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| WK | LSN | STRAND | SUB-STRAND | LESSON LEARNING OUTCOMES | LEARNING EXPERIENCES | KEY INQUIRY QUESTIONS | LEARNING RESOURCES | ASSESSMENT METHODS | REFLECTION |
|---|---|---|---|---|---|---|---|---|---|
| 1 |
REPORTING AND REVISION OF END TERM 1 ASSESSMENT |
||||||||
| 2 | 1 |
Measurements and Geometry
|
Similarity and Enlargement - Centre of enlargement and linear scale factor
|
By the end of the
lesson, the learner
should be able to:
- Determine the centre of enlargement and the linear scale factor for similar figures - Draw lines joining corresponding vertices to locate the centre of enlargement - Relate the concept of enlargement to everyday applications such as photo enlargement and map reading |
- Discuss in a group and review the properties of similar figures and enlargement
- Use an object and its image to establish the centre of enlargement and the ratio of the lengths of corresponding sides (Linear Scale Factor) - Use digital devices to explore enlargement concepts |
How are similarity and enlargement applied in day-to-day life?
|
- Master Core Mathematics Grade 10 pg. 65
- Graph papers - Rulers and geometrical set - Digital resources |
- Observation
- Oral questions
- Written assignments
|
|
| 2 | 2 |
Measurements and Geometry
|
Similarity and Enlargement - Image of an object under enlargement (positive scale factor)
Similarity and Enlargement - Image of an object under enlargement (negative scale factor) |
By the end of the
lesson, the learner
should be able to:
- Construct the image of an object under an enlargement given the centre and a positive linear scale factor - Draw images on a plane surface and Cartesian plane using the properties of enlargement - Connect enlargement to real-life uses such as architectural drawings and scale models |
- Discuss in a group and draw on a plane surface the images of objects under enlargement given the centres and positive linear scale factors
- Draw on the Cartesian plane the images of objects under enlargement given the centres and linear scale factors |
How are similarity and enlargement applied in day-to-day life?
|
- Master Core Mathematics Grade 10 pg. 68
- Graph papers - Rulers and geometrical set - Squared books - Rulers and geometrical set |
- Observation
- Oral questions
- Written assignments
|
|
| 2 | 3 |
Measurements and Geometry
|
Similarity and Enlargement - Area scale factor
Similarity and Enlargement - Volume scale factor |
By the end of the
lesson, the learner
should be able to:
- Determine the area scale factor of similar plane figures - Calculate the ratio of areas of similar figures - Use area scale factor to solve problems involving tiles, maps and floor plans |
- Discuss in a group and establish the Area Scale Factor (A.S.F) from similar plane figures
- Work out the ratio of the area of similar plane figures - Use grids to compare areas of objects and their images |
How are similarity and enlargement applied in day-to-day life?
|
- Master Core Mathematics Grade 10 pg. 71
- Graph papers - Rulers - Squared books - Master Core Mathematics Grade 10 pg. 73 - Models of similar solids - Rulers |
- Observation
- Oral questions
- Written assignments
|
|
| 2 | 4 |
Measurements and Geometry
|
Similarity and Enlargement - Relating linear scale factor and area scale factor
Similarity and Enlargement - Relating linear scale factor and volume scale factor |
By the end of the
lesson, the learner
should be able to:
- Relate linear scale factor to area scale factor - Calculate area scale factor from a given linear scale factor - Apply the relationship between L.S.F and A.S.F to solve problems involving maps and land surveying |
- Discuss in a group and establish the relationship between L.S.F and A.S.F using two similar plane figures
- Square the linear scale factor and compare with the area scale factor |
How are similarity and enlargement applied in day-to-day life?
|
- Master Core Mathematics Grade 10 pg. 75
- Graph papers - Rulers - Calculators - Master Core Mathematics Grade 10 pg. 76 - Models of similar solids |
- Observation
- Oral questions
- Written tests
|
|
| 2 | 5 |
Measurements and Geometry
|
Similarity and Enlargement - Relating linear, area and volume scale factors
Similarity and Enlargement - Application of similarity and enlargement to real-life situations |
By the end of the
lesson, the learner
should be able to:
- Relate linear scale factor, area scale factor and volume scale factor in enlargements - Move between the three scale factors using appropriate operations - Solve real-life problems involving similar containers, tanks and models using all three scale factors |
- Discuss in a group and establish the relationship between L.S.F, A.S.F and V.S.F using two similar solids
- Work out tasks involving similarity and enlargements in real-life situations |
How are similarity and enlargement applied in day-to-day life?
|
- Master Core Mathematics Grade 10 pg. 77
- Calculators - Models of similar solids - Digital resources - Locally available materials - Calculators |
- Observation
- Oral questions
- Written tests
|
|
| 3 | 1 |
Measurements and Geometry
|
Reflection and Congruence - Lines of symmetry in plane figures
Reflection and Congruence - Properties of reflection |
By the end of the
lesson, the learner
should be able to:
- Identify lines of symmetry in plane figures - Determine the number of lines of symmetry in different shapes - Recognise symmetry in everyday objects such as letters of the alphabet, leaves and building designs |
- Collect and observe different objects from the immediate environment and illustrate the lines and planes of symmetry
- Fold paper to identify lines of symmetry in different plane figures |
How do we use reflection in day-to-day life?
|
- Master Core Mathematics Grade 10 pg. 79
- Plane figures - Rectangular paper - Rulers - Master Core Mathematics Grade 10 pg. 81 - Plane mirrors - Tracing paper |
- Observation
- Oral questions
- Written assignments
|
|
| 3 | 2 |
Measurements and Geometry
|
Reflection and Congruence - Drawing an image on a plane surface
Reflection and Congruence - Reflection along a line on the Cartesian plane |
By the end of the
lesson, the learner
should be able to:
- Draw an image given an object and a mirror line on a plane surface - Use the properties of reflection to construct images accurately - Relate reflection on a plane surface to real-world uses such as fabric pattern design and tiling |
- Draw on plain paper a given object and a mirror line and use the properties of reflection to locate the corresponding image
- Use construction methods (arcs) to reflect objects accurately on a plane surface |
How do we use reflection in day-to-day life?
|
- Master Core Mathematics Grade 10 pg. 82
- Rulers and geometrical set - Plain paper - Compasses - Master Core Mathematics Grade 10 pg. 84 - Graph papers - Squared books |
- Observation
- Oral questions
- Written assignments
|
|
| 3 | 3 |
Measurements and Geometry
|
Reflection and Congruence - Special reflections (x-axis and y-axis)
Reflection and Congruence - Special reflections (lines y = x and y = -x) Reflection and Congruence - Equation of the mirror line |
By the end of the
lesson, the learner
should be able to:
- Reflect objects in the y-axis (line x = 0) and x-axis (line y = 0) - Determine coordinates of images after reflection in the x-axis and y-axis - Relate reflection in axes to real-life applications such as mirror images in driving mirrors for road safety |
- Reflect objects in the y-axis and determine the relationship between coordinates of the object and image
- Reflect objects in the x-axis and determine the relationship between coordinates of the object and image |
How do we use reflection in day-to-day life?
|
- Master Core Mathematics Grade 10 pg. 86
- Graph papers - Rulers - Squared books - Master Core Mathematics Grade 10 pg. 88 - Master Core Mathematics Grade 10 pg. 90 - Rulers and geometrical set - Calculators |
- Observation
- Oral questions
- Written tests
|
|
| 3 | 4 |
Measurements and Geometry
|
Reflection and Congruence - Determining and describing mirror line transformations
Reflection and Congruence - Congruence tests for triangles (SSS, SAS, AAS, RHS) |
By the end of the
lesson, the learner
should be able to:
- Determine the equation of the mirror line for various object-image pairs - Describe fully a reflection transformation by stating the mirror line equation - Relate mirror line determination to practical applications such as locating the position of a mirror for optimal reflection |
- Work out more examples of finding the equation of the mirror line
- Describe single transformations that map objects onto images |
How do we use reflection in day-to-day life?
|
- Master Core Mathematics Grade 10 pg. 92
- Graph papers - Rulers and geometrical set - Calculators - Master Core Mathematics Grade 10 pg. 94 - Paper cutouts - Protractors |
- Observation
- Oral questions
- Written tests
|
|
| 3 | 5 |
Measurements and Geometry
|
Reflection and Congruence - Direct and indirect congruence
|
By the end of the
lesson, the learner
should be able to:
- Distinguish between direct and indirect congruence - Identify direct congruence from rotation/translation and indirect congruence from reflection - Connect types of congruence to real-life examples such as matching tiles, stamps and printed patterns |
- Use paper cutouts to identify direct and opposite congruent shapes
- Discuss the applications of reflections and congruence on images formed by driving mirrors to enhance road safety |
Where do we use congruence in real life?
|
- Master Core Mathematics Grade 10 pg. 96
- Paper cutouts - Graph papers - Rulers |
- Observation
- Oral questions
- Written tests
|
|
| 4 | 1 |
Measurements and Geometry
|
Rotation - Properties of rotation
Rotation - Rotation on a plane surface |
By the end of the
lesson, the learner
should be able to:
- Determine the properties of rotation - Demonstrate clockwise and anticlockwise rotation - Relate rotation to everyday experiences such as the movement of clock hands, wheels and door handles |
- Demonstrate rotation using an actual or improvised clock
- Use an object and its image on a plane surface to discuss and generate the properties of rotation - Discuss and explain the movement of the hour or minute hand |
How is rotation applied in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 100
- Analogue clock or dummy clock - Paper cutouts - Pins and cartons - Master Core Mathematics Grade 10 pg. 103 - Rulers and geometrical set - Protractors - Plain paper |
- Observation
- Oral questions
- Written assignments
|
|
| 4 | 2 |
Measurements and Geometry
|
Rotation - Rotation on the Cartesian plane
Rotation - Half turn (±180°) about the origin |
By the end of the
lesson, the learner
should be able to:
- Rotate an object given the centre and angle of rotation on the Cartesian plane - Plot objects and their images after rotation on the Cartesian plane - Apply rotation on the Cartesian plane to solve coordinate geometry problems |
- Carry out rotation on a Cartesian plane given the object, centre and angle of rotation
- Determine the coordinates of images after rotation |
How is rotation applied in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 107
- Graph papers - Rulers and geometrical set - Protractors - Master Core Mathematics Grade 10 pg. 109 - Rulers - Squared books |
- Observation
- Oral questions
- Written assignments
|
|
| 4 | 3 |
Measurements and Geometry
|
Rotation - Quarter turns (±90°) about the origin
Rotation - Determining centre and angle of rotation |
By the end of the
lesson, the learner
should be able to:
- Rotate objects through −90° and +90° about the origin - Apply the rules (x, y) → (y, −x) for −90° and (x, y) → (−y, x) for +90° - Use quarter-turn rules to solve rotation problems involving game design and robotics |
- Draw objects and rotate them through −90° (clockwise) and +90° (anticlockwise) about the origin
- Compare coordinates of the object and image to establish the quarter-turn rules |
How is rotation applied in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 110
- Graph papers - Rulers - Squared books - Master Core Mathematics Grade 10 pg. 113 - Rulers and geometrical set - Protractors |
- Observation
- Oral questions
- Written tests
|
|
| 4 | 4 |
Measurements and Geometry
|
Rotation - Order of rotational symmetry of plane figures
Rotation - Axis and order of rotational symmetry in solids Rotation - Congruence from rotation |
By the end of the
lesson, the learner
should be able to:
- Determine the order of rotational symmetry of plane figures - Use paper cutouts to establish the number of times a figure fits onto itself during a full rotation - Identify rotational symmetry in everyday objects such as wheel rims, fan blades and logos |
- Use paper cutouts of different plane figures to locate points of symmetry and establish the order of rotational symmetry
- Complete figures to show given orders of rotational symmetry |
How is rotation applied in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 117
- Paper cutouts - Rulers - Protractors - Master Core Mathematics Grade 10 pg. 120 - Models of solids - Thin wires or straws - Manila paper - Master Core Mathematics Grade 10 pg. 122 - Digital resources - Graph papers |
- Observation
- Oral questions
- Written tests
|
|
| 4 | 5 |
Measurements and Geometry
|
Trigonometry 1 - Trigonometric ratios from table of tangents
Trigonometry 1 - Trigonometric ratios from table of sines |
By the end of the
lesson, the learner
should be able to:
- Determine the tangent of acute angles from mathematical tables - Read and interpret the table of tangents including main columns and mean difference columns - Relate the tangent ratio to real-life applications such as determining the slope of a roof or a ramp |
- Identify from the immediate environment shapes that make right-angled triangles
- Draw right-angled triangles and use them to define the tangent ratio - Use mathematical tables to obtain tangent values |
What is trigonometry?
|
- Master Core Mathematics Grade 10 pg. 123
- Mathematical tables - Rulers and geometrical set - Calculators - Master Core Mathematics Grade 10 pg. 127 |
- Observation
- Oral questions
- Written assignments
|
|
| 5 | 1 |
Measurements and Geometry
|
Trigonometry 1 - Trigonometric ratios from table of cosines
Trigonometry 1 - Trigonometric ratios from calculators |
By the end of the
lesson, the learner
should be able to:
- Determine the cosine of acute angles from mathematical tables - Read and interpret the table of cosines, noting that mean differences are subtracted - Apply the cosine ratio to solve problems such as finding horizontal distances in construction |
- Use mathematical tables to read and obtain cosines of acute angles
- Determine angles whose cosine values are given using tables - Note the difference between tables of cosines and tables of sines/tangents |
What is trigonometry?
|
- Master Core Mathematics Grade 10 pg. 130
- Mathematical tables - Rulers and geometrical set - Calculators - Master Core Mathematics Grade 10 pg. 132 - Scientific calculators - Mathematical tables |
- Observation
- Oral questions
- Written assignments
|
|
| 5 | 2 |
Measurements and Geometry
|
Trigonometry 1 - Sines and cosines of complementary angles
Trigonometry 1 - Relationship between sine, cosine and tangent of acute angles |
By the end of the
lesson, the learner
should be able to:
- Relate sines and cosines of complementary angles - Apply the relationships sin θ = cos(90° − θ) and cos θ = sin(90° − θ) - Use complementary angle relationships to simplify trigonometric problems in surveying and engineering |
- Draw a right-angled triangle and determine the sine and cosine of complementary angles
- Generate a table of angles and their complements and determine their sines and cosines to establish the relationships |
How do we use trigonometry in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 134
- Scientific calculators - Mathematical tables - Rulers and geometrical set - Master Core Mathematics Grade 10 pg. 136 - Rulers |
- Observation
- Oral questions
- Written tests
|
|
| 5 |
ASSESSMENT 1 TERM 2 |
||||||||
| 6 | 1 |
Measurements and Geometry
|
Trigonometry 1 - Trigonometric ratios of special angles (45°)
Trigonometry 1 - Trigonometric ratios of special angles (30°, 60° and 90°) |
By the end of the
lesson, the learner
should be able to:
- Determine trigonometric ratios of 45° using an isosceles right-angled triangle - Apply Pythagoras' theorem to derive trigonometric ratios of 45° - Use special angle values to solve problems without tables or calculators |
- Draw a square and its diagonal to form an isosceles right-angled triangle
- Use Pythagoras' theorem to calculate the hypotenuse - Use the triangle to determine the tangent, sine and cosine of 45° |
How do we use trigonometry in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 138
- Rulers and geometrical set - Plain paper - Calculators (for verification) - Master Core Mathematics Grade 10 pg. 139 |
- Observation
- Oral questions
- Written tests
|
|
| 6 | 2 |
Measurements and Geometry
|
Trigonometry 1 - Angles of elevation
|
By the end of the
lesson, the learner
should be able to:
- Apply trigonometric ratios to solve problems involving angles of elevation - Draw sketches and use trigonometric ratios to determine unknown heights and distances - Relate angles of elevation to practical situations such as measuring the height of buildings, trees and towers |
- Identify a tall object within the school compound
- Use a protractor or clinometer to estimate the angle of elevation to the top of the object - Use trigonometric ratios to determine the height of the object |
How do we use trigonometry in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 141
- Protractors or clinometers - Measuring tapes - Calculators |
- Observation
- Oral questions
- Written tests
|
|
| 6 | 3 |
Measurements and Geometry
|
Trigonometry 1 - Angles of depression
|
By the end of the
lesson, the learner
should be able to:
- Apply trigonometric ratios to solve problems involving angles of depression - Draw sketches and use trigonometric ratios to determine unknown distances from elevated positions - Apply angles of depression to real-life problems such as navigation, CCTV camera positioning and lighthouse observations |
- Choose an elevated position and measure the angle of depression of an object on the ground
- Use trigonometric ratios to determine distances involving angles of depression |
How do we use trigonometry in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 142
- Protractors or clinometers - Measuring tapes - Calculators |
- Observation
- Oral questions
- Written tests
|
|
| 6 | 4 |
Measurements and Geometry
|
Trigonometry 1 - Combined problems on angles of elevation and depression
Area of Polygons - Area of a triangle given two sides and an included angle Area of Polygons - Area of a triangle using Heron's formula |
By the end of the
lesson, the learner
should be able to:
- Solve combined problems involving both angles of elevation and depression - Draw accurate diagrams for combined elevation and depression problems - Apply trigonometric problem-solving to real-life scenarios such as determining distances between ships from a control tower or heights of flagpoles on buildings |
- Work out combined problems involving two or more angles of elevation and depression
- Use digital devices and other resources such as books, manuals and journals to learn more about trigonometric ratios |
How do we use trigonometry in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 143
- Scientific calculators - Mathematical tables - Rulers and geometrical set - Master Core Mathematics Grade 10 pg. 145 - Rulers and geometrical set - Mathematical tables - Master Core Mathematics Grade 10 pg. 148 - Rulers - Scientific calculators |
- Observation
- Oral questions
- Written tests
|
|
| 6 | 5 |
Measurements and Geometry
|
Area of Polygons - Area of parallelograms and rhombus
Area of Polygons - Area of trapeziums and kites |
By the end of the
lesson, the learner
should be able to:
- Determine the area of parallelograms using A = ab sin θ - Determine the area of a rhombus using A = a² sin θ - Apply the formulae to real-life objects such as cloth pieces, tiles and parking lots |
- Consider a parallelogram divided into two equal triangles and derive the area formula
- Work out the area of parallelograms and rhombuses using the sine of included angles |
How do we work out the area of polygons?
|
- Master Core Mathematics Grade 10 pg. 149
- Rulers and geometrical set - Scientific calculators - Mathematical tables - Master Core Mathematics Grade 10 pg. 150 - Scientific calculators |
- Observation
- Oral questions
- Written assignments
|
|
| 7 | 1 |
Measurements and Geometry
|
Area of Polygons - Area of regular heptagon
Area of Polygons - Area of regular octagon |
By the end of the
lesson, the learner
should be able to:
- Work out the area of a regular heptagon by dividing it into triangles from the centre - Calculate the central angle and use the sine formula for triangles - Apply the area of a regular heptagon to real-life objects such as road signs, logos and window designs |
- Draw a circle and divide the circumference into seven equal parts to form a regular heptagon
- Join the vertices to the centre and calculate the area of each triangle formed - Use the formula for area of a regular polygon |
How do we apply the concept of the area of polygons in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 152
- Rulers, compasses and geometrical set - Scientific calculators - Protractors - Master Core Mathematics Grade 10 pg. 155 |
- Observation
- Oral questions
- Written tests
|
|
| 7 | 2 |
Measurements and Geometry
|
Area of Polygons - Area of irregular polygons
Area of Polygons - Application of area of irregular polygons |
By the end of the
lesson, the learner
should be able to:
- Determine the area of irregular polygons by dividing into regular shapes - Calculate the area of each component shape and sum them up - Solve real-life problems involving irregular polygons such as farm plots, camping tent outlines and village boundaries |
- Identify objects with shapes of irregular polygons in the environment
- Divide irregular polygons into trapeziums, rectangles and triangles and calculate total area |
How do we apply the concept of the area of polygons in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 158
- Rulers and geometrical set - Scientific calculators - Master Core Mathematics Grade 10 pg. 159 - Scientific calculators - Digital resources |
- Observation
- Oral questions
- Written tests
|
|
| 7 | 3 |
Measurements and Geometry
|
Area of Polygons - Application of area of polygons to real-life situations
Area of a Part of a Circle - Area of an annulus |
By the end of the
lesson, the learner
should be able to:
- Apply the concept of area of polygons to solve mixed real-life problems - Combine different formulae to solve problems involving various polygons - Relate area of polygons to practical applications such as landscaping, painting surfaces and material estimation |
- Work out the area of various polygons from combined real-life contexts
- Use digital devices and other resources to explore more on the area of polygons in real-life situations |
How do we apply the concept of the area of polygons in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 159
- Scientific calculators - Mathematical tables - Digital resources - Master Core Mathematics Grade 10 pg. 161 - Circular objects - Compasses - Scientific calculators |
- Observation
- Oral questions
- Written tests
|
|
| 7 | 4 |
Measurements and Geometry
|
Area of a Part of a Circle - Area of a sector of a circle
Area of a Part of a Circle - Area of an annular sector |
By the end of the
lesson, the learner
should be able to:
- Work out the area of a sector of a circle - Apply the formula Area = (θ/360) × πr² - Relate the area of a sector to real-life situations such as area swept by a clock hand, paper fans and garden gates |
- Work in a group and use paper cutouts to make sectors of circles to determine their areas
- Calculate the area of sectors using the formula |
How do we use the concept of the area of a part of a circle in real life?
|
- Master Core Mathematics Grade 10 pg. 163
- Compasses and protractors - Paper cutouts - Scientific calculators - Master Core Mathematics Grade 10 pg. 166 - Rulers |
- Observation
- Oral questions
- Written assignments
|
|
| 7 | 5 |
Measurements and Geometry
|
Area of a Part of a Circle - Application of area of an annular sector
Area of a Part of a Circle - Area of a segment of a circle |
By the end of the
lesson, the learner
should be able to:
- Solve more problems involving the area of an annular sector - Apply the concept to various real-life contexts - Use annular sector area in practical problems such as assembly grounds, brake pads and dart boards |
- Work out more examples involving area of annular sectors
- Solve problems related to annular sectors from real-life situations |
How do we use the concept of the area of a part of a circle in real life?
|
- Master Core Mathematics Grade 10 pg. 167
- Scientific calculators - Rulers - Protractors - Master Core Mathematics Grade 10 pg. 169 - Compasses and protractors - Rulers and geometrical set - Scientific calculators |
- Observation
- Oral questions
- Written tests
|
|
| 8 | 1 |
Measurements and Geometry
|
Area of a Part of a Circle - Application of area of a segment
Area of a Part of a Circle - Area of common region between two intersecting circles Area of a Part of a Circle - Common region (finding radii and angles) |
By the end of the
lesson, the learner
should be able to:
- Solve more complex problems involving the area of a segment - Work out the area of segments when the chord length and radius are given - Apply segment area calculations to greenhouse cross-sections, door arches and other curved structures |
- Calculate the area of segments given different sets of information
- Work out problems involving segments from real-life contexts |
How do we use the concept of the area of a part of a circle in real life?
|
- Master Core Mathematics Grade 10 pg. 171
- Scientific calculators - Rulers and geometrical set - Protractors - Master Core Mathematics Grade 10 pg. 173 - Compasses and rulers - Master Core Mathematics Grade 10 pg. 175 |
- Observation
- Oral questions
- Written tests
|
|
| 8 | 2 |
Measurements and Geometry
|
Area of a Part of a Circle - Further problems on common region
|
By the end of the
lesson, the learner
should be able to:
- Solve further problems involving the area of the common region between two intersecting circles - Work out problems involving overlapping circles with different radii - Use the area of intersecting circles to solve practical problems such as planning water sprinkler coverage and designing logos |
- Work out further problems on the area of the common region
- Use digital devices and other resources to learn more about the area of a part of a circle |
How do we use the concept of the area of a part of a circle in real life?
|
- Master Core Mathematics Grade 10 pg. 177
- Scientific calculators - Digital resources - Rulers and geometrical set |
- Observation
- Oral questions
- Written tests
|
|
| 8 | 3 |
Measurements and Geometry
|
Area of a Part of a Circle - Application to real-life situations
Surface Area and Volume of Solids - Surface area of prisms |
By the end of the
lesson, the learner
should be able to:
- Apply the area of a part of a circle to solve mixed real-life problems - Combine different concepts (annulus, sector, annular sector, segment, common region) - Relate the area of a part of a circle to practical projects such as making dartboards and beaded necklaces |
- Relate and work out the area of a part of a circle in real-life situations
- Make a dartboard of different numbers of concentric circles from locally available materials - Discuss and create rules for scoring the game |
How do we use the concept of the area of a part of a circle in real life?
|
- Master Core Mathematics Grade 10 pg. 177
- Locally available materials - Scientific calculators - Digital resources - Master Core Mathematics Grade 10 pg. 179 - Models of prisms - Scissors - Rulers and geometrical set |
- Observation
- Oral questions
- Written tests
|
|
| 8 | 4 |
Measurements and Geometry
|
Surface Area and Volume of Solids - Surface area of pyramids
Surface Area and Volume of Solids - Surface area of cones |
By the end of the
lesson, the learner
should be able to:
- Determine the surface area of pyramids (square-based, rectangular-based, hexagonal-based) - Draw the nets of pyramids and calculate the area of each face - Apply surface area of pyramids to real-life objects such as tents, roofs and monuments |
- Determine the number of faces of each pyramid
- Draw the nets of the pyramids and calculate areas using Heron's formula and other methods - Add the base area and the triangular face areas |
Why do we determine the surface area and volume of solids?
|
- Master Core Mathematics Grade 10 pg. 184
- Models of pyramids - Rulers and geometrical set - Scientific calculators - Master Core Mathematics Grade 10 pg. 186 - Models of cones |
- Observation
- Oral questions
- Written assignments
|
|
| 8 | 5 |
Measurements and Geometry
|
Surface Area and Volume of Solids - Surface area of frustums
Surface Area and Volume of Solids - Surface area of spheres and hemispheres |
By the end of the
lesson, the learner
should be able to:
- Determine the surface area of frustums of cones and pyramids - Extend slant heights to obtain the original solid and subtract the cut-off part - Apply surface area of frustums to real-life objects such as lamp shades, buckets and flower vases |
- Extend the slant heights of a frustum to obtain the original solid
- Calculate the curved surface area of the original solid and the small solid cut off - Subtract and add the top area to get the frustum's surface area |
How do we determine the surface area and volume of solids?
|
- Master Core Mathematics Grade 10 pg. 188
- Models of frustums - Rulers and geometrical set - Scientific calculators - Master Core Mathematics Grade 10 pg. 191 - Spherical objects - String and rulers |
- Observation
- Oral questions
- Written tests
|
|
| 9 |
HALF - TERM BREAK TERM 2 |
||||||||
| 10 | 1 |
Measurements and Geometry
|
Surface Area and Volume of Solids - Surface area of composite solids
Surface Area and Volume of Solids - Volume of prisms |
By the end of the
lesson, the learner
should be able to:
- Calculate the surface area of composite solids - Identify the component shapes of a composite solid and calculate individual surface areas - Relate composite solids to real-life objects such as storage containers, flasks and trophies |
- Identify all the shapes that form a composite solid
- Work out the surface area of each exposed shape - Add the individual surface areas to get the total surface area |
Why do we determine the surface area and volume of solids?
|
- Master Core Mathematics Grade 10 pg. 193
- Models of composite solids - Rulers and geometrical set - Scientific calculators - Master Core Mathematics Grade 10 pg. 196 - Models of prisms - Rulers |
- Observation
- Oral questions
- Written tests
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| 10 | 2 |
Measurements and Geometry
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Surface Area and Volume of Solids - Volume of pyramids
Surface Area and Volume of Solids - Volume of cones |
By the end of the
lesson, the learner
should be able to:
- Calculate the volume of pyramids (square-based, rectangular-based, pentagonal, hexagonal) - Apply the formula Volume = ⅓ × Base area × Height - Relate volume of pyramids to real-life objects such as roofs, monuments and milk packets |
- Collect different models of pyramids and discuss how to work out the volume
- Calculate the base area and perpendicular height to determine the volume |
Why do we determine the surface area and volume of solids?
|
- Master Core Mathematics Grade 10 pg. 198
- Models of pyramids - Rulers and geometrical set - Scientific calculators - Master Core Mathematics Grade 10 pg. 200 - Models of cones and cylinders - Sand or water |
- Observation
- Oral questions
- Written tests
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| 10 | 3 |
Measurements and Geometry
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Surface Area and Volume of Solids - Volume of frustums
|
By the end of the
lesson, the learner
should be able to:
- Calculate the volume of frustums of cones and pyramids - Extend slant heights to form the original solid and subtract the volume of the cut-off part - Apply the volume of frustums to real-life objects such as buckets, water tanks and washing sinks |
- Extend the slant heights of a frustum to obtain the original solid
- Calculate the volume of the original solid and the small solid cut off - Subtract to get the volume of the frustum |
How do we determine the surface area and volume of solids?
|
- Master Core Mathematics Grade 10 pg. 201
- Models of frustums - Rulers - Scientific calculators |
- Observation
- Oral questions
- Written tests
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| 10 | 4 |
Measurements and Geometry
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Surface Area and Volume of Solids - Volume of spheres and hemispheres
|
By the end of the
lesson, the learner
should be able to:
- Calculate the volume of spheres and hemispheres - Apply the formulae V = ⁴⁄₃πr³ (sphere) and V = ²⁄₃πr³ (hemisphere) - Relate volume of spheres to real-life objects such as balls, ornaments, bowls and water tanks |
- Collect spherical objects and measure their circumference
- Work out the radius and calculate the volume - Discuss and work out the volume of hemispheres |
Why do we determine the surface area and volume of solids?
|
- Master Core Mathematics Grade 10 pg. 204
- Spherical objects - String and rulers - Scientific calculators |
- Observation
- Oral questions
- Written tests
|
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| 10 | 5 |
Measurements and Geometry
|
Surface Area and Volume of Solids - Volume of composite solids
|
By the end of the
lesson, the learner
should be able to:
- Determine the volume of composite solids - Identify the component shapes, calculate individual volumes and sum them - Relate composite solids to real-life objects such as LPG tanks, silos and trophies |
- Collect a model of a composite solid and identify all the basic shapes
- Work out the volume of each shape and add the volumes - Solve problems involving composite solids |
Why do we determine the surface area and volume of solids?
|
- Master Core Mathematics Grade 10 pg. 206
- Models of composite solids - Rulers - Scientific calculators |
- Observation
- Oral questions
- Written tests
|
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| 11 | 1 |
Measurements and Geometry
|
Surface Area and Volume of Solids - Application to real-life situations
Vectors I - Vector and scalar quantities |
By the end of the
lesson, the learner
should be able to:
- Apply surface area and volume of solids to solve mixed real-life problems - Combine different formulae to solve problems involving various solids - Use the concepts of surface area and volume in practical situations such as determining quantities of materials for construction, painting and storage capacity |
- Use appropriate containers from the local environment to work out the volume and capacity
- Use digital devices and other resources to work out the surface area and volume of solids - Solve combined problems involving surface area and volume |
Why do we determine the surface area and volume of solids?
|
- Master Core Mathematics Grade 10 pg. 206
- Containers from the local environment - Scientific calculators - Digital resources - Master Core Mathematics Grade 10 pg. 208 - Measuring tape - Magnetic compass - Stopwatch |
- Observation
- Oral questions
- Written tests
|
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| 11 | 2 |
Measurements and Geometry
|
Vectors I - Vector notation
Vectors I - Representation of vectors |
By the end of the
lesson, the learner
should be able to:
- Write vectors using correct notation in print and handwriting - Practise writing vector notations using bold letters, arrows and wavy lines on charts - Relate vector notation to real-life directional signs such as road arrows and signposts that guide movement |
- Use digital devices or other resources to search for vector notations - Practise writing vector notations using charts - Compare different ways of denoting vectors in print and handwriting and share work with peers |
How do we write and identify vectors using correct notation?
|
- Master Core Mathematics Grade 10 pg. 209
- Charts - Rulers - Digital resources - Master Core Mathematics Grade 10 pg. 210 - Graph papers |
- Oral questions
- Observation
- Written assignments
|
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| 11 | 3 |
Measurements and Geometry
|
Vectors I - Equivalent vectors
Vectors I - Addition of vectors using head-to-tail method |
By the end of the
lesson, the learner
should be able to:
- Define equivalent vectors and state their properties - Identify equivalent vectors from grids and plane figures such as cuboids - Relate equivalent vectors to parallel lanes on a highway where vehicles move the same distance in the same direction |
- Brainstorm on the meaning of equivalent vectors - Draw different pairs of vectors with the same magnitude and direction on a graph - Identify equivalent vectors from cuboids and grids and discuss real-life examples |
When are two vectors said to be equivalent?
|
- Master Core Mathematics Grade 10 pg. 211
- Graph papers - Rulers - Charts showing cuboids - Digital resources - Master Core Mathematics Grade 10 pg. 213 - Geometrical set |
- Oral questions
- Observation
- Written assignments
|
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| 11 | 4 |
Measurements and Geometry
|
Vectors I - Addition of vectors using parallelogram method
Vectors I - Multiplication of vectors by scalar Vectors I - Column vectors |
By the end of the
lesson, the learner
should be able to:
- Add vectors using the parallelogram method - Draw the resultant vector as the diagonal of a completed parallelogram - Relate the parallelogram method to real-life scenarios such as a boat crossing a river while being pushed by a current from a different direction |
- Draw two vectors from a common point on a grid - Complete the parallelogram and draw the diagonal as the resultant vector - Solve problems on addition and subtraction of vectors and share work with peers |
How is the parallelogram method used to add vectors?
|
- Master Core Mathematics Grade 10 pg. 214
- Graph papers - Rulers - Geometrical set - Digital resources - Master Core Mathematics Grade 10 pg. 216 - Charts - Master Core Mathematics Grade 10 pg. 218 - Grids |
- Oral questions
- Observation
- Written assignments
|
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| 11 | 5 |
Measurements and Geometry
|
Vectors I - Position vectors
|
By the end of the
lesson, the learner
should be able to:
- Define and determine position vectors of points on a Cartesian plane - Express vectors between two points using position vectors - Relate position vectors to real-life mapping such as locating buildings on a town plan or GPS coordinates |
- Plot points on a Cartesian plane and draw position vectors from the origin - Write position vectors as column vectors - Determine vectors between two points using the formula AB = OB − OA and share work |
How do we describe the position of a point using vectors?
|
- Master Core Mathematics Grade 10 pg. 221 - Graph papers - Rulers - Geometrical set - Calculators - Digital resources |
- Oral questions
- Observation
- Written assignments
|
|
| 12 | 1 |
Measurements and Geometry
|
Vectors I - Magnitude of a vector and midpoint of a vector
|
By the end of the
lesson, the learner
should be able to:
- Determine the magnitude of a vector using the Pythagorean theorem - Calculate the midpoint of a vector given coordinates of two points - Relate magnitude and midpoint to real-life applications such as finding the straight-line distance between two towns or the halfway point of a journey |
- Draw a right-angled triangle from a vector on a grid and use Pythagoras' theorem to find the magnitude - Calculate magnitude of different vectors and determine midpoints of given vectors - Solve problems involving magnitude and midpoint and share work with peers |
How do we determine the length of a vector and the midpoint between two points?
|
- Master Core Mathematics Grade 10 pg. 224 - Graph papers - Rulers - Calculators - Digital resources |
- Oral questions
- Observation
- Written assignments
|
|
| 12 | 2 |
Measurements and Geometry
|
Vectors I - Translation vector
Linear Motion - Distance, displacement, speed, velocity and acceleration |
By the end of the
lesson, the learner
should be able to:
- Define and determine translation vectors as a transformation - Find the image of a point or shape under a given translation - Relate translation vectors to real-life movements such as sliding furniture across a room or shifting objects on a conveyor belt without rotating them |
- Draw a Cartesian plane and place a triangular paper cutout, then slide it and record new coordinates - Express the movement as a column vector and determine images of points under translation - Draw objects and their images under translation on the same axes and share work |
How do we use vectors to describe the movement of objects without turning?
|
- Master Core Mathematics Grade 10 pg. 227
- Graph papers - Rulers - Paper cutouts - Geometrical set - Digital resources - Master Core Mathematics Grade 10 pg. 231 - Measuring tape - Stopwatch |
- Oral questions
- Observation
- Written assignments
|
|
| 12 | 3 |
Measurements and Geometry
|
Linear Motion - Velocity
Linear Motion - Acceleration and deceleration |
By the end of the
lesson, the learner
should be able to:
- Calculate velocity given displacement and time - Convert velocity between m/s and km/h - Connect velocity calculations to real-life scenarios such as determining how fast an athlete runs a race or a helicopter flies between two towns |
- Make an inclined plane and release a toy car or marble, timing its motion to calculate average velocity - Work out velocity problems involving athletes, vehicles and ships - Convert units between m/s and km/h and share work with peers |
How do we calculate and use velocity in real-life situations?
|
- Master Core Mathematics Grade 10 pg. 232
- Rulers - Stopwatch - Toy car or marble - Wooden plank - Digital resources - Master Core Mathematics Grade 10 pg. 234 - Measuring tape - Ball - Ramp - Calculators |
- Oral questions
- Observation
- Written assignments
|
|
| 12 | 4 |
Measurements and Geometry
|
Linear Motion - Displacement-time graph
Linear Motion - Interpreting displacement-time graph |
By the end of the
lesson, the learner
should be able to:
- Draw displacement-time graphs from given data tables - Select suitable scales for axes when plotting graphs - Connect displacement-time graphs to real-life journeys such as plotting an athlete's race or a cyclist's trip between towns |
- Mark a straight track and walk at a steady pace, recording displacement at intervals - Use data tables to plot displacement-time graphs on graph paper - Draw displacement-time graphs for journeys involving stops and return trips and share work |
How do we represent a journey using a displacement-time graph?
|
- Master Core Mathematics Grade 10 pg. 236
- Graph papers - Rulers - Stopwatch - Measuring tape - Calculators - Master Core Mathematics Grade 10 pg. 238 - Calculators - Digital resources |
- Oral questions
- Observation
- Written assignments
|
|
| 12 | 5 |
Measurements and Geometry
|
Linear Motion - Velocity-time graph
Linear Motion - Interpreting velocity-time graph Linear Motion - Relative speed of bodies moving in opposite and same directions Linear Motion - Relative speed involving delayed departure and passing lengths |
By the end of the
lesson, the learner
should be able to:
- Draw velocity-time graphs from given data tables and descriptions - Select suitable scales and plot velocity against time accurately - Connect velocity-time graphs to real-life scenarios such as recording a car's changing speed along a highway or a cyclist accelerating then braking |
- Roll a ball along a track, calculate velocity at each interval and record in a table - Use data tables to draw velocity-time graphs on graph paper - Draw velocity-time graphs for motions involving acceleration, constant velocity and deceleration and share work |
How do we represent changing velocity on a graph?
|
- Master Core Mathematics Grade 10 pg. 241
- Graph papers - Rulers - Stopwatch - Ball - Tape measure - Calculators - Master Core Mathematics Grade 10 pg. 244 - Calculators - Digital resources - Master Core Mathematics Grade 10 pg. 248 - Balls - Master Core Mathematics Grade 10 pg. 250 |
- Oral questions
- Observation
- Written assignments
|
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| 13 |
END TERM 2 ASSESSMENT |
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SCHOOL CLOSURE TERM 2 2026 |
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