“Did you get new blocks?” four-year-old Marlo shouts as she makes a beeline for a table piled high with SumBlox, our newest early math learning tool.

Without waiting for an answer, she begins stacking the blocks into a tower. Suddenly she stops and asks: “Hey! Are these numbers?” 

“Yep, they are number blocks,” I confirm. “There are lots of different ways to play with them.”

Marlo tilts her head, looks at me quizzically for a second, and then begins to arrange the blocks in numerical order. Within minutes, she has another epiphany.

“Every number gets bigger and taller!” she notes with excitement.

Five-year-old Seana joins Marlo at the table.  “These are cool!” she exclaims.

I continue to observe as these two early learners explore our newest playful math tools.

Just when I thought wooden blocks couldn’t get any better, I discovered SumBlox: wooden blocks shaped like the numbers 1 through 10.

But here’s what truly unique about this block set: Each block’s size reflects its numerical value. For example, the #2 block is twice as tall as the #1 block and the #10 block is 10 times as tall as the #1 block.

These simple yet powerful blocks help children spot numerical patterns and understand the relationships between numbers.

It isn’t long before Seana figures out the magic of these blocks.

“When I stack two blocks together to make them add up to 10 and then line up the different stacks, they are all the same height!” she reports.  (See image above.)

Wow! I think to myself. I love how those little brains work!

Seana smiles and I can see her confidence grow as she stacks different sets of numbers. Her number sense is growing as she “plays” with different number block combinations.

Because the blocks are different heights based on the numbers that they represent, they give children a fun, hands-on way to see how numbers work together, like finding different “friends” for each number that add up to the same amount.

As Marlo and Seana continue to play with the SumBlox, they are learning that different combinations of numbers can form the same total—a key early math concept.

When children can physically manipulate number blocks, they can better understand the concept of  “how much” each number represents. For example, when children see that the #3 block is three times taller than the #1 block, they begin to understand that 3 is more than 1—and the size difference helps them see how numbers grow.

This hands-on approach is especially helpful for visual learners who grasp concepts better by seeing and doing rather than by listening to someone explain the concepts. As children arrange the blocks in various combinations, they can start to recognize patterns such as how numbers add up or how removing some blocks makes a smaller number.

Because the blocks are proportional in size to the numbers they represent, children can see how numbers combine in a visual way.

By placing the #4 and #5 blocks next to the #9 block (see image above), children can see that the heights match, which helps them grasp the idea that 4 + 5 is the same as 9.

Children can also explore how to break down the number 10 into different parts, such as 5 + 5 or 6 + 4, and even experiment with more complex combinations such as 5 + 2 + 3 to reach 10.

This “seeing and touching” approach enables young learners to connect with numbers in a deeper, more meaningful way.

Instead of simply knowing what a number looks like, children begin to understand what that number really represents—how numbers relate to each other, how they change, and how they can be combined or broken down.

All of this helps children develop number sense—a key early math skill.

Number sense can be challenging for young learners to grasp because it involves abstract concepts such as quantity and number relationships.

SumBlox makes these concepts a bit less “abstract” by giving children a hands-on opportunity to practice ordering numbers, which helps them gain confidence as they make and correct mistakes.

As the numbers increase in value, the blocks get taller too, offering a visual cue to help kids understand the concepts of “more” and “less.”

This hands-on approach also makes it easier for children to see the relationships between numbers. As they stack and arrange the blocks, they can practice number recognition, counting, addition, and subtraction. Our more advanced and intrepid early math learners can also explore basic multiplication, division, and fractions.

I love how these blocks also help children spot patterns in numbers and understand how numbers relate to each other.

By observing how towers composed of various SumBlox are taller or shorter, children can see how numbers grow in predictable ways. Simple activities such as putting the blocks in order from 1 to 10 help build number recognition skills, while fostering an understanding of the value represented by each number. Children can begin to see that 10 is much bigger than 1, not just by recognizing the number, but by seeing the difference in the size of the blocks.

A SumBlox set offers a powerful, hands-on way for young learners to explore and understand key early math concepts. Through play, children can physically see and feel the relationships between numbers, which helps build a solid foundation for more advanced math learning down the road.

Playful learning truly makes math enjoyable and meaningful for young minds.

Try pairing SumBlox with Ten, Nine, Eight on our Early Math Counts lesson page!

“How many marshmallows would you like with your hot chocolate, Miss?” asks Cody, imitating a waiter in a fine restaurant as he holds out a tray of yellow pompoms.

“Can I have five, please?” Makenzie responds.

“One, two, three, four, five . . . there you go!” says Cody as he counts out the pretend marshmallows with a flourish.

Then he moves on to Zachary, who says, “I’d like seven marshmallows, please.”

“Okay, ” Cody replies. He glances down at his tray to estimate the number of remaining marshmallows. “But I don’t think I have that many.”

Then he starts to count again, plunking the pretend marshmallows one by one into the different sections of his ten frame to keep track. “One, two, three, four, five . . . hmm, that’s all I have.”

Through this simple interaction, Cody and his friends are developing a deeper understanding of numbers and quantities. When children use ten frames in play, they are actively exploring math concepts in a fun, hands-on way. Ten frames help children visualize numbers and grasp concepts such as grouping, patterns, and relationships.

By physically moving the pompoms from the tray to the different sections of the ten frame, they are also engaging in kinesthetic learning, which is a vital part of early childhood development. This physical interaction with numbers reinforces abstract math concepts such as counting, subitizing (recognizing small quantities without counting), and one-to-one correspondence.

At first, a ten frame may simply feel like part of a game—something that the children use to count objects, organize toys, or create patterns. This playful early exposure to ten frames will make these learning tools less intimidating when they are introduced later as part of the formal primary school curriculum.

The use of ten frames in an informal, low-pressure setting also reduces math anxiety and boosts confidence as children become more comfortable with numbers. When the focus is on exploration and play rather than “getting the right answer,” children develop a positive, confident attitude toward math.

The simple act of filling and emptying a ten frame or organizing objects into groups strengthens neural connections that are crucial for brain development. This tactile play builds fine motor skills, spatial awareness, and problem-solving abilities—all essential for future learning.

When children move objects around in ten frames, they are doing more than practicing math: They are developing foundational skills that will support every aspect of their cognitive development. The more children touch, feel, and explore, the more they learn!

I encourage you to add ten frames to your classroom or home play area and watch as the children engage with them in creative and exciting ways. The best part? You don’t need a formal lesson to get started. Simply let the children explore the ten frames as part of their play and watch how they naturally build basic math skills along the way.

For a story that ties in beautifully with math and the magic of marshmallows, check out The Last Marshmallow by Grace Lin. This charming tale of sharing and counting is perfect for building early math skills through storytelling.

After your book share, check out our “Hot Cocoa Math” lesson plan for a fun and easy way to integrate ten frames into play!

“Here’s a circle!” calls out two-year-old Eleanor.

“My mom calls that a cylinder, and it goes over here,” says four-year-old Nadia.

“A silly-der?” Eleanor is puzzled.

The room erupts in laughter as Nadia gently corrects her: “No, Eleanor, it’s a cylinder.”

Eleanor gamely gives it another try. “Oh, a silly-her?” she asks with a giggle, happy to be the center of attention.

This playful exchange continues, with Eleanor determined to say “cylinder” correctly, much to the hilarity of her friends.

Finally, she nails it: “Your mom calls this a cylinder!” Applause and dancing follow in a lighthearted celebration of Eleanor’s success.

In this vibrant block center gathering, we have all of the ingredients for deep learning. Movement, physical touch, mentoring, and experimentation are all at play.

When mistakes happen, they’re met with laughter rather than frustration and friends are always ready and willing to lend a hand.

This rich environment fosters conversation, cooperation, and problem-solving as the children engage in hands-on learning while meeting important educational standards. 

It’s nearing lunchtime, and the children in the block area have somehow caught a case of “pick up” fever.

This is rare, as many of you know. We usually have one older child who assumes the role of “organizer.” This is the child who likes to put the unit blocks in a specific place and in a specific order, while the younger children struggle just to find room on any available surface.

So when I see the blocks being organized on the shelves by attributes, I stop to observe the collaboration and child-led learning that is unfolding in front of my eyes.

“The long blocks go here,” Nadia instructs her younger friends. “If you have two shorter blocks, you can make a long block. See?”

“We can put two triangles together to make a square and stack them here,” Sasha chimes in.

The excitement in the block area is contagious as the children collaborate, explore, and learn together.

As I observe Saaliha, I can almost see the wheels turning in her mind. She carefully experiments with the blocks, turning them this way and that, determined to find the right fit. It’s deep thinking at its finest. When she sees a friend successfully place a block, she mimics her friend’s technique and—success! There’s no grand celebration, just a quiet determination to find another matching block to solidify her learning.

This is where the magic of hands-on learning happens. Saaliha’s brain might not have grasped these concepts on paper, but the tactile experience of handling blocks and using vocabulary in context has helped her put the pieces of the puzzle together.

As educators, we need to focus on making learning real. The Early Learning Standard is met, but more importantly, Saaliha is developing critical cognitive skills in a way that feels natural and engaging.

These vibrant moments of play offer invaluable opportunities for observation. During these times, we can step back and truly witness the learning that is happening in front of us. 

The block center is often the epicenter of these play buzz moments. Blocks are universally appealing and developmentally appropriate for young children, making them an essential resource in any early childhood setting.

If your program doesn’t have a dedicated block area, consider advocating for one. A well-designed block center can enrich the life of every child and help foster the development of a wide variety of skills.

If you already have a block area, try to carve out longer periods of time for uninterrupted play. Get down on the floor, observe the learning, and check off the early learning standards that the children are meeting. You’ll see so much happening in that corner of your early childhood center, from math and science to geography and art!

The block center is more than just a space for play: It’s a rich environment for building cognitive, social, and emotional skills.

Through block play, children learn about shapes, sizes, and spatial relationships—all while practicing essential communication and cooperation skills.

Let’s embrace these moments of discovery and learning. By fostering a playful atmosphere, you are not only meeting educational standards but also fostering a lifelong love of learning.

So, let’s dive into the block corner and watch our young learners thrive!

“Hey! Let’s play Olympics! ” shouts four-year-old Carl. “We can have a relay race and use a paper towel tube for the relay baton. Who wants to play?”

“Let’s do the long jump!” calls out Celia, who is already jumping up and down with excitement.

A week of watching the Paris Olympic Summer Games at home with their parents has transformed these early learners into Olympic hopefuls!

This Olympics fever has set our play and learning in motion for the week. It’s a great opportunity to get outdoors and get those little bodies moving while we factor in some early math.

I grab a stopwatch and a tape measure to help my early Olympians build their early math foundations.

“Can you time me and see how long I can hang on these rings?” asks Maya.

By incorporating a stopwatch into our Early Math Olympics, I’m giving the children an opportunity to build their number recognition skills by identifying and reading the numbers on the stopwatch display. 

Introducing children to a stopwatch early on can also help them grasp the concept of time in a practical way. By watching the stopwatch record seconds and minutes, kids gain a rudimentary understanding of the passage of time. It’s a hands-on way for them to learn how to measure time and how activities fit into different timeframes.

“Watch how far I can jump and then tell me what number it is!” shouts Caleb.

Our Olympic long jump event encourages the children to develop physical skills such as coordination and strength as they learn about early math concepts such as measurement, counting, comparing, and estimating distances.

We estimate how far the children think they can jump and then record each child’s long jump with the measuring tape. Afterward, we compare the difference between their predictions and the actual results. 

We use a frisbee as a discus and a softball for the shot put. You can measure everything from a long jump to the distance a child can spit a watermelon seed in a seed-spitting contest!  The beauty of these Early Math Olympics is that we get to create our own variations on the actual Olympic games as the day progresses.

Our favorite event of the day is the steeplechase, which combines distance running with several obstacles. An obstacle course may look like play, but it’s chock full of learning opportunities. We created a series of simple obstacles, such as crawling under picnic tables, jumping over cones, and balancing on a beam.

Obstacle courses are a great way for children to develop their spatial skills as they expand their spatial vocabulary.

Set up an obstacle course and listen in as the children naturally use spatial vocabulary words such as above, around, below, beside, between, over, and through.

Obstacle courses also teach children about sequencing, memory, and following directions.

Best of all, kids LOVE them!

As you design your obstacle course, include the following elements to make it both fun and challenging:

• Something to climb over: We climb over the picnic table or up the slide.
• Something to weave around and between: We often use cones or buckets, two-liter plastic bottles filled with water, or landmarks such as trees, bushes and gardens.
• Something to crawl through or under: We use tunnels, parachutes, boxes, etc.
• Something to walk or balance on with care, such as a curved rope, river rocks or tree stumps.
• Something to run toward, such as a fence, a tree, or a door at the beginning or end of the course.

It’s likely that one competitive child in your group will want to make a chart, add columns and times, and keep score. Fortunately, that will satisfy the “Recognizes and Organizes Data and Information” early learning standard for that child. If the scorekeeping catches on with the group, be sure to have a laptop on hand to check off all of those standards!

If your early learners catch Olympic fever this month, sneak in the math, check off those early learning standards, and enjoy the fun!

“I’ll carry the biggest container,” volunteers four-year-old Matthew as the younger children fall in behind him.

Picking strawberries during the first week of summer break is an annual tradition in our early childhood program. What better way to learn about counting, measuring and estimating than to get out in the fresh air and sunshine and enjoy hands-on activities that engage all of the senses—from seeing and hearing to touching, tasting and smelling?

I am fairly certain that we are eating as many strawberries as we pick! But that makes this math-packed adventure even better because children learn best through their senses.

The friendly folks at our local U-pick farm assign us a numbered row to pick from, which gives us yet another way to factor math into our strawberry-picking adventure: number recognition!

“We are in Row 66 today,” I call out to the children as they march behind me, wearing their strawberry boxes as hats.

As we walk past each row, Matthew begins to count, “1 . . . 2 . . . 3 . . .”

“I can do it!” blurts out three-year-old Owen. He races to the front of the line, positions himself at Matthew’s side, and picks up where his older friend left off:  “4 . . .  5 . . . 6 . . .”

Matthew gently takes over the counting when Owen reaches the limits of his number knowledge at the 13th row. But as Matthew counts out the double-digit numbers, I can hear Owen echoing him, which is a great way for Owen and his younger peers to practice their counting skills. 

“Row 66!” Owen stops abruptly and swivels his head from left to right as he surveys the row dotted with bright red strawberries just waiting to be picked. “There must be millions,” he observes in awe.

Maybe not millions, but this is a great opportunity to introduce concepts such as quantity and estimating. In fact, one of the best places to strengthen math skills is in the garden.

“Kindergarten” is a German word that literally means “children’s garden,” which covers Froebel’s concept of “a place for children,” as well as his beliefs regarding childhood growth, development and learning (Elkind, 2015).

Teaching math in a garden comes naturally as children count, sort, find patterns, and organize by size, color or other attributes.

“Look at how big this strawberry is!” Owen exclaims excitedly. “I bet it’s the biggest one we find all day!”

What starts out as a competition to find the largest strawberry is soon replaced by relaxed camaraderie as the children bite into the sun-warmed fruit and the juice stains their lips, chins and fingers bright red.

“Close your eyes and open your hands,” Asa tells Harper as she plops a strawberry into each of Harper’s outstretched palms. “Now tell me which strawberry weighs more.”

Harper obliges. “Definitely this one!” he answers, holding up his left palm and opening his eyes. “But that’s weird because the heavier strawberry is smaller . . .” 

“I know! I thought that was weird, too!” Asa replies.

Hands-on activities with everyday objects help children learn about measurement. Moments like these also offer real-world opportunities for them to discuss math concepts such as size, weight and capacity.

Children need to talk about mathematical concepts and share their theories with one another and their teachers.

“I wonder which basket will weigh more?” I ask Joseph. “Your basket with eight big strawberries or Vera’s basket with 14 little strawberries?”

“Vera’s! She has 14!” shouts Joseph. We decide to weigh them after we’re done picking to see if his guess is correct.  

“I found a double strawberry; I bet it weighs the most!” announces Gabriel with a mischievous grin.

“That’s not FAIR!” the gang whines in unison.

Gabriel laughs. “It’s really cool. I’m taking this one home to show my mom and dad, so please don’t eat it!”

We finish filling our baskets and make our way to the checkout to see how many pounds we’ve picked this year. The sun is getting warmer and our legs are getting weaker. It’s time to rehydrate with some cold water and refuel with a protein-packed lunch.

We’ve picked 13.2 pounds of strawberries! The eight big strawberries in Joseph’s basket did weigh more than the 14 small strawberries in Vera’s basket—but only by two ounces.

No one seems to care. The sun and the heat have sapped us of the energy and enthusiasm we need to discuss size and weight at greater length, but there will be other chances when we return to the classroom.

Although some of these concepts may be a bit too advanced for some of the younger learners in the group, we have planted the seeds for future academic success during a day of fun in the strawberry fields.

Later, back in the classroom, we set up a farmer’s market and invite the parents to purchase baskets of strawberries from their children, who serve as cashiers.

In the days ahead, there will be lots of strawberry snacks, jam-making and strawberry smoothies—along with more opportunities to learn and share early math concepts. 

Sink your teeth into some juicy math this summer. Whether you make it to your local farm, the farmer’s market in your community, or simply introduce fruits and vegetables into your early learning program, there’s plenty of math packed into that yummy summer produce!

“LOOK!” Ellie summons us with such joy that there’s no doubt she has spotted something wonderful.

Our eyes follow the four-year-old as she dashes to a very large, very hollow tree. A tree that is still alive and thriving—with an opening over four feet tall just inviting a group of children and their teacher to peek inside.

“Who lives in there?” asks Clare as she summons up the courage to move closer.

Can we go inside the tree?” asks Veronica, although the question is a rhetorical one because the three-year-old has no intention of venturing inside.

“Is the tree hollow all the way up to the top?” Alex asks in wonder as he approaches the tree and glances upward to assess the tree’s height.

“I think a whole family of squirrels might live in there . . . or bats!” Harper’s pronouncement prompts her peers to quickly back away from the tree.

It’s so quiet and still as everyone contemplates the hollow tree that I’m not sure if the children are even breathing. All eyes are locked on Ellie, our resident risk-taker.

Emboldened by the children’s curiosity, Ellie inches her way closer to the tree’s interior. She is cautious but curious, brave yet apprehensive as she simultaneously challenges herself and calculates the risk at hand. 

Research tells us that children won’t take risks if they think they can’t succeed. But I know Ellie. She is an amazing observer and a visual learner who tends to rely on her senses when approaching an unfamiliar situation.

Today is no different. I watch as Ellie inspects the size, strength and thickness of the trunk. She inspects the ground outside of the tree cavity for animal droppings. She pokes her head into the hole and peers up, down, left and right before stepping inside. Ellie thrives on moments like these and trusts herself to evaluate the situation.

I trust Ellie as much as she trusts herself. These moments of risk-taking and assessment help a child develop cognitive, social-emotional, and self-regulatory skills—traits that make Ellie a natural leader.

Suddenly, Ellie pops back out of the hole in the tree, looks around and beams at the rest of us. “It’s so cool!” she exclaims. “You have to come in!”

One by one, slowly but surely, the children all make their way into this amazing gift from Mother Nature. Children grow in their ability to appraise risk by observing other children at play.

When children observe their friends taking risks and succeeding, they become more confident about taking risks themselves. This confidence carries over to the classroom and prepares them to try something new, possibly fail, and try again.

This hollow tree trunk has evoked wonder and curiosity in the entire gang, sparking a STEM investigation that helps lay the foundation for later math, science, and engineering concepts.

When we let children learn through play, movement, and trial and error, we lay the groundwork for the kind of deep learning that builds new neural connections. These are the moments that inspire our early learners to investigate the possibilities.

Today, nature has provided the ultimate learning tool and transformed a moment of outdoor play into an exploration of the concepts of spatial relationships and geometry. An understanding of spatial relationships helps children talk about where things are located. I hear them use words such as in, out, down, over, under and next to, vocabulary that helps lay the foundation for geometry. 

When children use words such as wide, heavy and light, they are using descriptors for measurement. We begin to get a better sense of measurement as we visually estimate the height of the tree, the height of the entrance hole, and the number of friends who might be able to fit inside the tree. 

When children are guessing, predicting and classifying their ideas, they are engaging in early algebra, the scientific method, and basic engineering design. This morning of play is strengthening their understanding of these concepts as they use the vocabulary words repeatedly throughout their investigation.

Hands-on learning enables children to take their understanding to a deeper level so that they can analyze the information that they have collected and then apply this knowledge when they create their own structures during block play, art projects and clay play.

These are opportunities that are rich in learning, creativity and friendship. Whether they are on the playground or in the classroom, children must take risks that enable them to develop new skills and explore their ideas in a safe and supportive environment.  

Look for opportunities that can build your student’s risk-taking skills. Like our exploration of the hollow tree, these learning adventures will not only build their confidence and self-esteem but lay the foundation for academic success!

“Saaliha, come with me to the light table,” Evelyn whispers. “I have to show you something!”

Hand in hand, the two preschoolers quietly make their way over to our light table. This darkened corner of our classroom never fails to mesmerize the children with its soft glow and luminous colors.

As the days grow shorter and darker—and the hectic holiday season approaches—it’s the perfect time to engage children in calming investigative play with light and color.

Before we gather around the light table, I dim the lights in the classroom and put on some soft music to create a soothing and tranquil setting for the children, who are often overscheduled, tired and anxious during these busy December days.

“Look!” says Evelyn. “I took a play silk from our dress-up bin and put it on the light table!”

Evelyn moves over to make room for Saaliha at the light table and the two friends immerse themselves in STEAM collaboration, problem-solving and investigation. The girls are completely absorbed in their play—and the learning is enhanced by the presence of a friend and collaborator.

“That’s cool!” says Saaliha. “It makes everything look a little different, but you can still see all of the different colors!”  

The light table allows for open-ended play, where children can experiment and create without strict guidelines. This type of play fosters the development of creativity and problem-solving skills as the children follow their curiosity, devise their own experiments and draw their own conclusions. This child-led play also fosters an investigative mindset, which can lead to hours of exploration and discovery.

“Try this!” Evelyn suggests as she shows Saaliha how to duck under the silk to compare the views. 

The girls experiment with different color combinations and share their theories and discoveries. The light table always seems to spark curiosity and encourages children to ask questions and seek answers.

As more children join the investigative play, they expand their knowledge base by collecting data and adding probability to their investigative skills.

This is a shared space that encourages collaborative investigations. Collaboration fosters communication skills, teamwork and the ability to share ideas with peers.

Children work together to create patterns, build structures and explore different materials—a process that helps foster the development verbal and social skills.

The hands-on nature of these activities promotes a deeper understanding of mathematical principles through play.

Children can investigate fundamental mathematical concepts such as counting, sorting, patterns and shapes on the light table. 

These long play periods extend the learning as the group explores spatial relationships, patterns and sequencing, laying a foundation for more advanced mathematical thinking.

Play at the light table is naturally enjoyable for young children. The combination of vibrant colors, interactive materials and the freedom to explore creates a positive and joyful learning experience that can contribute to a lifelong love of learning. 

Light tables allow children to learn at their own pace, which makes the play developmentally appropriate for every early learner. The children build on their own knowledge and share their observations with others.

When children are making observations and discoveries, they are forming and testing hypotheses. These self-directed learning experiences empower them to continue to explore and investigate beyond the classroom.

So turn on that light table and watch the magic of play and discovery brighten the day! 

“Oh, I like your mosaic, Avery!” says Claire, who has wandered over to look at the mosaic that Avery has just created with sidewalk chalk and tape. “Yours only had triangles. We did squares and triangles and those long skinny squares.”

“Oh, you mean rectangles! I want to see it!” Avery exclaims. He jumps up to compare their creations.

Our days have been full of busy children drawing shapes and creating colorful chalk mosaics on the sidewalk. This activity offers many opportunities to work on shape recognition while extending the learning to the outdoor classroom.

Start by creating a shape on the sidewalk or a flat surface with masking tape. Divide the inside area into smaller shapes. If this is your first attempt at introducing chalk mosaics to your students, I would suggest beginning with a few small areas that measure about two feet by three feet, with smaller shapes inside.

Why start out small? The children can see results faster—and smaller is better for our youngest students, who haven’t yet developed the hand and wrist strength to color in larger shapes. On a more practical note, I’ve discovered that smaller shapes are better when the children are using smaller pieces of chalk.

You can always go bigger as the children get the hang of chalk mosaics. If you have an endless supply of wasabi tape, this easy-to-tear tape enables them to create their own shapes inside the larger shape. 

Leaving a basket of chalk nearby will invite the children to start coloring in the shapes. Once the children have completed the mosaic, simply remove the tape and admire the masterpiece! 

As your students learn to identify shapes, they can use spatial orientation vocabulary to describe the relative positions of the shapes. Preschoolers should understand and be able to use positional words such as above, below, beside, in front of, behind, next to, between, on, over, under and inside.

Shapes are the foundation of geometry. Geometry involves shape, size, position, direction and movement.

In early education, geometric skills include identifying and comparing shapes, differentiating between shapes and creating shapes.

Children need hands-on investigation to understand more than just naming or classifying shapes. Our chalk mosaics introduce children to simple shapes—as well as more advanced concepts such as symmetry, angles and fractions.

“My chalk is shrinking really fast!” giggles Rowan.

Oh, how I love shrinking chalk! Yes, we are definitely collecting data, making observations and noticing cause and effect.

But there’s more happening here than meets the eye. We know that the transition to smaller writing utensils helps promote the development of better gripping skills. As the children continue to draw and their pieces of sidewalk chalk get shorter and smaller, they are effectively transitioning to smaller writing tools and increasing their grip strength.

We try not to rush writing in our young learners. But when it happens spontaneously, we try to promote the use of smaller pieces of chalk, crayons or pencils to help them develop age-appropriate gripping skills.

These are all bonuses for kindergarten readiness—above and beyond the early math learning standards. This is the foundation that we talk about when we play our way into academic life. These small steps will enable our children to succeed when it’s time to sit at a desk. 

I have a few insights into the hidden benefits of chalk play—insights that can be shared with parents who may question the value of outdoor play and its role in advancing their children’s kindergarten readiness. Kindergarten, sadly,  involves a lot of sitting time. Children need strength throughout their bodies—including strong core muscles to sit all day. When children get down on their hands and knees and support their upper-body weight with their arms and hands, this strengthens their core muscles, as well as their shoulder muscles, which are so important for fine motor dexterity.

There’s a lot of math built into our chalk play. Follow the lead of your students, connect the curriculum to the play and you’ll meet your learning standards every day!

Looking for more ways to play with shapes? Extend the learning with these Early Math Counts shape lesson plans!

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It’s another 90-degree morning, and we’re going deep into water play to keep our budding mathematicians as cool and happy as possible on this humid, sultry day.

I glance over just in time to catch three-year-old Tahin playing with one of the small watering cans. It’s obvious that no one has mentored him on the fine art of submerging his watering can to fill it up with water. I observe him closely as he problem-solves.

First, he reaches for a small yellow cup, fills it up with water and tries to pour it into the small opening of his watering can. Most of the water runs down the side of the watering can, but he keeps trying, oblivious to his surroundings as he repeats the process over and over with the same disappointing results.

But this little guy is resilient. He doesn’t get frustrated or angry, he doesn’t give up and he doesn’t ask for help. He persists!

Tahin, like most children, can spend countless hours playing with water, pouring it back and forth, watching it spill over the edge of the cup, splashing gently and pouring some more.

My love of water play has been well documented on this blog, and it’s one of our favorite summer learning adventures.

Math might not be the first thing you think of when you think about water play, but water presents many opportunities to explore one of the main areas of mathematics, which is measurement!

If you’ve been using your water table as a “sensory table” filled with something other than water during the winter months, now is a great time to move it outdoors for some long periods of math play.

Children are naturally drawn to water and this naturally occurring (read “free”) element fosters curiosity, imagination, investigation and experimentation. What more could one ask of a learning tool?

I watch as Tahin abandons his first idea and tries a different approach, using the yellow cup to fill a larger yellow bowl, which he then uses to pour the water into his watering can.

When Tahin empties the smaller yellow cup into the larger yellow bowl, he also begins to learn which container holds more and which container holds less.

He also has the opportunity to use the cup as a unit of measurement and see how many cups it takes to fill the larger bowl.

Tahin carefully lifts the larger bowl, moves it close to his plastic watering can and tips it to pour the water into the can. The bowl’s wider rim and the greater volume of water are a winning combination.

Tahin’s second method proves to be successful, and the watering can is soon filled to the brim. This is persistence and problem-solving at its finest!

Water play is always developmentally appropriate, regardless of a child’s physical condition, age, language, gender or culture.

When children are engaged in water play, they tend to lose themselves in the activity and can spend long periods of time experimenting and playing. This encourages children to focus.

Any activity that requires sustained focus will increase a child’s attention span, sharpen problem-solving skills and enable the child to solve more complex problems later in life.

Open-ended water play also presents opportunities for children to use both sides of the brain as they problem-solve.

Children can explore and problem-solve in any manner that they choose, which forces them to be creative as they try out new ideas.

This is an example of executive functioning at work! Executive function skills help us make a plan and troubleshoot when the plan is underway.

Eve (pictured below) is developing and practicing her executive function skills through play!

We like to stimulate the imaginations of our early learners by changing our water-play tools frequently.

Here are just a few of the tools that we add to the mix on different days:

• Throw some ice cubes into the water and give the children slotted spoons to fish them out.
• Scatter sponges around the water play area. This often leads to activities such as washing the bikes or the plastic animals that we keep in the sand play area.
• Styrofoam meat trays and toy boats can be used to transport those plastic animals in water as well.
• Funnels, soup ladies and turkey basters are also big hits.
• Condiment squeeze bottles are great for building grip strength and strengthening the muscles of little hands.

Whenever children play with water, they are exploring mathematical concepts such as volume, capacity, size and shape.

There are many good reasons to bring water play into your outdoor play space. It’s a fun, refreshing pastime that will chase away the children’s lethargy on muggy summer afternoons—and it’s chock full of learning and skill-building opportunities.

What better way to knock out those early learning standards when the temperature and humidity soar?

“I-am-a-robot!  I-can-do-anything!” squeaks Terrell in his best four-year-old robot voice.

“Oh, I like that you used that octagon for your robot’s head,” says Michaela. “I am going to try that!” 

We are deep into robot construction this month and robots are popping up all over our play spaces. We are constructing robots from clay. We have block robots. We have MagnaTile robots and button robots. What a great opportunity to work on shapes and spatial reasoning! 

When children play with shapes, they are building rudimentary skills that lay the foundation for later math learning, as well as reading and writing. Shape recognition and identification can help children understand signs and symbols. Children begin to notice shapes before they have the language to name those shapes. In the toddler and preschool years, children learn to name their first shapes: circles, squares, triangles and rectangles.

Shapes are the foundation of geometry. Children need hands-on investigation to understand more than just naming or classifying shapes. Our robot play acquaints children with simple shapes—as well as more advanced concepts such as symmetry, angles and fractions—as they engage in activities such as measuring, counting or investigating 2D and 3D shapes.

Geometry involves shape, size, position, direction and movement. In early education, geometric skills include identifying and comparing shapes, differentiating between shapes and creating shapes.

During our robot-building bonanza, the children are combining shapes in their constructive play. I watch as they learn that they can combine two squares to make a rectangle. They begin to see what happens when they turn a shape upside down. It is still the same shape even if it looks different. 

Research suggests that preschoolers’ early mathematics learning—including spatial-thinking skills—is related to later success in both reading and math. When children hear us use spatial terms to describe the size, shape and location of objects—and then adopt those words themselves—they perform better in activities requiring spatial skills.

Playing with blocks and puzzles and using spatial words such as above, below, across, on top of, inside and outside enables children to talk about where things are located. This strengthens their understanding of these concepts as they use the vocabulary words repeatedly throughout their play.

Geometric shapes are a kindergarten common core standard, and when children actually play with shapes, the learning becomes deeper, more intentional and more relevant. When children manipulate 3D shapes during hands-on play, they build a deeper understanding of these shapes.

Research has also shown that young children’s spatial skills—rather than their numerical abilities—predict their overall mathematics achievement. The key skill is visualizing what the shapes will look like when they are combined or rotated (Young et al., 2018). A focus on shapes and spaces may provide a more accessible route to math for some children, rather than focusing on numbers alone.

Spatial reasoning develops when children learn how to recognize relationships between 2D shapes and 3D shapes. How is a circle like a ball? How is a square like a box? As children discover that they can rotate, flip and rearrange shapes in different ways to change their possible shape and direction, they become increasingly aware of 2D shapes.

There is a lot of math built into our robot play. Follow the lead of your students, connect the curriculum to the play and you’ll meet your learning standards every day! 

Looking for more ways to play with shapes? Extend the learning with these Early Math Counts shape lesson plans!