Not "To Become a Programmer." Why Engineering Thinking Is Important for Children Right Now
When parents bring their child to programming courses, they often explain their motivation in the same way: "I want them to have a good profession in the future."
When parents bring their child to programming courses, they often explain their motivation in the same way: "I want them to have a good profession in the future." This is an understandable and perfectly natural reason. The modern world is indeed changing rapidly, and technology is becoming a part of virtually every professional environment.
But in children's education, the question of a future profession is actually not the main focus. More importantly, at an early age, education shouldn't be built around the idea of "preparing a child for the labor market" as early as possible. Childhood is primarily a period of developing ways of thinking, attitudes toward complexity, the ability to analyze, explore, and build cause-and-effect relationships.
That's why we increasingly talk not so much about programming as a profession, but about engineering thinking as a fundamental intellectual skill that is gradually becoming important in almost every area of life.
The Paradox: AI Writes Code, But Programmers Are Needed More Than Ever
Something unexpected happened in 2025. According to research by the Stanford Digital Economy Lab, employment among young developers aged 22–25 dropped by nearly 20% compared to the peak in 2022. AI tools have become so good at writing routine code that the demand for people doing exactly that has indeed decreased. At first glance, this seems like an argument against teaching programming. Why teach a child something that a machine will soon do?
But here's the interesting part. The same research records a sharp increase in demand for people who know how to manage AI tools, set tasks for them, check their logic, find errors in automatically generated code, and make decisions when the algorithm gets stuck. According to BCG, in the next two to three years, 50–55% of jobs in the U.S. will be significantly changed by AI — and most of them won't disappear but will require a new kind of thinking. This kind of thinking is called engineering thinking. And it's not about programming language syntax.
What Engineering Thinking Really Means
Engineering thinking is a way of perceiving any problem as a task that has structure, causes, and a solution. A child with engineering thinking, when faced with a difficulty, doesn't say "I don't know." They ask: "What exactly isn't working? Why? What will change if I try it this way?" They know how to break a big, confusing task into small, understandable steps. They are used to testing their hypotheses rather than guessing the answer.
Engineering thinking rarely reveals itself as early knowledge of complex terms or a love of formulas. Much more often, it can be seen in everyday situations — in how a child interacts with complexity, responds to unfamiliar tasks, and tries to figure out how the world around them works.
For example, a lot can be noticed in a child's free play. One child will use a toy only for its direct purpose: a plane just flies, a car just rolls. Another will start experimenting with the very system of the game. Their plane might suddenly turn into a slingshot, part of a complex mechanism, or even the source of movement for another construction. At that moment, the child becomes interested not in the object itself, but in discovering new ways to interact with it.
Similar traits also show up in role-playing games. Suppose an adult invites a child to "play café" but doesn't provide a ready set of toys. For one child, this will be a dead end: "We don't have a kitchen." Another will start finding solutions within the environment — using boxes as a stove, books as menus, a chair as a cash register. This ability to rearrange the environment to suit the task and build a system from limited resources is very closely linked to the development of engineering thinking.
It's also useful to pay attention to how a child interacts with sequential processes in everyday life — during cooking, for instance. Some children simply mechanically repeat an adult's actions. Others start asking questions: why are ingredients added in this order, what will happen if a step is skipped, why did the dough turn out too thick? Such curiosity about the internal logic of a process is a very important sign of developing analytical thinking.
Why Now, Not "Later"
A child's brain has a unique property that neuroscientists call neuroplasticity. Until about age 12, neural connections form much more easily and quickly than in adults. Thinking patterns acquired during this period become foundational — they're not just memorized, they become embedded in the way a person thinks by default.
This means a child who from ages 7–8 is used to breaking a problem into parts, looking for patterns, and testing solutions will by age 15 do this automatically — in school, in communication, in any area of life. For an adult who has never trained this way of thinking, mastering it is much harder. That's why we say "right now," not "when they grow up."
Programming as a Thinking Trainer

Programming has one important feature that makes it a very unusual educational environment. It gives the child the most honest feedback possible. If a solution doesn't work correctly, the system immediately shows it. The code won't run. The algorithm throws an error. The program behaves differently than expected. And at that moment, the child faces not a subjective adult evaluation, but the need to independently figure out where the logic broke down.
In essence, this is what real engineering thinking looks like in real life. Not guessing the right answer, but sequentially working with hypotheses, testing, and analyzing results. That's why programming becomes not just learning technology, but an environment in which a child gradually begins to relate differently to complex tasks. They learn not to avoid uncertainty but to engage with it
What This Changes Beyond the Screen
We see this in practice. Children who have been studying programming and robotics for several years change not only in what they can do on a computer. They approach any task differently. They ask more clarifying questions before starting to act. They are less likely to panic when things don't go as planned. They can explain their decisions — not just "I did it this way," but "I did it this way because…" These are qualities valued in any profession and life situation.
We are not preparing children for a specific profession. We are helping them develop a way of thinking that will work in any future — even one we cannot yet predict.
The world is changing fast. Professions that seem stable today may look very different in ten years. But a person who can analyze, structure, and solve problems will find their place in any possible scenario. This is what we mean when we say engineering thinking is important for children right now.
With care for children,
The Academic Team at GoCoding Center
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