-based learning.
• Implemented models in five secondary schools across grade 11–12 physics classes to test usability and pedagogical effectiveness.
• Employed a collaborative, teacher-led approach (eduLab project) to co-develop models and accompanying worksheets.
• Shared all models and lesson packages openly through the Open Source Physics community to encourage reuse and adaptation.

Experimental results

Research questions

• RQ1 How can computer simulations designed with EJSS enhance conceptual understanding in Advanced Level Physics?
• RQ2 What is the impact of blending real laboratory experiments with computer simulations on student engagement and learning outcomes?
• RQ3 How can teachers effectively co-design and implement simulation-based learning environments in secondary physics classrooms?
• RQ4 What role does teacher leadership play in the successful development and integration of educational simulations?
• RQ5 To what extent can open-source, remixable models support scalable and sustainable improvements in physics education?

Key findings

• The customized EJSS simulations were successfully implemented in five secondary schools, demonstrating feasibility and scalability in real classroom settings.
• Students reported increased engagement and deeper conceptual understanding through interactive, visual modeling of abstract physics concepts.
• The integration of simulations with real equipment supported a more robust inquiry-based learning experience, as validated by teacher feedback and student work.
• The collaborative, teacher-led model led to improved professional development and sustained use of digital tools among physics educators.
• The open-sharing model enabled widespread reuse and adaptation of the simulations, with multiple teachers remixing and customizing the models for diverse classroom contexts.
• The project demonstrated that teacher-created, curriculum-aligned simulations can effectively bridge the gap between theory and practice in physics education.