by: the Coordinator of the Engineering Education, FKJ

Credit to:
AP. Ts. Dr. Mohd Kamaruddin bin Abd Hamid (Deputy Dean - Academics & International, FKJ)

Introduction to UMS-ALIEN: Engineering Education for the 4IR

The UMS Active Learning in Engineering Education (UMS-ALIEN) framework is a flagship 10-level initiative spearheaded by the Faculty of Engineering at Universiti Malaysia Sabah. It is specifically designed to transform technical education by integrating Active, Blended, and Cooperative learning strategies. By aligning these methods, UMS-ALIEN ensures that engineering students are not just passive recipients of information but active participants in their professional development.

The Strategic Shift: From Lectures to Technology-Enhanced Active Learning (TEAL)

In response to the rapid advancements of the Fourth Industrial Revolution (4IR), UMS-ALIEN facilitates a critical pedagogical shift:

• Moving Beyond Traditional Lectures: The "talk-and-chalk" method is no longer sufficient for the complexities of modern engineering. Traditional methods often result in surface-level memorization rather than the deep, conceptual understanding required to solve real-world problems.

• Embracing Active Learning (AL): AL places students at the center of the classroom, encouraging them to engage in hands-on problem-solving, peer discussions, and collaborative projects. This fosters the critical thinking and teamwork skills essential for 4IR.

• Integrating Technology-Enhanced Active Learning (TEAL): TEAL leverages digital tools, such as process simulation software (e.g., Aspen HYSYS) and programming environments (e.g., MATLAB), to create immersive learning experiences. However, UMS-ALIEN goes a step further by ensuring technology is used purposefully. Through the TPACK-SOLO integration, the focus shifts from simply "knowing how to use software" to using technology as a vehicle for higher-order cognitive mastery.

This evolution ensures that UMS graduates are not only technically proficient but also highly adaptive, innovative, and ready to lead in a technology-driven global landscape.

The Challenge: Addressing the "Pedagogical Risk" in 4IR Engineering

As engineering education increasingly integrates sophisticated software, from Aspen HYSYS for process simulation to MATLAB for complex calculations, a significant "pedagogical risk" has emerged. At the Faculty of Engineering, UMS, we have identified a growing gap between Procedural Proficiency and Cognitive Depth.

The "Button-Pushing" Trap

Many students demonstrate high levels of "software fluency," meaning they can navigate complex interfaces, execute correct sequences of commands, and produce accurate technical outputs. However, when asked why a specific result occurred or how it relates to fundamental thermodynamic or fluid mechanic principles, a disconnect often appears.

This is the core of the pedagogical risk: students may excel at the technical "how" while struggling with the theoretical "why“.

Bridging the Gap: From Steps to Systems

In the context of the 4IR, being a "user" of technology is not enough; engineers must be "masters" of the logic behind the tools. The UMS-ALIEN initiative addresses this risk by:

• Identifying Surface-Level Learning: Recognizing when students are merely following a "recipe" without understanding the ingredients.

• Demanding Explanatory Power: Shifting assessment criteria from just the "final answer" to the student's ability to interpret data through the lens of engineering theory.

• Integrating TPACK-SOLO: By using the SOLO taxonomy, educators can specifically design tasks that move students from Unistructural (simple software steps) to Extended Abstract (generalized theoretical mastery).

By acknowledging this risk, UMS ensures that our future engineers are not just operators of software, but innovative thinkers capable of high-level problem-solving and theoretical synthesis.