The journey to becoming an engineer often begins long before university applications are submitted. For me, it started long before I even knew what engineering was.
I remember spending hours as a child designing elaborate houses on Microsoft Paint, carefully planning every detail. Later, I joined a robotics club, where I discovered my passion for problem-solving, the very heart of engineering. At the time, I didn’t realize it, but those early experiences were shaping not only my career choices, but also the confidence and skills I would need to succeed.
Learning Engineering Through Failure
I still remember designing my first house on Microsoft Paint. The result looked nothing like what I had imagined. The proportions were wrong. The design didn’t make sense. I almost gave up.
But something made me try again.
Each attempt taught me something new. I didn’t realize it then, but I was learning my first engineering lesson: failure isn’t the end — it’s feedback.
Children often feel discouraged when something doesn’t work the way they imagined. Engineering changes that perspective. When a structure collapses or a design fails, it becomes a clue about what needs adjustment, not a reason to quit. Students begin asking, “Why didn’t this work?” instead of saying, “I can’t do this.”
The engineering process teaches that mistakes aren’t endpoints, they are information. When students redesign something, whether it’s a digital house, a bridge made of popsicle sticks or a robot, they are practicing real-world problem-solving. Improvement happens step by step, through trial and error.
And perhaps most importantly, they learn that the best solutions rarely come on the first try and that’s okay.
Curiosity as the Foundation of Engineering
Research consistently shows that interest in STEM fields develops during childhood and early adolescence. During these formative years, young minds are naturally curious about how things work. When that curiosity is nurtured through science experiments, construction toys, robotics, or coding projects, it can grow into a genuine passion for engineering.
Think about the child who spends hours playing with LEGOs not just following instructions but creating original designs. What looks like simple play is an introduction to structural integrity, spatial reasoning, interactive design, and problem-solving.
These early experiences make engineering concepts feel intuitive rather than intimidating later in life.
Making Engineering Feel Accessible
One of the greatest barriers to pursuing engineering is the perception that it is an exclusive field reserved for the exceptionally gifted. Early exposure helps break that myth.
When children see engineering as something tangible, something they can build, test, and improve it stops being an abstract profession and becomes an engaging challenge. School programs that incorporate engineering tasks transform it from an intimidating career path into a puzzle waiting to be solved.
Students learn that engineering is not about having all the answers immediately. It is about asking questions, testing ideas, and learning from failure.
And that shift in mindset changes everything.
However, not everyone has the same opportunities to explore engineering early on.
Some schools have robotics labs, 3D printers, and coding classes. Others struggle to maintain basic science equipment. This creates an unfair advantage that begins long before students apply to university.
There is also a cultural dimension. Boys are often encouraged toward technical activities from a young age, while girls may be guided in different directions. By high school, many students have already decided whether engineering is “for people like them” and that decision is often based more on exposure than on ability.
The encouraging news is that this gap can be addressed. Community programs, maker spaces, and outreach initiatives are expanding access. Organizations like LIMAK are helping ensure that girls with talent and ambition can explore engineering, regardless of their background.
Access matters. Representation matters. Encouragement matters.
Discovering the Many Faces of Engineering
Early exposure also helps students understand that engineering is not just about bridges and cars.
Hands-on projects reveal their true diversity: biomedical devices that save lives, environmental solutions addressing climate change, digital platforms connecting billions of people, and infrastructure that keeps entire cities functioning.
When students work on challenges that solve real problems, engineering becomes meaningful. Designing assistive technology for people with disabilities, for example, shows that engineering is not only about structures and systems but about improving lives.
For young people who want their careers to have purpose, that realization can be transformative.
Engineering Beyond School Walls
Not all-important learning happens in classrooms.
Many engineers trace their interest back to unexpected moments: helping a parent fix something at home, watching documentaries about how things work, or having someone patient enough to answer their endless “why” questions.
These informal experiences are powerful because they are driven by curiosity, not grades. A teenager who learns to code to build their own video game is developing the same sometimes even stronger problem-solving skills as someone in a formal computer science class.
Self-driven exploration builds both competence and confidence.
The path to engineering is rarely a single decision made at eighteen. It is built through small moments that make engineering feel approachable, interesting, and worth pursuing.
Whether through structured programs or experimenting at home, early experiences shape how young people see their potential.
We must ensure that every child has access to these opportunities hands-on experiences, encouragement to ask questions, and clear examples of how engineering improves the world.
Because the engineer who will one day design sustainable cities or develop life-saving medical technology might be the child right now taking apart a toaster just to see what’s inside.
Let’s give them the space to keep exploring.