Living Things and their Environment

The interdependence of life - Components of the environment
The interdependence of life - Biotic factors (predation)

By the end of the lesson, the learner should be able to:

- Identify biotic and abiotic components of the environment
- Explain the interrelationships between organisms and their environment
- Appreciate the interdependence in ecosystems

- Observe different components of the environment in the school compound
- Identify biotic and abiotic components
- Discuss interrelationships between organisms and their environment
- Record observations in a table

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 107)
- School grounds
- Notebooks
- Digital devices
- Mentor Integrated Science Grade 9 (pg. 108)
- Pictures/videos of predator-prey relationships

- Observation - Field notes assessment - Oral questions - Written assignments

Living Things and their Environment

The interdependence of life - Biotic factors (parasitism)
The interdependence of life - Biotic factors (symbiosis)

By the end of the lesson, the learner should be able to:

- Explain parasitism as a biotic interaction
- Identify examples of parasitic relationships
- Value the diversity of relationships in ecosystems

- Discuss parasitism as a biotic interaction
- Observe pictures/videos of parasitic relationships
- Research on examples of parasitic relationships
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 109)
- Pictures/videos of parasitic relationships
- Digital devices
- Mentor Integrated Science Grade 9 (pg. 110)
- Pictures/videos of symbiotic relationships

- Observation - Oral questions - Written assignments - Group presentations

Living Things and their Environment

The interdependence of life - Biotic factors (competition)

By the end of the lesson, the learner should be able to:

- Explain competition as a biotic interaction
- Identify examples of competitive relationships
- Show interest in how competition shapes ecosystems

- Discuss competition as a biotic interaction
- Observe pictures/videos of competitive relationships
- Research on examples of competitive relationships
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 111)
- Pictures/videos of competitive relationships
- Digital devices

- Observation - Oral questions - Written assignments - Group presentations

Living Things and their Environment

The interdependence of life - Biotic factors (saprophytic)
The interdependence of life - Abiotic factors (temperature)

By the end of the lesson, the learner should be able to:

- Explain saprophytic relationships as a biotic interaction
- Identify examples of saprophytic organisms
- Appreciate the role of saprophytes in ecosystems

- Discuss saprophytic relationships
- Observe pictures/videos of saprophytic organisms
- Research on examples of saprophytic organisms
- Create presentations on saprophytic relationships

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 112)
- Pictures/videos of saprophytic organisms
- Digital devices
- Mentor Integrated Science Grade 9 (pg. 113)
- Thermometers
- Pictures/videos of organisms in different temperature zones

- Observation - Oral questions - Written assignments - Group presentations

Living Things and their Environment

The interdependence of life - Abiotic factors (light)

By the end of the lesson, the learner should be able to:

- Explain how light affects living organisms
- Describe adaptations of organisms to different light conditions
- Appreciate the role of light in ecosystems

- Discuss how light affects living organisms
- Research on adaptations of organisms to different light conditions
- Observe plants grown under different light conditions
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 114)
- Light meters (if available)
- Plants grown under different light conditions
- Digital devices

- Observation - Oral questions - Written assignments - Group presentations

Living Things and their Environment

The interdependence of life - Abiotic factors (water)

By the end of the lesson, the learner should be able to:

- Explain how water availability affects living organisms
- Describe adaptations of organisms to different water conditions
- Show interest in water conservation

- Discuss how water availability affects living organisms
- Research on adaptations of organisms to different water conditions
- Compare plants from arid and wet environments
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 115)
- Pictures of plants from arid and wet environments
- Water samples
- Digital devices

- Observation - Oral questions - Written assignments - Group presentations

Living Things and their Environment

The interdependence of life - Abiotic factors (wind)

By the end of the lesson, the learner should be able to:

- Explain how wind affects living organisms
- Describe adaptations of organisms to windy environments
- Appreciate the role of wind in ecosystems

- Discuss how wind affects living organisms
- Research on adaptations of organisms to windy environments
- Observe plants from windy and sheltered environments
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 116)
- Pictures of plants from windy and sheltered environments
- Digital devices

- Observation - Oral questions - Written assignments - Group presentations

Living Things and their Environment

The interdependence of life - Abiotic factors (atmospheric pressure, pH and salinity)

By the end of the lesson, the learner should be able to:

- Explain how atmospheric pressure, pH and salinity affect living organisms
- Describe adaptations of organisms to these abiotic factors
- Value adaptations to different environments

- Discuss how atmospheric pressure, pH and salinity affect living organisms
- Research on adaptations of organisms to these factors
- Test pH and salinity of different water samples if possible
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 117)
- pH testing equipment (if available)
- Water samples of different salinity
- Digital devices

- Observation - Oral questions - Practical assessment - Written assignments

Living Things and their Environment

The interdependence of life - Energy flow (food chains)

By the end of the lesson, the learner should be able to:

- Explain the concept of food chains
- Construct simple food chains
- Appreciate energy flow in ecosystems

- Discuss the concept of food chains
- Identify producers and consumers in the environment
- Construct simple food chains using organisms observed in the local environment
- Present food chains to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 118)
- Charts showing food chains
- Pictures of local organisms
- Digital devices

- Observation - Oral questions - Food chain construction assessment - Written assignments

Living Things and their Environment

The interdependence of life - Energy flow (food webs)

By the end of the lesson, the learner should be able to:

- Explain the concept of food webs
- Construct simple food webs
- Value the complexity of feeding relationships in ecosystems

- Discuss the concept of food webs
- Identify how food chains interconnect to form food webs
- Construct simple food webs using organisms observed in the local environment
- Present food webs to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 119)
- Charts showing food webs
- Pictures of local organisms
- Digital devices

- Observation - Oral questions - Food web construction assessment - Written assignments

Living Things and their Environment

The interdependence of life - Energy flow (food webs)

By the end of the lesson, the learner should be able to:

- Explain the concept of food webs
- Construct simple food webs
- Value the complexity of feeding relationships in ecosystems

- Discuss the concept of food webs
- Identify how food chains interconnect to form food webs
- Construct simple food webs using organisms observed in the local environment
- Present food webs to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 119)
- Charts showing food webs
- Pictures of local organisms
- Digital devices

- Observation - Oral questions - Food web construction assessment - Written assignments

Living Things and their Environment

The interdependence of life - Human activities (habitat change)

By the end of the lesson, the learner should be able to:

- Explain how human activities lead to habitat change
- Describe the effects of habitat change on ecosystems
- Show concern for habitat conservation

- Discuss human activities that lead to habitat change
- Research on the effects of habitat change on ecosystems
- Debate on the balance between development and conservation
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 120)
- Pictures showing habitat change
- Digital devices
- Newspaper articles

- Observation - Oral questions - Debate assessment - Written assignments

Living Things and their Environment

The interdependence of life - Human activities (hunting and poaching)

By the end of the lesson, the learner should be able to:

- Explain the effects of hunting and poaching on ecosystems
- Describe conservation measures against hunting and poaching
- Show concern for wildlife conservation

- Discuss the effects of hunting and poaching on ecosystems
- Research on conservation measures against hunting and poaching
- Debate on sustainable hunting practices
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 121)
- Pictures related to hunting and poaching
- Digital devices
- Newspaper articles

- Observation - Oral questions - Debate assessment - Written assignments

Living Things and their Environment

The interdependence of life - Human activities (introduction of new living things)

By the end of the lesson, the learner should be able to:

- Explain the effects of introducing new species to ecosystems
- Describe examples of invasive species and their impacts
- Appreciate the importance of biodiversity conservation

- Discuss the effects of introducing new species to ecosystems
- Research on examples of invasive species and their impacts
- Debate on the management of invasive species
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 122)
- Pictures of invasive species
- Digital devices
- Newspaper articles

- Observation - Oral questions - Debate assessment - Written assignments

Living Things and their Environment

The interdependence of life - Interrelationships in Kenya national parks

By the end of the lesson, the learner should be able to:

- Describe interrelationships in Kenya national parks
- Construct food chains and food webs of Kenya national parks
- Value the importance of national parks for biodiversity

- Research on interrelationships in Kenya national parks
- Construct food chains and food webs of Kenya national parks
- Discuss the importance of national parks for biodiversity
- Present findings to class

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 123)
- Pictures of Kenya national parks
- Digital devices
- Maps of Kenya national parks

- Observation - Oral questions - Food web construction assessment - Presentations

Living Things and their Environment

The interdependence of life - Role of decomposers in ecosystems

By the end of the lesson, the learner should be able to:

- Explain the role of decomposers in ecosystems
- Identify examples of decomposers
- Appreciate the importance of decomposers in nutrient cycling

- Discuss the role of decomposers in ecosystems
- Observe pictures/videos of decomposers in action
- Research on examples of decomposers
- Create a model of nutrient cycling showing the role of decomposers

What is the role of living and non-living factors in environments?

- Mentor Integrated Science Grade 9 (pg. 125)
- Pictures/videos of decomposers
- Digital devices
- Materials to create models

- Observation - Oral questions - Model assessment - Written assignments

Force and Energy

Curved mirrors - Types of curved mirrors

By the end of the lesson, the learner should be able to:

- Describe the types of curved mirrors
- Differentiate between concave and convex mirrors
- Appreciate the applications of curved mirrors in day to day life

- Discuss the types of curved mirrors (concave, convex, and parabolic surfaces)
- Use shiny spoons to demonstrate the difference between concave and convex reflective surfaces
- Observe and record how images are formed by the inner and outer surfaces of the spoon

How are curved mirrors used in day to day life?

- Mentor Integrated Science (pg. 133)
- Shiny spoons
- Digital resources on curved mirrors

- Observation - Oral questions - Written assignments

Force and Energy

Curved mirrors - Terms associated with concave mirrors

By the end of the lesson, the learner should be able to:

- Identify the terms associated with concave mirrors
- Describe the structure of a concave mirror
- Show interest in understanding the properties of concave mirrors

- Discuss the terms associated with concave mirrors (aperture, center of curvature, pole, principal axis, principal focus, focal length)
- Draw and label the parts of a concave mirror
- Watch animations explaining the terms associated with concave mirrors

How is the structure of the concave mirror important in image formation?

- Mentor Integrated Science (pg. 135)
- Digital resources
- Charts showing the structure of a concave mirror

- Observation - Drawings and labels - Written assignments

Force and Energy

Curved mirrors - Determining focal length of concave mirror
Curved mirrors - Ray diagrams for concave mirrors

By the end of the lesson, the learner should be able to:

- Explain how to determine the focal length of a concave mirror
- Perform an experiment to determine the focal length of a concave mirror
- Value the practical approach in determining properties of mirrors

- Set up a concave mirror to focus an image of a distant object on a screen
- Measure the distance between the mirror and the screen
- Record and analyze the results to determine the focal length

Why is it important to know the focal length of a concave mirror?

- Mentor Integrated Science (pg. 137)
- Concave mirrors
- Rulers
- White screens or plain paper
- Mirror holders
- Mentor Integrated Science (pg. 140)
- Plain paper
- Pencils
- Drawing instruments

- Observation - Practical assessment - Written reports

Force and Energy

Curved mirrors - Image formation by concave mirrors (beyond C)
Curved mirrors - Image formation by concave mirrors (at C)

By the end of the lesson, the learner should be able to:

- Draw ray diagrams to locate images when objects are placed beyond C
- Describe the characteristics of images formed
- Appreciate the systematic approach in determining image properties

- Draw ray diagrams to locate images when objects are placed beyond the center of curvature
- Use the ray diagrams to determine image characteristics (size, position, nature)
- Compare theoretical predictions with practical observations

What are the characteristics of images formed when objects are placed beyond the center of curvature?

- Mentor Integrated Science (pg. 143)
- Concave mirrors
- Drawing instruments
- Digital resources
- Mentor Integrated Science (pg. 144)

- Observation - Ray diagram assessment - Written descriptions

Force and Energy

Curved mirrors - Image formation by concave mirrors (between C and F)

By the end of the lesson, the learner should be able to:

- Draw ray diagrams to locate images when objects are placed between C and F
- Describe the characteristics of images formed
- Appreciate the systematic approach in determining image properties

- Draw ray diagrams to locate images when objects are placed between the center of curvature and the principal focus
- Determine the characteristics of images formed
- Verify the results through practical observation

What are the characteristics of images formed when objects are placed between the center of curvature and the principal focus?

- Mentor Integrated Science (pg. 145)
- Concave mirrors
- Drawing instruments
- Digital resources

- Observation - Ray diagram assessment - Written descriptions

Force and Energy

Curved mirrors - Image formation by concave mirrors (at F)
Curved mirrors - Image formation by concave mirrors (between F and P)

By the end of the lesson, the learner should be able to:

- Draw ray diagrams to locate images when objects are placed at F
- Describe the characteristics of images formed
- Show interest in understanding special cases of image formation

- Draw ray diagrams to locate images when objects are placed at the principal focus
- Analyze what happens to reflected rays when objects are at F
- Discuss the concept of images formed at infinity

What happens to the image when an object is placed at the principal focus of a concave mirror?

- Mentor Integrated Science (pg. 147)
- Concave mirrors
- Drawing instruments
- Digital resources
- Mentor Integrated Science (pg. 148)

- Observation - Ray diagram assessment - Class discussion assessment

Force and Energy

Curved mirrors - Characteristics of images formed by concave mirrors

By the end of the lesson, the learner should be able to:

- Summarize characteristics of images formed by concave mirrors for different object positions
- Create a comprehensive table of image characteristics
- Value the systematic organization of scientific information

- Create a summary table of image characteristics for different object positions (at infinity, beyond C, at C, between C and F, at F, between F and P)
- Discuss the patterns and relationships observed
- Compare theoretical predictions with practical observations

How do image characteristics vary with object position for concave mirrors?

- Mentor Integrated Science (pg. 149)
- Concave mirrors
- Digital resources
- Previous ray diagrams

- Observation - Table completion assessment - Written assignments

Force and Energy

Curved mirrors - Locating images formed by concave mirrors experimentally
Curved mirrors - Terms associated with convex mirrors

By the end of the lesson, the learner should be able to:

- Set up an experiment to locate images formed by concave mirrors
- Record and analyze experimental observations
- Show interest in practical verification of theoretical concepts

- Set up experiments to locate images formed by concave mirrors for different object positions
- Record observations in a structured table
- Compare experimental results with theoretical predictions

How can we experimentally verify the characteristics of images formed by concave mirrors?

- Mentor Integrated Science (pg. 150)
- Concave mirrors
- Mirror holders
- Screens
- Candles or light sources
- Rulers
- Mentor Integrated Science (pg. 153)
- Convex mirrors
- Digital resources
- Charts showing the structure of convex mirrors

- Observation - Practical assessment - Written reports

Force and Energy

Curved mirrors - Ray diagrams for convex mirrors
Curved mirrors - Image formation by convex mirrors

By the end of the lesson, the learner should be able to:

- Draw conventional ray diagrams for convex mirrors
- Identify the four special rays used in ray diagrams for convex mirrors
- Show interest in the ray diagram approach to locate images

- Draw conventional ray diagrams of convex mirrors
- Identify and draw the four types of rays used in ray diagrams for convex mirrors
- Analyze how these rays help locate images

How do ray diagrams help in locating images formed by convex mirrors?

- Mentor Integrated Science (pg. 154)
- Plain paper
- Rulers
- Pencils
- Drawing instruments
- Mentor Integrated Science (pg. 156)
- Convex mirrors
- Digital resources

- Observation - Drawing assessment - Written assignments

Force and Energy

Curved mirrors - Locating images formed by convex mirrors experimentally

By the end of the lesson, the learner should be able to:

- Set up an experiment to locate images formed by convex mirrors
- Record and analyze experimental observations
- Show interest in practical verification of theoretical concepts

- Set up experiments to observe images formed by convex mirrors
- Record observations about the nature, size, and position of images
- Compare experimental results with theoretical predictions

How can we experimentally verify the characteristics of images formed by convex mirrors?

- Mentor Integrated Science (pg. 159)
- Convex mirrors
- Mirror holders
- Objects of various sizes
- Rulers

- Observation - Practical assessment - Written reports

Force and Energy

Curved mirrors - Applications of curved mirrors (concave mirrors)
Curved mirrors - Applications of curved mirrors (convex mirrors)

By the end of the lesson, the learner should be able to:

- Identify applications of concave mirrors in daily life
- Explain how the properties of concave mirrors make them suitable for specific applications
- Appreciate the practical importance of curved mirrors

- Research and discuss applications of concave mirrors (magnifying mirrors, dentist mirrors, solar concentrators, projectors)
- Explain how the image-forming properties of concave mirrors relate to their applications
- Demonstrate applications using actual mirrors where possible

What are the practical applications of concave mirrors in our daily lives?

- Mentor Integrated Science (pg. 161)
- Concave mirrors
- Digital resources
- Examples of devices using concave mirrors
- Mentor Integrated Science (pg. 162)
- Convex mirrors
- Examples of devices using convex mirrors

- Observation - Oral presentations - Written assignments

Force and Energy

Curved mirrors - Applications of curved mirrors (parabolic reflectors)
Waves - Meaning of waves

By the end of the lesson, the learner should be able to:

- Identify applications of parabolic reflectors in daily life
- Explain how the focusing properties of parabolic reflectors make them suitable for specific applications
- Show interest in advanced applications of curved mirrors

- Research and discuss applications of parabolic reflectors (solar cookers, car headlamps, photography equipment)
- Explain the special focusing properties of parabolic surfaces
- Demonstrate applications using models or examples

What are the practical applications of parabolic reflectors in our daily lives?

- Mentor Integrated Science (pg. 163)
- Digital resources
- Examples of devices using parabolic reflectors
- Mentor Integrated Science (pg. 166)
- Basin with water
- Small objects to drop in water

- Observation - Oral presentations - Group projects

Force and Energy

Waves - Generating waves in nature

By the end of the lesson, the learner should be able to:

- Describe how to generate different types of waves
- Differentiate between mechanical and electromagnetic waves
- Appreciate the presence of waves in everyday phenomena

- Demonstrate generation of waves using a rope
- Generate water waves in a basin
- Observe how sound waves are generated using a speaker
- Discuss the difference between mechanical and electromagnetic waves

How are different types of waves generated in nature?

- Mentor Integrated Science (pg. 167)
- Rope
- Basin with water
- Speakers
- Rice or sand

- Observation - Practical assessment - Written reports

Force and Energy

Waves - Transverse and longitudinal waves
Waves - Classifying waves

By the end of the lesson, the learner should be able to:

- Differentiate between transverse and longitudinal waves
- Demonstrate the generation of both types of waves using a slinky spring
- Show interest in classifying waves based on particle movement

- Use a slinky spring to demonstrate transverse waves (moving left to right)
- Use a slinky spring to demonstrate longitudinal waves (moving to-and-fro)
- Compare the motion of particles in both types of waves
- Observe and record the differences between these wave types

What is the difference between transverse and longitudinal waves?

- Mentor Integrated Science (pg. 169)
- Slinky springs
- Cloth pieces for marking
- Digital resources showing wave motion
- Mentor Integrated Science (pg. 171)
- Digital resources
- Charts showing different wave types
- Wave demonstration equipment

- Observation - Practical assessment - Drawings and diagrams - Written reports

Force and Energy

Waves - Amplitude and wavelength

By the end of the lesson, the learner should be able to:

- Define amplitude and wavelength of waves
- Identify these parameters on wave diagrams
- Appreciate the importance of these measurements in wave description

- Study diagrams of transverse and longitudinal waves
- Discuss the meaning of amplitude and wavelength
- Identify amplitude and wavelength on various wave diagrams
- Measure these parameters on drawn wave patterns

How are amplitude and wavelength measured in different types of waves?

- Mentor Integrated Science (pg. 172)
- Wave diagrams
- Rulers
- Graph paper
- Digital simulations

- Observation - Practical measurements - Diagram labeling - Written assignments

Force and Energy

Waves - Frequency and period
Waves - Practical: Period of waves

By the end of the lesson, the learner should be able to:

- Define frequency and period of waves
- Describe the relationship between frequency and period
- Show interest in quantitative aspects of wave motion

- Search for the meaning of frequency and period using digital or print resources
- Discuss the motion of a mass on a string to illustrate oscillation
- Create displacement-time graphs for oscillating objects
- Establish the relationship between frequency and period

What is the relationship between frequency and period in wave motion?

- Mentor Integrated Science (pg. 173)
- Digital resources
- String and masses
- Stopwatches
- Graph paper
- Mentor Integrated Science (pg. 175)
- Stands with clamps
- Strings
- Masses

- Observation - Practical assessment - Graph analysis - Written assignments

Force and Energy

Waves - Wave speed
Waves - Phase of waves

By the end of the lesson, the learner should be able to:

- Explain how to determine the speed of a wave
- Apply the wave speed equation v = fλ
- Show interest in mathematical relationships in wave phenomena

- Discuss how to calculate wave speed using the distance-time method
- Introduce the wave equation speed = wavelength × frequency
- Solve example problems involving wave speed calculations
- Perform calculations with different wave parameters

How is the speed of a wave determined?

- Mentor Integrated Science (pg. 176)
- Calculators
- Wave speed problems
- Digital resources
- Wave demonstration equipment
- Mentor Integrated Science (pg. 178)
- Stands with clamps
- Strings and identical masses
- Stopwatches
- Graph paper

- Observation - Problem-solving exercises - Mathematical calculations - Written assignments

Force and Energy

Waves - Oscillation in phase

By the end of the lesson, the learner should be able to:

- Set up pendulums oscillating in phase
- Compare the displacement-time graphs of in-phase oscillations
- Show curiosity in investigating wave phenomena

- Set up identical pendulums oscillating in phase
- Record period and create displacement-time graphs
- Analyze the characteristics of in-phase oscillations
- Compare theoretical and experimental results

What are the characteristics of oscillations that are in phase?

- Mentor Integrated Science (pg. 179)
- Pendulum apparatus
- Stopwatches
- Measuring equipment
- Graph paper

- Observation - Practical assessment - Graph construction and analysis - Written reports

Force and Energy

Waves - Oscillation out of phase
Waves - Characteristics of waves: straight-line motion

By the end of the lesson, the learner should be able to:

- Set up pendulums oscillating out of phase
- Compare the displacement-time graphs of out-of-phase oscillations
- Value the mathematical description of wave phenomena

- Set up identical pendulums oscillating out of phase
- Record and compare the motion patterns
- Create displacement-time graphs for out-of-phase oscillations
- Analyze the phase difference between oscillations

What are the characteristics of oscillations that are out of phase?

- Mentor Integrated Science (pg. 181)
- Pendulum apparatus
- Stopwatches
- Measuring equipment
- Graph paper
- Mentor Integrated Science (pg. 183)
- Ripple tank
- Water
- Paper for tracing
- Rulers

- Observation - Practical assessment - Graph construction and analysis - Written reports

Force and Energy

Waves - Characteristics of waves: reflection

By the end of the lesson, the learner should be able to:

- Demonstrate reflection of waves in a ripple tank
- Verify that waves obey the laws of reflection
- Appreciate that various wave types follow similar behavior patterns

- Set up a ripple tank with barriers to demonstrate wave reflection
- Observe reflection patterns with barriers at different angles
- Compare the incident and reflected waves
- Verify the laws of reflection for water waves

How are waves reflected at barriers?

- Mentor Integrated Science (pg. 184)
- Ripple tank
- Water
- Metal strips as reflectors
- Paper for tracing wave patterns

- Observation - Practical assessment - Drawing analysis - Written reports

Force and Energy

Waves - Characteristics of waves: bending
Waves - Characteristics of waves: diffraction

By the end of the lesson, the learner should be able to:

- Demonstrate bending (refraction) of waves in a ripple tank
- Explain how wave speed changes with medium depth
- Show interest in how waves interact with different media

- Set up a ripple tank with shallow and deep regions
- Generate waves and observe their behavior at the boundary
- Measure and compare wavelengths in different depth regions
- Relate wavelength changes to speed changes

How do waves bend when moving between different media?

- Mentor Integrated Science (pg. 185)
- Ripple tank
- Water
- Glass plate to create shallow region
- Paper for tracing wave patterns
- Mentor Integrated Science (pg. 186)
- Metal barriers with adjustable gaps

- Observation - Practical assessment - Drawing analysis - Written reports

Force and Energy

Waves - Remote sensing in relation to waves
Waves - Transmission, absorption and reflection in remote sensing

By the end of the lesson, the learner should be able to:

- Describe remote sensing process
- Explain the role of waves in remote sensing
- Show interest in technological applications of wave properties

- Search for information about remote sensing using digital resources
- Discuss the remote sensing process and how waves are used
- Identify where absorption and reflection occur in remote sensing
- Prepare and present findings on remote sensing

How is remote sensing related to waves?

- Mentor Integrated Science (pg. 187)
- Digital resources
- Diagrams of remote sensing processes
- Video clips on remote sensing
- Mentor Integrated Science (pg. 188)
- Examples of remote sensing data

- Observation - Research reports - Oral presentations - Written assignments

Force and Energy

Waves - Applications of waves in everyday life

By the end of the lesson, the learner should be able to:

- Identify various applications of waves in everyday life
- Explain how wave properties are utilized in different technologies
- Appreciate the importance of waves in modern society

- Research applications of waves in everyday life (communication, medical imaging, entertainment)
- Discuss how specific wave properties are utilized in different applications
- Present findings on wave applications
- Relate wave theory to practical applications

What are the practical applications of waves in our everyday life?

- Mentor Integrated Science (pg. 190)
- Digital resources
- Examples of wave-based technologies
- Video clips on wave applications

- Observation - Research reports - Oral presentations - Written assignments