This document provides an overview of the different mathematical methods taught at Minchinhampton school. It explains that traditional methods are now used less to develop number skills and understanding. The methods are presented in a progressive order and are designed to aid conceptual understanding and support mental calculations. Pupils are taught methods appropriate to their level of understanding of numbers. Older pupils are creating videos to demonstrate the methods being used. The document then provides details on the specific methods used for addition, subtraction, multiplication and division.
This document describes how to use a counting up method for subtraction of whole numbers. It explains that counting up involves adding on from the smaller number to the larger number in stages. This can be recorded on a number line and then developed into a column method. Examples are provided for subtracting two-digit and three-digit numbers using this method. As confidence increases, fewer steps may be needed in the column method.
The document discusses differentiation and tangents. It explains that differentiation finds the gradient of a curve at a point and is needed because curves have changing gradients. It provides examples of differentiating simple functions like y=3x^5. Tangents are lines that touch a curve at a single point, with the same gradient as the curve at that point. To find the equation of a tangent, take the derivative and plug in the x-value to get the slope, then use the point to find the y-intercept. Normals are perpendicular to tangents, with a gradient equal to the negative reciprocal of the tangent's gradient.
The document discusses using a number line to subtract whole numbers. It explains that a number line can be used to subtract either by counting back, which involves subtracting the numbers in stages moving from the larger to the smaller number, or by counting on, which involves adding the numbers in stages moving from the smaller to the larger number. It provides examples of using counting back and counting on to solve 16 - 7. It also discusses subtracting larger numbers by either working with the tens place value first then the ones, or vice versa.
This document describes the method of subtraction using partitioning. It explains that partitioning involves splitting the smaller number into place values like tens and ones and then subtracting place values one at a time, starting with the largest place value. It provides an example of subtracting 86 - 47 by first subtracting the tens (86 - 40) and then the ones. It also demonstrates how this method can be used for larger numbers by splitting the smaller number into hundreds, tens, and ones.
This document provides information about further maths sessions and matrix algebra. It states that further maths sessions may cover topics students have not been taught or are already experts in, and provides past papers and questions for practice. It also provides instructions on using matrices to represent combined sales data from two shops and how to perform basic matrix operations like addition, subtraction, multiplication by a scalar and between matrices. These include using the correct matrix dimensions and order when performing operations.
The document discusses the order of operations in mathematics. It explains that the order of operations (PEMDAS) - Parentheses, Exponents, Multiplication, Division, Addition, Subtraction - provides rules for which operations to perform first in a mathematical expression without changing the result. It provides examples of evaluating expressions using the proper order of operations and also provides links to online games for practicing order of operations skills.
This document describes how to use a number line to add whole numbers. It explains that a number line is useful for additions that require carrying to the next multiple of ten. It demonstrates adding 9+7 and shows working through the stages on a number line. It then discusses adding larger numbers like 39+47, showing that you can either add the tens first and then the units, or the units first and then the tens, working through the stages on a number line both ways.
The document discusses the Order of Operations, which provides rules for evaluating mathematical expressions with multiple operations. It explains that the acronym PEMDAS - Parentheses, Exponents, Multiplication, Division, Addition, Subtraction - represents the correct order to evaluate terms from left to right. Several example problems are provided and worked through step-by-step to demonstrate how following the Order of Operations determines the correct result.
This document describes how to use a counting up method for subtraction of whole numbers. It explains that counting up involves adding on from the smaller number to the larger number in stages. This can be recorded on a number line and then developed into a column method. Examples are provided for subtracting two-digit and three-digit numbers using this method. As confidence increases, fewer steps may be needed in the column method.
The document discusses differentiation and tangents. It explains that differentiation finds the gradient of a curve at a point and is needed because curves have changing gradients. It provides examples of differentiating simple functions like y=3x^5. Tangents are lines that touch a curve at a single point, with the same gradient as the curve at that point. To find the equation of a tangent, take the derivative and plug in the x-value to get the slope, then use the point to find the y-intercept. Normals are perpendicular to tangents, with a gradient equal to the negative reciprocal of the tangent's gradient.
The document discusses using a number line to subtract whole numbers. It explains that a number line can be used to subtract either by counting back, which involves subtracting the numbers in stages moving from the larger to the smaller number, or by counting on, which involves adding the numbers in stages moving from the smaller to the larger number. It provides examples of using counting back and counting on to solve 16 - 7. It also discusses subtracting larger numbers by either working with the tens place value first then the ones, or vice versa.
This document describes the method of subtraction using partitioning. It explains that partitioning involves splitting the smaller number into place values like tens and ones and then subtracting place values one at a time, starting with the largest place value. It provides an example of subtracting 86 - 47 by first subtracting the tens (86 - 40) and then the ones. It also demonstrates how this method can be used for larger numbers by splitting the smaller number into hundreds, tens, and ones.
This document provides information about further maths sessions and matrix algebra. It states that further maths sessions may cover topics students have not been taught or are already experts in, and provides past papers and questions for practice. It also provides instructions on using matrices to represent combined sales data from two shops and how to perform basic matrix operations like addition, subtraction, multiplication by a scalar and between matrices. These include using the correct matrix dimensions and order when performing operations.
The document discusses the order of operations in mathematics. It explains that the order of operations (PEMDAS) - Parentheses, Exponents, Multiplication, Division, Addition, Subtraction - provides rules for which operations to perform first in a mathematical expression without changing the result. It provides examples of evaluating expressions using the proper order of operations and also provides links to online games for practicing order of operations skills.
This document describes how to use a number line to add whole numbers. It explains that a number line is useful for additions that require carrying to the next multiple of ten. It demonstrates adding 9+7 and shows working through the stages on a number line. It then discusses adding larger numbers like 39+47, showing that you can either add the tens first and then the units, or the units first and then the tens, working through the stages on a number line both ways.
The document discusses the Order of Operations, which provides rules for evaluating mathematical expressions with multiple operations. It explains that the acronym PEMDAS - Parentheses, Exponents, Multiplication, Division, Addition, Subtraction - represents the correct order to evaluate terms from left to right. Several example problems are provided and worked through step-by-step to demonstrate how following the Order of Operations determines the correct result.
The document provides instructions for building a box and whiskers plot. It explains that box and whisker plots use the median, quartiles, minimum and maximum values of a dataset. The instructions say to line up the numbers, find the median of the top and bottom halves, and note the minimum and maximum. A number line is drawn and boxes are placed around the middle values with whiskers extending to the minimum and maximum to complete the plot. An example is provided of calculating the values for a box and whiskers plot from a dataset.
Ratios and proportions can be used to compare quantities and solve problems involving relationships between quantities.
A ratio compares two numbers or quantities and can be written in several forms such as a:b. Ratios can be simplified by dividing both the numerator and denominator by their greatest common factor.
A proportion is an equation that equates two ratios, such as a/b = c/d, and satisfies the property that the product of the means equals the product of the extremes (ad = bc). Proportions can be solved using cross-multiplication or taking the reciprocal of one side.
Ratios and proportions can be applied to solve word problems involving distances, quantities, prices, and other real-world relationships.
The document discusses the order of operations rules for evaluating arithmetic expressions. It explains that the order is: 1) operations within grouping symbols, 2) exponents, 3) multiplication and division from left to right, 4) addition and subtraction from left to right. Following the order of operations is important so that everyone calculates expressions the same way and achieves consistent results. The document provides examples of evaluating expressions with different operations like exponents, grouping symbols, and fractions.
This document discusses the importance of order of operations, known as PEMDAS, when solving mathematical expressions and equations. PEMDAS stands for Parentheses, Exponents, Multiplication, Division, Addition, Subtraction. The order matters because changing the order can lead to incorrect solutions. Several examples are provided to demonstrate solving expressions and equations using the proper order of operations versus ignoring it. The document also discusses how order of operations applies when variables are introduced. Upcoming math-focused events at the learning center are listed at the end.
Cuisenaire rods were invented by Emile Cuisenaire in the early 20th century and popularized by Caleb Gattegno in the 1950s. The rods are integer-length blocks used to teach mathematical concepts like addition, subtraction, multiplication and division visually. The document provides examples of how to use the colored rods to represent and solve math problems involving these operations. It also covers fractions, area, perimeter and symmetry.
This document provides an overview of fractions, including definitions, terms, operations, and examples. It defines fractions as parts of a whole, explains how to write improper fractions as mixed numbers, and how to simplify, multiply, divide, add and subtract fractions. It gives examples for each operation and encourages reaching the lowest terms when simplifying fractions. Upcoming math-focused events are also listed.
The document explains the order of operations (PEMDAS) for solving math problems with multiple operations. PEMDAS stands for "Please Excuse My Dear Aunt Sally" and dictates that operations in parentheses, exponents, multiplication/division (left to right), and addition/subtraction (left to right) take precedence from left to right when evaluating expressions. Several examples are provided to demonstrate applying the order of operations to solve multi-step math problems.
The document discusses the proper order of operations in mathematics expressions:
1) Perform any calculations within parentheses.
2) Evaluate exponents.
3) Multiply and divide in order from left to right.
4) Add and subtract in order from left to right.
It also provides examples of applying the order of operations and recommends remembering it using the acronym PEMDAS.
The document describes the column addition method for adding larger whole numbers and decimals. It explains that with column addition, the ones place values are added first and any tens are carried over to the tens column. Then the tens values are added along with any carried tens, and hundreds are carried to the hundreds column. Finally, the hundreds place values are added. An example problem walks through adding 496 + 138 using this column addition method.
This document provides instruction on calculating measures of variability such as range, quartiles, and creating box-and-whisker plots. It includes examples of finding the range and quartiles for data sets. Additional examples demonstrate how to make box-and-whisker plots from data and compare plots to analyze differences between data sets. Practice problems are provided to have students calculate range, quartiles, and create box-and-whisker plots.
This document provides instructions and examples for adding and subtracting decimals. It explains the basic steps of lining up the decimal point and filling in missing places with zeros before adding or subtracting. When subtracting across zeros, it notes to borrow from the first non-zero digit if needed. Several examples show evaluating decimal expressions by substituting values for variables and performing the indicated operations. The document concludes with a quiz to assess understanding of adding and subtracting decimals.
This document discusses solving systems of linear equations in three main ways: graphically, using the elimination method, and using the substitution method. It provides examples of each method and explains that a system can have one solution, no solution, or infinite solutions depending on whether the lines intersect at one point, are parallel, or are the same line. It encourages readers to try solving sample systems of equations on their own.
This document contains explanations and examples regarding triangle theorems and properties including: the exterior angle theorem, isosceles triangle theorem, relationship between side length and angle size, triangle inequality theorem, and determining possible third side lengths given two sides of a triangle. Examples are provided to demonstrate applying these triangle concepts to determine largest angles, longest/shortest sides, and possible side lengths.
The document explains the order of operations (PEMDAS) for solving mathematical expressions:
1) Parentheses and division bars are solved first from left to right.
2) Exponents are solved next from left to right.
3) Multiplication and division are solved next from left to right.
4) Addition and subtraction are solved last from left to right.
It provides examples of solving expressions using PEMDAS and emphasizes the importance of checking your work.
Powerpoint on adding and subtracting decimals notesLea Perez
This document provides instructions for adding and subtracting decimals. It explains that to add decimals, you line up the decimal points and add the columns from right to left, placing the decimal in the answer below the other decimals. Two examples of decimal addition are shown. It also explains that to subtract decimals, you line up the decimal points, subtract the columns from right to left regrouping if needed, and place the decimal in the answer below the other decimals, demonstrating with one example. It concludes with a practice problem.
The document discusses the order of operations, known by the acronym MDAS. MDAS stands for Multiplication/Division from left to right, then Addition/Subtraction from left to right. Examples are provided to demonstrate solving equations step-by-step according to the MDAS rule. Readers are instructed to practice solving sample equations on a mini whiteboard by first performing all multiplications and divisions from left to right, then all additions and subtractions from left to right.
The document discusses adding numbers using the base ten system. It explains that all numbers are made up of the same 10 digits and that place value determines the value of each digit. When adding numbers, we line up the digits by place value with ones under ones and tens under tens. This is similar to how we would arrange base ten blocks, grouping ones blocks together and tens blocks together before adding. Whether using blocks or the standard written algorithm, adding follows the same place value steps of adding ones first before tens. Practice problems are provided to apply these addition strategies.
1) The document provides examples of writing equations of lines in slope-intercept form that are parallel or perpendicular to given lines and pass through given points.
2) The examples show finding the slope of the given line, determining if the required line is parallel or perpendicular, setting up the equation in slope-intercept form using the appropriate slope, and solving for the y-intercept.
3) Common steps are finding the original slope, calculating the parallel or perpendicular slope, and substituting points into the line equation to solve for the y-intercept.
The document discusses various topics in mathematics including natural numbers, whole numbers, division, prime numbers, fractions, ratios, proportions, percentages, profit and loss, simple interest, areas, volumes, algebraic expressions, and arithmetic and geometric progressions. It provides definitions, formulas, examples, and explanations for these essential mathematical concepts.
Have you studied from a popup book where lot of different characters like animals, birds, fishes and many more come out of the book into the 3D world with a small story with it. Gameiva brings an exact 3D educational alphabet learning game for kids. Visit @ bit.ly/NumbersPopUpBook
The document discusses place value charts and their uses for teaching place value and multi-digit addition and subtraction. Place value charts organize numbers into hundreds, tens, and ones places and can be used to solve problems that require regrouping. They are particularly useful for larger numbers that may be difficult to represent with base ten blocks. Students may work in small groups on activities like Expando, Basketball Addition, Roll & Build, and Place Value Disk Addition that incorporate the use of place value charts.
The document provides instructions for building a box and whiskers plot. It explains that box and whisker plots use the median, quartiles, minimum and maximum values of a dataset. The instructions say to line up the numbers, find the median of the top and bottom halves, and note the minimum and maximum. A number line is drawn and boxes are placed around the middle values with whiskers extending to the minimum and maximum to complete the plot. An example is provided of calculating the values for a box and whiskers plot from a dataset.
Ratios and proportions can be used to compare quantities and solve problems involving relationships between quantities.
A ratio compares two numbers or quantities and can be written in several forms such as a:b. Ratios can be simplified by dividing both the numerator and denominator by their greatest common factor.
A proportion is an equation that equates two ratios, such as a/b = c/d, and satisfies the property that the product of the means equals the product of the extremes (ad = bc). Proportions can be solved using cross-multiplication or taking the reciprocal of one side.
Ratios and proportions can be applied to solve word problems involving distances, quantities, prices, and other real-world relationships.
The document discusses the order of operations rules for evaluating arithmetic expressions. It explains that the order is: 1) operations within grouping symbols, 2) exponents, 3) multiplication and division from left to right, 4) addition and subtraction from left to right. Following the order of operations is important so that everyone calculates expressions the same way and achieves consistent results. The document provides examples of evaluating expressions with different operations like exponents, grouping symbols, and fractions.
This document discusses the importance of order of operations, known as PEMDAS, when solving mathematical expressions and equations. PEMDAS stands for Parentheses, Exponents, Multiplication, Division, Addition, Subtraction. The order matters because changing the order can lead to incorrect solutions. Several examples are provided to demonstrate solving expressions and equations using the proper order of operations versus ignoring it. The document also discusses how order of operations applies when variables are introduced. Upcoming math-focused events at the learning center are listed at the end.
Cuisenaire rods were invented by Emile Cuisenaire in the early 20th century and popularized by Caleb Gattegno in the 1950s. The rods are integer-length blocks used to teach mathematical concepts like addition, subtraction, multiplication and division visually. The document provides examples of how to use the colored rods to represent and solve math problems involving these operations. It also covers fractions, area, perimeter and symmetry.
This document provides an overview of fractions, including definitions, terms, operations, and examples. It defines fractions as parts of a whole, explains how to write improper fractions as mixed numbers, and how to simplify, multiply, divide, add and subtract fractions. It gives examples for each operation and encourages reaching the lowest terms when simplifying fractions. Upcoming math-focused events are also listed.
The document explains the order of operations (PEMDAS) for solving math problems with multiple operations. PEMDAS stands for "Please Excuse My Dear Aunt Sally" and dictates that operations in parentheses, exponents, multiplication/division (left to right), and addition/subtraction (left to right) take precedence from left to right when evaluating expressions. Several examples are provided to demonstrate applying the order of operations to solve multi-step math problems.
The document discusses the proper order of operations in mathematics expressions:
1) Perform any calculations within parentheses.
2) Evaluate exponents.
3) Multiply and divide in order from left to right.
4) Add and subtract in order from left to right.
It also provides examples of applying the order of operations and recommends remembering it using the acronym PEMDAS.
The document describes the column addition method for adding larger whole numbers and decimals. It explains that with column addition, the ones place values are added first and any tens are carried over to the tens column. Then the tens values are added along with any carried tens, and hundreds are carried to the hundreds column. Finally, the hundreds place values are added. An example problem walks through adding 496 + 138 using this column addition method.
This document provides instruction on calculating measures of variability such as range, quartiles, and creating box-and-whisker plots. It includes examples of finding the range and quartiles for data sets. Additional examples demonstrate how to make box-and-whisker plots from data and compare plots to analyze differences between data sets. Practice problems are provided to have students calculate range, quartiles, and create box-and-whisker plots.
This document provides instructions and examples for adding and subtracting decimals. It explains the basic steps of lining up the decimal point and filling in missing places with zeros before adding or subtracting. When subtracting across zeros, it notes to borrow from the first non-zero digit if needed. Several examples show evaluating decimal expressions by substituting values for variables and performing the indicated operations. The document concludes with a quiz to assess understanding of adding and subtracting decimals.
This document discusses solving systems of linear equations in three main ways: graphically, using the elimination method, and using the substitution method. It provides examples of each method and explains that a system can have one solution, no solution, or infinite solutions depending on whether the lines intersect at one point, are parallel, or are the same line. It encourages readers to try solving sample systems of equations on their own.
This document contains explanations and examples regarding triangle theorems and properties including: the exterior angle theorem, isosceles triangle theorem, relationship between side length and angle size, triangle inequality theorem, and determining possible third side lengths given two sides of a triangle. Examples are provided to demonstrate applying these triangle concepts to determine largest angles, longest/shortest sides, and possible side lengths.
The document explains the order of operations (PEMDAS) for solving mathematical expressions:
1) Parentheses and division bars are solved first from left to right.
2) Exponents are solved next from left to right.
3) Multiplication and division are solved next from left to right.
4) Addition and subtraction are solved last from left to right.
It provides examples of solving expressions using PEMDAS and emphasizes the importance of checking your work.
Powerpoint on adding and subtracting decimals notesLea Perez
This document provides instructions for adding and subtracting decimals. It explains that to add decimals, you line up the decimal points and add the columns from right to left, placing the decimal in the answer below the other decimals. Two examples of decimal addition are shown. It also explains that to subtract decimals, you line up the decimal points, subtract the columns from right to left regrouping if needed, and place the decimal in the answer below the other decimals, demonstrating with one example. It concludes with a practice problem.
The document discusses the order of operations, known by the acronym MDAS. MDAS stands for Multiplication/Division from left to right, then Addition/Subtraction from left to right. Examples are provided to demonstrate solving equations step-by-step according to the MDAS rule. Readers are instructed to practice solving sample equations on a mini whiteboard by first performing all multiplications and divisions from left to right, then all additions and subtractions from left to right.
The document discusses adding numbers using the base ten system. It explains that all numbers are made up of the same 10 digits and that place value determines the value of each digit. When adding numbers, we line up the digits by place value with ones under ones and tens under tens. This is similar to how we would arrange base ten blocks, grouping ones blocks together and tens blocks together before adding. Whether using blocks or the standard written algorithm, adding follows the same place value steps of adding ones first before tens. Practice problems are provided to apply these addition strategies.
1) The document provides examples of writing equations of lines in slope-intercept form that are parallel or perpendicular to given lines and pass through given points.
2) The examples show finding the slope of the given line, determining if the required line is parallel or perpendicular, setting up the equation in slope-intercept form using the appropriate slope, and solving for the y-intercept.
3) Common steps are finding the original slope, calculating the parallel or perpendicular slope, and substituting points into the line equation to solve for the y-intercept.
The document discusses various topics in mathematics including natural numbers, whole numbers, division, prime numbers, fractions, ratios, proportions, percentages, profit and loss, simple interest, areas, volumes, algebraic expressions, and arithmetic and geometric progressions. It provides definitions, formulas, examples, and explanations for these essential mathematical concepts.
Have you studied from a popup book where lot of different characters like animals, birds, fishes and many more come out of the book into the 3D world with a small story with it. Gameiva brings an exact 3D educational alphabet learning game for kids. Visit @ bit.ly/NumbersPopUpBook
The document discusses place value charts and their uses for teaching place value and multi-digit addition and subtraction. Place value charts organize numbers into hundreds, tens, and ones places and can be used to solve problems that require regrouping. They are particularly useful for larger numbers that may be difficult to represent with base ten blocks. Students may work in small groups on activities like Expando, Basketball Addition, Roll & Build, and Place Value Disk Addition that incorporate the use of place value charts.
The document provides a lesson on place value and numbers to 1000. It explains that in the number 706, 7 represents hundreds (700), 0 represents tens (0 tens or 0), and 6 represents ones. It provides examples of identifying place values in other numbers such as 708 and 960. Students are asked to complete practice problems identifying place values and decomposing numbers.
Play & Learn Kindergarten ABC English spelling learning game, for kids. Here is the best spell learning game for kids. The game designed with Basic English words of daily routine objects, Animals, Colors, Alphabets, Numbers, Fruits, and Vegetables.
Kids will have to collect the alphabets and numbers in sequence. When the level completes, there will be colourful balloons on the screen, pop balloons.
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This document is an alphabetically ordered list of animals from A to Z created by Alya AL-Kharoosi to learn the alphabet. It includes common animals like ant, butterfly, cat, dog, elephant, frog, giraffe, hippopotamus, iguana, jellyfish, kangaroo, lion, monkey, narwhal, owl, panda, quetzal, rat, sheep, turtle, viper, worm, x-ray fish, yak and zebra.
This document provides instructions for students to learn how to tell time on analog and digital clocks. It includes pictures of clocks without times written and asks students to write the times shown. It defines a digital clock as a rectangle that displays the time without all the numbers of a normal clock. Students are asked to compare times on sample clocks and discuss if they are the same, using a drawn analog clock for help in reading digital clocks.
How to Write ABC in Capital Letters - Bforball
https://www.bforball.com/writing-tutorial-alphabet-a.php
Teach your kids to write from A to Z in Uppercase with step by step guidance.
The document summarizes the story of King Midas, who was very greedy and always wanted money and gold. A wise man granted King Midas his wish to turn everything he touches into gold. However, this led to unintended consequences when his daughter turned to gold after hugging him. King Midas was distraught and asked the wise man to take away the golden touch. The wise man did so, and King Midas learned his lesson about greed.
The document discusses the English alphabet, noting that it contains 5 vowels and 21 consonants. It encourages listening and repeating the alphabet as well as learning a phonic song. It describes an activity where students work in groups to write down letters of the alphabet that they remember from the song.
Indians make up large percentages of professionals in several major American companies. Specifically, 38% of doctors in America, 36% of NASA employees, 34% of Microsoft employees, 28% of IBM employees, 17% of Intel employees, and 13% of Xerox employees are Indian. India has the world's oldest continuous civilization and Varanasi is considered the oldest continuously inhabited city in the world. India also has a long history of being one of the world's largest democracies and made significant contributions to fields like grammar, mathematics, and education.
The document discusses rounding numbers to different decimal places or hundreds/thousands places and tracking how many categories each rounded number corresponds to. It provides examples of rounding various numbers to the nearest tenth, ones place, tens place, hundreds place, and thousands place and showing how many categories each rounded number represents.
This document provides an overview of how math is taught at Sea Mills Primary School. It begins with introductions for different stages, starting with the foundation stage where math is introduced through play, exploration of numbers, and software. counting and simple addition/subtraction is taught using objects like unifix cubes and numicon. In later stages, concepts like addition, subtraction, multiplication and division are developed using methods like number lines, bead strings, and various writing algorithms. The goal is for students to understand calculations in a meaningful way and be able to apply their skills to problem solving.
This document provides guidance for teaching basic math operations like addition, subtraction, multiplication and division to students. It emphasizes applying concepts to real-life situations to motivate students. Teachers should focus on conceptual understanding rather than rote memorization and provide examples for students to apply the operations. Using manipulatives, word problems, number lines and flashcards can help reinforce skills in an engaging way. Specific suggestions are also given for teaching addition and subtraction concepts.
This document provides information for parents on supporting their children in mathematics in Year 2. It outlines the workshop objectives of informing parents on what is taught, sharing teaching methods, and equipping parents with strategies. It discusses assessing pupil progress through half-termly tests and tracking, and using national benchmarks. Key skills are explained, including number pairs, counting, place value, and the inverse relationship between addition/subtraction and multiplication/division. Methods for teaching these concepts and ways parents can support learning at home are provided.
The document outlines the calculations policy of the North Norwich Cluster. It discusses how math should be taught for understanding rather than just procedures. Children should experience math through language, pictures, and hands-on activities to develop their own understanding at their own pace. The policy explains the progression of different calculations, from addition and subtraction to multiplication and division. It provides examples of models and images to help children visualize different math concepts and build understanding, such as using objects, number lines, and part-whole models to teach addition and subtraction.
The document provides information about a first grade math unit on subtraction from The Moffatt Girls math curriculum. It includes the standards covered in Unit 3, which focus on subtraction within 20, properties of operations, fluency with addition and subtraction within 10, the meaning of the equal sign, and solving word problems. It describes the unit's NO PREP practice pages and math centers to provide practice and application of skills in an engaging way. Pictures show examples of the practice pages and centers being used in the classroom.
The document discusses using an empty number line as a mental math strategy for primary grade students. It explains that the empty number line allows students to create a mental image of math strategies and more easily make the leap to mental calculations without paper. Using the empty number line also increases students' number sense and flexibility with numbers. The document provides an example of how to introduce the empty number line technique to students and have them use it to solve math problems.
This document outlines Pennard Primary School's calculation policy. It provides strategies for teaching key calculation objectives in a concrete, pictorial, and abstract manner. The policy covers addition, subtraction, multiplication, and division and is intended as a working document that can be revised as needed.
This document provides information about a maths information evening for Key Stage 2 parents. It aims to inform parents about how maths is delivered in KS2, enhance children's maths learning, and show the importance of maths. It discusses what the school is doing like increased math lessons, booster groups, and online resources. It provides details about times tables, the four math operations (addition, subtraction, multiplication, division) and strategies taught at each year level. Parents are encouraged to support learning at home.
This document provides information about numeracy teaching in Key Stage 2 (years 3-6). It discusses the progression of strategies taught for the four operations of number (addition, subtraction, multiplication and division). Mental and written calculation methods are outlined for each year group. The importance of numeracy in daily life and future careers is also highlighted. Parents are encouraged to support their child's numeracy learning at home.
Addition and Subtraction of Fraction(similar and dissimilar).docxJoannePunoLopez
The document provides a detailed lesson plan for teaching fractions to 6th grade students. The objectives are to add and subtract similar and dissimilar fractions with and without regrouping. The lesson includes a review of fractions, examples of adding and subtracting similar and dissimilar fractions using different methods like number lines or modeling with pictures. Sample word problems are provided for students to practice the skills. The teacher guides students through examples, provides reinforcement exercises, and checks for understanding by having students apply the concepts to a new word problem at the end.
This document provides an overview and agenda for a professional development session on the 1st Grade Math Expressions curriculum. It outlines the daily routines, materials, assessments, pacing guide, and teaching strategies for Units 1-8. Key concepts are highlighted for each unit, which focus on number sense, addition, subtraction, place value, measurement, and time. Non-essential lessons and quick quizzes are also noted. Contact information is provided for questions.
Vedic Mathematics is a system of mathematics that allows problems to be solved quickly and efficiently. It is based on the work of Sri Bharathi Krishna Thirthaji Maharaja (1884 – 1964), who devised the system from a close study of the Vedas. The Vedas are ancient scriptures of India that deal with many subjects. It is based on 16 sutras (aphorisms) from the Vedas that provide a principle or a rule of working to solve a problem. These sutras may be ancient in origin, but are still relevant to modern day mathematics.
This document introduces continued fraction expansions by discussing rational approximations of real numbers using the mediant, or Farey sum, of two fractions. It describes an activity where students explore continued fractions by drawing and analyzing paths on a Farey diagram, which represents rational numbers as endpoints. The activity aims to reinforce fraction addition and introduce patterns in continued fractions that relate to operations on the path endpoints.
This document provides information from a Maths Information Evening for parents. It discusses what progress in maths entails, how maths is taught in key stages 1 and 2, and different maths concepts covered, including place value, addition, subtraction, multiplication, division, and problem solving. Parents are advised to praise their children's efforts, play maths games at home, and focus on building confidence rather than stressing workbooks or written methods.
This document discusses teaching addition and subtraction to primary school children. It outlines three stages of learning - addition and subtraction up to 10, up to 18, and multi-digit numbers. Major skills are finding sums and differences, recalling facts, writing number sentences, and performing operations with and without regrouping. The document provides examples of how to teach using manipulatives and by relating math to everyday activities to make it engaging for students.
The document discusses plans for a maths inset day to review multiplication methods across the school. It aims to consider how multiplication is currently taught and recorded, agree on a progression of calculation methods, and discuss the impact of daily times table challenges. It outlines characteristics of outstanding maths teaching, including embedding problem solving, encouraging discussion, teaching for understanding, and providing timely intervention. Key questions are posed around developing consistency, ensuring the calculation policy reflects curriculum changes, improving accuracy, and supporting recording of thinking. Activities are included to reflect on mental images of multiplication and its key concepts. Stages of teaching multiplication are outlined moving from practical experiences to abstract use of symbols.
This document discusses counting techniques used in probability and statistics. It introduces the fundamental principle of counting and the multiplication rule for determining the total number of possible outcomes of multi-step processes. Specific counting techniques covered include the tree diagram, permutations, and combinations. Examples are provided to demonstrate how to apply these techniques to problems involving determining the number of arrangements of different objects.
Partitioning is a method taught in Key Stage 1 for adding and subtracting large numbers by breaking them down into place value components. Numbers are written as a number sentence showing their tens and ones. The tens are added together first, then the ones, making large calculations easier to work out mentally. Partitioning helps children visualize math problems and understand that two-digit numbers are made up of tens and ones. While useful for addition, partitioning can cause errors for subtraction, so number lines are often used instead.
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With Metta,
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Information and Communication Technology in EducationMJDuyan
(𝐓𝐋𝐄 𝟏𝟎𝟎) (𝐋𝐞𝐬𝐬𝐨𝐧 2)-𝐏𝐫𝐞𝐥𝐢𝐦𝐬
𝐄𝐱𝐩𝐥𝐚𝐢𝐧 𝐭𝐡𝐞 𝐈𝐂𝐓 𝐢𝐧 𝐞𝐝𝐮𝐜𝐚𝐭𝐢𝐨𝐧:
Students will be able to explain the role and impact of Information and Communication Technology (ICT) in education. They will understand how ICT tools, such as computers, the internet, and educational software, enhance learning and teaching processes. By exploring various ICT applications, students will recognize how these technologies facilitate access to information, improve communication, support collaboration, and enable personalized learning experiences.
𝐃𝐢𝐬𝐜𝐮𝐬𝐬 𝐭𝐡𝐞 𝐫𝐞𝐥𝐢𝐚𝐛𝐥𝐞 𝐬𝐨𝐮𝐫𝐜𝐞𝐬 𝐨𝐧 𝐭𝐡𝐞 𝐢𝐧𝐭𝐞𝐫𝐧𝐞𝐭:
-Students will be able to discuss what constitutes reliable sources on the internet. They will learn to identify key characteristics of trustworthy information, such as credibility, accuracy, and authority. By examining different types of online sources, students will develop skills to evaluate the reliability of websites and content, ensuring they can distinguish between reputable information and misinformation.
BPSC-105 important questions for june term end exam
Maths methods for blogs
1.
2. Do your children start talking a strange language whilst doing their maths homework?
Do words such as ‘chunking’, ‘grid method’, or ‘partitioning’ baffle you?
The aim of this PowerPoint is to enable parents and carers to understand more about the
methods used in our school and to assist them in supporting children with maths.
The traditional, formal methods of teaching children mathematics are now being used
less during the stages whilst children develop and acquire number skills and
understanding.
This PowerPoint demonstrates the methods in the progressive order that pupils will
experience them at Minchinhampton. Methods are taught in a way that will aid the
pupils’ conceptual understanding and support their mental calculations. Although pupils
may be able to master more advanced methods, they are taught methods appropriate to
their understanding of number: it is essential that they fully comprehend every stage of
the process.
Some Year 5/6 pupils are in the process of creating short videos to demonstrate these
methods being used. To see these videos, please visit your child’s class blog.
3. Contents
Click on the operation that you would like to find out about,
or use the forward arrow key to view the PowerPoint from
start to finish.
• Addition
• Subtraction
• Multiplication
• Division
4. Addition Section Contents
• Pictures/objects/symbols
• Number lines/tracks – jumps of 1
• Number lines – efficient jumps
• Vertical (column) addition – expanded
• Vertical (column) addition – compact
Click here to return to main contents.
5. Pictures/objects/symbols
Pupils use concrete resources and drawings/symbols to solve the
problem. Objects may include real items (such as small plastic toys,
money), counting cubes (Unifix, Multilink) or Numicon. As they
progress, symbols, and eventually numbers will be used to show
working and answers.
I eat 3 cherries and my friend
eats 2 cherries. How many
cherries do we have altogether?
Numicon will be used to support calculations.
2 cherries and 3 cherries make 5
cherries altogether.
II III
2 + 3 = 5
9 + 1 = 10
20 + 3 = 23
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6. Pupils show and calculate addition problems on a number line or
number track. They begin by counting in ones and progress to larger,
more efficient, jumps. When counting on, pupils always count from the
larger number.
18 + 5 = 23 (Counting in ones)
18 19 20 21 22 23
+1 +1 +1 +1 +1
Number Lines/Tracks
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7. Before moving on to more traditional methods, pupils use the number
line method with more complex numbers (including decimals). This
reinforces mental calculations and understanding of number.
Number Lines – efficient jumps
807747
+30
+3
47 + 35 = 82
+2
82
18 2320
+2
+318 + 5 = 23
18 38
+20
18 + 19 = 37
-137
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8. This method links the number line with the more traditional column
method. It encourages children to consider the value of the digits and
aids conceptual understanding. This method will be revisited as
numbers become more complex, for example as pupils solve written
addition problems with decimals.
H T O
3 3 6
+ 1 8 7
1 3 Add the ones (6 + 7)
1 1 0 Add the tens (30 + 80)
4 0 0 Add the hundreds (300 + 100)
5 2 3 The new columns are added,
starting with the digit of least value.
Vertical (Column) Addition - Expanded
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9. When confident with using the expanded method, pupils learn the
compact method. To calculate in this way, digits are added in order of
value (least to greatest). For this sum, the order of value is: ones, tens,
hundreds. Tens and hundreds are carried by writing a digit below the
line.
H T O
3 3 6
+ 1 8 7
5 2 3
1 1
Vertical (Column) Addition - Compact
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10. Subtraction Section Contents
• Pictures/objects/symbols
• Number lines/tracks – counting back
• Number lines – counting on
• Vertical (column) subtraction – no exchanging
• Vertical (column) subtraction – with
exchanging
Click here to return to main contents.
11. Pictures/objects/symbols
Pupils use concrete resources and drawings/symbols to solve the
problem. Objects may include real items (such as small plastic toys,
money), counting cubes (Unifix, Multilink) or Numicon. As they
progress, symbols, and eventually numbers will be used to show
working and answers.
I have 5 cherries and eat 2 of
them. How many do I have left?
Numicon can be used for subtraction by arranging the shapes on a
number line or laying pieces on top of each other.
5 cherries take away 2 cherries
leaves 3 cherries.
III II
5 – 2 = 3
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12. Pupils begin to show and calculate subtraction problems on a pre-drawn
number line or number track by counting back. They begin by counting back in
ones and progress to larger, more efficient, steps. For subtraction, the jumps
are drawn below the line (this is a very recent change to our previous policy and
older pupils will still record subtraction jumps above the line). The larger
number is always written on the right. As they progress, pupils draw their own
number lines, including only the relevant numbers. They also begin to take
more efficient jumps as in the bottom example. Once competent with efficient
jumps, children apply this method to find the difference between any numbers of
any size, including decimals.
Number Lines/Tracks
13 – 5 = 8
(Jumps of one) 1312111098
-1 -1 -1-1-1
13108
-3-2
13 – 5 = 8
(Efficient jumps)
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13. When numbers are close together, pupils may choose to find the
difference by counting on. As always, the number of least value is
recorded at the left of the line. Firstly, they count onto the next multiple
of ten, then count on to the multiple of ten before the higher number.
Finally they count on to the higher number. Then they add together the
jumps that they have taken (40 + 6 + 1 = 47).
Some children may split the jump of 40 into a ten and a 30 to ease
going over the hundred; others may complete it in two jumps from 389
to 400 and then from 400 to 436. (This method is also taught and used
with smaller numbers.)
Number Line – counting on to find the difference between numbers
430 436
+1
+40
+6
390389
486 – 389 = 47
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14. Initially children will be taught column subtraction with numbers that
do not involve exchanging (sometimes referred to as borrowing,
decomposition or carrying) tens for ones, hundreds for tens and so
on. This method will be developed, with the aid of concrete
resources, to use exchanging.
Digits are arranged in columns, with the
larger number on top. Starting with the
digit of least value (in this sum, the
ones), children subtract vertically:
Ones: 4 – 3 = 1
Tens: 70 – 20 = 50
Hundreds: 800 – 500 = 300
The answer to each part of the
calculation is recorded in the
appropriate column below the line.
H T O
8 7 4
- 5 2 3
3 5 1
Vertical (Column) Subtraction – no exchanging
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15. In the first example below, you cannot do 2 – 7 (for this method), so a
ten needs to be exchanged for ten ones, thus making 12 – 7 = 5. Due to
the exchanging, there are now 2 tens and not 3 on the top number.
20 – 50 cannot be done so (for this method), so a hundred is exchanged
for ten tens, thus making 120 – 50 = 70.
The second example has been included to show an example with a
zero.
Vertical (Column) Subtraction - with exchanging
8 1 9
-
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16. Multiplication Section Contents
• Pictures/objects/symbols
• Arrays
• Number lines/tracks
• Partitioning and the grid method
• Using the grid method to multiply 2 digit
numbers
• Vertical (column) multiplication – expanded
• Vertical (column) multiplication - compact
Click here to return to main contents.
17. Pictures/objects/symbols
Pupils use concrete resources and drawings/symbols to solve the
problem.
How many socks in three
pairs?
There are five cakes in each
bag.
How many cakes are there
in three bags?
3 pairs, 2 socks in each
pair, 6 socks altogether.
II II II
3 bags, 5 cakes in each
bag, 15 cakes altogether.
I I I I I
I I I I I
I I I I I
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18. Multiplication problems can be represented in arrays.
2 x 5 or 5 x 2
6 x 4 or 4 x 6
Arrays
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19. Pupils show and calculate multiplication problems on a number line.
This is sometimes referred to as repeated addition.
5 x 3 =15 or 3 x 5 =15
0 15105
0 3 6 9 12 15
+3 +3 +3 +3 +3
+5 +5 +5
Number Lines/Tracks
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20. In all areas of maths, pupils are taught to recognise the value of digits
and to partition numbers. In the grid method, pupils partition numbers
according to their value and multiply each part separately. Even when
pupils have progressed to more efficient methods, this method is
revisited as numbers become more complex. This method will reinforce
mental calculations, including doubling.
36 x 4 = 144
X 30 6
4 120 24
120 + 24 = 144
136 x 4 = 544
X 100 30 6
4 400 120 24
400 + 120 + 24 = 544
X 10 3 0.6
4 40 12 2.4
13.6 x 4 = 54.4
40 + 12 + 2.4 = 54.4
Partitioning and the grid method
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21. The grid method can be used to multiply pairs of numbers that have
more than one digit, this also includes decimal numbers.
Using the grid method to multiply 2 digit numbers
X 30 4
(Total
s)
20 600 80 680
7 210 28 238
918
34 X 27 = 918
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22. As with the grid method, pupils need to be able to partition the digits and
understand their value. Even when pupils have progressed to more
efficient methods, this method is revisited as numbers become more
complex.
H T O
3 6
X 4
2 4 (4 X 6) Digits are multiplied, starting
1 2 0 (4 X 30) with the lowest value digit.
1 4 4 (24 + 120) The new columns are added,
starting with the digit of least value.
Vertical (Column) Multiplication - Expanded
Click here for more examples.
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23. Multiply a 2 digit number by a
2 digit number
T H T O
3 6
X 7 4
2 4 (4 X 6)
1 2 0 (4 X 30)
4 2 0 (70 x 6)
2 1 0 0 (70 x 30)
2 6 6 4
Multiply a 2 digit decimal
number by a 1 digit number
T O . t
3 . 6
X 4
2 . 4 (4 X 0.6)
1 2 . 0 (4 X 3)
1 4 . 4 (2.4 + 12)
Examples of more complex vertical (column) multiplication - expanded
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24. When children fully understand the maths behind the expanded vertical
method, they will be taught a compact vertical method. Initially this will
be for multiplying by a 1 digit number and, when ready, for multiplying
larger numbers.
T O
3 6
X 4
1 4 4
2
4 x 6 is 24. Pupils write the 4
in the ones column and carry
the 2 tens below the line in the
tens column. Then they do 4 x
30 which is 120, add on the 2
tens and make 140.
H T O
2 4
X 1 6
1 4 4
2
2 4 0
3 8 4
The method for this more
advanced calculation is the
same as the first one, but first
the 24 is multiplied by 6 and then
by 10. Then the two totals are
added together.
Vertical (Column) Multiplication - Compact
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25. Division Section Contents
• Pictures/objects/symbols
• Arrays
• Number lines/tracks
• Number line - chunking
• Bus stop method – short division
• Vertical chunking
• Bus stop method – long division
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26. Pictures/objects/symbols
Pupils use concrete resources and drawings/symbols to solve the
problem, either by sharing or grouping.
6 cakes shared between 2
people. How many cakes
each?
6 pencils are put into packs of
2. How many packs are there?
(Grouping into twos)
II II II
How many apples in each bowl
if I share 12 apples between 3
bowls?
Four eggs fit into a box. How
many boxes would you need to
pack 20 eggs? (Grouping into
fours)
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27. Arrays can be used to solve division problems, for example:
10 ÷ 5 or 10 ÷ 2
24 ÷ 4 or 24 ÷ 6
Arrays
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Links can easily be made to fractions. For example, the first array could
be used to calculate ½ of 10 and the second one to calculate ¼ of 24.
28. Pupils use number lines to count up and see how many lots of a
number are in a given number. They count up in one ‘lot’ (jump of the
multiple) each time to see how many ‘lots’ there are. Pupils will also be
given problems with remainders.
0 15105
+5 +5 +5
Number Lines/Tracks
16 ÷ 3 = 5 r1 or 16 ÷ 5 = 3 r1
0 3 6 9 12 15
+3 +3 +3 +3 +3
r1
r1
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29. Number Line - Chunking
As pupils become more confident in the concept of division and their
recall speed of times tables increases, they begin to use larger jumps
(chunks) or more ‘lots’ of the multiple. This is called chunking.
In this example, the first jump is of 20 lots of 4. The second jump is of 4
lots of 4. Therefore there are 24 (20 + 4) lots of 4 altogether in 96.
98 ÷ 4 = 24 r2
0 80 96
20 x
4 x
r2
Chunking on the number line is also used for dividing by 2 digit
numbers.
0 240 264
10 x
1 x
283 ÷ 24 = 11 r19
r19
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30. Bus Stop – Short Division (Dividing by numbers with only one digit)
When pupils are secure with the concept of division, they are taught the
‘bus stop’ method.
353 ÷ 4 = 88 r1
To work out this sum, divide 353 by 4, one digit at a time, starting from
the left. The remainder of each part of the calculation is carried on to
the next digit.
4 3 5 3
0 8 8
3 3
R 1
Before moving on to divide by two digit numbers, pupils will use this
method for larger numbers and decimals.
Pupils will also be taught how to calculate the remainder as a
fraction: 88 ¼ or 88.25
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31. Vertical Chunking with numbers of more than one digit
For this method, children solve division problems by repeated
subtraction. They are taking away chunks (lots of) a number at a time.
The size of the chunk (number of lots) is recorded to the left of the sum
and the subtraction carried down. At the end the children count up and
see how many lots of the number have been taken away and what the
remainder is. The subtraction part of the sum is completed as the
vertical compact method.
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56 13 2 ÷ 1 7
(20 X 17) - 3 4 0
2 9 2
(10 X 17) - 1 7 0
1 112 12
(5 X 17) - 8 5
3 7
(2 X 17) - 3 4
Remainder 3
632 ÷ 17 = 37 r3
32. Bus Stop – Long Division (dividing by numbers with more than one digit)
2 7
3 6 9 7 2
- 7 2 0 (20x36)
This is the biggest chunk (lot) of 36 that can be taken away. A 2 is recorded on
the bus stop (tens column) and the remainder to be divided (252) is brought
down.
2 5 2 (7x36) 252 is 7 lots of 36 so this is recorded on the bus stop in the ones column.
Answer: 972 ÷ 36 = 27
During their primary education, some pupils may learn long division. This
is a method that is taught.
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