Math counting activities


30 Hands-On Counting Activities for Kids -

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Some kids (and adults too!) have negative feelings about math. It can seem abstract and difficult. But there are lots of fun ways to make it less intimidating. Starting with the very basics, using play and activities there are lots of hands-on counting activities for kids! We’ve done so many activities to teach counting! There are way too many to list them all but here are a few of our themed favorites.

30+ Hands-On Counting Activities

More Counting Activities

Below you’ll find some of the best ideas to include counting skills within other activities like games, crafts, stories and sensory play.

Hands-On Counting Activities and Games

Math Caps: A Math Facts Game from Mosswood Connections

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Easy Preschool Watermelon Counting Game from Homeschool Preschool

Spider Web Number Lacing Activity from Artsy Momma

Fine Motor Activity: Turkey Feather Counting from Artsy Momma

Nuts and Bolts More or Less Game from Preschool Powol Packets

Flower Counting Activity from Teaching 2 and 3 Year Olds

Counting Game for One-to-One Correspondence from Buggy and Buddy

Contact Paper Fall Tree Counting Game from Simple Fun for Kids

Felt Leaf Number Line Activity from Something 2 Offer

Foam Cup Construction with Numbers  from Simple Fun for Kids

Simple Montessori Counting Activity from My Mundane and Miraculous Life

100 Items to Use to Count to 100 from Edventures with Kids

Learning to Count with Pipe Cleaners from School Time Snippets

Hands-on Preschool Counting with Rings on Fingers from School Time Snippets

Skip Counting Activities from What Do We Do All Day

Gross Motor Counting Activities

Teach Counting with a Stair Jumping Game from Homeschool Preschool

Teach Counting with Simon Says from Homeschool Preschool

Gross Motor Math Game: Counting Action Dice from Buggy and Buddy

Hands-On Crafts for Counting

Recycled K Cup Frog Craft and Counting Activity  from Artsy Momma

Spider Counting Craft from Teaching 2 and 3 Year Olds

Pretend Play for Counting

Preschool Math Activity with Bear Counts from Teaching 2 and 3 Year Olds

Personalized Felt Counting Set with Ten Apples Up On Top from Buggy and Buddy

Pretend Play and Number Recognition  from My Mundane and Miraculous Life

Counting 1 to 5 with 5 Little Ducks from Red Ted Art

Hands-On Sensory Activities for Counting

Exploring Numbers with Playdough from Simple Fun for Kids

Dinosaur Sensory Bin: Counting and Math from My Mundane and Miraculous Life

Our Favorite Counting Books:

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Once your child’s creativity is sparked with this fun activity, take it a step further with these engaging resources:

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 Counting Animals on the Farm: Counting book for kids, Learn numbers from 1 to10, Counting Animals Counting Crocodiles Ten Black Dots Hand, Hand, Fingers, Thumb (Bright & Early Board Books) Curious George Learns to Count from 1 to 100 Big Book Chicka Chicka 1, 2, 3

 

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With a little creativity math doesn’t have to be intimidating at all. These hands-on counting activities  are sure to be a hit!

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10 Fun And Educational Counting Activities Kids Can Do At Home

Watching your child enter the wonderful world of counting activities can be equal parts amazing and overwhelming. Math is a whole language in and of itself. Learning how to read and “speak” math will take time!

But have no fear — HOMER is here with 10 fun, educational, and exciting counting activities to make your child’s math learning feel less like a roller coaster and more like a walk through the park.

10 Counting Activities To Try At Home

 

1) Count The Pattern

What You’ll Need
  • A piece of paper
  • A pen for tracking tallies
What To Do

This counting activity can be done inside your house on a rainy day or during a walk around the neighborhood. All you’ll need is your paper, pen, and sharp eyes.

For our example, we’ll go on a nature walk. You will start by saying, “I spy with my little eye something [color] … how many can you find?” To start, we’ll use the example of yellow objects.

Hearing your hint, your child will rush around to count how many yellow flowers, coats, signs, cars, or other objects they can find.

For young kids, their goal can be to find as many yellow items up to 10 as fast as they can. If your child is a little older, their goal can be 20.

You can also switch it up by exchanging the color for other objects. For example, they can try and count the number of dogs, fire hydrants, sidewalk cracks, or birds flying by.

2) Counting Cityscape

What You’ll Need
  • Legos or building blocks
  • A pair of dice
  • Sticky notes
  • Pen or marker
What To Do

For this activity, your child will start by rolling the dice.

They’ll count the dots of whatever number they roll and then stack the matching amount of building blocks into a tall tower. Then, they’ll write out the number of blocks on a sticky note and stick it to the top of their tower like a flag.

This will showcase a couple of different things to your child: one-to-one correspondence and subitizing.

Subitizing refers to a child’s ability to see a small collection of objects and innately understand how many there are without meticulously counting. Subitizing works when reading dice as well.

Encourage your child to repeat this process a few times so they begin to build their own cityscape. If all of their numbers are correct, their reward will be to play King Kong and smash it all down!

3) Ice Cream Cone Counting

What You’ll Need
  • 5 triangle-shaped paper cut-outs (for the cones)
  • 15 different-colored circles (for the ice cream)
  • Glue or tape (if you want to preserve their work!)
  • A sheet of paper with numbers 1 – 5 written across the bottom
  • Leave lots of space in-between!
What To Do

The next best thing to real ice cream cones? Making your own crazy flavors out of paper!

Your child will use the number line on the paper to guide their ice cream assembly. So, for the 1 space, your child will place one ice cream cone and the number of scoops matching the spot on the number line.

They’ll continue up the number line, making ice creams with 2, 3, 4, and eventually 5 scoops. That’s one big ice cream cone! For older kids, you can bump this activity up to 10.

You can take this activity further by turning your ice cream making into a business! Your child can play shopkeeper and you can puppeteer different stuffed animals to come in and order.

Your child will make ice cream cones based on their fuzzy customers’ requests!

4) Penny Toss

What You’ll Need
  • 10 pennies
  • A plastic cup or jar (for shaking)
  • A piece of paper
  • A pen
What To Do

Place the pennies in your shaker jar. Tell your child to shake them all around before turning them upside down and throwing the pennies down onto the floor.

You will be playing against one another: one person for heads and one person for tails.

Then, they’ll take a tally of how many pennies land on heads vs. tails. They’ll count their tallies and circle which one got more in each round. The first person to have “their side” of the penny reach 20 wins!



5) Fill The Cup

What You’ll Need
  • Popcorn or other light but bulky snack
  • 2 plastic cups
  • A pair of dice
What To Do

You and your child will each have your own plastic cup and a die.

You’ll start by rolling your die one person at a time. Whatever number you get, you’ll count that many pieces of popcorn into your cup. The idea is to see whose cup fills up first!

The players all get rewarded by eating their whole cup of popcorn at the end. What’s better than snacktime and math time?

6) Number Maze

What You’ll Need
  • Chalk
  • Sunshine (this activity is done outdoors)
  • A stack of cards (face cards removed)
What To Do

You’ll use your chalk to draw out a grid. You can draw the grid in any form you like, but there should be at least 10 blocks. For more advanced counters, you can expand to 20 blocks.

When filling up the grid, you’ll want to mix and match the placement of the numbers. You don’t want to write them in an obvious sequence, as that will defeat the purpose of the game.

You will be the road map for how your child will get out of the maze. Your child must “escape” the maze by hopping between the numbers you call out.

You’ll call out numbers based on whatever card you draw from the pile. There’s no need to do all 40 cards! Start with 10 cards (all 10 numbers) and if your child really enjoys the game, then try 20.

7) Swat That Number

  • What You’ll Need
  • A fly swatter
  • Sticky notes
  • A marker
What To Do

Write numbers 1 – 10 (or more if your child is learning larger numbers) onto separate sticky notes. Stick them to a wall with a wide space in front of it so there’s room for your child to play.

Call out a number or roll a die. Whatever number is chosen, your child must swat the corresponding sticky note with the fly swatter as hard as they can.

This counting activity will get them moving, thinking, and having a blast!

8) Planting With Numbers

What You’ll Need
  • 10 small cups, numbered 1 – 10
    • Clear cups work best
  • Seeds for a quick-growing plant
    • Snap peas
    • Radish
    • Squash
  • Soil
What To Do

Fill each cup with an appropriate amount of soil. Then, based on the number on each of the cups, your child will plant the same amount of seeds into the labeled cups until all the cups are filled.

The best part? They’ll get to watch their seeds flourish over the next couple of weeks!

They can make their own determinations about which cups grew the best. Were the seeds in the 10 cup too crowded? Were they the perfect amount? You’ll have to wait and see together!

9) Counting With PlayDoh

What You’ll Need
  • PlayDoh
  • Cutouts of numbers 1 – 10 (or plastic fridge magnets)
  • Toothpicks (for kids four and up)
What To Do

For this activity, your child will be making some “spiky” PlayDoh hamburgers. They’ll form the PlayDoh into 10 separate patties. The color, shape, and size are up to them!

With the finished patties, they’ll press a number 1 – 10 into each patty. Then, depending on the patty’s number, they’ll add that many spikes (toothpicks) to it, continuing until all of the patties have the correct amount of toothpicks.

Bon appetit!

This activity helps your child see the relationship between the face value of a number and how many objects it represents.

Quick tip: You may want to avoid using toothpicks if your child is younger than four years old. You can use buttons or other small objects instead.

10) Number Olympics

What You’ll Need
  • A pair of dice or number spinner
What To Do

This game is a great way to have your child learn and burn some energy at the same time (we know you’ll thank us later!).

You will use the number spinner or dice to roll a random number. That number will dictate how many of a certain athletic move your child will complete.

You can use any move that gets your child excited to play — jumping jacks, squats, log rolls, spins, etc.

You can even take the game outside. For example, your child could do a certain number of jumps on the trampoline or have to score a basketball goal a certain number of times.

Get creative, get jumping, and get counting!

Counting Activities For Endless Fun

We hope these counting activities sparked your imagination for ways to make math exciting and fun for your child.

As your partner in learning, we at HOMER know that there will be weeks when there’s just not enough time in the day to grow snap peas or build Lego cities. For those extra busy days in your routine, our personalized learning center is full of counting activities for your child.

Your young learner doesn’t always have to play a complex game to develop their math skills. Our Learn & Grow App will make sure that they get there (and have a blast while doing it!).

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Teaching preschoolers to count by means of project activities

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    Methods of mathematical development (exam)

    Methods of mathematical development (exam)

    1. Basic mathematical concepts: set, number, digit, natural series of numbers, number system, counting, computing, measuring activity, magnitude, shape, geometric figure, time, space.
    The FEMP methodology in the system of pedagogical sciences is designed to assist in preparing preschool children for the perception and assimilation of mathematics - one of the most important subjects in school and the comprehensive development of the child.
    The FEMP technique has a specific, purely mathematical terminology .
    This is:

    - many;

    - number;

    - counting and computing activities;

    - value;

    - geometric figures;

    - time;

    - space.


    SET is a collection of objects that are considered as a whole . The world in which a person lives is represented by a variety of sets: a lot of stars in the sky, plants, animals around him, a lot of different sounds, parts of his own body.

    Sets consist of elements. The elements of the set are the objects that make up the set. These can be real objects (things, toys, drawings), as well as sounds, movements, numbers, etc. .

    The elements of a set can be not only individual objects, but also their combinations . For example, when counting in pairs, triplets, tens. In these cases, the elements of the set are not one object, but two, three, ten - a set.
    Thus, sets are considered as a set, a set , a collection of any objects and objects, united by a common, for all, characteristic property .
    Any property can be considered as belonging to some objects.

    For example, some flowers, berries, cars and other objects have the property to be red . The property of being round is possessed by the moon, the ball, the wheels of bicycles and cars, parts of various machines and machine tools, etc.

    Thus, each property is associated with a set (objects) that have this property. It is also said that the set is characterized by the given property - or the set is given by specifying the characteristic property.
    Under the characteristic property of a set is meant such a property, which all objects belonging to a given set (elements of this set) have, and not a single object that does not belong to it, i.e. this item is not its element.
    If some set A is specified by specifying the characteristic property P , then this is written as follows:
    A = { x | Р ( x )}
    and reads like this: “ A is the set of all x such that x has the property P ”, or, in short, “A is the set of all x with the property P ”. When they say: "the set of all objects that have the property P", they mean those and only those objects that have this property.

    Thus, if the set A is given by the characteristic property P , then this means that it consists of all objects that have this property, and only of them. If some a has the property P , then it belongs to the set A , and vice versa, if the object a belongs to the set A , then it has the property P .


    An infinite set of objects can have some property, only a finite set can have another. Therefore, the sets are subdivided into end and end .
    A finite set can be specified by directly enumerating all of its elements in an arbitrary order. For example, the set of children of a given group living on Sadovaya Street can be described using a characteristic property: { x | x - lives on Sadovaya Street) or listing all its elements in an arbitrary order: {Lena, Sasha, Vitya, Ira, Kolya}.
    It is quite clear that an infinite set cannot be specified by listing all of its elements .

    Mathematics deals more with infinite sets (numbers, points, figures and other objects), but basic mathematical ideas and logical structures can be modeled on finite sets.

    Naturally, in pre-mathematical preparation usually deals with finite sets .
    COUNT - first and main mathematical activity , based on element-by-element comparison of finite sets.

    NUMBER is the general unchanging category of the set , which is an indicator of the cardinality of the set. This is just a sound designation.
    Theoretical foundations for the formation of elementary mathematical concepts in preschoolers include a detailed study of only the system of natural numbers . Therefore, when we say "numbers", we mean natural numbers.
    DIGITS - a system of characters (“letters”) for writing numbers (“words”) (numerical characters). The word “digit” without specification usually means one of the following ten characters: 0 1 2 3 4 5 6 7 8 9 (so-called “Arabic numerals”). Combinations of these numbers generate two (or more) digit numbers.
    The number has 2 values ​​: number and ordinal.
    With a quantitative value of , we are interested in the number of elements in the set. We use the question HOW MUCH? and we start counting with the cardinal number ONE.
    When the ordinal value is , we are interested in the place of the number among others or the ordinal number of the element in the set. The question is WHICH COUNTS? and set the direction of the account. Ordinal numbers are used, counting begins with the word FIRST.
    When we talk about quantity, it does not matter the direction of the count, the object from which the count began. The final number does not change. With an ordinal count, the final number may change.
    COUNTING ACTIVITY is considered as an activity with specific elements of the set, in which a relationship is established between objects and numerals. The study of numerals and sets of objects leads to the assimilation of counting activities.
    CALCULATION ACTIVITY - is an activity with abstract numbers, carried out through addition and subtraction. The simple naming of numerals will not be called counting activity. The system of computational actions is formed on the basis of quantitative knowledge.
    VALUE is the quality and property of an object, with the help of which we compare objects with each other and establish a quantitative characteristic of the compared objects.

    Concept the value in mathematics is considered as the main one.


    Direct answer to the question “what is a quantity?” no, since the general concept of magnitude is a direct generalization of more specific concepts: length, area, volume, mass, speed, etc.
    The size of an object is its relative characteristic , emphasizing the length of individual parts and determining its place among homogeneous ones. The value is a property of an object perceived by various analyzers: visual, tactile and motor. In this case, the size of an object is most often perceived simultaneously by several analyzers: visual-motor, tactile-motor, etc.
    Item size, i.e. Item size is determined by based on comparison of only. It is impossible to say whether it is a large or a small object, it can only be compared with another.

    The perception of magnitude depends on the distance from which the object is perceived, and also on the magnitude of the object with which it is compared . The farther an object is from the one who perceives it, the smaller it seems, and vice versa, the closer it is, the larger it seems.

    The characteristic of the size of the object also depends on its location in the space . The same object can be characterized either as high (low), or as long (short). This depends on whether it is in a horizontal or vertical position. So, for example, in the figure, objects are located in a vertical position and are characterized as high and low, , and in another figure (in a horizontal position), these same objects are characterized as long and short.

    The value of an item is always relative , it depends on which item it is compared to . Comparing an object with a smaller one, we characterize it as a larger one, and comparing the same object with a larger one, we call it a smaller one.

    So, the value of a particular object is characterized by the following features : comparability, variability and relativity.

    1) comparability implemented by:

    - overlay,

    - application,

    - by measuring with a standard measure,

    - comparison by eye.

    2) relativity - depends on the object with which we are comparing, on the distance at which we are comparing, on the location in space.

    3) variability . Size is closely related to size. And size is a property of magnitude variability. Each item has its own generic purpose. It can change its dimensions without changing its essence.
    GEOMETRIC FIGURE is an abstract concept with the help of which we personify all the objects around us in form.

    A geometric figure is the presence of points on a plane, limited by space.


    Figures are flat (circle, square, triangle, polygon…) and spatial (ball, cube, parallelepiped, cone...), which are also called geometric bodies.
    GEOMETRIC BODY is a closed part of space bounded by flat and curved surfaces.
    If the surface bounding the body consists of planes, then the body is called a polyhedron . These planes intersect along straight lines, which are called edges, and form the faces of the body. Each of the faces is a polygon whose sides are the edges of the polyhedron; the vertices of this polygon are called the vertices of the polyhedron.
    Some polyhedra with a certain number of faces have special names : tetrahedron - tetrahedron, hexahedron - exahedron, octahedron - octahedron, dodecahedron - dodecahedron, twenty-sided - icosahedron.
    What is a geometric FORM?

    SHAPE is the outline, the outer appearance of an object.

    Form (lat. forma - shape, appearance) – the mutual arrangement of the boundaries (contours) of the subject, object, as well as the relative position of the points of the line.
    TIME is a philosophical concept that is characterized by the change of events and phenomena and the duration of their existence.
    Time has properties :

    - fluidity (time does not stop)

    - irreversibility and uniqueness

    - duration .


    SPACE is such a quality by means of which relationships such as neighborhoods and distances are established.

    Orientation in space involves orientation towards oneself, away from oneself, from other objects, orientation on the plane and orientation on the ground.

    2. Subject and tasks of the course "Methods of mathematical development and teaching of mathematics". Connection of the methodology of mathematical development with other sciences.
    The methodology for the formation of elementary mathematical representations in the system of pedagogical sciences is designed to assist in preparing preschool children for the perception and assimilation of mathematics - one of the most important subjects in school, to contribute to the education of a comprehensively developed personality.
    Having stood out from preschool pedagogy, the methodology for the formation of elementary mathematical representations has become an independent scientific and educational area.
    The subject of her research is the study of the basic patterns of the process of formation of elementary mathematical representations in preschoolers in the context of public education.
    The range of tasks solved by the method is quite extensive:

    - scientific substantiation of program requirements for the level of development of quantitative, spatial, temporal and other mathematical representations of children in each age group;

    - determination of the content of factual material for preparing a child in kindergarten for learning mathematics at school;

    - improvement of the material on the formation of mathematical representations in the kindergarten program;

    - development and implementation into practice of effective didactic tools, methods and various forms of organizing the process of developing elementary mathematical concepts;

    - implementation of continuity in the formation of basic mathematical concepts in kindergarten and the corresponding concepts in school;

    - development of the content of training highly qualified personnel capable of carrying out pedagogical and methodological work on the formation and development of mathematical concepts in children in all parts of the preschool education system;

    - development on a scientific basis of methodological recommendations for parents on the development of mathematical concepts in children in a family setting.


    The general objective of methodology is to research and develop the practical foundations for the process of forming elementary mathematical representations in preschool children. It is solved from the standpoint of the Marxist-Leninist theory, which will develop a unified view of the world, having discovered the laws of development of nature, society, and the individual, and serves as the methodological, ideological basis of science.
    The formation of elementary mathematical concepts is a purposeful and organized process of transferring and mastering knowledge, techniques and methods of mental activity provided for by the program requirements Its main goal is not only preparation for the successful mastery of mathematics at school, but also the comprehensive development of children.
    The methodology for the formation of elementary mathematical representations in children in kindergarten is associated with many sciences , and above all with those whose subject of study is different aspects of the personality and activity of a preschool child, the process of upbringing and learning.

    She has the closest connection with preschool pedagogy . The methodology for the formation of elementary mathematical representations is based on the tasks of teaching and mental education of the younger generation developed by preschool pedagogy and didactics: principles, conditions, ways, content, means, methods, forms of organization, etc. This connection is mutual in nature: research and development of problems the formation of elementary mathematical concepts in children, in turn, improve the pedagogical theory, enriching it with new factual material.
    Multilateral contacts exist between private methods that study the specific patterns of the process of raising and teaching young children: the method of forming elementary mathematical representations, speech development, theory and methodology of physical education, etc.
    Preparing children for learning mathematics at school cannot be carried out successfully without connection with the methodology of primary teaching of mathematics and those aspects of mathematics itself , which are the theoretical basis for teaching preschoolers and primary school students .

    Reliance on these sciences allows, firstly, to determine the volume and content of knowledge that should be mastered by children in kindergarten, and serve as the foundation of mathematical education; secondly, to use teaching methods and means that fully meet the age characteristics of preschoolers, the requirements of the principle of continuity.

    Education should be built taking into account the patterns of development of cognitive activity, the personality of the child , which is the subject of study of psychological sciences . Perception, representation, thinking, speech not only function, but also intensively develop in the learning process.

    Psychological features and patterns of perception by a child of a variety of objects, numbers, space, time serve as the basis for developing a methodology for the formation of elementary mathematical representations. Psychology determines the age capabilities of children in acquiring knowledge and skills that are not something frozen and vary depending on the type of education.


    The rational construction of the learning process is associated with the creation of optimal conditions based on the anatomical and physiological characteristics of young children. The regularities of the course of physiological processes in preschoolers serve as the basis for determining the duration of classes for the formation of elementary mathematical representations for each age group of the kindergarten, determine their very structure, the combination and alternation of various methods and means of teaching, different types of activities (inclusion of physical education minutes, dosing of educational cognitive tasks, etc.).
    Communication with various sciences creates a theoretical basis for the methodology for the formation of mathematical representations in children in kindergarten.

    3. Stages of development of the methodology of mathematical development: empirical, classical, modern.
    Issues of mathematical development of preschool children are rooted in classical and folk pedagogy. Various counting rhymes, proverbs, sayings, riddles, nursery rhymes were good material in teaching children to count, they made it possible for the child to form concepts about numbers, shape, size, space.

    In the course of mastering them, children not only mastered the recalculation of objects, but also the ability to perceive and realize the changes taking place in the reality around them: natural, color, spatial and temporal; quantitative, changes in shape, size, location, proportions. This ensured the natural development in children of certain ideas, ingenuity and ingenuity.


    The first printed textbook by I. Fedorov "Primer" (1574) included thoughts on the need to teach children to count through various exercises.
    In the XIII-XIX centuries. questions of the content and methods of teaching mathematics to preschool children and the formation of their ideas about size, measurement, time and space can be found in the pedagogical works of Ya. A. Comenius, M.G. Pestalozzi, K.D. Ushinsky, L.N. Tolstoy and others.
    The views of teachers of the XIII—XIX centuries. on the content and methods of development of mathematical representations in children is The first stage in the development of the methodology is empirical.
    Teachers of that era, under the influence of the requirements of developing practice, came to the conclusion that it was necessary to prepare children for learning mathematics at school. They made certain proposals about the content and methods of teaching children, mainly in a family setting. It must be said that they did not develop special manuals for preparing children for school, but included their main ideas in books on education and training.

    Thus, the Czech humanist thinker and teacher Ya.A. Comenius (1592-1670) in the book "Mother School" (1632) recommends even before school to teach the child to count within twenty, the ability to distinguish between larger-smaller, even-odd numbers, compare objects by size, recognize and name some geometric shapes, use in practical activity units of measurement: inch, span, step, pound, etc.

    J. G. Pestalozzi (1746-1827), a Swiss democratic teacher, pointed out the shortcomings of the teaching methods existing at that time, which were based on cramming, and recommended teaching children to count specific objects, understand operations on numbers, and the ability to determine time. The teaching methods proposed by him presuppose the transition from simple elements to more complex ones, the widespread use of visualization, which facilitates the assimilation of numbers by children. The ideas of J. G. Pestalozzi later (mid-19th century) served as the basis for reform in the field of teaching mathematics at school.
    Advanced ideas in teaching children arithmetic before school were expressed by the Russian democrat teacher, the founder of scientific pedagogy in Russia K. D. Ushinsky (1824-1871). He considered it important to teach the child to count individual objects and their groups, to perform addition and subtraction, to form the concept of ten as a unit of account. However, all this was just wishes, without any scientific justification.
    The writer and teacher Leo Tolstoy published in 1872 the "ABC", one of the parts of which was called "Account". Criticizing the existing teaching methods, L.N. Tolstoy suggested teaching children to count "forward" and "backward" within a hundred and numbering, based on children's practical experience gained in the game.

    Methods for developing ideas about number and form in children were reflected and further developed in the systems of sensory education of the German teacher F. Fröbel (1782-1852), the Italian teacher Maria Montessori (1870-1952), etc.


    The classical systems of sensory learning by F. Fröbel (1782-1852) and M. Montessori (1870-1952) present a methodology for introducing children to geometric shapes, sizes, measurement and counting, drawing up rows of objects by size, weight, etc.
    F. Fröbel saw the tasks of teaching counting in the assimilation of a number of numbers by preschool children. He created the famous "Gifts" - a special manual for the development of constructive skills in unity with the knowledge of numbers, shapes, sizes, spatial relationships. F. Fröbel was convinced that the development of "spatial" imagination and thinking at preschool age creates the conditions for the transition to the assimilation of geometry at school. The "gifts" created by F. Fröbel are still being used as didactic material to familiarize children with number, shape, size and spatial relationships.
    M. Montessori, relying on the ideas of self-development and self-learning, recognized the need to create a special environment for mastering numbers, shapes, sizes, as well as written and oral numbering. She suggested using special material for this: counting boxes, bundles of colored beads strung in dozens, abacus, coins, and much more.

    M. Montessori's pedagogical activity proceeded most effectively in the first half of the 20th century. The use of materials for the development of mathematical representation in children in the education and upbringing of a child was based on a certain style of interaction between an adult and a child; the need to monitor the behavior of children in a specially created environment; organizing joint free work with the child, etc. The M. Montessori system provides for the development of the child's sensorimotor sphere and, in the future, intellect. The "golden" mathematical material, which is especially distinguished by its significance, is first mastered by the child as a set of beads in different quantities, then in symbols (numbers), after that - as a means of mastering the ability to compare numbers. Thus, the decimal number system is presented to the child visibly and tangibly, which leads to the successful mastery of arithmetic.


    The section “Logic and Counting” is extensively represented in the M. Montessori system: the study of figures, sizes, methods of measurement, projection, modeling of sets. The following benefits are most interesting: “Figures from carnations”, “Mathematical sun”, “Fold the pattern”, “Combine the sets”.
    In general, teaching mathematics according to the M. Montessori system began with a sensory impression, then a transition was made to understanding the symbol (i.e. , from the concrete to the abstract), which made mathematics attractive and accessible even for 3-4-year-old children.
    So, advanced teachers of the past , Russian and foreign, recognized the role and necessity of primary mathematical knowledge in the development and education of children before school , at the same time singled out account as a means of mental development and strongly recommended that children be taught it as early as possible from about three years of age. Learning was understood by them as "exercise" in performing practical, play actions using visual material, using the experience accumulated by children in distinguishing numbers, time, space, measures in a variety of children's activities.

    The issues of the methodology of mathematical development are of particular importance in the pedagogical literature of elementary school at the turn The authors of the methodological recommendations at that time were advanced teachers and methodologists. The experience of practical workers was not always scientifically substantiated, but it was tested in practice. Over time, he improved, stronger and more fully revealed progressive pedagogical thought.
    At the end of the 19th - at the beginning of the 20th century methodologists had a need to develop a scientific foundation for the arithmetic technique . A significant contribution to the development of the methodology was made by advanced Russian teachers and methodologists P.S. Guriev, A.I. Goldenberg, D.F. Egorov, V.A. Evtushevsky, D.D. Galanin and others.

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