A Classroom, a Question and a Turning Point in Learning

#snsinstitutions

#snsdesignthinkers

#designthinking

It started with a simple observation in the classroom.

Despite learning electrical machines, circuits, and energy conversion concepts, many second-year Electrical and Electronics Engineering (EEE) students of SNS College of Technology (SNSCT) were asking the same unspoken question:

“How does all this actually work in real life?”

Instead of answering it on the board, we decided to answer it on the workbench.

🧠 Step 1: Seeing Through the Students’ Eyes

When students first encounter core EEE concepts, the gap between theory and practice can feel overwhelming. Wires, motors, switches, and power sources remain abstract until they are physically handled. Recognizing this, the classroom was transformed into a space where curiosity was encouraged and mistakes were allowed.

✍️ Step 2: Defining the Real Challenge

The task was not to “finish an experiment” or “score marks.” The challenge was framed differently:

Can you design and build a simple, low-cost working model that clearly demonstrates an electrical principle using the resources available to you?

Suddenly, the room became quieter—not from confusion, but from thinking.

💡 Step 3: Ideas Take Shape

Small groups formed. Sketches appeared on paper. Discussions began—Which motor? How do we mount it? Where should the switch go? For the second-year EEE students of SNSCT, this was their first experience of thinking like engineers rather than learners.

🛠️ Step 4: Learning by Building

The images tell the rest of the story.

Motors were mounted, fan blades aligned, wires connected, and power sources tested. Some setups worked instantly. Others didn’t. There were loose connections, imbalance, and unexpected stops—but each issue became a lesson that no textbook could teach.

What emerged were simple yet meaningful prototypes—built entirely by students, reflecting their understanding, creativity, and teamwork.

🔄 Step 5: Test, Reflect, Improve

Students tested their models, explained them to peers, received feedback, and refined their designs. Confidence grew with every successful rotation of a motor and every glowing LED.

More importantly, something changed:

• Hands that once hesitated now connected wires confidently
• Questions became deeper
• Learning became visible

🌱 What This Experience Taught Us

This activity was not just about motors or circuits. It was about: ✔ Thinking through problems ✔ Collaborating under constraints ✔ Learning from failure ✔ Applying theory with purpose

🚀 The Bigger Picture

When design thinking meets hands-on learning, classrooms become innovation spaces. Introducing such experiences early—especially in the second year of EEE—helps students build a strong foundation for advanced courses, internships, and industry challenges.

📌 Sometimes, the most powerful learning moment begins when a student switches on a circuit—and something finally clicks.