What Is Right-Brained Learning? What “Right-Brained” Really Means

The terms “right-brained,” “right-brained learner,” and “right-brained learning” appear throughout the Child1st website and many of our learning resources. But what exactly do we mean by them?

First, an important clarification:

When Child1st describes a person or learning resource as “right-brained,” we don't mean that learning occurs only in the right hemisphere of the brain.

Both hemispheres of the brain work together during learning and everyday activities.

At Child1st, we use right-brained learner as a practical description for learners who tend to show strengths in visual, spatial, holistic, intuitive, creative, pattern-oriented, or hands-on ways of processing information.

And when we describe a Child1st resource as right-brained, we mean that it intentionally incorporates elements such as imagery, pattern, story, movement, hands-on experiences, and meaningful connections to help make abstract or symbolic information easier to understand and remember.

What Does “Right-Brained” Mean?

Historically, certain abilities and types of processing have been associated more strongly with one hemisphere of the brain than the other. This eventually led to the popular descriptions “left-brained” and “right-brained.”

Those terms can become misleading when they are interpreted too literally.

A person isn't using one half of the brain while the other half sits idle. Reading, writing, mathematics, problem-solving, creativity, movement, and communication involve networks and processes working together across the brain.

So why does Child1st continue to use the term?

Because it provides a useful shorthand for describing a pattern we have observed in learners for decades.

Some children readily learn through:

• pictures and visual associations;
• patterns and relationships;
• hands-on experiences;
• purposeful movement;
• stories and meaningful connections;
• seeing the whole before examining its parts; and
• connecting abstract information to something concrete and memorable.

These are the learners we're referring to when we talk about right-brained learners.

What Is a Right-Brained Learner?

A right-brained learner, as Child1st uses the term, is a learner who often gravitates toward visual, spatial, global, intuitive, creative, or experiential ways of understanding information.

A child might:

• notice patterns quickly;
• think in pictures;
• remember where something appeared on a page;
• understand an idea better after seeing an example;
• want to know the purpose of a lesson before focusing on its details;
• enjoy building, drawing, creating, or experimenting;
• make unexpected connections between ideas;
• understand relationships before being able to explain the individual steps;
• benefit from seeing abstract information represented visually; or
• remember something particularly well when learning involves meaningful action or experience.

Not every child will demonstrate every characteristic.

And these characteristics aren't boxes a child must fit into.

They are clues that can help parents and teachers recognize which types of presentation make learning more accessible for an individual learner.

Is your child a right-brained learner?

We've created a separate article devoted specifically to characteristics and identification:

Is Your Child a Right-Brain Dominant Learner?

Right-Brained vs. Left-Brained Learning

Child1st has traditionally used several contrasts to explain differences we commonly see among learners.

For example, one learner may naturally prefer:

sequential → step-by-step

while another may gravitate toward:

global → whole picture first

One might rely heavily on:

verbal explanation

while another benefits greatly from:

visual representation

One may comfortably follow a prescribed sequence, while another notices relationships and creates a different route toward the same answer.

What we don't want to suggest is that every learner belongs entirely on one side of a chart.

A child can be highly visual and also benefit from verbal instruction.

A learner who loves the big picture can learn to work sequentially.

A child who learns beautifully through hands-on experiences can also develop strong abstract reasoning.

These aren't limitations.

They are potential starting points for instruction.

The Child1st Approach: Use Strengths as Bridges

This is at the heart of what Child1st means by right-brained learning.

Our goal isn't to strengthen one “side” at the expense of the other. We want to use a learner's strengths as bridges to skills that are more difficult.

For a learner who readily understands pictures, patterns, stories, movement, or the big picture, those strengths can provide a meaningful pathway into abstract information such as:

• letters and sounds;
• spelling patterns;
• written words;
• mathematical symbols;
• procedures;
• sequences; and
• other concepts that initially seem disconnected or difficult to remember.

Rather than asking children to leave their strengths behind when they encounter difficult material, we put those strengths to work.

What Does It Mean When a Child1st Product Is “Right-Brained”?

This distinction is important because several Child1st resources use Right-Brained in their names.

Take Right-Brained Addition & Subtraction, for example. 

The resource doesn't teach mathematics using only the right hemisphere of the brain.

Instead, it uses meaningful visual representations, patterns, hands-on experiences, stories, and other supports to make symbolic and sequential mathematical concepts more accessible.

The same basic philosophy runs throughout Child1st resources.

We take the content children need to learn and consider how we can present and practice that content in ways that make it meaningful, concrete, memorable, and connected.

In other words:

The learning objective doesn't change. The pathway we use to reach it can.

How Might a Right-Brained Learner Approach New Information?

Imagine you're teaching a new concept.

A highly sequential learner may be comfortable beginning with the first small piece, mastering it, proceeding to the second, and gradually assembling the pieces into a whole.

Another learner may immediately wonder: 

What are we doing?

Where is this going?

How do these pieces fit together?

For that learner, showing the destination first can provide a framework for everything that follows.

Think of assembling a large jigsaw puzzle.

You could attempt to assemble 1,000 pieces without ever seeing the picture on the box.

But seeing the completed picture helps you understand where the individual pieces belong.

The same principle can sometimes help with learning.

Show the whole. Then explicitly teach the parts and how they relate to that whole.

Start With the Goal

Before beginning instruction, tell children what they're going to learn and why.

For example:

“Today we're going to learn three ways to spell the Long A sound.”

Then give them a glimpse of the larger picture before focusing on today's particular patterns.

Or:

“Today we're going to discover different combinations that make 10.”

Show what the finished concept looks like, and then explore the individual relationships.

Help Learners Notice Patterns and Relationships

Pattern recognition can turn apparently disconnected pieces of information into something meaningful.

Suppose you're teaching that ee can represent the Long E sound.

Rather than showing only one word, examine several:

free
tree
bee
see
sheep
cheese
wheel

Ask:

“What do you notice?”

Then explicitly draw attention to the common spelling pattern and sound.

The child isn't being asked to discover the entire phonics system independently. Instead, the visual pattern provides a meaningful context for the skill you're explicitly teaching.

The same approach can work in mathematics, spelling, grammar, science, and many other subjects.

Ask:

How are these alike?

What's different?

What pattern do you notice?

How does this new idea connect with something we already know?

Use Meaningful Visuals

For a learner who thinks visually, an image can provide a powerful anchor for abstract information.

But not every picture is an instructional visual.

The strongest visual supports carry meaning directly related to what the child is learning.

For example, with SnapWords®, an image associated with the word initially provides a meaningful visual anchor. Instruction and practice then help the learner progress toward recognizing and reading the plain word automatically.

With Sound Spelling, visual elements help draw attention to sound-spelling relationships and patterns.

And in Right-Brained Math, quantities and relationships are represented in ways children can see and manipulate before relying exclusively on abstract mathematical notation.

The visual is a bridge, not the final destination.

Use Purposeful Movement and Hands-On Learning

Some children understand or remember a concept more readily when they can interact physically with it.

That might mean:

• building words with letter tiles;
• tracing while saying a sound;
• manipulating objects to understand quantity;
• sorting examples according to a pattern;
• acting out a vocabulary word;
• using a body motion associated with a concept; or
• physically constructing or demonstrating an idea.

The important distinction is purposeful movement.

Movement isn't being added simply to make the lesson entertaining.

The action should represent, reinforce, or provide practice with the concept being learned.

This is particularly valuable for learners who show strong tactile or kinesthetic learning preferences.

What Is a Tactile Learner? Tactile vs. Kinesthetic Learning

Use Visualization to Connect Words With Meaning

Visualization can also help children connect language with meaning.

After reading a short passage, ask:

“What do you picture happening?”

A child might first describe the image verbally, draw it, or act it out.

Then return to the text:

What words gave you that picture?

Did the author tell us that, or did we add it ourselves?

This helps keep visualization connected to comprehension rather than allowing the mental image to replace careful reading.

With practice, learners can increasingly create and evaluate these mental representations internally.

What About Repetition and Practice?

Rote repetition without understanding or meaningful connections can be frustrating and ineffective for some learners.

But children still need practice and review.

The difference is in how we practice.

Instead of repeating the exact same activity again and again, a learner might encounter a concept through:

See it → Say it → Build it → Write it → Find the pattern → Use it → Read it in context → Retrieve it later

The skill is practiced repeatedly, but the practice remains meaningful and increasingly independent.

The goal is understanding plus automaticity, not memorization without meaning.

Right-Brained Learning and Reading

Right-brained learning does not mean replacing phonics with pictures or teaching children to recognize every word as an indivisible visual shape.

Children learning to read need foundational skills including phonemic awareness, explicit and systematic phonics, decoding, encoding, fluency, vocabulary, and comprehension.

What Child1st adds is another question:

How can we make those skills understandable and memorable for a learner who isn't responding well to a traditional presentation?

Meaningful imagery, patterns, stories, hands-on activities, and purposeful movement can provide additional supports while the child develops the underlying reading skills.

Teach the essential skills explicitly—and use the child's strengths to help those skills make sense and stick.

How to Teach a Child with Dyslexia to Read: 8 Helpful Strategies

Right-Brained Learning and Math

Math provides another excellent example.

Mathematical symbols are abstract.

A child may be told:

7 + 3 = 10

and memorize the fact without really understanding the relationship.

Instead, we can help the child see and experience the quantity.

Build seven.

Add three.

See ten.

Notice other combinations that make ten.

Then connect those experiences directly to the abstract notation:

7 + 3 = 10

As understanding grows, the concrete and visual supports can gradually give way to increasingly abstract and automatic mathematical thinking.

[Internal link: Right-Brained Math]

Does Every Right-Brained Learner Learn the Same Way?

No.

That's one of the most important things to remember.

Terms such as visual learner, kinesthetic learner, tactile learner, global learner, and right-brained learner can help us describe patterns we observe.

They should not become rigid prescriptions.

A child may demonstrate strong visual-spatial abilities while preferring hands-on learning for mathematics.

Another may love drawing but learn phonics most efficiently by seeing, hearing, saying, and writing sound-spelling patterns together.

Our job isn't to determine a child's category and then teach only through that mode.

It's to ask:

What does this child already understand?

Where is the difficulty?

What needs to be explicitly taught?

What presentation makes the concept clearest?

What helps this learner remember and apply it independently?

Those questions are far more useful than a label by itself.

What If Traditional Instruction Isn't Reaching the Child?

A child can be bright, creative, curious, and capable—and still struggle with a particular academic skill.

When that happens, it can be tempting to conclude:

They aren't paying attention.

They need more repetition.

They're just not good at this.

Sometimes what we really need is better information.

Determine exactly which skill is insecure. Teach it explicitly. Provide guided practice. Then consider whether a different representation—visual, concrete, patterned, hands-on, or connected to a meaningful whole—helps the child understand what previously seemed abstract.

Changing the presentation isn't lowering the standard.

The destination remains the same. We're finding a more effective route for reaching it.

Using Strengths While Building New Skills

Supporting a child's strengths does not mean avoiding areas of difficulty.

A learner who naturally thinks globally can develop stronger sequential skills.

A child who relies heavily on visual information can develop listening and verbal processing.

A hands-on learner can learn to work with increasingly abstract concepts.

A child who finds decoding difficult still needs to learn to decode.

We can develop those skills without requiring children to abandon the strengths they already possess.

That's the essence of the Child1st approach.

Learn More About Right-Brained Learning

If you'd like to explore a particular aspect of right-brained learning, continue with:

Is Your Child a Right-Brain Dominant Learner?
Learn about characteristics commonly associated with right-brained learners and what they can look like in children.

How to Teach Right-Brained Learners
Explore practical ways to make abstract concepts more visual, concrete, patterned, and meaningful.

How to Strengthen Left-Brain Processing for Right-Brained Learners
Learn ways to help children develop skills that may require more sequential or analytical processing.