A lot of children who insist they “hate learning” will spend an hour figuring out how to beat a difficult game level, drawing the same character until it looks right, memorising football statistics, building a complicated Lego mechanism or researching a weird animal because they suddenly care about it.

That tells us something important. Children often do not dislike learning. They dislike feeling taught all the time.

The best enrichment often begins with “Could you make this?”, “Can you solve this?” or “What happens if…?” The knowledge arrives because the child needs it.

One test I use: would the child still do it if nobody called it educational?

Imagine two maths activities. In the first, the child answers twenty measurement questions. In the second, they design an amusement park on a fixed plot of land, and every ride, restaurant and path has to fit.

Both may require measurement. In the second, measurement is not the point. It is a tool the child needs in order to make something they care about.

That is my working definition of an educational activity that does not feel like school:

Do not hide a worksheet inside a “fun” theme

There is nothing wrong with practice sheets when practice is the goal. But putting multiplication questions on pizza slices does not fundamentally change the task. Children notice.

If the purpose is enrichment—curiosity, creativity, deeper thinking, trying a new domain—then I would change the structure, not merely the decoration.

1. Build an escape room

A child designing an escape room is using logic, sequencing, writing and perspective-taking. The fascinating moment comes when the family plays it and gets stuck on something the child thought was obvious. That is genuine design feedback.

2. Design a theme park with a budget

Give limited land and pretend money. Roller coasters cost more than small rides. Restaurants need space. Visitors need paths, toilets and an entrance. Now fractions, arithmetic, measurement and optimization appear naturally.

3. Become a sports analyst

Instead of saying “let’s practise graphs,” ask an argument-worthy question: who is actually the best player? Which team improved most? Does possession really predict winning?

Now the child has a reason to collect statistics, choose a fair metric, use a spreadsheet and make a chart.

4. Build something for NASA

Children respond differently to “build a structure” and “NASA needs a structure that is incredibly light but still strong.” The second has purpose. NASA and JPL publish family-friendly engineering activities precisely because authentic constraints create good problems.

Try spacecraft structures, protective landers, gliders or towers. Do not celebrate the first build too quickly. Test it.

5. Make a documentary about something ordinary

The family dog. A grandparent. The street outside. “Why our kitchen gets so hot.” A documentary forces a child to observe, interview, select, sequence and explain.

6. Launch a ridiculous startup

Invent a product—perhaps a self-cleaning shoe or a breakfast robot. Give it a name, customer, logo, price and prototype. Then pitch it.

The deeper lesson starts after the pitch: Does anyone actually have the problem you solved?

7. Build an app that solves one tiny problem

MIT App Inventor is useful because block-based coding can still produce a functional mobile app. A child can make a chore spinner, pet reminder, packing checklist, family quiz or reading tracker.

The child does not have to study “variables” first. The app needs to remember something; therefore a variable suddenly matters.

8. Become a citizen scientist

Observe birds, clouds, insects, plants, local temperature or light pollution. Record dates, times and conditions. Compare what changes.

Science becomes much more real when the child’s notebook contains evidence they personally collected rather than facts copied from a website.

9. Turn the kitchen into a laboratory

Recipes naturally contain ratios, fractions, temperature, time and chemistry. Halve a recipe. Triple one. Change one ingredient and predict the result. Compare how two cooking methods change texture.

10. Curate a mini museum

Choose one obsession. Five exhibits. Labels. A route through the collection. One interactive element. A ticket if they want one.

The child now has to decide what another person needs to know, what to leave out, and what order creates understanding. That is curation.

11. Give them a real mystery

Which room cools fastest? Why does one plant grow better? Which paper airplane is best? Does the “best” mean farthest, longest in the air or most accurate?

The deeper skill is defining the measurement before collecting evidence.

12. Design a room for an unusual client

Design for an astronaut, a giant, a child who cannot use stairs, a family living underwater or a person who owns twenty dogs. The unusual client makes needs visible.

Now architecture becomes empathy plus constraints, not just drawing a pretty room.

13. Become a cryptographer

Begin with substitution ciphers and secret alphabets. Once the family can crack them, the child has a new problem: create something harder.

14. Make a video game instead of only playing one

A screen-loving child does not necessarily need a lecture about screen time. Sometimes they need a more powerful role on the same device.

Scratch is designed around making interactive stories, games and animations. A simple catching game can introduce events; score creates variables; lives create conditions; repeated movement creates loops; levels create state and difficulty progression.

15. Run a paper-airplane research lab

Do not keep searching for new activities. Take one tiny activity deeper. Build three airplanes, conduct five flights each, measure distance and compare averages.

Then change one variable: paper weight, wing width, nose shape. Predict before testing.

16. Make a podcast

Choose a topic the child has an opinion about. Prepare three questions, record five minutes and edit if they want to. The learning is hidden inside deciding what is worth saying and how to make another person care.

17. Invent a country

Map, flag, climate, currency, food and laws are the fun beginning. Then ask: where does energy come from? What does the country import? What happens during drought? How are leaders chosen? What is school like?

World-building can quietly become geography, economics and systems thinking.

18. Run a persuasion experiment

Make the best case for “children should have more homework.” Then the best case against it. The point is not which side wins. It is learning that understanding an argument is different from agreeing with it.

19. Make an advertisement—then investigate how it manipulates you

Create an ad for a ridiculous product. Use excitement, scarcity, celebrity-style endorsement or social proof. Then look at real ads and ask which techniques are being used on you.

Media literacy becomes much more interesting when children first experience being the persuader.

20. Solve one real family problem

Maybe shoes pile up near the door. Chargers disappear. Nobody remembers the plants. Pens roll off the desk. Choose something small enough that the child can genuinely affect it.

This is one of my favourite activities because nobody knows the answer in advance. The child is not performing understanding for an adult. They are trying to improve reality.

The secret is not the activity. It is the next question.

A child draws something. “Who lives there?” A child builds a bridge. “How much weight can it hold?” A child talks about football. “How would you measure the best player?” A child loves Roblox. “What do you think the designer did to make players want another round?”

One good question lets you deepen an interest without turning the house into school.

The six levels of a great “educational” activity

Follow the example. Modify it. Meet a problem. Make an original version. Ask your own question. Then, if the child wants more, learn the deeper tools and concepts.

Match the doorway to the child

The storyteller may enter science through a documentary. The builder may enter maths through architecture. The gamer may enter programming through game creation. The child who argues may love debate and evidence. The sport-obsessed child may enter statistics through a player comparison. The entrepreneurial child may learn arithmetic because profit suddenly matters.

You do not need every child to enjoy the same “educational activity.” You need enough doors.

Three ways adults accidentally ruin good enrichment

1. Over-designing the outcome

If the parent knows exactly what the finished object should look like, it may be craft rather than design. Leave room for the child to make decisions that genuinely affect the result.

2. Explaining the lesson before the child meets the problem

Let the tower fall before teaching structural stability. Let the game be unfair before discussing balance. The concept is more memorable once the child needs it.

3. Turning every hobby into achievement

A child who likes drawing does not immediately need a portfolio, competition and advanced course. Sometimes depth grows because the interest remained theirs.

When I would go deeper

I pay attention when a child returns without prompting, begins changing the rules, asks for better tools or information, tolerates frustration, wants to show someone, or tries to teach what they discovered.

That is the time for richer resources, a mentor, a class, a book, a new tool or a larger project—not because the parent has decided this is the child’s future, but because the child has already asked for the next level with their behaviour.

One rule for weekends: choose output over input

If a child has spent all week consuming information at school, a useful weekend challenge may be to produce something: build, write, code, design, explain, perform, investigate, teach or publish.

You do not have to decide what your child should become. Expose them to sufficiently deep experiences and watch which ones they voluntarily return to.

Further reading

These are useful places to go deeper. I prefer linking to primary or specialist sources rather than pretending one article needs to contain every answer.