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WK | LSN | STRAND | SUB-STRAND | LESSON LEARNING OUTCOMES | LEARNING EXPERIENCES | KEY INQUIRY QUESTIONS | LEARNING RESOURCES | ASSESSMENT METHODS | REFLECTION |
---|---|---|---|---|---|---|---|---|---|
1 | 1 |
1.0 Numbers
|
1.3 Division: Combined Operations
|
By the end of the
lesson, the learner
should be able to:
solve problems with multiple operations, apply the correct order of operations, and develop systematic approaches to mixed operations problems |
Learners build computational fluency through multi-step problem-solving. They explore the standard order of operations (PEMDAS/BODMAS) through guided investigation, solving problems that combine two or three operations with 2-digit numbers. In collaborative groups, they create their own multi-step problems, exchange them with classmates, and discuss different solution strategies to develop flexible approaches to complex calculations.
|
What is the order of operations?
|
MENTOR Mathematics Grade 6 Learner's Book, page 29
Number cards |
Oral questions
Written exercise
Group work
|
|
1 | 2 |
1.0 Numbers
|
1.3 Division: Advanced Combined Operations
|
By the end of the
lesson, the learner
should be able to:
perform calculations involving all four operations, solve complex multi-step problems, and demonstrate confidence in tackling challenging calculations |
Learners develop computational mastery through increasingly complex problem-solving activities. They solve calculations involving all four operations with up to 3-digit numbers, applying the correct order of operations and showing all steps. They engage in collaborative problem analysis, discussing efficient solution strategies and detecting common errors. They create real-world scenarios that require multiple operations to solve, connecting mathematical processes to authentic contexts.
|
How do we solve problems with multiple operations?
|
MENTOR Mathematics Grade 6 Learner's Book, page 30
Number cards |
Oral questions
Written exercise
Group work
|
|
1 | 3 |
1.0 Numbers
|
1.3 Division: Real-life Application
|
By the end of the
lesson, the learner
should be able to:
connect division to real-life contexts, solve practical division problems, and value the importance of division in everyday situations |
Learners explore authentic applications of division through contextual problem-solving. They identify real-world scenarios where division is used (such as sharing resources, determining rates, or finding unit costs) and develop problem-solving approaches that connect mathematical operations to practical situations. They use digital resources to explore interactive simulations that showcase division in various contexts, and create presentations explaining how division enhances understanding of everyday phenomena.
|
Where is division used in real life?
|
MENTOR Mathematics Grade 6 Learner's Book, page 31
Digital devices Real-life examples |
Oral questions
Group discussions
Project work
|
|
1 | 4 |
1.0 Numbers
|
1.4 Fractions: LCM
|
By the end of the
lesson, the learner
should be able to:
determine the LCM of given numbers, apply LCM in fraction operations, and appreciate the role of LCM in mathematics |
Learners develop understanding of Least Common Multiple through structured investigation. Using number cards, they identify common multiples of different number pairs and determine the smallest of these multiples (LCM). Through guided discovery and collaborative problem-solving, they explore different methods for finding LCM, such as listing multiples or using prime factorization. They discuss the importance of LCM in various mathematical contexts, particularly in fraction operations.
|
How do we find the LCM of numbers?
|
MENTOR Mathematics Grade 6 Learner's Book, page 33
Number cards |
Oral questions
Written exercise
Observation
|
|
1 | 5 |
1.0 Numbers
|
1.4 Fractions: LCM
|
By the end of the
lesson, the learner
should be able to:
determine the LCM of given numbers, apply LCM in fraction operations, and appreciate the role of LCM in mathematics |
Learners develop understanding of Least Common Multiple through structured investigation. Using number cards, they identify common multiples of different number pairs and determine the smallest of these multiples (LCM). Through guided discovery and collaborative problem-solving, they explore different methods for finding LCM, such as listing multiples or using prime factorization. They discuss the importance of LCM in various mathematical contexts, particularly in fraction operations.
|
How do we find the LCM of numbers?
|
MENTOR Mathematics Grade 6 Learner's Book, page 33
Number cards |
Oral questions
Written exercise
Observation
|
|
2 | 1 |
1.0 Numbers
|
1.4 Fractions: Addition using LCM
|
By the end of the
lesson, the learner
should be able to:
add fractions with different denominators, use LCM to find common denominators, and show interest in fraction addition |
Learners build skills in fraction addition through progressive activities. They identify the LCM of different denominators to create equivalent fractions with a common denominator, then add the numerators to find the sum. Through hands-on manipulatives and visual models, they develop conceptual understanding of why common denominators are necessary for fraction addition. They work collaboratively to solve increasingly complex addition problems, discussing effective strategies and common challenges.
|
How do we add fractions using LCM?
|
MENTOR Mathematics Grade 6 Learner's Book, page 34
Fraction charts |
Oral questions
Written exercise
Group work
|
|
2 | 2 |
1.0 Numbers
|
1.4 Fractions: Subtraction using LCM
|
By the end of the
lesson, the learner
should be able to:
subtract fractions with different denominators, apply LCM in fraction subtraction, and develop precision in fraction calculations |
Learners strengthen fraction subtraction skills through structured practice. They apply their understanding of LCM to create equivalent fractions with common denominators, then subtract the numerators. Through guided problem-solving and collaborative discussion, they identify common misconceptions and develop accurate calculation techniques. They use concrete manipulatives and visual representations to reinforce conceptual understanding of fraction subtraction, connecting symbolic notation to concrete models.
|
How do we subtract fractions using LCM?
|
MENTOR Mathematics Grade 6 Learner's Book, page 35
Fraction charts |
Oral questions
Written exercise
Group work
|
|
2 | 3 |
1.0 Numbers
|
1.4 Fractions: Adding Mixed Numbers Method 1
|
By the end of the
lesson, the learner
should be able to:
convert mixed numbers to improper fractions, add mixed numbers through improper fractions, and value multiple approaches to fraction addition |
Learners develop skills in mixed number addition through a systematic approach. They practice converting mixed numbers to improper fractions using the formula (whole number × denominator + numerator)/denominator. Using this method, they transform mixed number addition problems into improper fraction addition, finding common denominators as needed. Through collaborative problem-solving, they develop fluency with the conversion process and discuss the advantages and limitations of this approach to mixed number addition.
|
How do we add mixed numbers?
|
MENTOR Mathematics Grade 6 Learner's Book, page 36
Fraction charts |
Oral questions
Written exercise
Observation
|
|
2 | 4 |
1.0 Numbers
|
1.4 Fractions: Adding Mixed Numbers Method 2
|
By the end of the
lesson, the learner
should be able to:
add mixed numbers by separating whole numbers and fractions, compare different methods of adding mixed numbers, and appreciate efficient calculation techniques |
Learners explore an alternative method for mixed number addition through comparative problem-solving. They practice adding mixed numbers by separating the whole number and fraction parts, adding them separately, and then combining the results (converting improper fractions to mixed numbers as needed). Through collaborative work, they solve the same problems using both methods (conversion to improper fractions vs. separate addition) and discuss which approach is more efficient for different problem types.
|
What's another way to add mixed numbers?
|
MENTOR Mathematics Grade 6 Learner's Book, page 37
Fraction charts |
Oral questions
Written exercise
Observation
|
|
2 | 5 |
1.0 Numbers
|
1.4 Fractions: Subtracting Mixed Numbers
|
By the end of the
lesson, the learner
should be able to:
perform subtraction of mixed numbers, apply appropriate techniques for borrowing when needed, and develop confidence in fraction subtraction |
Learners build proficiency in mixed number subtraction through structured activities. They explore different subtraction methods, including converting to improper fractions and subtracting whole numbers and fractions separately. They practice the borrowing technique when the fraction being subtracted is larger than the fraction from which it is being subtracted. Through collaborative problem-solving, they compare strategies, identify common errors, and develop confidence in selecting appropriate approaches for different problem types.
|
How do we subtract mixed numbers?
|
MENTOR Mathematics Grade 6 Learner's Book, page 38
Fraction charts |
Oral questions
Written exercise
Group work
|
|
3 | 1 |
1.0 Numbers
|
1.4 Fractions: Reciprocals Introduction
|
By the end of the
lesson, the learner
should be able to:
understand the concept of reciprocals, find the reciprocal of whole numbers, and appreciate the relationship between a number and its reciprocal |
Learners develop understanding of reciprocals through exploratory activities. They investigate the concept of reciprocals as multiplicative inverses, discovering that multiplying a number by its reciprocal always equals 1. They practice finding reciprocals of whole numbers between 1 and 10 and explore patterns in reciprocal values. Through collaborative discussion, they develop understanding of the reciprocal as the "flipped" version of a fraction, with the numerator and denominator exchanged.
|
What is a reciprocal?
|
MENTOR Mathematics Grade 6 Learner's Book, page 39
Number cards |
Oral questions
Written exercise
Observation
|
|
3 | 2 |
1.0 Numbers
|
1.4 Fractions: Reciprocals of Fractions
|
By the end of the
lesson, the learner
should be able to:
determine reciprocals of proper fractions, interchange numerator and denominator to find reciprocals, and show interest in exploring fraction reciprocals |
Learners extend their understanding of reciprocals to fractions through guided discovery. They practice finding reciprocals of proper fractions up to 2-digit denominators by interchanging the numerator and denominator. Through collaborative problem-solving, they explore the relationship between fractions and their reciprocals, noticing patterns in how the value changes (e.g., fractions less than 1 have reciprocals greater than 1). They create visual models to illustrate the concept and discuss real-world applications of reciprocals.
|
How do we find the reciprocal of a fraction?
|
MENTOR Mathematics Grade 6 Learner's Book, page 40
Fraction charts |
Oral questions
Written exercise
Group work
|
|
3 | 3 |
1.0 Numbers
|
1.4 Fractions: Squares of Fractions
|
By the end of the
lesson, the learner
should be able to:
calculate squares of fractions, apply squaring techniques to fractions, and value precision in fraction calculations |
Learners develop skills in fraction operations through guided practice. They explore the process of squaring fractions by multiplying a fraction by itself, discovering that both numerator and denominator must be squared separately. Through visual models and concrete examples, they build conceptual understanding of what squaring means for fractions. They practice calculating squares of fractions with single-digit numerators and up to 2-digit denominators, discussing patterns they observe in the results.
|
How do we square a fraction?
|
MENTOR Mathematics Grade 6 Learner's Book, page 41
Fraction charts |
Oral questions
Written exercise
Observation
|
|
3 | 4 |
1.0 Numbers
|
1.4 Fractions: Squares of Fractions
|
By the end of the
lesson, the learner
should be able to:
calculate squares of fractions, apply squaring techniques to fractions, and value precision in fraction calculations |
Learners develop skills in fraction operations through guided practice. They explore the process of squaring fractions by multiplying a fraction by itself, discovering that both numerator and denominator must be squared separately. Through visual models and concrete examples, they build conceptual understanding of what squaring means for fractions. They practice calculating squares of fractions with single-digit numerators and up to 2-digit denominators, discussing patterns they observe in the results.
|
How do we square a fraction?
|
MENTOR Mathematics Grade 6 Learner's Book, page 41
Fraction charts |
Oral questions
Written exercise
Observation
|
|
3 | 5 |
1.0 Numbers
|
1.4 Fractions: Fractions to Percentages
|
By the end of the
lesson, the learner
should be able to:
convert fractions to percentages, use equivalent fractions with denominator 100, and appreciate the connection between fractions and percentages |
Learners explore fraction-percentage relationships through practical conversion activities. They practice changing fractions to equivalent forms with denominator 100 through multiplication, recognizing that fractions with denominator 100 directly correspond to percentages. Through collaborative problem-solving, they develop fluency with conversion techniques and explore alternative methods for fractions that don't convert easily to denominator 100. They create visual models showing the equivalence between fractions and percentages to reinforce conceptual understanding.
|
How do we convert fractions to percentages?
|
MENTOR Mathematics Grade 6 Learner's Book, page 42
Fraction charts Percentage charts |
Oral questions
Written exercise
Group work
|
|
4 | 1 |
1.0 Numbers
|
1.4 Fractions: Percentages to Fractions
|
By the end of the
lesson, the learner
should be able to:
convert percentages to fractions, express percentages as fractions with denominator 100, and show interest in the relationship between different mathematical representations |
Learners strengthen mathematical conversion skills through systematic practice. They explore the relationship between percentages and fractions, recognizing that percentages are fractions with denominator 100 (per cent = per hundred). Through guided activities, they practice converting percentages to fractions and simplifying where possible. They develop understanding of the connection between different mathematical representations (decimals, fractions, percentages) and discuss when each representation is most useful in real-world contexts.
|
How do we convert percentages to fractions?
|
MENTOR Mathematics Grade 6 Learner's Book, page 43
Percentage charts |
Oral questions
Written exercise
Group work
|
|
4 | 2 |
1.0 Numbers
|
1.4 Fractions: Applications
|
By the end of the
lesson, the learner
should be able to:
solve real-life problems involving fractions, apply fraction operations in context, and appreciate the relevance of fractions in everyday situations |
Learners connect fraction concepts to real-world scenarios through contextual problem-solving. They identify everyday situations where fractions are used (such as measurements, time, sharing resources, etc.) and develop problem-solving approaches that apply fraction operations to authentic contexts. Working collaboratively, they create and solve their own word problems involving fraction operations, discussing effective solution strategies and the practical value of fraction knowledge.
|
Where do we use fractions in real life?
|
MENTOR Mathematics Grade 6 Learner's Book, page 43
Real-life examples Fraction manipulatives |
Oral questions
Written exercise
Project work
|
|
4 | 3 |
1.0 Numbers
|
1.5 Decimals: Place Value
|
By the end of the
lesson, the learner
should be able to:
identify decimal place values up to ten thousandths, read decimals with understanding of place value, and appreciate the extension of place value to decimals |
Learners explore decimal place value through concrete and visual representations. Using place value apparatus, they investigate how the base-10 system extends to the right of the decimal point, identifying the values of positions up to ten thousandths. They practice identifying the place value of digits in various decimal numbers and create their own decimal examples with specific place value requirements. Through collaborative discussion, they develop precise mathematical language for describing decimal place values.
|
How do we identify place values in decimals?
|
MENTOR Mathematics Grade 6 Learner's Book, page 44
Place value apparatus |
Oral questions
Written exercise
Observation
|
|
4 | 4 |
1.0 Numbers
|
1.5 Decimals: Decimal Places
|
By the end of the
lesson, the learner
should be able to:
connect place value to decimal places, interpret decimals based on their place values, and develop precision in working with decimal notation |
Learners strengthen decimal understanding through comparative analysis. They explore the relationship between decimal place values and the number of decimal places, recognizing that the number of decimal places refers to the count of digits to the right of the decimal point. Through systematic investigation, they practice identifying both the place value of specific digits and the total number of decimal places in various numbers. They create their own decimal examples with specified numbers of decimal places and challenge peers to identify place values.
|
What is the relationship between place value and decimal places?
|
MENTOR Mathematics Grade 6 Learner's Book, page 45
Decimal place value chart |
Oral questions
Written exercise
Group work
|
|
4 | 5 |
1.0 Numbers
|
1.5 Decimals: Rounding Off
|
By the end of the
lesson, the learner
should be able to:
round decimals to specified decimal places, apply appropriate rounding rules, and value estimation in decimal contexts |
Learners develop decimal rounding skills through progressive practice. They explore rounding rules for decimals, focusing on how to determine whether to round up or down based on the digit that follows the rounding position. Through guided examples and collaborative problem-solving, they practice rounding decimals to 1, 2, and 3 decimal places, discussing potential applications of decimal rounding in real-world contexts like measurement and finance. They create their own rounding challenges for peers, reinforcing procedural fluency through teaching others.
|
When do we need to round off decimals?
|
MENTOR Mathematics Grade 6 Learner's Book, page 46
Number cards with decimals |
Oral questions
Written exercise
Group work
|
|
5 | 1 |
1.0 Numbers
|
1.5 Decimals: Decimals to Fractions
|
By the end of the
lesson, the learner
should be able to:
convert decimals to equivalent fractions, represent decimals visually as fractions, and appreciate multiple representations of numbers |
Learners explore numerical representation through conversion activities. Using square/rectangular grids as visual aids, they develop understanding of decimals as another way to represent fractions. They practice converting decimals to fractions by identifying the place value of the last digit (to determine the denominator) and removing the decimal point (to create the numerator), then simplifying where possible. Through collaborative problem-solving, they establish connections between different representations of the same quantity, strengthening conceptual understanding.
|
How do we convert decimals to fractions?
|
MENTOR Mathematics Grade 6 Learner's Book, page 47
Square/rectangular grid |
Oral questions
Written exercise
Observation
|
|
5 | 2 |
1.0 Numbers
|
1.5 Decimals: Decimals to Fractions
|
By the end of the
lesson, the learner
should be able to:
convert decimals to equivalent fractions, represent decimals visually as fractions, and appreciate multiple representations of numbers |
Learners explore numerical representation through conversion activities. Using square/rectangular grids as visual aids, they develop understanding of decimals as another way to represent fractions. They practice converting decimals to fractions by identifying the place value of the last digit (to determine the denominator) and removing the decimal point (to create the numerator), then simplifying where possible. Through collaborative problem-solving, they establish connections between different representations of the same quantity, strengthening conceptual understanding.
|
How do we convert decimals to fractions?
|
MENTOR Mathematics Grade 6 Learner's Book, page 47
Square/rectangular grid |
Oral questions
Written exercise
Observation
|
|
5 | 3 |
1.0 Numbers
|
1.5 Decimals: Fractions to Decimals
|
By the end of the
lesson, the learner
should be able to:
transform fractions into decimal form, apply division to convert fractions to decimals, and show interest in the relationship between fractions and decimals |
Learners develop numerical conversion skills through systematic practice. Using square/rectangular grids as visual support, they explore the relationship between fractions and their decimal equivalents. They practice converting fractions to decimals through division (numerator ÷ denominator), identifying patterns in the results (terminating vs. repeating decimals). Through collaborative investigation, they discover fraction-decimal equivalents for common fractions and create reference charts to support future work with rational numbers.
|
How do we convert fractions to decimals?
|
MENTOR Mathematics Grade 6 Learner's Book, page 48
Square/rectangular grid |
Oral questions
Written exercise
Observation
|
|
5 | 4 |
1.0 Numbers
|
1.5 Decimals: Decimals to Percentages
|
By the end of the
lesson, the learner
should be able to:
convert decimals to percentages, multiply decimals by 100 to find percentages, and value the connections between different numerical forms |
Learners strengthen mathematical conversion skills through targeted practice. They explore the relationship between decimals and percentages, discovering that multiplying a decimal by 100 converts it to an equivalent percentage. Through guided examples and collaborative problem-solving, they develop fluency with the conversion process and discuss real-world contexts where such conversions are useful. They create their own decimal-percentage conversion challenges and exchange them with peers, reinforcing understanding through teaching and explaining.
|
How do we convert decimals to percentages?
|
MENTOR Mathematics Grade 6 Learner's Book, page 49
Decimal and percentage charts |
Oral questions
Written exercise
Group work
|
|
5 | 5 |
1.0 Numbers
|
1.5 Decimals: Percentages to Decimals
|
By the end of the
lesson, the learner
should be able to:
change percentages to decimal form, divide percentages by 100 to find decimals, and appreciate mathematical conversions |
Learners develop mathematical flexibility through conversion practice. They investigate the relationship between percentages and decimals, discovering that dividing a percentage by 100 converts it to an equivalent decimal. Through guided examples and collaborative problem-solving, they develop procedural fluency with the conversion process and explore connections between different numerical representations. They create reference charts showing equivalent forms (fractions, decimals, percentages) for common values to support mathematical communication across different representations.
|
How do we convert percentages to decimals?
|
MENTOR Mathematics Grade 6 Learner's Book, page 50
Percentage and decimal charts |
Oral questions
Written exercise
Group work
|
|
6 | 1 |
1.0 Numbers
|
1.5 Decimals: Addition
|
By the end of the
lesson, the learner
should be able to:
add decimals up to 4 decimal places, align decimal points properly in addition, and develop accuracy in decimal calculations |
Learners strengthen decimal operation skills through structured practice. Using place value apparatus to support conceptual understanding, they explore the process of decimal addition, focusing on proper alignment of decimal points to ensure place values are correctly added. Through guided examples and collaborative problem-solving, they practice adding decimals with varying numbers of decimal places up to 4 decimal places, discussing potential pitfalls and developing strategies for accurate calculation.
|
How do we add decimals?
|
MENTOR Mathematics Grade 6 Learner's Book, page 51
Place value apparatus |
Oral questions
Written exercise
Observation
|
|
6 | 2 |
1.0 Numbers
|
1.5 Decimals: Subtraction
|
By the end of the
lesson, the learner
should be able to:
subtract decimals up to 4 decimal places, implement proper alignment of decimal points, and show precision in decimal operations |
Learners develop computational accuracy with decimal operations through progressive practice. Using place value apparatus to reinforce conceptual understanding, they explore the process of decimal subtraction, focusing on proper alignment of decimal points and borrowing techniques when necessary. Through guided examples and collaborative problem-solving, they practice subtracting decimals with varying numbers of decimal places up to 4 decimal places, identifying common errors and developing strategies for precise calculation.
|
How do we subtract decimals?
|
MENTOR Mathematics Grade 6 Learner's Book, page 52
Place value apparatus |
Oral questions
Written exercise
Observation
|
|
6 | 3 |
1.0 Numbers
|
1.5 Decimals: Real-life Applications
|
By the end of the
lesson, the learner
should be able to:
identify uses of decimals in everyday contexts, solve practical problems involving decimals, and appreciate the relevance of decimals in daily life |
Learners connect decimal concepts to authentic contexts through application-based activities. They explore real-world uses of decimals in areas such as measurement, money, and data representation. Through digital resources and practical examples, they develop problem-solving approaches that apply decimal operations to everyday situations. Working collaboratively, they create their own contextual problems involving decimals and discuss how decimal understanding enhances their ability to interpret and engage with quantitative information in the world around them.
|
Where are decimals applicable in real life?
|
MENTOR Mathematics Grade 6 Learner's Book, page 53
Digital devices Real-life examples |
Oral questions
Group discussions
Project work
|
|
6 | 4 |
1.0 Numbers
|
1.5 Decimals: Assessment
|
By the end of the
lesson, the learner
should be able to:
demonstrate mastery of key decimal concepts, solve problems involving various decimal operations, and show confidence in applying decimal knowledge |
Learners consolidate understanding through comprehensive assessment activities. They independently solve problems involving decimal place value, rounding, conversions between different number representations, and decimal operations. They engage in self-assessment to identify areas of strength and areas for improvement, and participate in peer assessment activities to deepen their understanding through teaching and explaining concepts to others.
|
How can we apply what we've learned about decimals?
|
MENTOR Mathematics Grade 6 Learner's Book, page 53
Assessment worksheet |
Written assessment
Self-assessment
Peer assessment
|
|
6 | 5 |
1.0 Numbers
|
1.6 Inequalities: Introduction
|
By the end of the
lesson, the learner
should be able to:
recognize inequality symbols, interpret the meaning of greater than and less than, and develop interest in mathematical relationships |
Learners explore mathematical comparison through concrete examples. They investigate the meaning and usage of inequality symbols ('>' and '<'), using number lines and real objects to develop intuitive understanding of greater than and less than relationships. Through collaborative activities, they practice identifying which symbol correctly describes the relationship between two quantities, and discuss how inequalities differ from equations in what they communicate about number relationships.
|
How do we solve simple inequalities?
|
MENTOR Mathematics Grade 6 Learner's Book, page 54
Number cards Inequality symbols |
Oral questions
Written exercise
Observation
|
|
7 | 1 |
1.0 Numbers
|
1.6 Inequalities: Forming Inequalities
|
By the end of the
lesson, the learner
should be able to:
create simple inequalities with one unknown, translate verbal statements into inequality form, and show creativity in mathematical expression |
Learners develop mathematical modeling skills through progressive activities. They practice converting verbal descriptions of inequality relationships into mathematical notation using appropriate symbols and variables. Through guided examples and collaborative problem-solving, they explore different operations that can be included in inequalities, creating mathematical expressions that represent various real-world constraints and conditions. They create their own word problems that can be modeled using inequalities and challenge peers to translate them into mathematical form.
|
How do we form inequalities?
|
MENTOR Mathematics Grade 6 Learner's Book, page 55
Number cards Inequality symbols |
Oral questions
Written exercise
Group work
|
|
7 | 2 |
1.0 Numbers
|
1.6 Inequalities: Forming Inequalities
|
By the end of the
lesson, the learner
should be able to:
create simple inequalities with one unknown, translate verbal statements into inequality form, and show creativity in mathematical expression |
Learners develop mathematical modeling skills through progressive activities. They practice converting verbal descriptions of inequality relationships into mathematical notation using appropriate symbols and variables. Through guided examples and collaborative problem-solving, they explore different operations that can be included in inequalities, creating mathematical expressions that represent various real-world constraints and conditions. They create their own word problems that can be modeled using inequalities and challenge peers to translate them into mathematical form.
|
How do we form inequalities?
|
MENTOR Mathematics Grade 6 Learner's Book, page 55
Number cards Inequality symbols |
Oral questions
Written exercise
Group work
|
|
7 | 3 |
1.0 Numbers
|
1.6 Inequalities: Simplifying
|
By the end of the
lesson, the learner
should be able to:
simplify inequality expressions, collect like terms in inequalities, and develop systematic approaches to mathematical manipulation |
Learners build algebraic manipulation skills through structured practice. Using cards or charts with inequality expressions, they explore techniques for simplifying inequalities, focusing on collecting like terms to create clearer expressions. Through guided examples and collaborative problem-solving, they develop understanding of how simplification preserves the inequality relationship while making it easier to interpret. They create their own inequality expressions for peers to simplify, reinforcing procedural fluency through teaching and explanation.
|
How do we simplify inequalities?
|
MENTOR Mathematics Grade 6 Learner's Book, page 56
Cards with inequalities Charts |
Oral questions
Written exercise
Group work
|
|
7 | 4 |
1.0 Numbers
|
1.6 Inequalities: Solving
|
By the end of the
lesson, the learner
should be able to:
find values that satisfy given inequalities, apply appropriate methods to solve inequalities, and appreciate the logical process of solving inequalities |
Learners develop algebraic reasoning through systematic problem-solving. They explore methods for solving simple inequalities involving one unknown, applying inverse operations to isolate the variable while maintaining the inequality relationship. Through guided examples and collaborative investigation, they practice solving inequalities of increasing complexity and verify their solutions by substituting values into the original inequality. They discuss how inequality solutions differ from equation solutions (representing ranges rather than specific values) and develop strategies for expressing and checking solutions.
|
How do we solve inequalities to find the unknown value?
|
MENTOR Mathematics Grade 6 Learner's Book, page 57
Inequality cards |
Oral questions
Written exercise
Observation
|
|
7 | 5 |
1.0 Numbers
|
1.6 Inequalities: Real-life Application
|
By the end of the
lesson, the learner
should be able to:
connect inequalities to real-world situations, model practical problems using inequalities, and value the applicability of inequalities in daily life |
Learners explore authentic applications of inequalities through contextual problem-solving. They identify real-world situations that can be modeled using inequalities (such as budget constraints, time limitations, or physical boundaries) and develop mathematical approaches to analyzing these scenarios. Working collaboratively, they create their own real-life problems that involve inequalities and discuss how inequality concepts provide valuable tools for describing constraints and making decisions in everyday contexts.
|
Where are inequalities used in real life?
|
MENTOR Mathematics Grade 6 Learner's Book, page 58
Real-life examples |
Oral questions
Group discussions
Project work
|
|
8 | 1 |
1.0 Numbers
|
1.6 Inequalities: Digital Activities
|
By the end of the
lesson, the learner
should be able to:
use technology to explore inequality concepts, engage with digital inequality tools, and show enthusiasm for technology-enhanced mathematics learning |
Learners extend their understanding through technology-enhanced exploration. Using available digital devices, they engage with interactive applications that visualize inequality concepts and provide practice with forming, simplifying, and solving inequalities. Through collaborative digital activities, they explore dynamic representations of inequalities and discuss how technology can enhance understanding of mathematical relationships. They share discoveries and strategies for effectively using digital tools to support mathematics learning.
|
How can digital tools help us understand inequalities?
|
MENTOR Mathematics Grade 6 Learner's Book, page 59
Digital devices Educational apps |
Practical assessment
Observation
Peer assessment
|
|
8 | 2 |
1.0 Numbers
|
1.6 Inequalities: Assessment
|
By the end of the
lesson, the learner
should be able to:
demonstrate understanding of inequalities concepts, solve various inequality problems, and develop confidence in mathematical reasoning |
Learners consolidate understanding through comprehensive assessment activities. They independently solve problems involving recognizing, forming, simplifying, and solving inequalities, demonstrating their mastery of key concepts. They engage in self-assessment to identify areas of strength and areas for improvement, and present their solutions to peers, explaining their reasoning and approach to enhance mathematical communication skills.
|
How can we apply our knowledge of inequalities?
|
MENTOR Mathematics Grade 6 Learner's Book, page 60
Assessment worksheet |
Written assessment
Presentation
Project work
|
|
8 | 3 |
2.0 Measurement
|
2.1 Length - Millimetres as units of length (14 Lessons)
|
By the end of the
lesson, the learner
should be able to:
Use the millimetre (mm) as a unit of measuring length Identify appropriate contexts for using millimetres Develop an appreciation for precision in measurement |
Learners:
Discuss and identify millimetre as a unit of measuring length using rulers Examine objects that require measurement in millimetres Measure small objects using rulers marked in millimetres Compare measurements and discuss the importance of precision |
Why do we need smaller units to measure length?
|
MENTOR Mathematics Grade 6 Learner's Book, page 98
Rulers marked in millimetres Small objects for measurement |
Oral questions
Observation
Written exercise
|
|
8 | 4 |
2.0 Measurement
|
2.1 Length - Relationship between millimetres and centimetres
|
By the end of the
lesson, the learner
should be able to:
Establish the relationship between millimetres and centimetres Convert measurements between millimetres and centimetres Show interest in the relationship between units of length |
Learners:
Measure lengths of various objects in both millimetres and centimetres Record measurements and discuss patterns observed Establish that 1 centimetre equals 10 millimetres Practice converting measurements between units |
How are millimetres related to centimetres?
|
MENTOR Mathematics Grade 6 Learner's Book, page 98
Rulers Measurement conversion charts |
Oral questions
Written exercise
Group work assessment
|
|
8 | 4-5 |
2.0 Measurement
|
2.1 Length - Relationship between millimetres and centimetres
|
By the end of the
lesson, the learner
should be able to:
Establish the relationship between millimetres and centimetres Convert measurements between millimetres and centimetres Show interest in the relationship between units of length |
Learners:
Measure lengths of various objects in both millimetres and centimetres Record measurements and discuss patterns observed Establish that 1 centimetre equals 10 millimetres Practice converting measurements between units |
How are millimetres related to centimetres?
|
MENTOR Mathematics Grade 6 Learner's Book, page 98
Rulers Measurement conversion charts |
Oral questions
Written exercise
Group work assessment
|
|
9 |
Midterm Break |
||||||||
10 | 1 |
2.0 Measurement
|
2.1 Length - Converting centimetres to millimetres
|
By the end of the
lesson, the learner
should be able to:
Convert centimetres to millimetres confidently Apply conversion skills to solve practical problems Appreciate the need for unit conversions in measurement |
Learners:
Convert given measurements from centimetres to millimetres Create and solve conversion problems in pairs/groups Apply the relationship that 1 cm = 10 mm in various contexts Share conversion strategies |
How do we convert centimetres to millimetres?
|
MENTOR Mathematics Grade 6 Learner's Book, page 99
Conversion charts Measurement worksheets |
Written exercise
Peer assessment
Class assignment
|
|
10 | 2 |
2.0 Measurement
|
2.1 Length - Converting millimetres to centimetres
|
By the end of the
lesson, the learner
should be able to:
Convert millimetres to centimetres accurately Solve practical problems involving conversions Value precision in measurement and calculation |
Learners:
Convert given measurements from millimetres to centimetres Discuss the process of dividing by 10 when converting from mm to cm Solve real-life problems requiring mm to cm conversions Create measurement conversion tables |
How do we convert millimetres to centimetres?
|
MENTOR Mathematics Grade 6 Learner's Book, page 100
Measurement materials Conversion worksheets |
Written exercise
Observation
Project work
|
|
10 | 3 |
2.0 Measurement
|
2.1 Length - Addition of lengths in centimetres and millimetres
|
By the end of the
lesson, the learner
should be able to:
Add measurements involving centimetres and millimetres Regroup millimetres to centimetres when necessary Show interest in solving addition problems involving length |
Learners:
Add lengths given in cm and mm Regroup 10 mm to 1 cm when necessary Solve practical addition problems involving length Create addition problems for peers to solve |
How do we add lengths in centimetres and millimetres?
|
MENTOR Mathematics Grade 6 Learner's Book, page 101
Addition worksheets Rulers |
Written exercise
Group activities
Class assignment
|
|
10 | 4 |
2.0 Measurement
|
2.1 Length - Subtraction of lengths in centimetres and millimetres
|
By the end of the
lesson, the learner
should be able to:
Subtract lengths given in centimetres and millimetres Regroup centimetres to millimetres when necessary Value accuracy in subtraction operations |
Learners:
Subtract lengths given in cm and mm Regroup 1 cm to 10 mm when necessary Solve real-life problems requiring subtraction of lengths Discuss strategies for subtraction with regrouping |
How do we subtract lengths in centimetres and millimetres?
|
MENTOR Mathematics Grade 6 Learner's Book, page 102
Subtraction worksheets Measuring tools |
Written exercise
Oral questions
Observation
|
|
10 | 5 |
2.0 Measurement
|
2.1 Length - Multiplication of lengths
|
By the end of the
lesson, the learner
should be able to:
Multiply lengths in centimetres and millimetres by whole numbers Regroup millimetres to centimetres when necessary Apply multiplication skills to solve real-life problems |
Learners:
Multiply lengths given in cm and mm by whole numbers Regroup 10 mm to 1 cm when necessary Solve word problems involving multiplication of lengths Create visual representations of multiplication problems |
How do we multiply lengths in centimetres and millimetres?
|
MENTOR Mathematics Grade 6 Learner's Book, page 103
Multiplication worksheets Measuring tools |
Written exercise
Group activities
Class assignment
|
|
11 | 1 |
2.0 Measurement
|
2.1 Length - Division of lengths
|
By the end of the
lesson, the learner
should be able to:
Divide lengths in centimetres and millimetres by whole numbers Regroup centimetres to millimetres when necessary Show interest in solving division problems involving length |
Learners:
Divide lengths given in cm and mm by whole numbers Regroup 1 cm to 10 mm when necessary Solve practical division problems involving length Share division strategies |
How do we divide lengths in centimetres and millimetres?
|
MENTOR Mathematics Grade 6 Learner's Book, page 104
Division worksheets Measuring tools |
Written exercise
Oral questions
Observation
|
|
11 | 2 |
2.0 Measurement
|
2.1 Length - Circumference of a circle
|
By the end of the
lesson, the learner
should be able to:
Identify circumference as the distance around a circle Measure the circumference of circular objects practically Value the concept of circumference in real-life applications |
Learners:
Identify the circumference as the distance around a circle Measure circumference of circular objects using string and ruler Record measurements and discuss methods used Relate circumference to everyday circular objects |
What is the circumference of a circle and how do we measure it?
|
MENTOR Mathematics Grade 6 Learner's Book, page 105
Circular objects String Rulers |
Practical assessment
Observation
Written exercise
|
|
11 | 3 |
2.0 Measurement
|
2.1 Length - Circumference of a circle
|
By the end of the
lesson, the learner
should be able to:
Identify circumference as the distance around a circle Measure the circumference of circular objects practically Value the concept of circumference in real-life applications |
Learners:
Identify the circumference as the distance around a circle Measure circumference of circular objects using string and ruler Record measurements and discuss methods used Relate circumference to everyday circular objects |
What is the circumference of a circle and how do we measure it?
|
MENTOR Mathematics Grade 6 Learner's Book, page 105
Circular objects String Rulers |
Practical assessment
Observation
Written exercise
|
|
11 | 4 |
2.0 Measurement
|
2.1 Length - Diameter and radius
|
By the end of the
lesson, the learner
should be able to:
Identify diameter as a line passing through the center of a circle Identify radius as the distance from center to circumference Appreciate the relationship between diameter and radius |
Learners:
Identify and measure diameter of circular objects Identify and measure radius of circular objects Establish that diameter equals twice the radius Create diagrams showing diameter and radius |
What is the relationship between diameter and radius?
|
MENTOR Mathematics Grade 6 Learner's Book, page 106
Circular objects Rulers Drawing materials |
Oral questions
Written exercise
Practical assessment
|
|
11 | 5 |
2.0 Measurement
|
2.1 Length - Relationship between circumference and diameter
|
By the end of the
lesson, the learner
should be able to:
Establish the relationship between circumference and diameter Identify π (pi) as the ratio of circumference to diameter Show interest in mathematical relationships |
Learners:
Measure circumference and diameter of various circular objects Calculate the ratio of circumference to diameter Discover that this ratio is approximately 3.14 (π) Discuss the significance of π in mathematics |
What is the relationship between circumference and diameter?
|
MENTOR Mathematics Grade 6 Learner's Book, page 107
Circular objects String Calculators |
Written exercise
Practical assessment
Observation
|
|
12 | 1 |
2.0 Measurement
|
2.1 Length - Finding circumference using formula
|
By the end of the
lesson, the learner
should be able to:
Apply the formula C = πd to find circumference Apply the formula C = 2πr to find circumference Appreciate the application of formulas in mathematics |
Learners:
Use the formula C = πd to find circumference when given diameter Use the formula C = 2πr to find circumference when given radius Solve practical problems involving circumference Share solution strategies |
How do we calculate the circumference of a circle?
|
MENTOR Mathematics Grade 6 Learner's Book, page 108
Calculators Worksheet with problems |
Written exercise
Group work
Class assignment
|
|
12 | 2 |
2.0 Measurement
|
2.1 Length - Real-life applications of circumference
|
By the end of the
lesson, the learner
should be able to:
Apply knowledge of circumference to solve real-life problems Appreciate the relevance of circumference in daily life Value precision in measurement and calculation |
Learners:
Identify circular objects in the environment Solve real-life problems involving circumference Discuss practical applications of circumference Create and solve their own real-life problems |
Where do we use the concept of circumference in real life?
|
MENTOR Mathematics Grade 6 Learner's Book, page 109
Real-life circular objects Measuring tools |
Project work
Oral presentation
Written exercise
|
|
12 | 3 |
2.0 Measurement
|
2.1 Length - Consolidation activities
|
By the end of the
lesson, the learner
should be able to:
Apply all concepts related to length and circumference Solve integrated problems involving length measurement Show confidence in length measurement applications |
Learners:
Review key concepts of length measurement Solve mixed problems involving conversions, operations, and circumference Assess their understanding of length concepts Discuss areas needing further practice |
How do we apply length measurement concepts to solve problems?
|
MENTOR Mathematics Grade 6 Learner's Book, page 110
Review worksheets Measuring tools |
Written assessment
Peer assessment
Self-assessment
|
|
12 | 4 |
2.0 Measurement
|
2.2 Area - Area of triangles (6 Lessons)
|
By the end of the
lesson, the learner
should be able to:
Understand the concept of area of triangles Relate area of triangles to area of rectangles/squares Show interest in measuring area of triangular shapes |
Learners:
Explore the relationship between triangles and rectangles/squares Cut diagonals in rectangles/squares to form triangles Discover that triangles formed have half the area of the original shape Discuss findings and make connections |
How is the area of a triangle related to the area of a rectangle?
|
MENTOR Mathematics Grade 6 Learner's Book, page 118
Rectangular/square paper Scissors Grid paper |
Observation
Practical work
Oral questions
|
|
12 | 5 |
2.0 Measurement
|
2.2 Area - Finding area of triangles
|
By the end of the
lesson, the learner
should be able to:
Apply the formula Area = ½ × base × height Calculate area of triangles in square centimetres Value precision in area calculation |
Learners:
Apply the formula Area = ½ × base × height Calculate areas of various triangles in square centimetres Measure dimensions of triangles and calculate their areas Share solution strategies |
How do we calculate the area of a triangle?
|
MENTOR Mathematics Grade 6 Learner's Book, page 119
Triangular shapes Rulers Calculators |
Written exercise
Practical assessment
Observation
|
|
13 | 1 |
2.0 Measurement
|
2.2 Area - Area of combined shapes
|
By the end of the
lesson, the learner
should be able to:
Identify combined shapes involving rectangles and triangles Calculate area of combined shapes Appreciate the application of area in composite figures |
Learners:
Identify combined shapes made up of rectangles/squares and triangles Break down combined shapes into rectangles/squares and triangles Calculate areas of individual shapes and add them Create their own combined shapes and find their areas |
How do we find the area of combined shapes?
|
MENTOR Mathematics Grade 6 Learner's Book, page 120
Cutouts of combined shapes Grid paper Calculators |
Written exercise
Group work
Project assessment
|
|
13 | 2 |
2.0 Measurement
|
2.2 Area - Area of combined shapes
|
By the end of the
lesson, the learner
should be able to:
Identify combined shapes involving rectangles and triangles Calculate area of combined shapes Appreciate the application of area in composite figures |
Learners:
Identify combined shapes made up of rectangles/squares and triangles Break down combined shapes into rectangles/squares and triangles Calculate areas of individual shapes and add them Create their own combined shapes and find their areas |
How do we find the area of combined shapes?
|
MENTOR Mathematics Grade 6 Learner's Book, page 120
Cutouts of combined shapes Grid paper Calculators |
Written exercise
Group work
Project assessment
|
|
13 | 3 |
2.0 Measurement
|
2.2 Area - More combined shapes
|
By the end of the
lesson, the learner
should be able to:
Calculate area of complex combined shapes Apply appropriate strategies to find areas Value systematic approaches to problem-solving |
Learners:
Analyze more complex combined shapes Apply appropriate strategies to calculate total area Discuss different approaches to finding areas Present solutions to the class |
What strategies can we use to find areas of complex shapes?
|
MENTOR Mathematics Grade 6 Learner's Book, page 121
Worksheets with combined shapes Grid paper Calculators |
Written exercise
Group presentation
Peer assessment
|
|
13 | 4 |
2.0 Measurement
|
2.2 Area - Estimating area of circles
|
By the end of the
lesson, the learner
should be able to:
Estimate area of circles by counting squares Develop estimation skills for irregular shapes Show interest in area approximation methods |
Learners:
Draw circles on square grid paper Count complete squares within the circle Estimate area by counting squares and partial squares Compare their estimation techniques and results |
How can we estimate the area of a circle?
|
MENTOR Mathematics Grade 6 Learner's Book, page 122
Square grid paper Circular objects Compasses |
Practical assessment
Observation
Written exercise
|
|
13 | 5 |
2.0 Measurement
|
2.2 Area - Applications of area
|
By the end of the
lesson, the learner
should be able to:
Apply area concepts to solve real-life problems Appreciate the relevance of area in daily activities Value mathematical skills in practical situations |
Learners:
Identify real-life situations where area calculations are needed Solve practical problems involving area Discuss applications of area in construction, agriculture, etc. Create and solve their own real-life area problems |
Where do we use area measurements in real life?
|
MENTOR Mathematics Grade 6 Learner's Book, page 123
Real-life application examples Measuring tools Calculators |
Project work
Oral presentation
Written exercise
|
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