Curiosity is the self-directed drive to explore, question, and understand. It is what keeps children pulling on the thread instead of settling for the first easy answer.

How do I build Curiosity in my child?

Build Curiosity by protecting unanswered questions, following your child's interests deeper, and resisting the urge to explain everything too fast. Curiosity grows when wonder has room to breathe.

Part of New Literacies — what kids need to thrive in a world shaped by AI.

Curiosity

Pull on the thread

By Mike Overell · November 30, 2025 · Deep Dive · · 117 products →

Research synthesized with AI tools. Here's how →

Table of Contents

TLDR: Curiosity is the drive to explore, question, and understand—and it transforms how the brain learns everything. In an AI age, it’s the difference between children who seek understanding and those who passively receive answers.

Related Thinking capacities: Creativity, Judgment

Preschoolers ask approximately 76 information-seeking questions per hour.

By fifth grade, students exhibit curiosity—through question-asking or other behaviors—less than once every two hours.

Somewhere between preschool and fifth grade, we’re losing something.

The research is consistent: children enter school as relentless questioners and emerge as passive answer-receivers. Studies show children average 26 questions per hour at home, dropping to fewer than two per hour in classrooms. Not because their questions have been answered—because they’ve learned to stop asking.

Here’s what’s uncomfortable: we may be training curiosity out of children precisely when we should be cultivating it. The very structures designed to educate—standardized curricula, fear of wrong answers, teacher-directed instruction—suppress the drive that makes learning possible in the first place.

Yet curiosity isn’t merely nice to have. Research from the University of Michigan found that kindergartners’ curiosity was as strongly associated with academic achievement as effortful control—a well-established predictor of success. More remarkably, the association was strongest among children from lower socioeconomic backgrounds. Curiosity may be a powerful equalizer.

The neuroscience explains why. When children are curious, their brains treat knowledge acquisition as rewarding in itself. When they’re not, learning becomes work requiring external motivation.

Wonder is the default. School teaches children to suppress it.

What Curiosity Actually Is

Curiosity is the drive to close gaps—the pull toward what you don’t yet know or understand.

Watch a curious child: they notice something unexpected, a question forms, they investigate, and when they find an answer, they light up. That sequence—gap → tension → search → discovery—is curiosity in action.

It breaks into four pieces:

Wonder — Openness to novelty and surprise. The capacity to be captivated by the unexpected. Eyes widening, “That’s weird!”, pausing to notice what others walk past.
Questions — Active inquiry. The drive to articulate what you don’t know and close the gap. “Why?” and “How?” and not accepting first answers.
Exploration — Seeking new experiences. Trying unfamiliar activities, venturing into unknown territory, following tangents, tinkering.
Depth — Pursuing understanding, not just answers. Not stopping at surface explanations. Building mental models. Connecting new information to what you already know.

Why the breakdown matters

These develop unevenly. A child might have abundant Wonder (easily captivated) but weak Questions (doesn’t articulate what they want to know). Another might ask endless Questions but lack Depth (satisfied with shallow answers).

Understanding the components helps identify what specifically needs support.

What curiosity isn’t

People conflate these:

“Isn’t curiosity just being interested?” Interest is more sustained—it develops over time with engagement. Curiosity is the spark; interest is the sustained flame. A child might be curious about dinosaurs; through exploration, that becomes enduring interest in paleontology.

“What about creativity?” Creativity is generating novel ideas. Curiosity is seeking novel information. They’re complementary: curiosity provides raw material (inputs), creativity recombines it (outputs). In the THINKING triad, curiosity seeks, creativity generates, Judgment evaluates.

“Is curiosity the same as learning quickly?” No—that’s Adaptability. Curiosity is the desire to learn; adaptability is the efficiency of learning. A child can be intensely curious but slow to master domains, or efficient at learning things they don’t particularly care about.

The key insight

Curiosity isn’t a personality trait you either have or don’t. It’s a capacity with distinct components that can each be triggered, suppressed, or cultivated.

The environment plays an enormous role in which of these occurs.

The AI Complication

AI could be curiosity’s greatest ally or its quiet killer. The difference is design.

AI provides answers without the question

The structure of curiosity is: gap → tension → search → resolution → reward. When AI provides instant answers, it short-circuits this loop. The child never experiences the gap, never feels productive tension, never engages in the search.

Research from MIT found students using ChatGPT exhibited the lowest brain engagement of any group studied. The thinking was “offloaded” to AI. Each instance of offloading is a missed opportunity for the curiosity-reward circuit to fire.

Algorithms narrow the exploration space

Recommendation systems create filter bubbles—personalized environments showing children more of what they’ve already engaged with. For curiosity, this is poison.

Exploration requires encountering the unexpected. A child who watches one dinosaur video gets recommended more dinosaur videos. The algorithm has no incentive to show the astronomy video that might spark new Wonder. Short-term engagement wins; long-term breadth loses.

AI creates the illusion of knowledge

When any question has an instant answer, “I know this” and “I can look this up” blur. But neurologically, these are different states. Actually knowing involves integrated representations supporting inference and connection. Access to information doesn’t create these.

Children may develop “pseudo-knowledge”—confidence not backed by comprehension. Why pursue Depth when you feel like you already understand?

The neuroscience of why this matters

Groundbreaking research by Gruber and Ranganath revealed what happens in the brain during curiosity:

The dopamine connection. When curiosity triggers, there’s increased activity in dopamine-rich regions—midbrain, nucleus accumbens, ventral tegmental area. The brain treats information-seeking as rewarding, similar to food or social connection. This dopamine release doesn’t just feel good—it enhances learning.

The hippocampal boost. The hippocampus, crucial for memory, shows increased activity during curiosity states. Information encountered while curious is better remembered—not just what you’re curious about, but everything encountered in that state.

Surprising Finding: Curiosity Creates a Rising Tide for All Learning

Gruber and Ranganath’s research found people remembered unrelated faces better when shown during periods of high curiosity about something else entirely. Curiosity doesn’t just enhance memory for what you’re curious about—it creates a brain state that improves learning for everything you encounter. When AI provides answers without triggering this state, children miss not just the specific learning but the enhanced state that would have improved all concurrent learning.

The prediction-error mechanism. The PACE framework suggests curiosity arises from prediction errors—when reality doesn’t match expectation. AI that always provides expected, correct answers eliminates prediction errors. Nothing to be curious about when every mystery has instant explanation.

The silver lining

AI could theoretically enhance curiosity if designed differently. Imagine AI that responds to questions with other questions, intentionally creates information gaps, refuses complete answers, introduces unexpected tangents.

Some researchers are exploring AI tools designed to stimulate questions rather than provide answers. The technology isn’t deterministic; design choices are.

The Research: What We Know

The research on curiosity is clear—and the effects are large.

Curiosity predicts academic achievement. A study of 6,200 kindergartners found higher curiosity associated with better reading and math performance (b = 0.11-0.12)—effect sizes comparable to effortful control. Early curiosity matters.

Surprising Finding: Curiosity Is an Equalizer

The same study found curiosity’s association with achievement was stronger among low-SES children. Effect sizes were nearly double (b = 0.18-0.20 vs. b = 0.07-0.08). Curiosity appeared to partially compensate for lack of educational resources. The researchers concluded fostering curiosity “may be an important, yet under-recognized, route for addressing the achievement gap.”

Interventions can increase curiosity. A meta-analysis of 41 RCTs with 4,496 participants found curiosity interventions effective (Hedges’ g = 0.57, moderate effect). Both brief and extended interventions worked. Curiosity is malleable.

Philosophy for Children produces strong effects. A meta-analysis of 30 studies found P4wC programs had effect sizes of 0.65 for critical thinking and academic performance—0.73 for children under 8, 0.75 for ages 8-14.

Early exploration predicts later outcomes. Longitudinal research found babies who directed attention toward information-providing stimuli at 8 months had higher IQ scores at 3.5 years. Individual differences in curiosity appear early.

Surprising Finding: You Can See Curiosity at 8 Months—And It Predicts IQ Years Later

The same longitudinal research revealed that the efficiency of infant exploration—not just quantity—matters for development. Babies who more effectively directed attention toward information-providing stimuli showed higher cognitive outcomes at age 3.5. Curiosity isn’t something that develops later; it’s visible in infancy, and individual differences persist.

Curiosity protects mental health. Research using longitudinal data found adults who recalled being curious as children reported fewer depressive symptoms. The relationship was partially mediated by future confidence—curious children develop more optimistic orientations.

This isn’t one study. It’s decades of converging evidence.

Early Childhood (0-5)

What we know

Infants arrive as curiosity machines. Research shows by 8 months, babies already direct attention toward information-providing stimuli—and individual differences predict cognitive outcomes years later.

The four components emerge in sequence:

Wonder appears first—infants are captivated by novelty, staring longer at unexpected events
Exploration follows as mobility develops—crawling, then walking, expands investigation range
Questions explode in the “why?” phase (ages 3-5)—76 questions per hour at home
Depth begins as children start asking follow-ups and rejecting unsatisfying answers

Toddlers engage in “experiment-like” behavior—systematically varying actions to see what happens. Drop the spoon: it falls. Drop it again: falls again. Drop from different height: still falls. This isn’t random play; it’s empirical investigation.

The critical balance: This period is when curiosity is most robust and most vulnerable. Robust because children are biologically primed. Vulnerable because adult responses shape whether Questions are welcomed, Wonder is valued, and Exploration is safe.

What you can do

The “What Do You Think?” Protocol. When children ask questions, resist answering immediately. Return the question: “That’s interesting—what do you think?”

Instead of: “Why is the sky blue?” → “Because light scatters.” Try: “Why do you think the sky is blue? What else is blue like that?”

This engages their reasoning, models that their thinking matters, and often reveals what they already know.
The Wonder Walk. Take regular walks with explicit purpose of noticing interesting things.

Instead of: Walking to get somewhere, conversations about logistics. Try: “I wonder why that tree’s leaves are turning red when the one next to it is still green.” Stop. Look. Wonder aloud.

Model that adults stay curious about the world.
Environment Design. Provide open-ended materials—blocks, art supplies, sand and water, natural objects. Avoid toys with one “right” way to play. Create constant small “I wonder…” moments.
Celebrate Questions, Not Just Answers. Explicitly praise question-asking: “That’s a fascinating question—I hadn’t thought about that.” Keep a “Question Wall” where interesting questions are recorded even if not yet answered.
Mistakes as Data. When children are wrong, respond with genuine curiosity: “Interesting! What made you think that?” Wrong answers reveal reasoning—and reasoning can be redirected.

Surprising Finding: School Kills Questions, But Not Necessarily Curiosity

The dramatic decline in question-asking from preschool to elementary is well-documented. But some researchers argue this doesn’t necessarily reflect decreased curiosity—it may reflect children learning questions aren’t welcome. Children may remain curious but suppress expression. The intervention for “no longer curious” is different from “curious but silent.” Creating environments where questions are genuinely welcomed may reveal latent curiosity that hasn’t disappeared, just gone underground.

Middle Childhood (6-11)

What we know

As children enter school, question rates collapse. By some measures, it drops from dozens per hour to fewer than two in classrooms.

Why does this happen?

Standardized curricula prioritize coverage over Exploration
Teacher-directed instruction positions teachers as question-askers
Social comparison makes children reluctant to reveal ignorance
Fear of wrong answers suppresses risk-taking inherent in Wonder

There’s a counterpoint, though. Research found Exploration becomes more efficient with age—children get better at targeting curiosity, even if expressing it less. Depth can actually increase as children develop capacity for sustained inquiry.

The critical balance: This period is about channeling and deepening. Broad Wonder and scattered Exploration of early childhood can develop into targeted Questions and genuine Depth—or atrophy. The determining factor is whether children have opportunities for genuine exploration in domains they find meaningful.

What you can do

The Question Formulation Technique (QFT). Developed by the Right Question Institute, this teaches children to generate, improve, and prioritize their own questions. Given a prompt, children brainstorm questions without judgment, then categorize and refine them.

Instead of: “What questions do you have about this topic?” Try: The full QFT protocol—generating many questions, then classifying them as open vs. closed, then prioritizing which to pursue.

Research shows this increases both question quantity and quality.
The 20% Project. Give children protected time to explore anything they’re genuinely curious about, with minimal adult direction. The only requirement: investigating something actually interesting to them.
Strategic Incompleteness. When teaching or explaining, intentionally leave gaps.

Instead of: Complete explanation of a concept. Try: “There are three reasons this happens—I’ll tell you two. I wonder if you can figure out the third.”

Create knowledge gaps that trigger Questions and reward Depth.
Mentor Matching. Connect children with adults who share their interests—not to instruct, but to model passionate curiosity. A child interested in astronomy benefits from time with an adult who remains genuinely fascinated by space.
The Domain Deep-Dive. Help children go deep in at least one area. Depth in one domain teaches what Depth feels like—and that feeling transfers.

Adolescence (12+)

What we know

Adolescent curiosity becomes entangled with identity. What am I curious about? merges with Who am I? Topics that fascinate become part of self-definition.

This creates opportunity and risk. Adolescents can develop deep expertise in passion areas. But they may also narrow prematurely, closing off entire areas of potential interest.

Research on adolescent dopamine systems reveals context-dependent reward processing—adolescents respond differently to rewards depending on the paradigm. This explains why teens are intensely curious about some things (peers, identity, specific interests) while seeming disengaged from others (school subjects framed as externally imposed).

The critical balance: The question isn’t “how to make them curious” but “how to honor existing curiosities while expanding range.” The teen who can’t be bothered with history may spend hours learning game design or social dynamics. Meet them where they are, then build bridges to adjacent domains.

What you can do

The Passion Interview. Rather than asking “What are you interested in?” (which prompts guarded answers), ask: “What could you read about, watch videos about, or discuss for hours without getting bored?”

Follow with: “What is it about that topic that fascinates you?”

This surfaces where they already have Depth.
Adjacent Exploration. Once you know their interests, help them discover connected domains. A teen fascinated by gaming might discover game design → programming → psychology of motivation → behavioral economics.

Instead of: “You should be curious about history.” Try: “You know how games use progression systems? The Romans basically invented that for their military ranks. Want to see how?”

Build bridges from passion to breadth.
Real Stakes Projects. Questions flourish when investigation actually matters—research that could be shared publicly, questions affecting their community, problems adults haven’t solved. The inauthenticity of most schoolwork suppresses curiosity; real stakes revive it.
Socratic Questioning. Rather than providing answers, respond to questions with questions that push deeper.

Try: “What would change if that were true?” “What evidence would you need?” “What’s the strongest counterargument?”

Model intellectual humility alongside intellectual curiosity.
The Question Collection. Encourage keeping a running list of questions that genuinely puzzle them—not for school, just for themselves. Questions worth returning to. Questions that don’t have easy answers.

At Any Age

These work at every stage:

Model Your Own Curiosity. Let children see you wonder.

Instead of: Appearing to know everything, or silently looking things up. Try: “I don’t know the answer to that—let’s find out together.” “I’ve always been curious about…” “I changed my mind about this when I learned…”

Your visible not-knowing normalizes seeking.
Protect Unstructured Time. Curiosity requires space. Children with every hour scheduled have no time to get bored—and productive boredom often generates curiosity.

Instead of: Filling every after-school hour with activities. Try: Leaving gaps. When they say “I’m bored,” wait. What emerges is often more valuable than another structured activity.
Limit Answer-Provision Technology. Consider how quickly children can get complete answers. Sometimes the best thing technology can do is not answer, leaving the curiosity loop open long enough for deeper engagement.
Introduce Diversity. Counter algorithmic narrowing with intentional breadth. Museums, libraries, conversations with interesting adults, random book selection, saying “yes” to new experiences.

Surprising Finding: Praise Can Backfire

Research on praise and motivation reveals that how we respond to curiosity matters as much as whether we respond. Praising intelligence (“You’re so smart to ask that!”) can create fixed mindset where children avoid challenging questions. Generic praise (“Good question!”) can create dependence on external validation. Better: specific, process-focused responses—“I can see you’re thinking carefully about this” or “That question shows you noticed something most people miss.”

Special Considerations

Neurodivergent children

ADHD: Hyperfocus as curiosity’s intensity dial. Children with ADHD often exhibit hyperfocus—intense, sustained attention to intrinsically interesting activities. This isn’t lack of curiosity; it’s Wonder, Exploration, and Depth turned to maximum, combined with difficulty regulating which domains receive this intensity.

The same child who “can’t pay attention” may spend hours exploring a captivating topic. ADHD children may not need interventions to increase curiosity so much as support in directing it.

Autism: Circumscribed interests as deep curiosity. Research shows 75% of autistic children have at least one intense, focused interest. These involve extraordinary Depth—highly developed Questions within the domain.

Surprising Finding: Special Interests as Strengths, Not Symptoms

The traditional view treated circumscribed interests as problematic—restrictive behaviors to reduce. But emerging research suggests these interests are powerful assets. When incorporated into educational and social settings, they serve as bridges to engagement and learning. A child intensely interested in trains might use that interest to learn history, geography, physics, and social skills. The interest isn’t the problem; it’s a resource.

Anxiety: The uncertainty paradox. For curious children, uncertainty is appetitive—it draws them in. For anxious children, uncertainty can be aversive. Research shows children with high intolerance of uncertainty experience distress in ambiguous situations.

Open-ended curiosity-promoting environments may increase anxiety in some children. The adaptation: more structure and predictability while creating opportunities for curiosity within bounded domains. Smaller, safer knowledge gaps may be more productive than vast uncertain ones.

Gender differences

Research across cultures shows boys and girls often differ in domains of curiosity (shaped by socialization) rather than intensity. Toy preferences research shows socialization channels children toward gender-typed interests, potentially narrowing breadth for both.

The practical implication: Actively counter gender-typed channeling. Encourage boys’ curiosity about relationships and emotions. Encourage girls’ curiosity about systems and mechanisms. Capacity is similar; range of what children feel “allowed” to explore may not be.

Where Things Go Wrong

Providing too many answers

Parents and teachers who care about learning naturally want to share knowledge. But every answer provided is a question prevented. Children who learn adults quickly resolve uncertainty may stop tolerating the uncomfortable gap that drives curiosity.

The alternative isn’t ignorance—it’s strategic delay. Let the question breathe. Ask what they think. Wonder together before rushing to resolution.

School as curiosity suppressor

The factors are well-documented: standardized curricula, teacher-controlled instruction, fear of wrong answers, classes too large for individual inquiry, testing that rewards knowing over wondering.

Individual parents can’t fix schools, but they can advocate for inquiry-based approaches, supplement with curiosity-rich home environments, and seek classrooms that prioritize questioning.

Frictionless answers

When any question can be answered in seconds, it never fully develops. Children learn to seek resolution before experiencing the gap. The subtle discomfort of not-knowing—which drives deep inquiry—gets short-circuited.

Tools designed to enhance learning may undermine the motivational state that makes learning stick.

Forced curiosity

“Be curious about this!” is a contradiction. Curiosity is intrinsic by definition. Required wonder journals or graded inquiry projects can turn intrinsic motivation into compliance.

The alternative is creating conditions where curiosity is likely to emerge, not demanding that it appear.

Algorithmic narrowing

Children’s digital environments are curated by algorithms showing more of what they’ve already engaged with. Deep but narrow curiosity results—the child who knows everything about Minecraft but hasn’t encountered anything else.

The counter: intentional diversity. Museums, libraries, interesting adults, random books, new experiences not optimized for engagement.

The Research: Going Deeper

That covers the practical guide. What follows is for those who want mechanisms and debates—the science beneath the strategies. If you’ve got what you need, skip to Resources.

The neuroscience of curiosity

The brain processes information acquisition through the same reward circuitry handling food and social connection. When curiosity is satisfied, dopamine releases in nucleus accumbens and ventral striatum—the same areas activated by cocaine and chocolate. The brain literally treats certain information as rewarding.

Different types of curiosity activate reward circuits differently. Joyous exploration and deprivation sensitivity (the need to close gaps) involve overlapping but distinct processes.

The prefrontal cortex handles directing and sustaining curiosity. A child must decide what to be curious about, how to investigate, when to persist versus shift. Its slow development through adolescence explains why children’s curiosity often appears scattered.

Developmental research reveals something surprising: exploration doesn’t simply decrease with age. It transforms from broad, less efficient exploration in toddlers to more targeted, efficient exploration in older children. What looks like declining curiosity may be maturing curiosity.

Where experts disagree

Trait vs. state. Early research treated curiosity as stable personality. Recent work emphasizes situational factors—same person can be curious in one context, disengaged in another. Don’t focus only on “naturally curious” kids. Environments trigger curiosity in anyone.

The replication question. Like many areas of psychology, some curiosity findings haven’t replicated consistently. Core neuroscience appears robust, but specific prescriptions deserve humility.

Too much curiosity? There’s genuine tension. Curiosity involves approaching uncertainty, which can be anxiety-provoking. For some children, unstructured environments increase anxiety rather than learning. The relationship may be curvilinear.

The Western bias. Most research is from WEIRD societies. Cross-cultural studies reveal different cognitive styles across cultures. What looks like “more” or “less” curiosity may be “different” curiosity.

The frontier

AI for curiosity development. Research on conversational agents designed to encourage question-asking shows promise. AI could enhance rather than undermine curiosity—but only with intentional design focused on questions rather than answers.

Interoception connection. New research explores links between body awareness and curiosity. Children attuned to bodily signals may be better at noticing when they’re curious and acting on it.

Computational models. Researchers are building simulations of how curiosity emerges through learning. These may eventually inform educational technology design.

The Fringe

Perspectives from the edges. Not endorsements—but worth knowing.

Unschooling and self-directed learning

The radical position: children left entirely free will learn what they need, when they need it. No curriculum, no requirements.

The appeal: If curiosity is how children naturally learn and school suppresses it, eliminate school.
The critique: Requires exceptional parental resources. May work brilliantly for some, catastrophically for others. Research base is weak—largely self-selected surveys.
Worth considering: Protected spaces for genuinely self-directed exploration have research support, even if full unschooling isn’t feasible.

The case against early academics

Researchers like Susan Engel argue obsession with early reading may crowd out exploratory play where curiosity develops.

The evidence: Finland starts formal reading at 7, consistently ranks among top readers. Earlier isn’t necessarily better.
The tension: There’s middle ground between pressure-cooker instruction and no support.
Worth considering: Resisting the early academics arms race may serve curiosity (and ultimately learning) better.

Schools as curiosity graveyards

The most provocative critique: schools as currently structured cannot support curiosity because their purpose is control and standardization, not exploration.

The evidence: Question-asking collapse is consistent across studies. No intervention has fully reversed it within traditional structures.
The response: Alternative models (Montessori, Reggio Emilia, Sudbury) demonstrate school-like structures can support curiosity. The problem may be specific features, not schooling itself.
Worth considering: If schools are to support curiosity, they may need fundamental redesign, not just new programs.

Resources

If you only do one thing after reading this:

Start here: The Hungry Mind: The Origins of Curiosity in Childhood by Susan Engel. The most thoughtful synthesis of curiosity research, with deep attention to how schools and homes shape questioning.

Contrarian pick: Visit a Reggio Emilia-inspired preschool or Sudbury school if you can. Seeing environments designed around children’s curiosity—where adults follow children’s questions rather than the reverse—shifts your sense of what’s possible.

Books

Curious: The Desire to Know by Todd Kashdan — The scientific foundation for curiosity’s multiple dimensions. Adult-focused but essential background.
The Intellectual Lives of Children by Susan Engel — How children think and develop ideas. Essential for understanding what curiosity supports.
Make Just One Change by Rothstein & Santana — The Question Formulation Technique in detail. Practical and research-grounded.

Research

Gruber et al. (2014) on Curiosity and Memory — The landmark paper showing curiosity enhances memory for everything encountered in that state.
Shah et al. (2018) on Curiosity and Achievement — The study showing curiosity’s association with achievement and its equalizing effect across SES.
Loewenstein (1994) on Information-Gap Theory — The foundational paper on why curiosity feels the way it does.

Tools & Products

Question Formulation Technique — Free protocol for teaching question-generation. Research-validated.
Scratch / Tinkercad — Low-floor, high-ceiling creative tools where learning happens through exploration.
Open-ended construction (LEGO, Magna-Tiles) — No right answer, infinite possibilities, constant “what if…” questioning.
Nature exploration tools — Magnifying glasses, bug catchers, binoculars. Support the natural scientist mode.

Researchers to follow

Susan Engel — Curiosity in childhood. Williams College.
Matthias Gruber — Neuroscience of curiosity. Cardiff.
Todd Kashdan — Curiosity and well-being. George Mason.

Field Notes

Personal reflections and experiments coming soon. Subscribe to get notified when they’re published.

Last updated: 2025-11-29 Status: 🌳 Mature

Want more like this?

Research, guides, and honest takes on raising kids in the age of AI.

Free. Independent. Unsubscribe anytime.

Are you building these literacies at home?

You've read the research on Curiosity. Take 2 minutes to check how you're doing across all 9 literacies and get a practice to try this week.

Take the quiz

Looking for products that build curiosity? We've scored 43 products against this framework. See what scored Strong →

Research-scored against our Curiosity framework. 117 products rated Strong.

Minecraft

Exceptional

Open-world sandbox game where kids build, explore, and survive — developing creativity, persistence, and problem-solving.

Minecraft's procedurally generated worlds are curiosity engines. Every new world is unique, creating constant "what's over that hill?" moments. The crafting system deliberately withholds complete information, requiring discovery through play. A child who starts building a house may discover redstone, which leads to machines, which leads to logic gates. Depth is essentially unlimited.

Project Lead The Way

Exceptional

Major STEM curriculum used in thousands of US schools

Real-world questions do a lot of work here. Students investigate how systems work, why designs fail, and what a better solution might look like. PLTW opens knowledge gaps instead of closing them too quickly.

LEGO Education

Exceptional

Hands-on STEM learning kits combining LEGO building with structured lesson plans and activities.

The kit creates immediate questions: what happens if I move this sensor, change this gear ratio, or rewrite this block? LEGO Education explicitly frames the work around big questions, discoveries, and students' real-life observations. That is a strong curiosity signal because the child can experiment and learn from the result.

Stardew Valley

Exceptional

Farming simulation game emphasizing patience planning and community building

Stardew Valley keeps opening new layers. Villagers have stories, mines hide danger and rewards, and the town changes with time and seasons. The game rewards poking around to see what happens next.

Zelda: Tears of the Kingdom

Exceptional

Open-world puzzle and exploration game with freeform building mechanics

Tears of the Kingdom is built to pull the child toward the unknown. Something interesting is always visible in the distance. The game rewards wondering what is over there and then actually going to see.

What Curiosity Actually Is

Why the breakdown matters

What curiosity isn’t

The key insight

The AI Complication

AI provides answers without the question

Algorithms narrow the exploration space

AI creates the illusion of knowledge

The neuroscience of why this matters

The silver lining

The Research: What We Know

Early Childhood (0-5)

What we know

What you can do

Middle Childhood (6-11)

What we know

What you can do

Adolescence (12+)

What we know

What you can do

At Any Age

Special Considerations

Neurodivergent children

Gender differences

Where Things Go Wrong

Providing too many answers

School as curiosity suppressor

Frictionless answers

Forced curiosity

Algorithmic narrowing

The Research: Going Deeper

The neuroscience of curiosity

Where experts disagree

The frontier

The Fringe

Unschooling and self-directed learning

The case against early academics

Schools as curiosity graveyards

Resources

Books

Research

Tools & Products

Researchers to follow

Field Notes

Want more like this?

Are you building these literacies at home?

Products That Build Curiosity

Minecraft

Project Lead The Way

LEGO Education

Stardew Valley

Zelda: Tears of the Kingdom

DIY.org

Engino STEM Mechanics

Experience CS

Gecko Run Marble Run

Makey Makey

Scratch

Sphero

Adafruit Circuit Playground

AIClub

Arduino Starter Kit

Art of Problem Solving Online

BlocksCAD

Cognimates (MIT-origin)

Geocaching

Kubrio

LEGO Education AI Kit

littleBits

Philosophy for Children (P4C)

Piper Computer Kit

Science Olympiad

Scratch Add-ons AI

Strawbees

Askie

CodaKid

Connetix Tiles

Create & Learn

CS Unplugged

Day of AI (MIT RAISE)