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| WK | LSN | STRAND | SUB-STRAND | LESSON LEARNING OUTCOMES | LEARNING EXPERIENCES | KEY INQUIRY QUESTIONS | LEARNING RESOURCES | ASSESSMENT METHODS | REFLECTION |
|---|---|---|---|---|---|---|---|---|---|
| 1 |
Opening |
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| 2 | 1 |
Force and Energy
|
Electrical Energy - Sources of electricity in the environment
Electrical Energy - Solar, hydro-electric and geothermal power |
By the end of the
lesson, the learner
should be able to:
- Identify sources of electricity in the environment - Distinguish between renewable and non-renewable sources - Appreciate the variety of electricity sources |
- Brainstorm on electrical energy uses - Identify sources of electricity at school, home, hospital, market - Study images and identify electricity sources - Discuss sources used for laboratory experiments |
What are the different sources of electricity in our environment?
|
- Master Integrated Science pg. 134
- Images of electricity sources - Digital devices - Master Integrated Science pg. 135 - Digital resources - Power generation diagrams |
- Observation
- Oral questions
- Practical work
|
|
| 2 | 2-3 |
Force and Energy
|
Electrical Energy - Wind, nuclear and other power sources
Electrical Energy - Electrical cells and batteries |
By the end of the
lesson, the learner
should be able to:
- Explain wind power generation - Understand nuclear power basics - Identify fossil fuels and biomass as energy sources - Identify electrical cells and batteries - Understand how batteries store and release energy - Recognize positive and negative terminals |
- Study wind turbine operations - Learn about nuclear power generation - Investigate tidal wave power - Research fossil fuels and biomass energy - Examine electrical cells and identify terminals - Study battery structure and function - Practice identifying positive and negative terminals - Discuss battery safety measures |
How do different technologies convert natural resources into electricity?
How do electrical cells and batteries provide electricity? |
- Master Integrated Science pg. 136 - Energy conversion charts - Reference materials - Master Integrated Science pg. 137 - Electrical cells - Battery samples |
- Checklist
- Anecdotal records
- Written assignments
- Practical work - Observation schedule - Safety checklist |
|
| 2 | 4 |
Force and Energy
|
Electrical Energy - Flow of electric current in series circuits
Electrical Energy - Flow of electric current in parallel circuits |
By the end of the
lesson, the learner
should be able to:
- Demonstrate flow of electric current in series circuits - Set up simple series circuits - Understand circuit continuity |
- Set up simple electrical circuits in series - Use dry cells, connecting wires, switches and bulbs - Observe what happens in each circuit setup - Draw sketches of circuit arrangements |
How does electric current flow in series circuits?
|
- Master Integrated Science pg. 138
- Electrical apparatus - Circuit materials - Master Integrated Science pg. 139 - Electrical components - Circuit diagrams |
- Assessment rubrics
- Practical work
- Observation
|
|
| 2 | 5 |
Force and Energy
|
Electrical Energy - Understanding electrical circuits
|
By the end of the
lesson, the learner
should be able to:
- Define electrical circuits - Distinguish between open and closed circuits - Explain the role of switches |
- Study electrical circuit components - Identify positive and negative terminals - Practice opening and closing circuits with switches - Analyze circuit diagrams |
What makes an electrical circuit work effectively?
|
- Master Integrated Science pg. 140 - Circuit analysis materials - Switch demonstrations |
- Checklist
- Oral questions
- Circuit testing
|
|
| 3 | 1 |
Force and Energy
|
Electrical Energy - Series and parallel arrangements
|
By the end of the
lesson, the learner
should be able to:
- Compare series and parallel arrangements - Predict circuit behavior - Understand current flow patterns |
- Classify circuits as series or parallel - Analyze effects of removing bulbs from circuits - Compare brightness of bulbs in different arrangements - Draw various circuit configurations |
How do series and parallel arrangements affect circuit performance?
|
- Master Integrated Science pg. 141 - Circuit comparison charts - Analysis worksheets |
- Assessment rubrics
- Problem solving
- Circuit analysis
|
|
| 3 | 2-3 |
Force and Energy
|
Electrical Energy - Common electrical appliances
Electrical Energy - Safety measures with electrical appliances Electrical Energy - Electrical safety in daily life |
By the end of the
lesson, the learner
should be able to:
- Identify common electrical appliances - Categorize appliances by function - Appreciate the role of electricity in daily life - Apply electrical safety in real situations - Recognize dangerous electrical conditions - Take appropriate safety actions |
- Write names of electrical appliances on flashcards - Exchange flashcards with classmates - Identify appliances in pictures - Find appliances used in different locations - Read safety precautions on electrical appliances - Discuss safety with parents or guardians - Write articles on electrical safety - Practice emergency responses |
What electrical appliances do we use in daily life?
Why is electrical safety important in daily life? |
- Master Integrated Science pg. 142
- Appliance pictures - Flashcards - Master Integrated Science pg. 143 - Safety guidelines - Emergency procedures - Master Integrated Science pg. 144 - Safety manuals - Emergency resources |
- Observation
- Practical work
- Oral questions
- Assessment rubrics - Safety projects - Community feedback |
|
| 3 | 4 |
Force and Energy
|
Electrical Energy - Uses of electricity in daily life
|
By the end of the
lesson, the learner
should be able to:
- Identify multiple uses of electricity - Appreciate electricity's importance - Connect electricity to modern living |
- State uses of electricity in homes, schools, hospitals, factories - Identify electricity uses in pictures - Name other uses in daily life - Discuss importance of electrical systems |
How does electricity support modern life?
|
- Master Integrated Science pg. 145 - Usage examples - Modern life illustrations |
- Practical work
- Oral questions
- Written assignments
|
|
| 3 | 5 |
Force and Energy
|
Electrical Energy - Integration and application
Electrical Energy - Review and assessment |
By the end of the
lesson, the learner
should be able to:
- Integrate knowledge of electrical energy - Apply electrical concepts to solve problems - Design simple electrical solutions |
- Complete comprehensive electrical energy questions - Design simple circuits for specific purposes - Solve electrical problems - Connect electrical knowledge to other subjects |
How can electrical energy knowledge be applied to solve real problems?
|
- Master Integrated Science pg. 145
- Problem-solving materials - Design challenges - Assessment papers - Performance reviews - Improvement plans |
- Project assessment
- Problem solving
- Design evaluation
|
|
| 4 | 1 |
Force and Energy
|
Electrical Energy - Extension and research
|
By the end of the
lesson, the learner
should be able to:
- Research advanced electrical concepts - Explore careers in electrical engineering - Demonstrate leadership in electrical safety |
- Research current developments in electrical energy - Explore careers in electrical fields - Create electrical safety campaigns - Mentor younger students on electrical concepts |
How can electrical energy knowledge contribute to future careers and community safety?
|
- Advanced electrical resources - Career information - Research tools |
- Research projects
- Career exploration
- Community service assessment
|
|
| 4 | 2-3 |
Force and Energy
|
Electrical Energy - Innovation and creativity
Magnetism - Identifying and demonstrating magnetic properties Magnetism - Demonstrating attraction and repulsion |
By the end of the
lesson, the learner
should be able to:
- Design innovative electrical solutions - Think creatively about electrical applications - Demonstrate entrepreneurial thinking - Identify magnets and their properties - Demonstrate attractive and repulsive properties - Understand magnetic force |
- Design solutions for electrical problems in school/community - Create models of innovative electrical devices - Present creative electrical ideas - Develop business plans for electrical innovations - Study pictures of magnets and discuss their uses - Use magnets with iron filings and iron nails - Observe attraction when magnet approaches nail - Record observations of magnetic attraction |
How can I use creativity and innovation to solve electrical energy challenges?
What are the basic properties of magnets? |
- Innovation materials - Design supplies - Presentation tools - Master Integrated Science pg. 146 - Bar magnets - Iron filings and nails - Master Integrated Science pg. 147 - Two bar magnets - Observation sheets |
- Innovation assessment
- Creativity evaluation
- Entrepreneurship skills
- Observation - Practical work - Oral questions |
|
| 4 | 4 |
Force and Energy
|
Magnetism - Directional properties of magnets
|
By the end of the
lesson, the learner
should be able to:
- Demonstrate directional properties of magnets - Understand magnetic alignment - Appreciate magnetic navigation principles |
- Tie thread around center of bar magnet - Suspend magnet from retort stand - Allow magnet to rotate and settle - Observe direction of magnetic alignment |
Why do freely suspended magnets point in specific directions?
|
- Master Integrated Science pg. 148 - Thread and retort stand - Compass for reference |
- Checklist
- Observation schedule
- Scientific reasoning
|
|
| 4 | 5 |
Force and Energy
|
Magnetism - Magnetic poles and their identification
Magnetism - Magnetic strength and measurement |
By the end of the
lesson, the learner
should be able to:
- Identify magnetic poles - Label north and south poles - Understand pole characteristics |
- Place bar magnet on iron filings - Observe where iron filings cling most - Suspend magnet and identify north-pointing end - Label north and south poles correctly |
What are magnetic poles and how can they be identified?
|
- Master Integrated Science pg. 149
- Iron filings - Pole identification materials - Master Integrated Science pg. 150 - Spring balance - Various magnets |
- Practical work
- Written tests
- Pole identification assessment
|
|
| 5 |
Mid term exams |
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| 6 | 1 |
Force and Energy
|
Magnetism - Basic law of magnetism
|
By the end of the
lesson, the learner
should be able to:
- Understand the basic law of magnetism - Predict magnetic interactions - Apply magnetic principles |
- Bring north pole to south pole of another magnet - Bring north poles together - Bring south poles together - Record all observations and formulate law |
What is the basic law of magnetism?
|
- Master Integrated Science pg. 151 - Multiple bar magnets - Law formulation materials |
- Scientific reasoning
- Law application
- Prediction accuracy
|
|
| 6 | 2-3 |
Force and Energy
|
Magnetism - Magnetic and non-magnetic materials
Magnetism - Testing household materials Magnetism - Uses of magnets in separation |
By the end of the
lesson, the learner
should be able to:
- Classify materials as magnetic or non-magnetic - Test materials with magnets - Understand material properties - Apply magnetic testing to household items - Extend classification skills - Connect learning to home environment |
- Collect various materials from school environment - Test each material with suspended magnet - Classify materials into magnetic and non-magnetic - Create classification table - Test household items with parent/guardian permission - Use magnet to classify household materials - Record observations in table format - Share findings with classmates |
How can materials be classified based on their response to magnets?
What household materials are magnetic or non-magnetic? |
- Master Integrated Science pg. 152 - Collection of materials - Classification tables - Master Integrated Science pg. 153 - Household materials - Home testing permissions - Master Integrated Science pg. 154 - Application examples - Magnetic toys |
- Practical work
- Classification skills
- Material testing
- Home-school connection - Extended classification - Family involvement |
|
| 6 | 4 |
Force and Energy
|
Magnetism - Magnets in technology and navigation
|
By the end of the
lesson, the learner
should be able to:
- Understand magnets in speakers and compasses - Appreciate magnetic navigation - Connect magnetism to technology |
- Explain magnetic demonstrations and magic tricks - Suggest magnetic solutions for practical problems - Study magnetic compass operations - Research technological applications |
How do magnets work in speakers, compasses, and other technologies?
|
- Master Integrated Science pg. 155 - Magnetic compass - Speaker demonstrations |
- Assessment rubrics
- Technology connections
- Research skills
|
|
| 6 | 5 |
Force and Energy
|
Magnetism - Practical applications and problem solving
|
By the end of the
lesson, the learner
should be able to:
- Apply magnetic knowledge to solve problems - Design magnetic solutions - Demonstrate creative thinking |
- Listen to resource person on magnet applications - Create posters on daily life uses of magnets - Solve practical problems using magnets - Design magnetic devices for specific purposes |
How can magnetic knowledge be used to solve real-world problems?
|
- Master Integrated Science pg. 156 - Problem-solving scenarios - Design materials |
- Problem-solving assessment
- Design evaluation
- Creative thinking
|
|
| 7 | 1 |
Force and Energy
|
Magnetism - Review and integration
Magnetism - Extension and research |
By the end of the
lesson, the learner
should be able to:
- Demonstrate comprehensive understanding of magnetism - Integrate magnetic concepts - Apply knowledge in new contexts |
- Complete comprehensive magnetism questions - Classify magnetic and non-magnetic materials - Predict magnetic interactions - Solve magnetism problems |
What have I learned about magnetism and its applications?
|
- Master Integrated Science pg. 157
- Review materials - Assessment questions - Advanced magnetic resources - Research materials - Technology examples |
- Summative assessment
- Knowledge integration
- Problem solving
|
|
| 7 | 2-3 |
Force and Energy
|
Magnetism - Innovation and creativity
Force and Energy Integration - Connecting electrical energy and magnetism |
By the end of the
lesson, the learner
should be able to:
- Design innovative magnetic solutions - Think creatively about magnetic applications - Demonstrate entrepreneurial thinking - Connect electrical energy and magnetism concepts - Understand electromagnetic relationships - Integrate Force and Energy strand learning |
- Design magnetic devices for community problems - Create innovative magnetic toys or tools - Develop business plans for magnetic innovations - Present creative magnetic solutions - Compare electrical and magnetic forces - Explore connections between electricity and magnetism - Investigate electromagnetic devices - Create integrated concept maps |
How can I use magnetism to create innovative solutions?
How are electrical energy and magnetism related? |
- Innovation materials - Design supplies - Presentation tools - Integration materials - Electromagnetic examples - Concept mapping tools |
- Innovation assessment
- Creativity evaluation
- Entrepreneurship skills
- Integration assessment - Concept understanding - Relationship analysis |
|
| 7 | 4 |
Force and Energy
|
Force and Energy Integration - Comprehensive review and assessment
Force and Energy Integration - Real-world applications and careers |
By the end of the
lesson, the learner
should be able to:
- Demonstrate mastery of entire Force and Energy strand - Apply concepts to complex problems - Show readiness for advanced physics concepts |
- Complete comprehensive Force and Energy assessment - Solve complex problems involving electricity and magnetism - Demonstrate practical skills in both areas - Reflect on strand learning |
What have I learned about Force and Energy and how will this help in future studies?
|
- Comprehensive assessment materials
- Complex problem scenarios - Reflection guides - Career information - Field trip resources - Community connections |
- Summative assessment
- Practical skills evaluation
- Future readiness assessment
|
|
| 7 | 5 |
Force and Energy
|
Force and Energy Integration - Future learning and reflection
|
By the end of the
lesson, the learner
should be able to:
- Reflect on entire Force and Energy strand learning - Set goals for advanced physics study - Demonstrate readiness for STEM pathway |
- Complete comprehensive reflection on Force and Energy learning - Set goals for Senior School physics studies - Create portfolio of best work from strand - Plan for continued STEM education |
How has learning about Force and Energy prepared me for advanced physics studies?
|
- Reflection portfolios - Goal-setting materials - STEM pathway information |
- Portfolio assessment
- Reflection quality
- Goal-setting skills
|
|
| 8 |
End term 3 exmd |
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| 9 |
Marking and Closing |
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