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| WK | LSN | STRAND | SUB-STRAND | LESSON LEARNING OUTCOMES | LEARNING EXPERIENCES | KEY INQUIRY QUESTIONS | LEARNING RESOURCES | ASSESSMENT METHODS | REFLECTION |
|---|---|---|---|---|---|---|---|---|---|
| 1 |
REVISION |
||||||||
| 2 | 1 |
Mixtures, Elements and Compounds
|
Structure of the atom - The atom
|
By the end of the
lesson, the learner
should be able to:
- Define the term 'atom' - Describe the structure of an atom - Show interest in learning about the atom |
- Discuss the meaning of the term 'atom' using dictionaries or digital resources
- Use digital media to observe animations on the structure of an atom - Draw and discuss the structure of an atom |
Why learn about the structure of the atom?
|
- Oxford Integrated Science pg. 2
- Chart showing the structure of an atom - Dictionary - Digital devices |
- Observation
- Oral questions
- Written assignment
|
|
| 2 | 2 |
Mixtures, Elements and Compounds
|
Structure of the atom - Subatomic particles
Structure of the atom - Atomic number and mass number |
By the end of the
lesson, the learner
should be able to:
- Identify the subatomic particles in an atom - Describe the location of protons, neutrons, and electrons in an atom - Appreciate the composition of an atom |
- Study diagrams of the atom
- Identify different particles found in an atom - Discuss the properties of protons, neutrons, and electrons |
What is an atom?
|
- Oxford Integrated Science pg. 3
- Charts showing atomic structure - Digital resources - Oxford Integrated Science pg. 4 - Periodic table - Charts |
- Observation
- Oral questions
- Written test
|
|
| 2 | 3 |
Mixtures, Elements and Compounds
|
Structure of the atom - Calculating mass number
Structure of the atom - Electron arrangement |
By the end of the
lesson, the learner
should be able to:
- Determine the mass number of elements - Calculate the number of neutrons in atoms - Show interest in atomic calculations |
- Work out the mass number of elements with peers
- Complete table showing atomic numbers and mass numbers - Discuss isotopes |
How do we calculate the number of neutrons in an atom?
|
- Oxford Integrated Science pg. 5
- Periodic table - Calculators - Oxford Integrated Science pg. 8 - Charts - Digital resources |
- Written test
- Observation
- Oral questions
|
|
| 2 | 4-5 |
Mixtures, Elements and Compounds
|
Structure of the atom - Electron arrangement diagrams
Structure of the atom - Valence electrons Structure of the atom - Classifying elements Structure of the atom - Properties of metals and non-metals Structure of the atom - Modelling atomic structure |
By the end of the
lesson, the learner
should be able to:
- Draw electron arrangements for different elements - Explain energy levels in atoms - Appreciate the pattern in electron arrangements - Classify elements as metals or non-metals based on electron arrangement - Explain how electron arrangement determines metallic properties - Show interest in classification of elements |
- Draw electron arrangements of different elements
- Discuss the electron configuration of atoms - Use digital media to observe animations on electron arrangement - Study electron arrangements of different elements - Group elements as metals or non-metals based on electron arrangement - Discuss the relationship between electron arrangement and metallic properties |
How do we draw the electron arrangement of elements?
How can one distinguish metals and non-metals based on electron arrangement? |
- Oxford Integrated Science pg. 9
- Periodic table - Digital resources - Oxford Integrated Science pg. 10 - Charts - Oxford Integrated Science pg. 11 - Periodic table - Charts - Oxford Integrated Science pg. 12 - Oxford Integrated Science pg. 13 - Local materials for modeling |
- Observation
- Oral questions
- Practical assessment
- Observation - Oral questions - Written test |
|
| 3 | 1 |
Mixtures, Elements and Compounds
|
Structure of the atom - Creating models
Structure of the atom - Presenting models |
By the end of the
lesson, the learner
should be able to:
- Create atomic models using local materials - Label parts of the atomic model - Appreciate atomic structure |
- Model atomic structures using locally available materials
- Label the components of the atomic models - Display models in class |
How can we model atomic structures of elements?
|
- Oxford Integrated Science pg. 13
- Local materials for modeling - Softboard - Glue - Oxford Integrated Science pg. 14 - Completed atomic models - Charts |
- Observation
- Project work
- Peer assessment
|
|
| 3 | 2 |
Mixtures, Elements and Compounds
|
Structure of the atom - Review
Structure of the atom - Assessment |
By the end of the
lesson, the learner
should be able to:
- Summarize key concepts about atomic structure - Relate atomic structure to properties of elements - Show interest in atomic structure |
- Review key concepts about atoms
- Discuss the relationship between atomic structure and properties of elements - Create summary notes |
How does atomic structure determine the properties of elements?
|
- Oxford Integrated Science pg. 15
- Previous notes - Charts - Oxford Integrated Science pg. 16 - Assessment questions |
- Observation
- Oral questions
- Written test
|
|
| 3 | 3 |
Mixtures, Elements and Compounds
|
Metals and alloys - Identifying metals and non-metals
Metals and alloys - Physical properties of metals Metals and alloys - Colour of metals |
By the end of the
lesson, the learner
should be able to:
- Identify metals and non-metals in the environment - Classify materials as metals or non-metals - Show interest in classification of materials |
- Observe various materials in the environment
- Classify materials as metals or non-metals - Discuss the general properties of metals and non-metals |
Why learn about metals and alloys?
|
- Oxford Integrated Science pg. 17
- Various metal and non-metal samples - Charts - Oxford Integrated Science pg. 18 - Metal samples - Digital resources - Oxford Integrated Science pg. 19 - Sandpaper/steel wool - White tile |
- Observation
- Oral questions
- Written test
|
|
| 3 | 4-5 |
Mixtures, Elements and Compounds
|
Metals and alloys - Ductility and malleability
Metals and alloys - Thermal conductivity Metals and alloys - Electrical conductivity Metals and alloys - State of metals |
By the end of the
lesson, the learner
should be able to:
- Define ductility and malleability - Demonstrate ductility and malleability of metals - Appreciate these properties of metals - Investigate electrical conductivity of metals - Compare conductivity in different materials - Show interest in properties of metals |
- Look up meanings of 'ductile' and 'malleable'
- Demonstrate the stretching of copper wire - Hammer aluminum and observe changes - Set up a circuit with dry cells, connecting wires, and a bulb - Complete the circuit using various materials - Observe and discuss results |
How do the properties of ductility and malleability make metals useful?
How do metals conduct electricity compared to non-metals? |
- Oxford Integrated Science pg. 19
- Metal samples - Hammer - Dictionary - Oxford Integrated Science pg. 20 - Metallic spatula - Candle wax - Source of heat - Oxford Integrated Science pg. 20 - Dry cells - Connecting wires - Bulb and holder - Various materials - Oxford Integrated Science pg. 21 - Thermometer containing mercury - Charts - Digital resources |
- Observation
- Oral questions
- Practical assessment
|
|
| 4 | 1 |
Mixtures, Elements and Compounds
|
Metals and alloys - Alloy definition
Metals and alloys - Composition of brass and steel |
By the end of the
lesson, the learner
should be able to:
- Define an alloy - Identify common alloys in the environment - Show interest in alloys |
- Discuss the meaning of alloy
- Observe items made of alloys - Read information about alloy compositions |
What is an alloy?
|
- Oxford Integrated Science pg. 22
- Items made of alloys - Textbooks - Digital resources - Items made of brass and steel |
- Observation
- Oral questions
- Written test
|
|
| 4 | 2 |
Mixtures, Elements and Compounds
|
Metals and alloys - Composition of bronze and stainless steel
Metals and alloys - Uses of metals Metals and alloys - Uses of alloys |
By the end of the
lesson, the learner
should be able to:
- Describe the composition of bronze - Describe the composition of stainless steel and duralumin - Appreciate composition of alloys |
- Discuss the composition of bronze (copper and tin)
- Discuss the composition of stainless steel and duralumin - Research alloy compositions using digital resources |
What are stainless steel and duralumin made of?
|
- Oxford Integrated Science pg. 23
- Items made of bronze and stainless steel - Digital resources - Textbooks - Items made of metals - Charts - Oxford Integrated Science pg. 24 - Items made of alloys |
- Observation
- Oral questions
- Written test
|
|
| 4 | 3 |
Mixtures, Elements and Compounds
|
Metals and alloys - Value of metals and alloys
Metals and alloys - Rusting |
By the end of the
lesson, the learner
should be able to:
- Describe the value of metals and alloys - Explain factors that determine the value of metals - Show interest in the value of metals and alloys |
- Read about the value of gold, copper, and steel
- Discuss factors that determine the value of metals and alloys - Research the value of metals and alloys |
What is the value of various metals and alloys?
|
- Oxford Integrated Science pg. 24
- Digital resources - Textbooks - Newspaper articles - Oxford Integrated Science pg. 25 - Iron nails - Test tubes - Test tube corks - Olive oil - Anhydrous calcium chloride |
- Observation
- Oral questions
- Written test
|
|
| 4 | 4-5 |
Mixtures, Elements and Compounds
|
Metals and alloys - Effects of rusting
Metals and alloys - Prevention of rusting Metals and alloys - Summary Metals and alloys - Assessment |
By the end of the
lesson, the learner
should be able to:
- Describe effects of rusting - Explain the impact of rusting on objects - Show interest in the effects of rusting - Summarize properties of metals - Summarize composition and uses of alloys - Show confidence in knowledge about metals and alloys |
- Observe rusted objects
- Discuss the effects of rusting on appearance, strength, and conductivity - Research effects of rusting using digital resources - Review properties of metals - Discuss composition and uses of alloys - Create summary notes |
How does rusting affect metal objects and their uses?
Why is knowledge about metals and alloys important in everyday life? |
- Oxford Integrated Science pg. 26
- Rusted objects - Digital resources - Textbooks - Oxford Integrated Science pg. 27 - Charts - Oxford Integrated Science pg. 28 - Previous notes - Charts - Textbooks - Oxford Integrated Science pg. 29 - Assessment questions |
- Observation
- Oral questions
- Written test
|
|
| 5 | 1 |
Mixtures, Elements and Compounds
|
Water hardness - Physical properties of water
Water hardness - Taste of water Water hardness - Boiling point of water |
By the end of the
lesson, the learner
should be able to:
- Describe physical properties of water - Investigate the colour and odour of water - Show interest in properties of water |
- Observe distilled water
- Investigate whether distilled water has colour and odour - Discuss physical properties of water |
Why learn about water hardness?
|
- Oxford Integrated Science pg. 30
- Distilled water - Glass beakers - Water from different sources - Oxford Integrated Science pg. 31 - Water from different safe sources - Clean cups - Charts - Oxford Integrated Science pg. 32 - Water samples - Thermometer - Boiling tube - Source of heat |
- Observation
- Oral questions
- Written test
|
|
| 5 | 2 |
Mixtures, Elements and Compounds
|
Water hardness - Hard and soft water
Water hardness - Testing water hardness |
By the end of the
lesson, the learner
should be able to:
- Define hard and soft water - Distinguish between hard and soft water - Show interest in water hardness |
- Add soap to distilled water and tap water
- Observe lathering and formation of scum - Discuss the difference between hard and soft water |
Why is hard water preferred for drinking?
|
- Oxford Integrated Science pg. 33
- Distilled water - Tap water - Soap solution - Beakers - Oxford Integrated Science pg. 34 - Water samples - Conical flasks - Burette |
- Observation
- Oral questions
- Written test
|
|
| 5 | 3 |
Mixtures, Elements and Compounds
|
Water hardness - Differences between hard and soft water
Water hardness - Advantages of water |
By the end of the
lesson, the learner
should be able to:
- Describe the differences between hard and soft water - Explain the ions responsible for water hardness - Appreciate differences between hard and soft water |
- Review results from previous experiment
- Discuss ions responsible for water hardness - Summarize differences between hard and soft water |
What causes water to be hard?
|
- Oxford Integrated Science pg. 34
- Previous experimental results - Charts - Digital resources - Oxford Integrated Science pg. 35 - Textbooks |
- Observation
- Oral questions
- Written test
|
|
| 5 | 4-5 |
Mixtures, Elements and Compounds
|
Water hardness - Disadvantages of hard water
Water hardness - Methods of softening Water hardness - Softening by boiling Water hardness - Softening by distillation Water hardness - Softening using washing soda |
By the end of the
lesson, the learner
should be able to:
- Outline disadvantages of hard water - Explain effects of hard water on appliances - Show interest in water hardness - Soften hard water by distillation - Test effectiveness of distillation in water softening - Apply water softening skills |
- Research disadvantages of hard water
- Observe kettle with scale formation - Discuss effects of hard water on soap usage - Set up simple distillation apparatus - Distill hard water - Test lathering ability of distillate - Compare and discuss results |
How does hard water affect household appliances?
How effective is distillation in softening hard water? |
- Oxford Integrated Science pg. 36
- Kettle with scale - Digital resources - Textbooks - Oxford Integrated Science pg. 37 - Charts - Oxford Integrated Science pg. 38 - Hard water samples - Source of heat - Soap solution - Test tubes - Oxford Integrated Science pg. 39 - Hard water samples - Distillation apparatus - Soap solution - Test tubes - Oxford Integrated Science pg. 40 - Washing soda - Filter funnel and paper |
- Observation
- Oral questions
- Written test
- Observation - Oral questions - Practical assessment |
|
| 6 | 1 |
Mixtures, Elements and Compounds
|
Water hardness - Applications
Water hardness - Summary |
By the end of the
lesson, the learner
should be able to:
- Describe applications of soft water in daily life - Describe applications of hard water in daily life - Appreciate the importance of water hardness knowledge |
- Research applications of soft and hard water
- Discuss appropriate uses for each type of water - Create posters showing applications |
How do we apply knowledge of water hardness in daily life?
|
- Oxford Integrated Science pg. 41
- Digital resources - Textbooks - Charts - Oxford Integrated Science pg. 43 - Previous notes |
- Observation
- Oral questions
- Group presentations
|
|
| 6 | 2 |
Mixtures, Elements and Compounds
|
Water hardness - Applications of knowledge
Water hardness - Assessment |
By the end of the
lesson, the learner
should be able to:
- Apply knowledge on water hardness to solve problems - Choose appropriate water for specific applications - Show confidence in water hardness knowledge |
- Present scenarios requiring water hardness knowledge
- Discuss solutions to real-life problems - Create awareness materials on water hardness |
How can we help others understand water hardness?
|
- Oxford Integrated Science pg. 43
- Previous notes - Charts - Real-life scenarios - Oxford Integrated Science pg. 44 - Assessment questions |
- Observation
- Oral questions
- Group presentations
|
|
| 6 | 3 |
Living Things and their Environment
|
Nutrition in plants - Parts of a leaf
Nutrition in plants - Internal structure of a leaf Nutrition in plants - Adaptations of the leaf to photosynthesis |
By the end of the
lesson, the learner
should be able to:
- Identify the external parts of a leaf - Draw and label the external parts of a leaf - Show interest in the external parts of a leaf |
- Collect leaves from different plants
- Observe the arrangement of leaves on plants - Draw and label the external parts of a leaf |
What are the external parts of a leaf?
|
- Oxford Integrated Science pg. 44
- Leaf specimens - Charts showing leaf parts - Light microscope - Permanent slide of leaf section - Charts - Oxford Integrated Science pg. 45 - Digital resources - Charts showing leaf adaptations |
- Observation
- Oral questions
- Drawings
|
|
| 6 | 4-5 |
Living Things and their Environment
|
Nutrition in plants - Structure of chloroplast
Nutrition in plants - Process of photosynthesis Nutrition in plants - Testing for starch in a leaf Nutrition in plants - Conditions necessary for photosynthesis (light) |
By the end of the
lesson, the learner
should be able to:
- Identify the parts of a chloroplast - Draw and label the chloroplast - Explain the functions of the parts of a chloroplast - Test for the presence of starch in a leaf - Explain the steps in testing for starch - Appreciate the importance of testing for starch |
- Study charts showing chloroplast structure
- Identify parts of the chloroplast - Discuss functions of each part - Collect a leaf exposed to sunlight - Boil leaf in water and then in methylated spirit - Test the leaf with iodine solution - Observe and record results |
What is the structure of a chloroplast?
How do we test for the presence of starch in a leaf? |
- Oxford Integrated Science pg. 46
- Charts showing chloroplast structure - Digital resources - Oxford Integrated Science pg. 47 - Charts showing photosynthesis - Oxford Integrated Science pg. 48 - Leaf specimens - Methylated spirit - Iodine solution - Boiling tubes - Heat source - Oxford Integrated Science pg. 49 - Potted plant - Aluminum foil - Paper clips - Materials for starch test |
- Observation
- Drawings
- Oral questions
- Observation - Practical skills - Oral questions - Written report |
|
| 7 | 1 |
Living Things and their Environment
|
Nutrition in plants - Conditions necessary for photosynthesis (carbon IV oxide)
Nutrition in plants - Conditions necessary for photosynthesis (chlorophyll) |
By the end of the
lesson, the learner
should be able to:
- Show that carbon (IV) oxide is necessary for photosynthesis - Set up an experiment to show carbon (IV) oxide is necessary - Appreciate the importance of carbon (IV) oxide in photosynthesis |
- Set up two potted plants: one enclosed with sodium hydroxide, one without
- Expose both to sunlight - Test leaves for starch - Compare results |
Why is carbon (IV) oxide necessary for photosynthesis?
|
- Oxford Integrated Science pg. 50
- Potted plants - Sodium hydroxide - Polythene bags - Rubber bands - Materials for starch test - Oxford Integrated Science pg. 51 - Variegated leaves |
- Observation
- Practical skills
- Written report
- Assessment rubrics
|
|
| 7 | 2 |
Living Things and their Environment
|
Nutrition in plants - Conditions necessary for photosynthesis (water)
Nutrition in plants - Importance of photosynthesis in nature Nutrition in plants - Assessment |
By the end of the
lesson, the learner
should be able to:
- Discuss the importance of water in photosynthesis - Explain how lack of water affects photosynthesis - Show interest in scientific discussions |
- Discuss the role of water in photosynthesis
- Explain effects of water deficiency on plants - Research role of water during photosynthesis |
How does water affect photosynthesis?
|
- Oxford Integrated Science pg. 52
- Digital resources - Textbooks - Oxford Integrated Science pg. 53 - Charts on importance of photosynthesis - Oxford Integrated Science pg. 54 - Assessment questions - Previous notes |
- Oral questions
- Written exercises
- Discussion
|
|
| 7 | 3 |
Living Things and their Environment
|
Nutrition in animals - Modes of nutrition
Nutrition in animals - Dentition in animals |
By the end of the
lesson, the learner
should be able to:
- Outline different modes of nutrition in animals - Differentiate between parasitic and saprophytic modes - Show interest in modes of nutrition |
- Search for information on modes of nutrition
- Discuss differences between modes of nutrition - Identify examples of animals with different modes |
How do different animals feed?
|
- Oxford Integrated Science pg. 58
- Reference textbooks - Digital media - Oxford Integrated Science pg. 59 - Models of different dentition - Charts showing animal dentition - Digital resources |
- Oral questions
- Written exercises
- Group presentations
|
|
| 7 | 4-5 |
Living Things and their Environment
|
Nutrition in animals - Types of teeth
Nutrition in animals - Human digestive system Nutrition in animals - Digestion in the mouth and stomach Nutrition in animals - Digestion in small intestine Nutrition in animals - Absorption and assimilation |
By the end of the
lesson, the learner
should be able to:
- Identify different types of teeth in mammals - Describe the structure and function of each type - Draw different types of teeth - Describe digestion in the mouth and stomach - Explain the role of enzymes in digestion - Appreciate the process of digestion |
- Observe skull of cow/goat or human model
- Study charts showing different types of teeth - Draw and label different types of teeth - Search for information on digestion - Discuss mechanical and chemical digestion in mouth - Explain digestion in the stomach |
What are the different types of teeth and their functions?
How is food digested in the mouth and stomach? |
- Oxford Integrated Science pg. 61
- Model of human skull - Charts showing types of teeth - Oxford Integrated Science pg. 63 - Chart showing the human alimentary canal - Model of human digestive system - Oxford Integrated Science pg. 64 - Digital resources - Charts showing digestion - Oxford Integrated Science pg. 65 - Charts showing digestion in small intestine - Oxford Integrated Science pg. 66 - Charts showing absorption |
- Observation
- Drawings
- Oral questions
- Written exercises
- Oral questions - Written exercises - Group presentations |
|
| 8 |
Mid-term one assessment and revision |
||||||||
| 9 | 1 |
Living Things and their Environment
|
Nutrition in animals - Egestion
Nutrition in animals - Importance of various modes of nutrition |
By the end of the
lesson, the learner
should be able to:
- Explain the process of egestion - Describe the fate of indigestible food substances - Appreciate the role of egestion in nutrition |
- Discuss the fate of undigested and indigestible food
- Explain how waste is processed in the colon - Describe the importance of proper waste elimination |
What happens to indigestible food substances?
|
- Oxford Integrated Science pg. 67
- Science textbooks - Digital resources - Oxford Integrated Science pg. 68 |
- Oral questions
- Written exercises
- Group discussions
|
|
| 9 | 2 |
Living Things and their Environment
|
Nutrition in animals - Assessment
Reproduction in plants - Parts of a flower |
By the end of the
lesson, the learner
should be able to:
- Attempt questions on nutrition in animals - Apply knowledge to explain animal nutrition - Show confidence in their understanding |
- Answer assessment questions on animal nutrition
- Discuss solutions to questions - Review key concepts |
How does understanding animal nutrition help explain food processing?
|
- Oxford Integrated Science pg. 68
- Assessment questions - Previous notes - Oxford Integrated Science pg. 71 - Flower specimens - Hand lens - Chart showing flower parts |
- Written test
- Peer assessment
- Oral questions
|
|
| 9 | 3 |
Living Things and their Environment
|
Reproduction in plants - Functions of flower parts
Reproduction in plants - Types of pollination |
By the end of the
lesson, the learner
should be able to:
- Explain functions of different flower parts - Match flower parts with their functions - Show interest in structure-function relationship |
- Match each part with its correct function
- Discuss functions of flower parts - Group parts based on their roles |
What is the function of each flower part?
|
- Oxford Integrated Science pg. 72
- Charts showing flower parts - Flower specimens - Oxford Integrated Science pg. 73 - Charts showing pollination - Digital resources |
- Oral questions
- Written exercises
- Matching activities
|
|
| 9 | 4-5 |
Living Things and their Environment
|
Reproduction in plants - Adaptations to insect pollination
Reproduction in plants - Adaptations to wind pollination Reproduction in plants - Effects of agrochemicals on pollination Reproduction in plants - Fertilization in flowering plants Reproduction in plants - Seed and fruit formation |
By the end of the
lesson, the learner
should be able to:
- Identify adaptations of flowers to insect pollination - Explain how these adaptations aid pollination - Show interest in plant-insect interactions - Describe fertilization in flowering plants - Explain the process of pollen tube growth - Appreciate the complexity of fertilization |
- Collect insect-pollinated flowers
- Observe and identify adaptations - Dissect flowers to examine adaptations - Draw and label insect-pollinated flowers - Read and discuss fertilization process - Explain pollen tube growth and gamete fusion - Describe steps from pollination to fertilization |
How are flowers adapted to insect pollination?
How does fertilization occur in flowering plants? |
- Oxford Integrated Science pg. 74
- Insect-pollinated flowers - Hand lens - Charts - Oxford Integrated Science pg. 75 - Wind-pollinated flowers (grass) - Charts showing wind pollination - Oxford Integrated Science pg. 76 - Science textbooks - Magazines - Digital resources - Oxford Integrated Science pg. 77 - Charts showing fertilization - Digital resources - Oxford Integrated Science pg. 78 - Charts showing fruit development - Fruit specimens |
- Observation
- Drawings
- Oral questions
- Written report
- Oral questions - Written exercises - Group discussions |
|
| 10 | 1 |
Living Things and their Environment
|
Reproduction in plants - Fruit and seed dispersal
Reproduction in plants - Importance of fruit and seed dispersal |
By the end of the
lesson, the learner
should be able to:
- Categorize fruits and seeds based on dispersal methods - Identify adaptive features for dispersal - Appreciate adaptations for survival |
- Collect different fruits and seeds
- Identify adaptive features for dispersal - Group fruits and seeds by dispersal method - Study photographs of dispersal adaptations |
How are fruits and seeds adapted for dispersal?
|
- Oxford Integrated Science pg. 80
- Various fruits and seeds - Charts showing dispersal methods - Oxford Integrated Science pg. 82 - Plants in school compound - Pictures of seedling distribution |
- Observation
- Classification activities
- Oral questions
- Written report
|
|
| 10 | 2 |
Living Things and their Environment
|
Reproduction in plants - Role of flowers in nature
Reproduction in plants - Assessment |
By the end of the
lesson, the learner
should be able to:
- Discuss the role of flowers in nature - Explain ecological importance of flowers - Appreciate the significance of flowers |
- Read and discuss roles of flowers in nature
- Discuss flower roles in reproduction and ecology - List benefits of flowers to humans and animals |
What is the role of flowers in nature?
|
- Oxford Integrated Science pg. 83
- Digital resources - Flower specimens - Oxford Integrated Science pg. 84 - Assessment questions - Previous notes |
- Oral questions
- Written exercises
- Group presentations
|
|
| 10 | 3 |
Living Things and their Environment
|
The interdependence of life - Biotic components
The interdependence of life - Interrelationships between biotic components The interdependence of life - Effects of biotic factors |
By the end of the
lesson, the learner
should be able to:
- Identify biotic components of the environment - Observe interactions between living things - Show interest in biotic interactions |
- Observe living things in school compound
- Identify interactions between organisms - List the names of different living things observed |
What are the biotic components of the environment?
|
- Oxford Integrated Science pg. 91
- School compound - Digital resources - Oxford Integrated Science pg. 92 - English dictionary - Photographs of interactions - Oxford Integrated Science pg. 94 - Science textbooks |
- Observation
- Oral questions
- Written exercises
|
|
| 10 | 4-5 |
Living Things and their Environment
|
The interdependence of life - Abiotic components
The interdependence of life - Energy flow (Food chains) The interdependence of life - Energy flow (Food webs) The interdependence of life - Role of decomposers |
By the end of the
lesson, the learner
should be able to:
- Identify abiotic components of the environment - Discuss effects of abiotic factors on living things - Appreciate the role of abiotic factors - Construct simple food webs - Link food chains to form a food web - Appreciate the complexity of energy flow |
- Discuss effects of temperature, light, pH and minerals
- Study photographs of plants in different environments - Compare plant growth under different conditions - Read story about feeding relationships - Identify organisms at different trophic levels - Construct multiple food chains - Link food chains to form a web |
How do non-living factors affect living organisms?
How are food chains interconnected in an ecosystem? |
- Oxford Integrated Science pg. 96
- Digital resources - Photographs of plants in different environments - Oxford Integrated Science pg. 99 - School neighborhood - Charts showing food chains - Oxford Integrated Science pg. 100 - Charts showing food webs - Digital resources - Oxford Integrated Science pg. 102 - Pictures of decomposition |
- Oral questions
- Written exercises
- Group discussions
- Drawings - Written exercises - Oral questions |
|
| 11 | 1 |
Living Things and their Environment
|
The interdependence of life - Recycling nutrients
The interdependence of life - Effects of human activities The interdependence of life - Effects of human activities on environment |
By the end of the
lesson, the learner
should be able to:
- Discuss importance of decomposers in recycling nutrients - Explain how nutrients are recycled - Appreciate the role of recycling in ecosystems |
- Study nutrient recycling cycles
- Identify producers, consumers and decomposers - Explain how nutrients return to the soil - Discuss role of decomposers in element cycles |
How do decomposers help in recycling nutrients?
|
- Oxford Integrated Science pg. 102
- Chart showing nutrient recycling - Science textbooks - Oxford Integrated Science pg. 103 - Charts showing human activities - Photographs - Digital resources - Oxford Integrated Science pg. 104 - Journals |
- Oral questions
- Written exercises
- Group presentations
|
|
| 11 | 2 |
Living Things and their Environment
|
The interdependence of life - Importance of interdependence
The interdependence of life - Assessment |
By the end of the
lesson, the learner
should be able to:
- Discuss importance of interdependence - Explain benefits of living and non-living interactions - Appreciate the significance of interdependence |
- Read conversation about interdependence
- Identify importance of living and non-living interactions - Discuss benefits of interdependence - Present findings to class |
Why is the interdependence between living and non-living components important?
|
- Oxford Integrated Science pg. 105
- Digital resources - Science textbooks - Oxford Integrated Science pg. 107 - Assessment questions - Previous notes |
- Oral questions
- Written exercises
- Group presentations
|
|
| 11 | 3 |
Force and Energy
|
Curved mirrors - Types of curved mirrors
Curved mirrors - Terms associated with curved mirrors |
By the end of the
lesson, the learner
should be able to:
- Identify different types of curved mirrors - Differentiate between concave, convex and parabolic mirrors - Show interest in curved mirrors |
- Cut out an orange section as instructed
- Make reflecting surfaces using aluminum foil - Compare reflecting surfaces with concave and convex mirrors - Discuss types of curved mirrors |
How are curved mirrors used in day-to-day life?
|
- Oxford Integrated Science pg. 111
- Orange, aluminum foil, knife - Concave and convex mirrors - Oxford Integrated Science pg. 113 - Charts with illustrations |
- Observation
- Oral questions
- Practical skills assessment
|
|
| 11 | 4-5 |
Force and Energy
|
Curved mirrors - Principal focus and focal length
Curved mirrors - Focal length of a concave mirror Images formed by concave and convex mirrors - Using a screen Images formed by concave and convex mirrors - Special rays Images formed by concave and convex mirrors - Ray diagrams (concave) |
By the end of the
lesson, the learner
should be able to:
- Explain the meaning of principal focus and focal length - Identify focal plane - Appreciate the relationship between radius and focal length - Locate images formed by concave mirrors using a screen - Determine image positions for different object positions - Demonstrate real and virtual images |
- Study diagrams showing principal focus
- Discuss how parallel rays are reflected - Investigate how concave and convex mirrors reflect light differently - Determine focal length of concave mirror - Place burning candle at different positions - Adjust screen position to see clear image - Record positions and characteristics of images |
What is the relationship between the focal length and radius of curvature?
What kinds of images are formed by concave mirrors at different positions? |
- Oxford Integrated Science pg. 114
- Concave and convex mirrors - Charts on curved mirrors - Oxford Integrated Science pg. 115 - Concave mirror - Mirror holder - Screen - Meter rule - Oxford Integrated Science pg. 116 - Concave mirror - Mirror holder - Burning candle - Screen - Oxford Integrated Science pg. 118 - Geometrical set - Chart paper - Ruler - Oxford Integrated Science pg. 120 - Graph paper |
- Oral questions
- Written exercises
- Group discussions
- Observation - Practical skills - Written records - Group work |
|
| 12 |
Revision and end term one assessment |
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| 13 |
TERM TWO WORK |
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| 14 |
Revision |
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| 15 | 1 |
Force and Energy
|
Images formed by concave and convex mirrors - Ray diagrams (convex)
Images formed by concave and convex mirrors - Graphical method |
By the end of the
lesson, the learner
should be able to:
- Locate images using ray diagrams for convex mirrors - Compare image locations for concave and convex mirrors - Apply ray diagram principles |
- Draw principal axis and represent convex mirror
- Mark object position and focus - Draw rays using special rays method - Locate image position through ray intersection |
How do images formed by convex mirrors differ from those formed by concave mirrors?
|
- Oxford Integrated Science pg. 121
- Geometrical set - Chart paper - Graph paper - Oxford Integrated Science pg. 124 - Ruler - Calculator |
- Drawings
- Accuracy of ray diagrams
- Written explanations
|
|
| 15 | 2 |
Force and Energy
|
Images formed by concave and convex mirrors - Characteristics of images
Images formed by concave and convex mirrors - Applications of concave mirrors |
By the end of the
lesson, the learner
should be able to:
- Describe characteristics of images formed by curved mirrors - Use terms: erect, inverted, real, virtual, magnified, diminished - Compare images from different mirror types |
- Review ray diagrams from previous lessons
- Identify image characteristics for different object positions - Complete table of image characteristics - Discuss findings |
What are the characteristics of images formed by curved mirrors at different object positions?
|
- Oxford Integrated Science pg. 124
- Previous ray diagrams - Reference charts - Table templates - Oxford Integrated Science pg. 126 - Pictures of mirrors in use - Digital resources - Sample applications |
- Oral questions
- Written exercises
- Completed tables
|
|
| 15 | 3 |
Force and Energy
|
Images formed by concave and convex mirrors - Applications of convex mirrors
Curved mirrors - Applications of parabolic mirrors |
By the end of the
lesson, the learner
should be able to:
- Explain uses of convex mirrors in daily life - Relate mirror properties to specific applications - Appreciate the practical value of convex mirrors |
- Discuss uses of convex mirrors in vehicles and security
- Explain why wide field of view is important - Study images of convex mirrors in use - Complete table of curved mirror applications |
Why are convex mirrors preferred for driving and security?
|
- Oxford Integrated Science pg. 127
- Pictures of mirrors in use - Digital resources - Sample applications - Oxford Integrated Science pg. 128 - Pictures of parabolic reflectors |
- Oral presentations
- Written explanations
- Group discussions
|
|
| 15 | 4-5 |
Force and Energy
|
Curved mirrors - Project work
Curved mirrors - Assessment Waves - Meaning of waves Waves - Generation of waves in water Waves - Generation of waves in rope and springs |
By the end of the
lesson, the learner
should be able to:
- Identify curved mirrors in everyday life - Categorize mirrors by type and application - Show confidence in practical applications - Demonstrate the generation of water waves - Explain how energy is transferred - Show interest in wave production |
- Find examples of curved mirrors in daily life
- Determine if they are concave, convex or parabolic - Explain why each mirror is best for its purpose - Complete a table of curved mirror uses - Strike water surface in a basin - Observe ripples formed - Identify source of energy - Discuss energy transfer |
What curved mirrors can you identify in your environment?
How are waves generated in water? |
- Oxford Integrated Science pg. 129
- Environment observations - Digital resources - Table template - Assessment questions - Graph paper - Geometrical set - Oxford Integrated Science pg. 130 - Dictionary - Science textbooks - Oxford Integrated Science pg. 131 - Large basin with water - Stick - Visual aids - Oxford Integrated Science pg. 132 - Rope (3m) - Slinky spring - Speaker - Paper strip |
- Project work
- Presentations
- Completed tables
- Observation - Practical skills - Oral explanations |
|
| 16 | 1 |
Force and Energy
|
Waves - Classification of waves
Waves - Parts of a wave |
By the end of the
lesson, the learner
should be able to:
- Classify waves as transverse or longitudinal - Differentiate between the two wave types - Give examples of each wave type |
- Read and discuss information on wave types
- Identify differences between transverse and longitudinal waves - List examples of each wave type - Draw diagrams to illustrate each type |
How are waves classified?
|
- Oxford Integrated Science pg. 133
- Text resources - Charts showing wave types - Digital resources - Oxford Integrated Science pg. 134 - Rope (3m) - Slinky spring - Meter rule |
- Oral explanations
- Written classifications
- Diagrams
|
|
| 16 | 2 |
Force and Energy
|
Waves - Wave terms
Waves - Wave equations Waves - Straight line motion |
By the end of the
lesson, the learner
should be able to:
- Define wave terms: amplitude, wavelength, frequency, period - Identify these properties on wave diagrams - Show interest in wave physics |
- Study diagrams showing wave parts
- Identify amplitude, wavelength on diagrams - Discuss meaning of frequency and period - Identify points in phase on a wave |
How are the parts of a wave measured and described?
|
- Oxford Integrated Science pg. 136
- Charts showing wave diagrams - Tables of wave terms - Digital resources - Wave equation reference - Calculator - Problem sets - Oxford Integrated Science pg. 138 - Cardboards - Wooden blocks - Candle - Matches |
- Oral explanations
- Written definitions
- Diagrams
- Quizzes
|
|
| 16 | 3 |
Force and Energy
|
Waves - Bending of waves
Waves - Movement around objects |
By the end of the
lesson, the learner
should be able to:
- Explain how waves bend when passing through different media - Define refraction - Relate to everyday phenomena |
- Observe how light bends through glass or water
- Discuss refraction at boundaries - Relate to how light travels through lenses - Draw diagrams showing refraction |
How do waves behave when they pass from one medium to another?
|
- Oxford Integrated Science pg. 139
- Glass block - Water container - Light source - Diagrams - Two pencils - Rubber bands - White paper |
- Observation
- Diagrams
- Explanations
- Written exercises
|
|
| 16 | 4-5 |
Force and Energy
|
Waves - Remote sensing meaning
Waves - Remote sensing process Waves - Applications in communication Waves - Applications in medicine Waves - Other applications Waves - Assessment |
By the end of the
lesson, the learner
should be able to:
- Explain the meaning of remote sensing - Relate to human sense organs - Identify remote sensing devices - Describe applications of waves in communication - Explain how different devices use waves - Show interest in wave technology |
- Find meanings of 'remote' and 'sensing'
- Discuss combined meaning - Compare with eyes and ears functioning - Identify remote sensing devices - Study images of communication devices - Discuss how radio, TV, phones use waves - Explain Wi-Fi and drone control - Research additional applications |
What is remote sensing?
How are waves used in communication? |
- Oxford Integrated Science pg. 140
- Dictionary - Images of remote sensing - Digital resources - Oxford Integrated Science pg. 141 - Diagrams of remote sensing - Manila papers - Felt pens - Oxford Integrated Science pg. 143 - Images of communication devices - Digital resources - Chart paper - Oxford Integrated Science pg. 144 - Images of medical equipment - Oxford Integrated Science pg. 145 - Images of applications - Oxford Integrated Science pg. 146 - Assessment questions - Calculator - Previous notes |
- Oral explanations
- Written definitions
- Group discussions
- Oral presentations - Written explanations - Group projects |
|
| 17 |
Revision |
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