A child can memorise a page of facts and still struggle to explain what those facts mean. Another child may know fewer facts but constantly ask questions, test ideas, look for explanations and connect new information with what they already know. In many real learning situations, the second child may have the stronger foundation.

This is why curiosity matters so much in education.

Memorisation has a place in learning. Children need to remember vocabulary, mathematical facts, scientific terms, historical events and many other pieces of information. But memorisation becomes limited when it is treated as the main purpose of education. Knowing an answer is useful; understanding how to find, question, evaluate and use an answer is much more powerful.

At thomsonkids.com, the idea of meaningful learning goes beyond simply collecting facts. Curiosity encourages children to ask why, how, what if and what happens next? Those questions turn passive learning into active discovery.

Research increasingly supports this approach. A 2026 meta-analysis covering 47 independent studies found that higher states of curiosity were associated with better recall, including a moderate effect for task-specific information. Research involving children has also found that children remembered information better when they were highly curious about it and were more willing to explore the topic further.

The goal, therefore, is not to eliminate memorisation. It is to put memorisation in its proper place: as a tool for learning rather than the definition of learning itself.

Curiosity vs. Memorisation: What Is the Difference?

The difference is simple.

Memorisation asks:

“Can you remember this?”

Curiosity asks:

“Why is this true?”

Memorisation focuses primarily on retaining information. Curiosity focuses on understanding, exploring and discovering information.

Neither approach is automatically good or bad. Memorisation is useful when a child needs basic knowledge. Curiosity becomes especially valuable when that knowledge needs to be understood, connected or applied.

The strongest learning environment combines both.

Why Memorisation Alone Has Limits

Memorisation can help a child perform well on a test, but remembering information does not always mean understanding it.

Imagine a student memorises:

“Plants need sunlight for photosynthesis.”

The student may reproduce the sentence perfectly during an examination.

But what happens if someone asks:

• Why do plants need sunlight?
• What happens if a plant receives very little light?
• Do all plants need the same amount of light?
• Why can some plants survive in shaded environments?
• How does photosynthesis affect the rest of an ecosystem?

Now the difference becomes clear.

A memorised statement gives the child an answer.

Curiosity encourages the child to investigate the answer.

That investigation can lead to deeper understanding.

The problem with learning only for recall

When children are trained to focus mainly on reproducing information, they may begin to see education as a process of collecting answers rather than understanding ideas.

This can lead to habits such as:

• Studying only before examinations
• Forgetting information shortly after a test
• Avoiding difficult questions
• Depending heavily on prepared answers
• Being afraid of making mistakes
• Asking fewer questions
• Treating “I don’t know” as failure rather than an invitation to investigate

A curious learner reacts differently.

Instead of thinking, “I don’t know, so I’m stuck,” the child can think:

“I don’t know yet. How can I find out?”

That small change in mindset can influence how a child approaches learning for years.

Curiosity Turns Children Into Active Learners

One of the biggest advantages of curiosity is that it changes the child’s role.

A passive learner waits for information.

An active learner searches for it.

This distinction matters because children naturally learn through observation, experimentation, questions and exploration. They do not simply absorb information. They interact with their surroundings.

Consider a child who sees the moon.

A memorisation-focused approach might teach:

“The moon is Earth’s natural satellite.”

That is useful information.

A curiosity-focused approach might begin with:

• Why does the moon appear to change shape?
• Does the moon produce its own light?
• Why can we sometimes see the moon during the day?
• Why does the moon look larger near the horizon?
• Would people weigh the same on the moon?
• Why does the moon have craters?

Suddenly, one fact becomes the starting point for an entire learning journey.

That is the power of curiosity.

Curiosity Improves Attention

Children are naturally more likely to pay attention when something genuinely interests them.

If a lesson begins with a question that creates uncertainty, the child has a reason to find out what comes next.

For example:

Instead of:
“Today we are learning about volcanoes.”

Try:
“What would happen if a volcano suddenly erupted near a city?”

The second approach creates a mental problem.

The child wants an explanation.

Research on curiosity-driven learning suggests that curiosity can influence attention and memory. A study involving children aged 10–12 found better memory for trivia facts during high-curiosity states and also found greater desire to explore the subject further.

This is important because attention is the gateway to learning.

If a child is not mentally engaged, information may simply pass by.

If the child wants to know the answer, the information becomes meaningful.

Curiosity Can Strengthen Memory

It may sound strange to say that curiosity matters more than memorisation when curiosity itself can actually improve memory.

But that is precisely the point.

The goal is not to make children stop remembering information.

The goal is to make the information worth remembering.

A 2026 meta-analysis of 47 independent studies found a positive relationship between state curiosity and recall. The researchers reported a moderate effect for task-specific information and a smaller effect for incidental information.

Earlier research also found that curiosity could enhance long-term retention, including memory tested a week after learning.

This suggests an important distinction:

Memorisation can be the result of meaningful curiosity rather than the starting point of learning.

When a child desperately wants to know why something happens, the answer may become easier to remember because it has a purpose.

Curiosity Creates Better Questions

Questions are one of the simplest indicators of active learning.

A child who asks:

“Why?”

is not necessarily interrupting the lesson.

The child may be opening the door to a deeper lesson.

Consider the progression:

Why does it rain?

↓

Where does rain come from?

↓

How does water get into clouds?

↓

Why do some clouds produce rain and others don’t?

↓

Why do some places receive more rain than others?

↓

How does rainfall affect farming and cities?

One question can lead into science, geography, agriculture, climate, economics and society.

That is much richer than memorising the definition of “rainfall.”

Research has also found that self-generated question asking can increase curiosity and encourage people to seek missing information, with curiosity and satisfaction from acquired information supporting later recall.

The “Why?” Question Should Not Be Discouraged

Children frequently ask questions that adults may consider obvious, repetitive or inconvenient.

But repeated questions can represent genuine attempts to build a mental model.

A child asking:

“Why is the sky blue?”

may not need a complicated scientific explanation immediately.

The important part is that the child wants to understand.

Parents and teachers can respond with:

“What do you think causes it?”

That response changes the conversation.

Instead of immediately supplying the answer, the adult encourages the child to make a prediction.

Research has found that asking learners to generate predictions can stimulate curiosity and improve memory for the correct information.

A useful response pattern

When a child asks a question, try:

1. Acknowledge the question
2. Ask what the child thinks
3. Explore possible explanations
4. Investigate together
5. Explain the answer
6. Ask one follow-up question

This creates a learning loop rather than a simple question-and-answer exchange.

Curiosity Builds Problem-Solving Skills

Memorisation is especially useful when a child needs quick access to basic information.

But problem-solving requires more.

A child solving a problem may need to:

• Identify what is unknown
• Break the problem into smaller parts
• Consider possible explanations
• Test an idea
• Notice mistakes
• Change strategy
• Search for information
• Compare different possibilities
• Reach a conclusion

Curiosity supports many of these behaviours.

Imagine a child receives a simple challenge:

“How can we keep an ice cube from melting for as long as possible?”

There is no need to begin with a memorised paragraph.

The child can experiment with:

• Paper
• Cloth
• Plastic
• A container
• Shade
• Sunlight
• Different amounts of insulation

Now science becomes something the child does rather than something the child merely remembers.

Curiosity Makes Mistakes More Useful

Memorisation-heavy learning can sometimes make children afraid of being wrong.

If the only acceptable outcome is the correct answer, mistakes can feel like failure.

Curiosity changes the meaning of mistakes.

Suppose a child predicts:

“This object will float.”

The object sinks.

Instead of saying:

“Wrong.”

A teacher could ask:

“What surprised you?”

Then:

“Why do you think it sank?”

Now the mistake has created a new question.

This is a valuable learning habit:

Prediction → Test → Result → Question → Explanation

The child is not simply being told the correct answer.

The child is discovering why the original idea did not work.

Curiosity Encourages Independent Learning

One of the most valuable outcomes of education is the ability to keep learning without someone constantly providing instructions.

A child who is curious may naturally:

• Search for explanations
• Read beyond the textbook
• Watch educational demonstrations
• Ask experts
• Compare sources
• Experiment
• Explore unfamiliar subjects
• Follow a question until it is answered

That matters in a world where information is constantly changing.

A fact memorised today may become less useful tomorrow.

The ability to find, evaluate and understand information remains valuable.

This is one reason curiosity should be treated as a long-term learning skill.

Curiosity and Technology: Learning Beyond the Classroom

Children now have access to more information than previous generations could easily imagine.

A question can lead to:

• An educational video
• An online article
• A digital museum
• An interactive simulation
• A scientific database
• A virtual experiment
• A discussion with other learners

But access to information does not automatically create learning.

Curiosity determines whether the child asks meaningful questions in the first place.

Technology can therefore become more useful when children use it to investigate rather than simply consume.

For example:

Passive use:
“Watch a video about space.”

Curiosity-driven use:
“Why does Mars look red, and would humans be able to live there?”

The second question gives the child a purpose for exploring information.

At thomsonkids.com, this distinction is important: digital learning should encourage children to become investigators rather than endless consumers of content.

Curiosity Does Not Mean Letting Children Learn Without Structure

There is an important misconception to avoid.

Supporting curiosity does not mean allowing children to do whatever they want without guidance.

Children still need:

• Clear explanations
• Foundational knowledge
• Vocabulary
• Practice
• Feedback
• Structure
• Boundaries
• Age-appropriate challenges

Curiosity works best when it has something meaningful to investigate.

A child cannot deeply explore astronomy without learning some basic astronomical concepts.

The goal is therefore not:

Curiosity instead of knowledge.

It is:

Curiosity + knowledge + practice.

Memorisation Still Has an Important Role

It would be inaccurate to say that memorisation has no value.

Some knowledge needs to become automatic.

For example, children benefit from remembering:

• Basic multiplication facts
• Common vocabulary
• Alphabet and spelling patterns
• Scientific terminology
• Historical dates when relevant
• Mathematical formulas
• Grammar rules
• Important definitions

The issue is not memorisation itself.

The issue is memorisation without understanding.

A better learning sequence

A useful model is:

1. Become curious
↓
2. Ask a question
↓
3. Learn the relevant information
↓
4. Understand the idea
↓
5. Practise using it
↓
6. Retrieve it from memory
↓
7. Apply it to a new situation

This approach gives memorisation a purpose.

Research on retrieval practice also shows that actively recalling newly learned information can slow forgetting and support later learning.

So the better question is not whether children should memorise.

It is:

What should they memorise, why should they memorise it, and what will they do with that knowledge?

How Parents Can Encourage Curiosity at Home

Parents do not need expensive educational equipment to encourage curiosity.

Everyday life provides opportunities.

At breakfast

Instead of simply naming foods, ask:

“Why does toast become crispy?”

During a walk

Ask:

“Why do you think some trees have different-shaped leaves?”

While cooking

Ask:

“What do you think will happen if we add more water?”

During travel

Ask:

“Why does this area look different from the place we live?”

While watching the weather

Ask:

“Why do you think clouds are forming today?”

The objective is not to turn every moment into a formal lesson.

It is to make questioning a normal part of everyday life.

How Teachers Can Build Curiosity Into Lessons

Teachers can create curiosity without completely changing their curriculum.

1. Start with a question

Instead of beginning with a definition, begin with a problem.

2. Use predictions

Ask students what they think will happen before revealing the answer.

3. Allow students to generate questions

A lesson can include a short “What do you wonder?” activity.

4. Use surprising examples

Unexpected outcomes naturally encourage investigation.

5. Connect lessons to real life

Children are more likely to see value in information when they understand where it is used.

6. Reward good questions

Praise thoughtful questions, not only correct answers.

7. Allow productive uncertainty

Not every question needs an immediate answer.

Sometimes:

“Let’s find out.”

is a better teaching response.

A Simple Curiosity-Based Classroom Model

Teachers can use a five-step structure:

For example, in a science lesson about evaporation:

Wonder: Why does wet clothing dry faster outside on some days?

Predict: Students suggest possible reasons.

Explore: Compare temperature, airflow and surface area.

Explain: Introduce evaporation and relevant factors.

Apply: Ask students how they would dry clothes faster.

Now the concept has moved from a definition to an application.

Curiosity Can Be Practised

Curiosity is not simply a personality trait that some children have and others do not.

It can be encouraged through repeated behaviours.

A simple daily activity is the Question of the Day.

Ask children to write one question about something they noticed.

For example:

• Why do ants walk in lines?
• Why does metal feel colder than wood?
• Why do some sounds echo?
• Why do birds have different beaks?
• Why does the moon appear in different positions?

The next step is important.

Do not stop at collecting questions.

Choose one and investigate it.

This teaches children that questions are not merely conversation starters. They can lead to evidence, research and discovery.

The Power of “What If?”

“What if?” questions can take curiosity one step further.

They encourage children to change an existing condition and imagine a new outcome.

Examples include:

What if Earth had no moon?

What if plants could not absorb sunlight?

What if humans could breathe underwater?

What if there were no electricity for one week?

What if gravity were half as strong?

These questions encourage children to connect concepts rather than recall isolated facts.

They also create opportunities to discuss cause and effect.

Curiosity Helps Children Connect Different Subjects

Real-world problems rarely fit neatly into one school subject.

Consider a question such as:

“How could we design a greener city?”

That single question can involve:

• Science: pollution and ecosystems
• Mathematics: measurements and data
• Geography: land use
• Technology: smart systems
• Engineering: infrastructure
• Economics: costs and resources
• Art: design and presentation
• Language: explaining the proposal

This is one of the strongest arguments for curiosity-driven learning.

A question can naturally connect subjects that are often taught separately.

Curiosity Is Especially Important in a Changing World

Children are preparing for a future that cannot be described completely by today’s textbooks.

Technology changes.

Jobs change.

Scientific knowledge develops.

New problems appear.

Information becomes easier to access.

In that environment, education cannot focus only on what children should remember.

It must also help them develop the ability to learn something they have never encountered before.

A curious person is more likely to ask:

“What do I need to understand?”

rather than:

“Has anyone already given me the answer?”

That difference can become increasingly important as children grow older.

Curiosity and Critical Thinking Are Connected

Curiosity alone is not enough.

A child can be curious about something and still believe inaccurate information.

This is why curiosity should be paired with critical thinking.

After asking a question, children should learn to ask:

• Where did this information come from?
• Is the source trustworthy?
• What evidence supports the claim?
• Is there another explanation?
• Can I verify it?
• Does the evidence actually support the conclusion?

This transforms curiosity into responsible inquiry.

The goal is not simply to produce children who ask many questions.

It is to help produce children who ask meaningful questions and know how to investigate them.

A Practical Comparison: Two Ways to Learn

Imagine two students studying the same topic: earthquakes.

Student A: Memorisation-first

The student memorises:

• Definition of an earthquake
• Types of seismic waves
• Names of tectonic plates
• Magnitude terminology
• Safety instructions

The student may perform well in a recall-based test.

Student B: Curiosity-first

The student starts with:

“Why do earthquakes happen?”

Then asks:

• Why do some places experience more earthquakes?
• Can earthquakes be predicted?
• Why do buildings collapse?
• How do scientists measure earthquakes?
• What makes some buildings safer?
• What should people do during an earthquake?

Student B still learns facts.

But those facts are connected to questions and problems.

The difference

This is the balance that modern education should aim for.

What Parents Should Avoid

Encouraging curiosity does not require parents to answer every question perfectly.

But some habits can unintentionally discourage questioning.

Try to avoid:

• Saying “because I said so” to every question
• Making children feel silly for asking
• Immediately giving every answer
• Treating mistakes as failures
• Comparing one child’s curiosity with another’s
• Turning every question into a test
• Expecting children to know answers before they understand concepts

Instead, try responses such as:

“What do you think?”

“That’s an interesting question.”

“How could we find out?”

“What evidence would help us?”

“Let’s test your idea.”

These responses keep the child involved.

A Better Definition of Educational Success

Educational success should not be measured only by how many facts a child can reproduce.

A stronger set of questions is:

Can the child…

• Explain an idea in their own words?
• Ask meaningful questions?
• Find relevant information?
• Recognise when they do not know something?
• Test an idea?
• Learn from mistakes?
• Connect different concepts?
• Apply knowledge to a new problem?
• Explain their reasoning?
• Continue learning independently?

These abilities give knowledge practical value.

The ThomsonKids.com Perspective

The central idea behind thomsonkids.com is simple: children should not be treated as empty containers waiting to be filled with information.

They are naturally active learners.

They observe.

They question.

They experiment.

They imagine.

They challenge explanations.

They make mistakes.

They try again.

Education becomes more powerful when these natural behaviours are protected rather than replaced by constant pressure to memorise.

This does not mean lowering academic standards. In fact, curiosity can make academic learning more meaningful because children have a reason to understand what they are studying.

Research involving young children has found that encouraging question asking during science lessons can increase the value children place on new information, with some learning benefits particularly visible among children with less background knowledge.

That suggests a practical lesson for parents and educators:

Do not wait for curiosity to appear. Create opportunities for it.

10 Simple Ways to Make Learning More Curious

Parents and teachers can start immediately with these strategies:

1. Begin lessons with questions rather than definitions.
2. Ask children to predict outcomes before revealing answers.
3. Give children time to ask their own questions.
4. Use real-world examples.
5. Let children investigate simple problems.
6. Treat mistakes as evidence rather than failure.
7. Ask “why” and “how” questions regularly.
8. Encourage children to explain ideas in their own words.
9. Teach children how to check information.
10. Connect classroom knowledge to everyday experiences.

These methods do not require replacing textbooks or abandoning structured learning.

They simply change the role of the child from receiver of information to participant in learning.

Frequently Asked Questions

Is curiosity really more important than memorisation?

Curiosity and memorisation serve different purposes. Curiosity encourages exploration, questioning and understanding, while memorisation provides access to useful facts and concepts. The strongest learning combines both, with curiosity helping children understand why knowledge matters.

Should children stop memorising information?

No. Memorisation remains useful for foundational knowledge such as vocabulary, multiplication facts, formulas and terminology. The problem occurs when memorisation becomes the only measure of learning.

How can parents increase curiosity?

Parents can encourage children to ask questions, make predictions, investigate everyday events and explain their thinking. Simple questions such as “What do you think will happen?” and “How could we find out?” can encourage active learning.

Can curiosity improve memory?

Research suggests that it can. Studies have found associations between higher curiosity and better recall, including research with children and a 2026 meta-analysis covering 47 independent studies.

Why are questions important for learning?

Questions create a reason to search for information. They can activate prior knowledge, reveal gaps in understanding and encourage investigation. Self-generated questions have also been associated with increased curiosity and later recall.

Does curiosity work for every subject?

Curiosity can be used across subjects. Science naturally provides many opportunities for investigation, but mathematics, history, geography, languages, technology and even art can begin with meaningful questions.

What is better: curiosity or discipline?

Children need both. Curiosity creates interest and encourages exploration, while discipline helps children continue working when a task becomes difficult. Neither needs to replace the other.

Final Thoughts

The purpose of education should not be to create children who can repeat the largest number of facts.

It should help create children who know how to understand, question, investigate and use knowledge.

Memorisation can tell a child what something is.

Curiosity encourages the child to discover why it matters.

That distinction is at the heart of meaningful learning.

A child who memorises the answer may finish a worksheet.

A child who becomes curious may continue searching for answers long after the worksheet is finished.

That is why curiosity deserves a central place in education.

The best approach is not to choose between knowledge and curiosity. Children need knowledge to ask better questions, and they need curiosity to seek deeper knowledge.

Memorisation gives children information. Curiosity gives that information direction.

For parents, teachers and anyone interested in better learning, thomsonkids.com supports a simple principle: give children facts, but also give them reasons to wonder about those facts. Encourage the question before rushing to provide the answer. Let children predict, investigate, make mistakes and try again.

Because the strongest learners are not necessarily those who remember everything.

They are often the ones who keep asking:

“Why?”

“How?”

“What if?”

and most importantly:

“How can I find out?”