Electricity and Magnetism

Origin of charges in a material
The law of electrostatics

By the end of the lesson, the learner should be able to:
- Define electric charge and state its SI unit
- Describe the atomic structure and origin of charges in materials
- Relate static electricity to everyday experiences like clothes clinging after tumble drying

In groups, learners are guided to:
- Discuss with peers the origin of charges on materials (atom, nucleus, neutrons, protons and electrons)
- Use digital resources to search for information on atomic structure
- Perform experiments to demonstrate generation of static charges through rubbing plastic pen on woolen cloth

How do materials acquire electric charges?

- Spotlight Physics Learner's Book pg. 205
- Plastic pen, woolen cloth
- Small pieces of paper
- Digital resources
- Spotlight Physics Learner's Book pg. 207
- Balloons, woolen cloth
- Thread, retort stands
- Metre rule

- Oral questions - Observation - Written assignments

Electricity and Magnetism

Methods of charging conductors - Induction and Contact

By the end of the lesson, the learner should be able to:
- Explain charging by induction and contact methods
- Demonstrate charging conductors using induction and contact
- Relate induction charging to wireless phone charging technology

In groups, learners are guided to:
- Discuss with peers the induction and contact methods of charging
- Perform experiments to charge metallic spheres by induction and contact
- Sketch charge distribution during each stage
- Compare the two methods of charging

How can a conductor be charged without losing charge from the charging rod?

- Spotlight Physics Learner's Book pg. 208
- Metallic spheres on insulated stands
- Charged polythene and glass rods
- Connecting wire for earthing

- Practical assessment - Oral questions - Diagram sketching

Electricity and Magnetism

Methods of charging conductors - Separation and charge distribution
Electric field patterns

By the end of the lesson, the learner should be able to:
- Describe charging by separation method
- Illustrate charge distribution on conductors of various shapes
- Connect charge concentration at sharp points to lightning rod design

In groups, learners are guided to:
- Carry out activities to charge two spheres by separation method
- Discuss how charge distributes on spherical, pear-shaped and irregular conductors
- Draw diagrams showing charge distribution on different shaped conductors

Why does charge concentrate at pointed ends of conductors?

- Spotlight Physics Learner's Book pg. 211
- Two metallic spheres on insulated stands
- Charged rods
- Charts showing charge distribution
- Spotlight Physics Learner's Book pg. 214
- Charts showing electric field patterns
- Digital resources
- Drawing materials

- Observation - Written assignments - Diagram assessment

Electricity and Magnetism

The electroscope - Structure, charging and discharging

By the end of the lesson, the learner should be able to:
- Identify and explain functions of parts of a gold-leaf electroscope
- Demonstrate charging an electroscope by induction and contact
- Connect electroscope principles to static charge detectors in industry

In groups, learners are guided to:
- Study the various parts of the electroscope and their functions
- Carry out activities to charge an electroscope by induction and contact
- Demonstrate earthing/discharging of an electroscope
- Construct a simple electroscope using locally available materials

How does the leaf of an electroscope respond to charging?

- Spotlight Physics Learner's Book pg. 216
- Gold-leaf electroscope
- Charged polythene and glass rods
- Conical flask, aluminium foil, metal spoon

- Practical assessment - Observation - Oral questions

Electricity and Magnetism

Uses of electroscope
Applications - Spray painting, precipitators and photocopiers
Applications - Lightning arrestors and safety measures

By the end of the lesson, the learner should be able to:
- Describe uses of an electroscope
- Demonstrate testing for presence, type and quantity of charge
- Apply electroscope principles to quality control testing in manufacturing
- Explain the design and function of lightning arrestors
- Describe safety measures in transportation of flammable substances
- Relate lightning arrestors to protection of buildings during thunderstorms

In groups, learners are guided to:
- Perform experiments to test for presence of charge on a body
- Determine the type of charge using a charged electroscope
- Measure relative quantity of charge
- Test conducting and insulating properties of materials
- Discuss the design and function of lightning arrestors
- Explain why metallic chains are attached to fuel tankers
- Research safety in transportation of flammable liquids and gases
- Discuss why people should not stand under trees during storms

How can an electroscope determine the type of charge on a body?
Why are lightning arrestors installed on tall buildings?

- Spotlight Physics Learner's Book pg. 219
- Gold-leaf electroscope
- Various charged materials
- Conductors and insulators for testing
- Spotlight Physics Learner's Book pg. 221
- Charts and diagrams
- Digital resources
- Videos on spray painting
- Spotlight Physics Learner's Book pg. 223
- Pictures of lightning arrestors
- Charts on safety measures
- Digital resources

- Practical assessment - Oral questions - Written tests
- Oral questions - Written assignments - Group discussions

Electricity and Magnetism

Applications - Touch screens, fingerprinting and capacitors

By the end of the lesson, the learner should be able to:
- Explain electrostatic applications in touch screens and fingerprinting
- Describe the role of electrostatics in capacitors
- Connect capacitive touch technology to everyday smartphone use

In groups, learners are guided to:
- Discuss the principle behind capacitive touch screens
- Research on electrostatic fingerprinting and live scanning
- Explain how capacitors in electronic devices use electrostatic principles
- Explore air purifiers and other applications

How do smartphones detect finger touches using electrostatics?

- Spotlight Physics Learner's Book pg. 225
- Smartphones and tablets
- Digital resources
- Charts on touch screen technology

- Oral questions - Written tests - Research presentations

Electricity and Magnetism

Current and potential difference

By the end of the lesson, the learner should be able to:
- Define electric current and potential difference with their SI units
- Measure current using ammeter and potential difference using voltmeter
- Relate current flow to water flow in pipes for practical understanding

In groups, learners are guided to:
- Set up simple circuits with cells, bulb, ammeter and voltmeter
- Discuss current as rate of flow of charge (I = Q/t)
- Discuss potential difference as work done per unit charge (V = W/Q)
- Measure and record current and voltage in circuits

What is the relationship between charge, current and potential difference?

- Spotlight Physics Learner's Book pg. 228
- Dry cells, cell holders
- Ammeter, voltmeter, bulb
- Connecting wires, switch

- Practical assessment - Oral questions - Written calculations

Electricity and Magnetism

Electromotive force and internal resistance

By the end of the lesson, the learner should be able to:
- Define electromotive force and internal resistance
- Distinguish between EMF and terminal potential difference
- Relate internal resistance to why old batteries provide less power

In groups, learners are guided to:
- Connect voltmeters across a cell in open and closed circuits
- Compare voltmeter readings when switch is open and closed
- Discuss lost voltage and internal resistance
- Derive the relationship E = V + Ir

Why does a cell's voltage drop when connected in a circuit?

- Spotlight Physics Learner's Book pg. 231
- Dry cells, two voltmeters
- Known resistors, switch
- Connecting wires

- Practical assessment - Oral questions - Written calculations

Electricity and Magnetism

Ohm's law - Verification and calculations
EMF equation and internal resistance determination
Ohmic and non-ohmic conductors

By the end of the lesson, the learner should be able to:
- State and verify Ohm's law experimentally
- Apply Ohm's law equation V = IR to solve problems
- Connect Ohm's law to selecting appropriate fuses for home appliances
- Classify conductors as ohmic or non-ohmic based on V-I characteristics
- Investigate V-I relationship of torch bulb, thermistor and diode
- Relate non-ohmic behaviour to why bulbs are dim when first switched on

In groups, learners are guided to:
- Set up circuit with nichrome wire, ammeter, voltmeter and rheostat
- Vary current and record corresponding voltages
- Plot graph of V against I and determine resistance from gradient
- Solve numerical problems using V = IR
- Investigate V-I relationship of different conductors
- Draw I-V characteristic graphs for tungsten, torch bulb, thermistor and diode
- Classify conductors based on their graphs
- Compare behaviour of ohmic and non-ohmic conductors

What is the relationship between voltage and current for an ohmic conductor?
Why do some conductors not obey Ohm's law?

- Spotlight Physics Learner's Book pg. 232
- Nichrome wire, ammeter
- Voltmeter, rheostat
- Dry cells, graph paper
- Spotlight Physics Learner's Book pg. 236
- Dry cells, ammeter
- Graph paper
- Spotlight Physics Learner's Book pg. 242
- Torch bulb, thermistor
- Semiconductor diode
- Ammeter, voltmeter, rheostat

- Practical assessment - Graph plotting - Written calculations
- Practical assessment - Graph plotting - Oral questions

Electricity and Magnetism

Factors affecting resistance - Length and cross-sectional area
Factors affecting resistance - Temperature and resistivity

By the end of the lesson, the learner should be able to:
- Investigate the effect of length and cross-sectional area on resistance
- Establish relationships R ∝ L and R ∝ 1/A
- Relate wire dimensions to why thick, short cables are used for car batteries

In groups, learners are guided to:
- Set up circuit with nichrome wire on metre rule
- Measure resistance at different lengths and plot R against L
- Measure resistance of wires with different diameters
- Plot R against A and establish inverse relationship

How do length and thickness of a wire affect its resistance?

- Spotlight Physics Learner's Book pg. 245
- Nichrome wire, metre rule
- Wires of different thickness
- Micrometer screw gauge, ammeter, voltmeter
- Spotlight Physics Learner's Book pg. 248
- Tungsten coil, beaker
- Thermometer, heat source
- Ammeter, voltmeter

- Practical assessment - Graph plotting - Written conclusions

Electricity and Magnetism

Methods of determining resistance

By the end of the lesson, the learner should be able to:
- Determine resistance using voltmeter-ammeter, metre bridge and Wheatstone bridge methods
- Read resistance values using colour codes
- Apply different methods to verify resistor values in electronic repair

In groups, learners are guided to:
- Determine resistance using V-A method and calculate from R = V/I
- Set up metre bridge to find unknown resistance using K/Y = P/Q
- Connect Wheatstone bridge and calculate using K/P = L/Q
- Read resistance from colour bands on resistors

Which method is most accurate for measuring resistance?

- Spotlight Physics Learner's Book pg. 251
- Metre bridge, Wheatstone bridge components
- Galvanometer, jockey
- Resistors with colour codes

- Practical assessment - Written calculations - Identification exercises

Electricity and Magnetism

Types of resistors and current-voltage laws

By the end of the lesson, the learner should be able to:
- Identify and classify types of resistors (fixed, variable, linear, non-linear)
- Verify laws of current and voltage in series and parallel circuits
- Connect resistor types to volume controls and temperature sensors

In groups, learners are guided to:
- Study different types of resistors and their applications
- Connect bulbs in series and verify I₁ = I₂ = I₃ and V = V₁ + V₂ + V₃
- Connect bulbs in parallel and verify I = I₁ + I₂ + I₃ and V₁ = V₂ = V₃
- Discuss applications of rheostats and potentiometers

Why is current the same in series but voltage the same in parallel?

- Spotlight Physics Learner's Book pg. 255
- Various types of resistors
- Identical bulbs, ammeters
- Voltmeters, dry cells

- Practical assessment - Oral questions - Written assignments

Electricity and Magnetism

Effective resistance in series and parallel
Solving complex resistor network problems

By the end of the lesson, the learner should be able to:
- Derive and apply formulas for effective resistance in series and parallel
- Calculate effective resistance in mixed circuits
- Apply resistance calculations to design circuits for specific purposes
- Analyse circuits with multiple series-parallel combinations
- Calculate current through and voltage across each resistor
- Apply circuit analysis to troubleshoot electrical faults in appliances

In groups, learners are guided to:
- Derive R_T = R₁ + R₂ + R₃ for series circuits
- Derive 1/R_T = 1/R₁ + 1/R₂ + 1/R₃ for parallel circuits
- Solve problems involving series, parallel and combination circuits
- Calculate current and voltage in each resistor
- Identify series and parallel sections in complex circuits
- Calculate effective resistance step by step
- Determine current distribution in branches
- Calculate potential difference across each component

How do we calculate total resistance in series and parallel circuits?
How do we analyse circuits with both series and parallel resistors?

- Spotlight Physics Learner's Book pg. 263
- Resistors of known values
- Scientific calculators
- Circuit diagrams, worksheets
- Spotlight Physics Learner's Book pg. 267
- Complex circuit diagrams
- Scientific calculators
- Worksheets with problems

- Written calculations - Problem-solving tests - Oral questions
- Written calculations - Circuit analysis - Oral questions

Electricity and Magnetism

Relationship of V, I and P - Power equations

By the end of the lesson, the learner should be able to:
- Derive and apply power equations P = VI, P = I²R and P = V²/R
- Calculate power consumption of electrical devices
- Relate power ratings to energy efficiency of household appliances

In groups, learners are guided to:
- Discuss electrical power as rate of energy conversion
- Derive power equations from P = W/t and Ohm's law
- Calculate power in circuits using different formulas
- Compare power ratings of various appliances

What is the relationship between voltage, current and power?

- Spotlight Physics Learner's Book pg. 270
- Scientific calculators
- Power rating labels from appliances
- Worksheets

- Written calculations - Oral questions - Problem-solving tests

Electricity and Magnetism

Factors affecting heating effect of electric current

By the end of the lesson, the learner should be able to:
- State Joule's law of electrical heating
- Investigate factors affecting heating effect (time, current, resistance)
- Relate heating factors to why electric kettles boil water faster than immersion heaters

In groups, learners are guided to:
- Investigate effect of time, current and resistance on heating
- Plot graphs of temperature change against time, I² and R
- Derive H = I²Rt (Joule's law)
- Discuss the significance of each factor

What factors determine the amount of heat produced by electric current?

- Spotlight Physics Learner's Book pg. 273
- Heating coils, beaker
- Thermometer, stopwatch
- Ammeter, voltmeter, rheostat

- Practical assessment - Graph plotting - Written conclusions

Electricity and Magnetism

Factors affecting heating effect of electric current

By the end of the lesson, the learner should be able to:
- State Joule's law of electrical heating
- Investigate factors affecting heating effect (time, current, resistance)
- Relate heating factors to why electric kettles boil water faster than immersion heaters

In groups, learners are guided to:
- Investigate effect of time, current and resistance on heating
- Plot graphs of temperature change against time, I² and R
- Derive H = I²Rt (Joule's law)
- Discuss the significance of each factor

What factors determine the amount of heat produced by electric current?

- Spotlight Physics Learner's Book pg. 273
- Heating coils, beaker
- Thermometer, stopwatch
- Ammeter, voltmeter, rheostat

- Practical assessment - Graph plotting - Written conclusions

Electricity and Magnetism

Applications of heating effect of electric current

By the end of the lesson, the learner should be able to:
- Describe applications of heating effect in electrical appliances
- Explain the working of electric heaters, kettles, iron boxes and fuses
- Relate heating applications to safe and efficient use of electrical devices at home

In groups, learners are guided to:
- Research on electrical appliances that use heating effect
- Classify appliances as heating devices, kitchenware or lighting devices
- Discuss the working of electric iron, kettle, heater and filament lamp
- Explain the function and selection of appropriate fuses

How is the heating effect of electric current applied in household appliances?

- Spotlight Physics Learner's Book pg. 277
- Pictures of electrical appliances
- Fuses of different ratings
- Digital resources

- Oral questions - Written assignments - Research presentations

Electricity and Magnetism

Power rating and electrical energy calculations

By the end of the lesson, the learner should be able to:
- Interpret power ratings on electrical appliances
- Calculate electrical energy consumption using E = Pt
- Apply energy calculations to reduce electricity bills at home

In groups, learners are guided to:
- Read and interpret power ratings on appliance labels
- Calculate energy consumed in joules and kilowatt-hours
- Calculate cost of running appliances using electricity tariffs
- Discuss energy-saving practices

How do we calculate the cost of running electrical appliances?

- Spotlight Physics Learner's Book pg. 278
- Power rating labels
- Scientific calculators
- Electricity tariff information

- Written calculations - Oral questions - Problem-solving tests

Electricity and Magnetism

Conductors, semiconductors, insulators and superconductors
Distinguishing materials using energy band theory

By the end of the lesson, the learner should be able to:
- Define conductors, semiconductors, insulators and superconductors
- Explain the atomic structure basis for material classification
- Relate material classification to choosing appropriate wires and insulation for electrical installations

In groups, learners are guided to:
- Discuss the atomic structure of silicon, copper and other materials
- Compare the number of valence electrons in different materials
- Research on characteristics of conductors, semiconductors, insulators and superconductors
- Classify materials based on their electrical properties

What determines whether a material is a conductor, semiconductor or insulator?

- Spotlight Physics Learner's Book pg. 282
- Models of atomic structures
- Charts showing material classification
- Digital resources
- Spotlight Physics Learner's Book pg. 284
- Charts showing energy bands
- Digital resources
- Drawing materials

- Oral questions - Classification exercises - Written assignments

Electricity and Magnetism

Effect of temperature on conductors and semiconductors

By the end of the lesson, the learner should be able to:
- Investigate the effect of temperature on resistance of conductors and semiconductors
- Plot and interpret R-T graphs for different materials
- Relate temperature effects to thermistor use in temperature sensors and fire alarms

In groups, learners are guided to:
- Set up circuit with tungsten coil in water bath
- Heat water and record resistance at different temperatures
- Plot R-T graph showing resistance increase for metals
- Replace with thermistor and observe resistance decrease with temperature
- Discuss concept of superconductivity at very low temperatures

Why does resistance increase with temperature for metals but decrease for semiconductors?

- Spotlight Physics Learner's Book pg. 286
- Tungsten coil, thermistor
- Beaker, thermometer
- Heat source, ammeter, voltmeter

- Practical assessment - Graph plotting - Comparative analysis

Electricity and Magnetism

Intrinsic semiconductors and doping
N-type and p-type semiconductors
Applications of conductors and insulators

By the end of the lesson, the learner should be able to:
- Define intrinsic and extrinsic semiconductors
- Explain the process of doping and its effect on conductivity
- Connect doping process to manufacturing of computer chips and solar cells
- Describe applications of conductors in electrical wiring, lightning protection and electronics
- Describe applications of insulators in electrical safety and thermal protection
- Relate conductor and insulator applications to safe electrical installations in homes

In groups, learners are guided to:
- Discuss the meaning of intrinsic (pure) semiconductors like silicon and germanium
- Research on the doping process
- Explain how adding impurities creates extra charge carriers
- Distinguish between intrinsic and extrinsic semiconductors
- Research on applications of conductors (copper wiring, lightning arrestors, electronic circuits)
- Discuss applications of insulators (wire coating, socket casings, thermal insulation)
- Explain why electrical cables have copper core with plastic/rubber coating
- Identify conductors and insulators in household items

How does doping improve the conductivity of semiconductors?
Why are both conductors and insulators essential in electrical systems?

- Spotlight Physics Learner's Book pg. 288
- Charts showing doping process
- Digital resources
- Models of crystal structures
- Spotlight Physics Learner's Book pg. 289
- Diagrams of crystal lattice
- Charts showing n-type and p-type formation
- Digital resources
- Spotlight Physics Learner's Book pg. 292
- Samples of electrical cables
- Pictures of electrical installations
- Digital resources

- Oral questions - Written explanations - Research reports
- Oral questions - Written assignments - Observation

Electricity and Magnetism

Applications of semiconductors and superconductors
Application of conductors and insulators in car wiring system

By the end of the lesson, the learner should be able to:
- Describe applications of semiconductors in electronics and sensors
- Describe applications of superconductors in modern technology
- Connect semiconductor applications to smartphones, computers, solar panels and medical equipment

In groups, learners are guided to:
- Research on semiconductor applications (transistors, diodes, LEDs, thermistors, solar cells)
- Discuss use of thermistors in temperature sensors and fire alarms
- Explain applications of superconductors (MRI machines, maglev trains, power transmission)
- Discuss future potential of superconductors

How are semiconductors used in modern electronic devices?

- Spotlight Physics Learner's Book pg. 293
- Electronic components
- Pictures of semiconductor devices
- Digital resources
- Spotlight Physics Learner's Book pg. 294
- Car wiring diagrams
- Samples of automotive cables
- Digital resources
- Resource persons (mechanics)

- Oral questions - Written assignments - Research presentations

Environmental and Space Physics

Greenhouse Effect and Climate Change - Greenhouse effect and climate change in the environment

By the end of the lesson, the learner should be able to:
- Define greenhouse effect, greenhouse gases, global warming and climate change
- Demonstrate the greenhouse effect using simple apparatus
- Connect the greenhouse effect to everyday observations like hot car interiors on sunny days

In groups, learners are guided to:
- Discuss with peers the meaning of greenhouse effect, greenhouse gases, global warming and climate change
- Carry out activities using plastic bottles/jars and thermometers to demonstrate greenhouse effect
- Use digital resources to search for information on greenhouse effect and climate change

How does the greenhouse effect influence Earth's temperature?

- Spotlight Physics Learner's Book Grade 10 pg. 297
- Clear plastic bottles/jars
- Thermometers
- Plastic wrap
- Digital devices

- Observation - Oral questions - Written assignments

Environmental and Space Physics

Greenhouse Effect and Climate Change - Physical drivers of climate change
Greenhouse Effect and Climate Change - Factors leading to greenhouse effect

By the end of the lesson, the learner should be able to:
- Explain how greenhouse gases trap heat in the atmosphere
- Illustrate the process of heat absorption and re-emission by greenhouse gases
- Relate the greenhouse effect to temperature changes experienced in greenhouses and parked vehicles

In groups, learners are guided to:
- Study diagrams showing physical drivers of climate change
- Discuss with peers how greenhouse gases absorb and re-emit infrared radiation
- Use print or non-print media to search for more information on climate change drivers

Why is the Earth warmer than it would be without greenhouse gases?

- Spotlight Physics Learner's Book Grade 10 pg. 298
- Charts showing greenhouse effect
- Digital resources
- Spotlight Physics Learner's Book Grade 10 pg. 299
- Pictures of industrial activities

- Oral questions - Group presentations - Written tests

Environmental and Space Physics

Greenhouse Effect and Climate Change - Agricultural and livestock contributions
Greenhouse Effect and Climate Change - Role of ozone layer

By the end of the lesson, the learner should be able to:
- Describe how agricultural practices contribute to greenhouse effect
- Analyse the role of livestock farming in methane production
- Relate agricultural activities in local farms to greenhouse gas emissions
- Explain the structure and location of the ozone layer
- Describe the role of ozone layer in protecting Earth from UV radiation
- Connect ozone layer protection to reduced cases of sunburns and skin conditions

In groups, learners are guided to:
- Discuss how livestock farming releases methane and fertilizer use produces nitrous oxide
- Use digital resources to search for information on agricultural contributions to greenhouse effect
- Share findings with classmates for peer learning
- Use digital resources to search for information on ozone layer
- Study diagrams showing the ozone layer and its role
- Discuss the importance of ozone layer in protecting life on Earth

How do farming activities contribute to climate change?
What would happen to life on Earth without the ozone layer?

- Spotlight Physics Learner's Book Grade 10 pg. 300
- Charts showing greenhouse gas sources
- Digital devices
- Spotlight Physics Learner's Book Grade 10 pg. 301
- Diagrams of ozone layer
- Digital resources

- Group discussions - Oral questions - Written tests
- Oral questions - Written assignments - Group presentations

Environmental and Space Physics

Greenhouse Effect and Climate Change - Ozone depletion and climate change
Greenhouse Effect and Climate Change - Strategies for mitigating climate change

By the end of the lesson, the learner should be able to:
- Explain causes of ozone layer depletion
- Describe the link between ozone depletion and climate change
- Relate the ban on CFCs to efforts in preserving the ozone layer

In groups, learners are guided to:
- Discuss how CFCs and other chemicals deplete the ozone layer
- Search for information on the relationship between ozone depletion and climate change
- Discuss the effects of ozone depleting substances on climate

How does ozone layer depletion affect climate change?

- Spotlight Physics Learner's Book Grade 10 pg. 301
- Charts on ozone depletion
- Digital devices
- Spotlight Physics Learner's Book Grade 10 pg. 302
- Pictures of renewable energy sources
- Digital resources

- Observation - Oral questions - Written tests

Environmental and Space Physics

Greenhouse Effect and Climate Change - Effects of climate change on environment

By the end of the lesson, the learner should be able to:
- Describe the impacts of climate change on weather patterns, water bodies and vegetation
- Analyse changes in local environment due to climate change
- Connect observed changes in local rivers and lakes to climate change effects

In groups, learners are guided to:
- Discuss the effects of climate change on global temperatures, weather patterns, water levels and vegetation
- Demonstrate effects of climate change in the immediate environment
- Initiate a school project to help reduce greenhouse gas emissions

How has climate change affected your local environment?

- Spotlight Physics Learner's Book Grade 10 pg. 305
- Pictures showing climate change effects
- Digital devices

- Observation - Oral questions - Project presentations

Environmental and Space Physics

Introduction to Space Physics - Big Bang Theory
Introduction to Space Physics - Stars, planets and satellites

By the end of the lesson, the learner should be able to:
- Explain the Big Bang Theory on the origin of the universe
- Describe the evidence supporting the Big Bang Theory
- Connect the expanding universe concept to observable phenomena like distant galaxies moving away

In groups, learners are guided to:
- Use digital devices or reference materials to search for information on Big Bang Theory
- Discuss the origin of universe according to Big Bang Theory
- Share findings with classmates for peer review

How did the universe begin according to the Big Bang Theory?

- Spotlight Physics Learner's Book Grade 10 pg. 308
- Charts on Big Bang Theory
- Digital resources
- Spotlight Physics Learner's Book Grade 10 pg. 309
- Photos of celestial bodies
- Digital devices

- Oral questions - Group presentations - Written assignments

Environmental and Space Physics

Introduction to Space Physics - Asteroids, comets, meteors and galaxies
Introduction to Space Physics - Space exploration methods and telescopy
Introduction to Space Physics - Motion of planets around the sun

By the end of the lesson, the learner should be able to:
- Describe asteroids, comets, meteors and galaxies
- Differentiate between various celestial bodies
- Connect shooting stars observed at night to meteors entering Earth's atmosphere
- Outline the evolution of astrophysics as a scientific discipline
- Describe various methods of space exploration including telescopes
- Connect telescope observations to discoveries about distant planets and stars

In groups, learners are guided to:
- Discuss the characteristics of asteroids, comets, meteors and galaxies
- Use digital resources to search for information on various celestial bodies
- Share findings with classmates for comparison
- Use digital resources to search for information on evolution of astrophysics
- Discuss various space exploration methods including robotic probes and telescopes
- Construct a simple telescope using locally available materials

Why do shooting stars appear as streaks of light in the sky?
How do scientists explore and study objects in space?

- Spotlight Physics Learner's Book Grade 10 pg. 311
- Pictures of comets and galaxies
- Digital resources
- Spotlight Physics Learner's Book Grade 10 pg. 312
- Lenses, manila paper, glue
- Pictures of telescopes
- Digital devices
- Spotlight Physics Learner's Book Grade 10 pg. 316
- Models of solar system
- Charts on Kepler's laws
- Digital resources

- Oral questions - Group discussions - Written assignments
- Observation - Practical assessment - Oral questions

Environmental and Space Physics

Introduction to Space Physics - Careers in space exploration

By the end of the lesson, the learner should be able to:
- Identify career opportunities in astrophysics and space exploration
- Describe roles of various professionals in space science
- Connect space research careers to technological advancements like satellite communication and weather forecasting

In groups, learners are guided to:
- Discuss possible careers in studying astrophysics and space exploration
- Use digital resources to search for careers in space science
- Engage resource persons or use print media to explore career paths

What career opportunities exist in the field of space science?

- Spotlight Physics Learner's Book Grade 10 pg. 318
- Career charts
- Digital devices

- Oral questions - Group discussions - Written assignments