Children's Programming Education: Learning Logical Thinking Through Play

When people hear "programming education," they may imagine small children sitting in front of computers writing difficult code. However, the essence of programming education is not "learning code to give instructions to computers," but rather developing "the ability to think things through in order, break down problems, and construct solutions"—in other words, cultivating computational thinking. Five years have passed since programming education became mandatory in elementary schools in 2020, and the learning landscape for children is changing dramatically.

Why Does Your Child Need Programming Education Now?

In an era where AI and robotics are transforming society, computational thinking can be said to be a foundational literacy alongside reading, writing, and arithmetic. Behind the Ministry of Education's 2020 decision to make programming education mandatory in elementary schools lies a clear objective: to develop "information literacy skills" necessary for children living in a digital society. According to estimates by the Ministry of Economy, Trade and Industry, Japan is projected to face a maximum shortage of 790,000 IT professionals by 2030, making early programming education a national priority.

However, more importantly, there are significant benefits for individual children. The skills gained through learning programming are useful not only for those pursuing careers in IT, but across all fields. Specifically, these include "decomposition skills" to break down large tasks into small steps, "abstraction skills" to identify patterns, "algorithmic thinking" to construct procedures, and "debugging thinking" developed through repeated trial and error. These same skills come into play when solving word problems in math or structuring an essay.

Age-Appropriate Learning Approaches

Children's programming education should follow a staged approach suited to their age. Forcing them into overly difficult tasks can breed negative attitudes toward the subject, so the key is to start naturally as an "extension of play."

For preschoolers aged 4-6, "unplugged programming" (programming without computers) is recommended. For example, the educational toy "Cubetto" (approximately ¥30,000) is a wooden robot that receives instructions through blocks, combining movements like moving right or turning left to guide the robot to a goal. Additionally, the picture book series "Ruby's Adventure" (Shoeisha, ¥1,980) naturally teaches programming concepts while telling stories. The card game "Robot Turtles" is also enjoyable for parents and children together.

For elementary school grades 1-3, the visual programming language "Scratch Jr" (free app) is ideal. By combining blocks to move characters, children naturally learn fundamental programming concepts like sequential processing, loops, and conditional branching. Additionally, LEGO's "SPIKE Essential" (approximately ¥40,000) is a STEM learning tool where children build blocks and operate them with motors and sensors—it's particularly popular with children who enjoy crafting.

For elementary school grades 4-6, students should transition to "Scratch" (free, runs in web browsers), developed by MIT Media Lab. Since they can create their own games and animations, they can develop creativity while learning advanced programming concepts. The Scratch community has over 100 million projects shared by children worldwide. The culture of "remixing" and improving others' projects provides good opportunities for collaborative learning.

From middle school onward is the time to tackle text-based programming. Python is ideal for beginners due to its simple syntax; for game creation, Unity combined with C# works well; and for website creation, HTML/CSS/JavaScript are excellent starting points.

How to Choose a Programming School and Typical Costs

When you feel limited by home learning or want an environment where your child can learn with peers, consider enrolling in a programming school. There are five key points to consider when choosing a school.

First, "curriculum structure." Make sure the school offers a staged curriculum lasting at least six months to a year, rather than just one-time events. Second, "instructor quality." Being able to program and being able to teach are different skills. Choose a school with instructors who patiently engage with children's questions. Third, "small class sizes." Ideally, the ratio should be approximately 4-6 students per instructor.

Fourth, there should be "opportunities for project presentations." Having a presentation venue significantly boosts children's sense of accomplishment and motivation. Fifth, "try a free trial" to check the atmosphere. Most schools offer 60-90 minute free trials, so be sure to verify that the school is right for your child before enrolling.

Typical costs range from ¥9,000-18,000 per month, with enrollment fees of an additional ¥10,000-20,000 being common. Major nationwide chains include "QUREO," "Tech Kids School," and "LITALICOワンダー." Online schools like "D-SCHOOL" and "TechAcademyジュニア" cost approximately ¥6,000-12,000 per month, eliminating the need for commuting.

Training Computational Thinking at Home

You don't need to enroll your child in a programming school to develop computational thinking. There are many ways to foster it in daily life. For example, cooking is the ultimate "algorithm experience." Writing out the steps to make curry with your child and organizing them in order—"cut vegetables → sauté → add water → simmer → add roux"—is essentially writing a program. The decision "if the vegetables are still hard, simmer for another 5 minutes" reflects conditional branching logic.

Board games are also effective. "Gravity Maze" is a puzzle game where you logically construct a route to guide a marble to the goal, developing spatial awareness and computational thinking simultaneously. "Katamino" involves fitting various shaped blocks into a frame, cultivating trial-and-error skills. Both typically cost ¥3,000-5,000.

Additionally, Minecraft's Education Edition includes a programming learning mode where children can use code within the game to auto-build structures or automate farming. Since children can naturally engage with programming in a gaming environment they're passionate about, the barrier to entry is low and appealing.

What Parents Should Keep in Mind

Finally, I want to share some guidance for parents supporting their children's programming education. First, "don't give them the answer." Programming learning is fundamentally about trial and error. When errors occur, rather than immediately providing the answer, ask "what do you think is wrong?" to help them develop the ability to find the cause themselves.

Second, "praise the process." Rather than focusing on the finished product's quality, use feedback like "you stayed focused thinking for 30 minutes" or "you can now do something that you couldn't do last time." Attention to effort rather than outcomes strengthens children's intrinsic motivation.

Third, "don't compare with other children." Programming progress varies greatly from child to child. Some create complex games in six months, while others spend a year building fundamentals. Both paces are correct. The most important evaluation criterion is whether the child enjoys the process.

Screen time management is also important. Even with programming education, extended screen time strains eyes and posture. Aim for 30-60 minute sessions, with regular breaks built in.

Programming education can be a powerful tool for children to thrive in the future. But it's not just "to become a programmer someday." The ability to think logically, solve problems creatively, and learn from failure will enrich children's lives no matter which path they take. At SOROU.JP, we will continue to bring you learning information to support your child's growth.