Waves and Optics

Waves - Introduction to waves and wave formation

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

- Define a wave and describe how waves are formed
- Demonstrate wave formation using different media
- Appreciate waves as carriers of energy

In groups, learners are guided to:
• Discuss everyday examples of waves (water, sound, light)
• Create waves using a rope and observe their motion
• Demonstrate wave formation in a ripple tank
• Discuss how energy is transferred by waves without matter movement

How do waves transfer energy from one point to another without transferring matter?

- Ropes
- Ripple tanks
- Springs (slinky)
- Physics Textbook
- Video clips

- Practical observation - Oral questions - Written assignments

Waves and Optics

Waves - Sources and medium of wave propagation
Waves - Transverse waves

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

- Identify sources of different types of waves
- Explain the role of medium in wave propagation
- Show curiosity in understanding wave transmission

In groups, learners are guided to:
• Identify sources of mechanical and electromagnetic waves
• Investigate wave propagation in different media (solid, liquid, gas)
• Compare wave travel in different materials
• Discuss why some waves require a medium while others do not

Why do some waves require a medium for propagation while others do not?

- Tuning forks
- Water tanks
- Metal rods
- Physics Textbook
- Bell jar apparatus
- Ropes
- Springs (slinky)
- Ripple tanks
- Charts

- Practical exercises - Oral questions - Written tests

Waves and Optics

Waves - Longitudinal waves
Waves - Wavelength, amplitude and frequency
Waves - Period and phase
Waves - Wave equation (v = fλ)

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

- Define longitudinal waves
- Demonstrate the formation of longitudinal waves
- Appreciate the different modes of wave propagation

- Define period of a wave and calculate it from frequency
- Explain the concept of phase and phase difference
- Demonstrate logical thinking in wave analysis

In groups, learners are guided to:
• Create longitudinal waves using a slinky spring
• Observe compressions and rarefactions in the spring
• Compare longitudinal and transverse wave motion
• Discuss sound as an example of longitudinal waves
• Calculate the period of waves using T = 1/f
• Identify points in phase and out of phase on wave diagrams
• Determine phase difference between two waves
• Solve problems involving period and frequency

What distinguishes longitudinal waves from transverse waves?
What is the relationship between the period and frequency of a wave?

- Slinky springs
- Tuning forks
- Physics Textbook
- Video clips
- Charts
- Graph papers
- Rulers
- Ripple tanks
- Physics Textbook
- Wave diagrams
- Calculators
- Worksheets
- Graph papers
- Ripple tanks
- Stroboscopes

- Practical observation - Written tests - Classification tasks
- Problem-solving - Written tests - Oral questions

Waves and Optics

Waves - Applications of wave equation
Waves - Reflection of waves

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

- Apply the wave equation to different types of waves
- Calculate wave properties in various contexts
- Show persistence in solving complex wave problems

In groups, learners are guided to:
• Calculate the speed of sound using frequency and wavelength data
• Determine wavelength of radio waves from frequency
• Solve problems involving waves in different media
• Compare wave speeds in various materials

How can we determine the wavelength of a wave if we know its speed and frequency?

- Physics Textbook
- Calculators
- Data tables
- Worksheets
- Ripple tanks
- Plane barriers
- Curved barriers
- Protractors

- Problem-solving - Written assignments - Peer assessment

Waves and Optics

Waves - Refraction of waves

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

- Explain refraction of waves and its causes
- Demonstrate refraction using ripple tanks
- Appreciate the effects of medium change on waves

In groups, learners are guided to:
• Observe refraction of water waves at shallow-deep water boundary
• Investigate the relationship between depth and wave speed
• Draw diagrams showing wave refraction
• Discuss real-life examples of wave refraction

Why do waves change direction when they pass from one medium to another?

- Ripple tanks
- Glass plates
- Physics Textbook
- Video clips
- Charts

- Practical observation - Written tests - Diagram analysis

Waves and Optics

Waves - Diffraction of waves

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

- Define diffraction and explain when it occurs
- Demonstrate diffraction through gaps and around obstacles
- Show curiosity in wave phenomena

In groups, learners are guided to:
• Observe diffraction of water waves through narrow gaps
• Investigate diffraction around obstacles
• Compare diffraction through wide and narrow openings
• Discuss conditions for significant diffraction

Under what conditions is wave diffraction most pronounced?

- Ripple tanks
- Barriers with gaps
- Physics Textbook
- Video clips
- Charts

- Practical demonstration - Written tests - Oral questions

Waves and Optics

Waves - Interference of waves
Waves - Stationary waves

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

- Explain the principle of superposition
- Distinguish between constructive and destructive interference
- Appreciate the application of interference in technology

- Describe the formation of stationary waves
- Identify nodes and antinodes in stationary waves
- Value the musical applications of stationary waves

In groups, learners are guided to:
• Observe interference patterns in a ripple tank with two sources
• Identify regions of constructive and destructive interference
• Draw diagrams showing interference patterns
• Discuss applications of interference (noise cancellation, thin films)
• Create stationary waves using a vibrating string or spring
• Identify nodes (points of no displacement) and antinodes
• Explain how stationary waves differ from progressive waves
• Discuss stationary waves in musical instruments

How do two waves combine to produce regions of reinforcement and cancellation?
How are stationary waves formed and where are they applied?

- Ripple tanks
- Two-source vibrators
- Physics Textbook
- Video clips
- Charts
- Vibrating strings
- Springs
- Frequency generators
- Physics Textbook
- Musical instruments

- Practical observation - Pattern identification - Written tests
- Practical demonstration - Written tests - Oral questions

Waves and Optics

Waves - Applications of wave properties

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

- Analyze applications of wave behaviors in technology
- Evaluate the importance of wave properties in communication
- Appreciate the role of waves in modern technology

In groups, learners are guided to:
• Research applications of reflection (radar, sonar, echoes)
• Discuss applications of refraction (lenses, fiber optics)
• Explore applications of diffraction and interference
• Present projects on wave applications in medicine and communication

How have wave properties revolutionized communication and medical technology?

- Physics Textbook
- Internet access
- Project materials
- Video clips

- Project presentations - Written reports - Peer assessment

Waves and Optics

Radioactivity - Structure of the atom
Radioactivity - Atomic number, mass number and isotopes

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

- Describe the structure of an atom
- Identify subatomic particles and their properties
- Appreciate the complexity of atomic structure

In groups, learners are guided to:
• Discuss the historical development of atomic models
• Draw and label the structure of an atom showing nucleus and electron shells
• Compare properties of protons, neutrons, and electrons
• Use digital resources to explore atomic structure models

How is the structure of an atom related to radioactivity?

- Physics Textbook
- Atomic model charts
- Digital resources
- Video clips
- Periodic table
- Periodic table
- Calculators
- Charts
- Worksheets

- Diagram drawing - Oral questions - Written tests

Waves and Optics

Radioactivity - Discovery of radioactivity
Radioactivity - Types of radioactive emissions (Alpha particles)

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

- Describe the discovery of radioactivity
- Explain the concept of radioactive decay
- Appreciate the contributions of scientists to nuclear physics

In groups, learners are guided to:
• Research and discuss the discovery of radioactivity by Becquerel
• Discuss contributions of Marie Curie and other scientists
• Explain what radioactive decay means
• Watch videos on the history of radioactivity discovery

How was radioactivity discovered and why was it significant?

- Physics Textbook
- Internet access
- Video clips
- Reference books
- Charts
- Charts
- Diagrams
- Digital resources

- Research reports - Oral presentations - Written tests

Waves and Optics

Radioactivity - Types of radioactive emissions (Beta particles)
Radioactivity - Types of radioactive emissions (Gamma rays)
Radioactivity - Detection of radioactive emissions
Radioactivity - Nuclear equations for alpha decay

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

- Describe the nature and properties of beta particles
- Compare beta particles with alpha particles
- Show systematic thinking in comparing radiation types

- Describe methods of detecting radioactive emissions
- Explain the working principles of radiation detectors
- Value safety precautions when dealing with radiation

In groups, learners are guided to:
• Discuss the nature of beta particles (fast-moving electrons)
• Investigate properties: ionizing power, penetrating power, deflection
• Compare beta and alpha particles in tabular form
• Explain how beta particles are produced in the nucleus
• Discuss the Geiger-Müller tube and counter
• Explain the working of cloud chambers and spark counters
• Watch videos showing radiation detection equipment
• Discuss the use of photographic film in detecting radiation

How do beta particles differ from alpha particles in their properties?
How can we detect radiation that is invisible to our senses?

- Physics Textbook
- Comparison charts
- Diagrams
- Video clips
- Worksheets
- Periodic table
- Physics Textbook
- Diagrams of detectors
- Video clips
- Charts
- Digital resources
- Periodic table
- Worksheets
- Calculators
- Charts

- Comparison tasks - Written tests - Oral questions
- Oral questions - Written tests - Diagram labeling

Waves and Optics

Radioactivity - Nuclear equations for beta decay

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

- Write balanced nuclear equations for beta decay
- Explain the changes in atomic number during beta decay
- Show logical thinking in nuclear equation analysis

In groups, learners are guided to:
• Explain how beta particles are emitted from the nucleus
• Write nuclear equations for beta decay
• Identify the products of beta decay
• Compare nuclear equations for alpha and beta decay

What changes occur in the nucleus during beta emission?

- Physics Textbook
- Periodic table
- Worksheets
- Calculators
- Charts

- Written tests - Equation balancing - Oral questions

Waves and Optics

Radioactivity - Concept of half-life

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

- Define half-life of a radioactive substance
- Explain the random nature of radioactive decay
- Appreciate the statistical nature of nuclear processes

In groups, learners are guided to:
• Discuss the meaning of half-life with analogies (e.g., coin tossing)
• Simulate radioactive decay using dice or coins
• Plot decay curves and determine half-life graphically
• Discuss why half-life is constant for a given isotope

Why does the half-life of a radioactive substance remain constant?

- Physics Textbook
- Dice or coins
- Graph papers
- Calculators
- Video clips

- Simulation activities - Graph plotting - Written tests

Waves and Optics

Radioactivity - Half-life calculations

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

- Calculate the remaining mass after given half-lives
- Determine the number of half-lives from decay data
- Show persistence in solving decay problems

In groups, learners are guided to:
• Calculate remaining mass of radioactive material after multiple half-lives
• Determine the age of materials using half-life data
• Solve problems involving activity and half-life
• Apply half-life concepts to carbon dating

How can we calculate the amount of radioactive substance remaining after a given time?

- Physics Textbook
- Calculators
- Worksheets
- Graph papers
- Data tables

- Problem-solving - Written tests - Calculations

Waves and Optics

Radioactivity - Applications in medicine and industry
Radioactivity - Carbon dating and energy production
Radioactivity - Hazards and safety precautions

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

- Explain applications of radioactivity in medicine
- Describe industrial uses of radioactive materials
- Value the beneficial uses of radioactivity

- Explain the principle of carbon dating
- Describe nuclear energy production
- Appreciate the role of radioactivity in archaeology and energy

In groups, learners are guided to:
• Research medical applications (diagnosis, cancer treatment, sterilization)
• Discuss industrial applications (thickness gauging, leak detection)
• Explore use of tracers in medicine and agriculture
• Present findings on beneficial applications of radioactivity
• Discuss the principle of carbon-14 dating
• Calculate ages of archaeological samples using half-life
• Explain nuclear fission and fusion for energy production
• Discuss advantages and challenges of nuclear power

How has radioactivity improved medical diagnosis and treatment?
How is radioactivity used to determine the age of ancient artifacts?

- Physics Textbook
- Internet access
- Video clips
- Reference books
- Charts
- Physics Textbook
- Calculators
- Internet access
- Video clips
- Charts
- Safety charts
- Reference books

- Research reports - Oral presentations - Written tests
- Problem-solving - Written tests - Oral questions

Electricity and Magnetism

Conductors, Semiconductors and Insulators - Classification based on conductivity
Conductors, Semiconductors and Insulators - Properties of conductors and insulators

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

- Classify materials as conductors, semiconductors, or insulators
- Explain the basis of electrical classification of materials
- Appreciate the diversity of electrical properties in materials

In groups, learners are guided to:
• Test various materials for electrical conductivity
• Classify tested materials as conductors, semiconductors, or insulators
• Discuss the atomic structure basis for conductivity differences
• Create a chart showing examples of each category

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

- Various materials (metals, plastics, silicon)
- Circuit with bulb
- Ammeter
- Physics Textbook
- Physics Textbook
- Energy band diagrams
- Charts
- Digital resources
- Video clips

- Classification tasks - Practical testing - Oral questions

Electricity and Magnetism

Conductors, Semiconductors and Insulators - Effect of temperature on conductors
Conductors, Semiconductors and Insulators - Effect of temperature on semiconductors

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

- Explain the effect of temperature on conductor resistance
- Describe why resistance increases with temperature in metals
- Value careful observation during experiments

In groups, learners are guided to:
• Investigate effect of heating on resistance of a metal wire
• Discuss increased atomic vibrations at higher temperatures
• Plot a graph of resistance versus temperature for a conductor
• Explain negative temperature coefficient of conductivity

Why does the resistance of a metal conductor increase with temperature?

- Resistance wire
- Thermometer
- Heating source
- Ohmmeter
- Graph papers
- Thermistors
- Physics Textbook
- Charts

- Practical investigation - Graph plotting - Written tests

Electricity and Magnetism

Conductors, Semiconductors and Insulators - Intrinsic semiconductors
Conductors, Semiconductors and Insulators - N-type semiconductors

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

- Define intrinsic semiconductors
- Explain conduction in pure semiconductors
- Show curiosity in understanding semiconductor physics

In groups, learners are guided to:
• Discuss the structure of silicon and germanium atoms
• Explain covalent bonding in semiconductor crystals
• Describe electron-hole pair generation in intrinsic semiconductors
• Discuss limitations of intrinsic semiconductors

How does electrical conduction occur in a pure semiconductor?

- Physics Textbook
- Crystal structure models
- Diagrams
- Video clips
- Charts
- Periodic table

- Oral questions - Diagram analysis - Written tests

Electricity and Magnetism
Environmental and Space Physics

Conductors, Semiconductors and Insulators - P-type semiconductors
Conductors, Semiconductors and Insulators - Superconductors and applications of semiconductors
Greenhouse Effect - Introduction to the greenhouse effect
Greenhouse Effect - Greenhouse gases

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

- Explain the formation of p-type semiconductors
- Describe the role of acceptor impurities
- Demonstrate understanding of hole conduction

- Define the greenhouse effect
- Explain the natural greenhouse effect and its importance
- Appreciate the role of the greenhouse effect in sustaining life

In groups, learners are guided to:
• Discuss doping of silicon with trivalent atoms (boron, aluminum)
• Explain how acceptor atoms create holes
• Draw diagrams showing p-type semiconductor structure
• Compare n-type and p-type semiconductors
• Discuss the meaning of the greenhouse effect using analogies
• Watch videos or animations showing how greenhouse effect works
• Explain how Earth's atmosphere traps heat
• Discuss why the greenhouse effect is essential for life on Earth

How does doping with trivalent impurities create positive charge carriers?
How does the natural greenhouse effect make Earth habitable?

- Physics Textbook
- Diagrams
- Periodic table
- Charts
- Video clips
- Internet access
- Video clips
- Electronic components
- Charts
- Physics Textbook
- Video clips
- Diagrams
- Internet access
- Charts
- Charts
- Reference books
- Diagrams

- Comparison tasks - Diagram analysis - Written tests
- Oral questions - Written tests - Concept mapping

Environmental and Space Physics

Greenhouse Effect - Mechanism of the greenhouse effect
Greenhouse Effect - The ozone layer and its importance

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

- Describe the mechanism of the greenhouse effect
- Explain energy balance in the atmosphere
- Value scientific understanding of atmospheric processes

In groups, learners are guided to:
• Draw and explain diagrams showing solar radiation and heat trapping
• Discuss absorption and re-emission of infrared radiation
• Model the greenhouse effect using simple experiments
• Calculate energy balance in simplified atmospheric models

How do greenhouse gases trap heat in the Earth's atmosphere?

- Physics Textbook
- Glass containers
- Thermometers
- Lamps
- Diagrams
- Diagrams of atmosphere
- Internet access
- Video clips
- Charts

- Practical demonstration - Diagram analysis - Written tests

Environmental and Space Physics

Greenhouse Effect - Ozone depletion and its causes
Greenhouse Effect - Global warming

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

- Explain the causes of ozone layer depletion
- Describe the role of CFCs in ozone destruction
- Show commitment to ozone layer protection

In groups, learners are guided to:
• Discuss ozone-depleting substances (CFCs, halons, carbon tetrachloride)
• Explain the chemical reactions that destroy ozone molecules
• Research the history of the ozone hole discovery
• Discuss the Montreal Protocol and its achievements

How do chlorofluorocarbons (CFCs) destroy ozone molecules?

- Physics Textbook
- Chemical equations
- Internet access
- Video clips
- Charts
- Temperature data graphs
- Charts
- Video clips

- Oral questions - Written tests - Research reports

Environmental and Space Physics

Greenhouse Effect - Climate change causes
Greenhouse Effect - Effects of climate change

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

- Distinguish between natural and human causes of climate change
- Analyze the contribution of human activities to climate change
- Value evidence-based understanding of climate science

In groups, learners are guided to:
• Discuss natural causes (volcanic eruptions, solar variations, orbital changes)
• Analyze human causes (fossil fuel burning, deforestation, industrialization)
• Compare the rate of natural vs human-induced climate change
• Debate the scientific consensus on human-caused climate change

How have human activities accelerated climate change beyond natural variations?

- Physics Textbook
- Climate data
- Internet access
- Reference books
- Charts
- Case studies
- Video clips
- News articles

- Debate/discussion - Written tests - Research reports

Environmental and Space Physics

Greenhouse Effect - Mitigation and adaptation strategies
Greenhouse Effect - Renewable energy and sustainable practices
Introduction to Space Physics - Origin of the universe (Big Bang Theory)

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

- Explain strategies for mitigating climate change
- Describe adaptation measures for climate change impacts
- Demonstrate willingness to take action on climate change

- Evaluate renewable energy sources as climate solutions
- Analyze sustainable practices for reducing carbon footprint
- Appreciate the role of technology in addressing climate change

In groups, learners are guided to:
• Discuss mitigation: renewable energy, energy efficiency, reforestation
• Explain adaptation: drought-resistant crops, flood defenses, early warning systems
• Research international agreements (Paris Agreement, COP meetings)
• Develop personal and community action plans for climate action
• Research renewable energy sources: solar, wind, geothermal, hydroelectric
• Calculate carbon footprint and identify reduction strategies
• Discuss Kenya's geothermal energy development
• Present projects on sustainable solutions for climate change

What actions can individuals and communities take to address climate change?
How can renewable energy sources help reduce greenhouse gas emissions?

- Physics Textbook
- Internet access
- Case studies
- Video clips
- Charts
- Physics Textbook
- Internet access
- Project materials
- Video clips
- Charts
- Video documentaries
- Charts
- Diagrams

- Action plan development - Oral questions - Written tests
- Project presentations - Written reports - Peer assessment

Environmental and Space Physics

Introduction to Space Physics - Formation of galaxies, stars and planets
Introduction to Space Physics - Classification of celestial bodies (Stars and galaxies)

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

- Explain the formation of galaxies after the Big Bang
- Describe how stars and planetary systems form
- Show curiosity about cosmic evolution

In groups, learners are guided to:
• Discuss the formation of hydrogen and helium after Big Bang
• Explain gravitational collapse leading to galaxy formation
• Describe stellar nucleosynthesis and star life cycles
• Discuss the nebular hypothesis for planetary system formation

How did the elements that make up our bodies originate in stars?

- Physics Textbook
- Video clips
- Star life cycle diagrams
- Internet access
- Charts
- Star classification charts
- H-R diagram
- Telescope (if available)

- Diagram interpretation - Oral questions - Written tests

Environmental and Space Physics

Introduction to Space Physics - Classification of celestial bodies (Planets, moons and other objects)
Introduction to Space Physics - The Solar System

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

- Classify planets as terrestrial or gas giants
- Describe other celestial objects (moons, asteroids, comets, meteoroids)
- Value systematic classification in astronomy

In groups, learners are guided to:
• Classify planets in our solar system (terrestrial vs Jovian)
• Discuss characteristics of moons, asteroids, and comets
• Differentiate between meteoroids, meteors, and meteorites
• Research dwarf planets and their classification

What distinguishes a planet from other celestial bodies in space?

- Physics Textbook
- Solar system models
- Internet access
- Video clips
- Charts
- Solar system charts
- Modelling materials
- Video clips

- Classification exercises - Oral questions - Written tests

Environmental and Space Physics

Introduction to Space Physics - Optical telescopes
Introduction to Space Physics - Radio and space telescopes

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

- Explain the working principles of optical telescopes
- Distinguish between refracting and reflecting telescopes
- Handle optical instruments with care

In groups, learners are guided to:
• Discuss the history and development of telescopes
• Explain how refracting telescopes use lenses
• Explain how reflecting telescopes use mirrors
• Compare advantages and disadvantages of each type

How do telescopes enable us to observe distant celestial objects?

- Physics Textbook
- Telescope diagrams
- Simple telescope (if available)
- Lenses and mirrors
- Video clips
- Diagrams
- Internet access
- Video clips
- Charts

- Diagram analysis - Oral questions - Written tests

Environmental and Space Physics

Introduction to Space Physics - Kepler's laws of planetary motion
Introduction to Space Physics - Newton's law of gravitation and orbital mechanics
Introduction to Space Physics - History of space exploration

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

- State Kepler's three laws of planetary motion
- Apply Kepler's laws to explain planetary orbits
- Value the contribution of Kepler to astronomy

- Describe key milestones in space exploration history
- Explain the significance of major space missions
- Appreciate human achievements in space exploration

In groups, learners are guided to:
• Discuss Kepler's first law (elliptical orbits)
• Explain Kepler's second law (equal areas in equal times)
• Apply Kepler's third law (T² ∝ r³) to calculate orbital periods
• Solve problems using Kepler's laws
• Research the Space Race (Sputnik, Apollo missions, Moon landing)
• Discuss significant space missions (Voyager, Mars rovers, ISS)
• Create a timeline of major space exploration achievements
• Discuss Africa's growing role in space exploration

How do Kepler's laws describe the motion of planets around the Sun?
What were the most significant achievements in the history of space exploration?

- Physics Textbook
- Orbital diagrams
- Calculators
- Worksheets
- Video clips
- Diagrams
- Physics Textbook
- Internet access
- Video documentaries
- Timeline materials
- Charts

- Problem-solving - Written tests - Oral questions
- Timeline creation - Research presentations - Oral questions

Environmental and Space Physics

Introduction to Space Physics - Current and future space missions

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

- Describe current space exploration programs
- Discuss future plans for space exploration
- Show enthusiasm for space science developments

In groups, learners are guided to:
• Research current missions: Mars exploration, James Webb telescope
• Discuss plans for human missions to Mars
• Explore commercial space ventures (SpaceX, Blue Origin)
• Discuss Kenya Space Agency and African space programs

What are the goals of current and future space exploration missions?

- Physics Textbook
- Internet access
- Video clips
- News articles
- Charts

- Research reports - Oral presentations - Written tests

Environmental and Space Physics

Introduction to Space Physics - Careers in space science and astronomy

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

- Identify career opportunities in space science and astronomy
- Explain educational pathways for space-related careers
- Demonstrate interest in pursuing space science careers

In groups, learners are guided to:
• Research various careers: astronaut, astrophysicist, aerospace engineer
• Discuss related careers: satellite engineer, planetary scientist, astronomer
• Explore educational requirements and pathways
• Invite guest speakers or watch interviews with space scientists

What career opportunities exist in space science and how can one pursue them?

- Physics Textbook
- Internet access
- Career guides
- Video interviews
- Charts

- Career research projects - Oral presentations - Peer assessment