Physics
Based on the Empirbox scheme
Based on the Empirbox scheme
Acceleration
Air resistance
Attract
Balanced forces
Conclusion
Dependent variable
Equal
Fair test (collecting valid data)
Force
Gear
Independent variable
Lever
Motion
Opposite
Pull
Push
Pulley
Repel
Scientific enquiry
Speed
Sir Isaac Newton
Unbalanced forces
Water resistance
Planning:
Defining Variables
Designing Questions
Making and justifying predictions
Writing Methods
Presenting and analysing data:
Selecting the type of data to gather
Clearly stating the independent and dependent variables
Completing results tables or other data capture mechanisms
Drawing graphs from the data or using other means of presentations
Spotting trends or patterns in the data
Writing a conclusion
Evaluating:
Stating if results matched a prediction
Commenting on the validity of the data
Spotting anomalies in the data
Explaining anomalies in the data
Suggesting measures to prevent anomalies
Designing another experiment that could produce similar results
Forces, Magnets and Simple Machines
S3.1 - Compare how things move on different surfaces
S3.2 - Notice that some forces need contact between two objects , but magnetic forces can act at a distance
S3.3 - Observe how magnets attract or repel each other and attract some materials and not others
S3.4 - Compare and group together a variety of everyday materials on the basis of whether they are attracted to a magnet, and identify some magnetic materials.
S3.5 - Describe magnets as having two poles.
S3.6 - Predict whether two magnets will attract or repel each other, depending on which poles are facing.
S6.1 - Describe that unsupported objects fall towards the Earth because of the force of gravity acting between the Earth and the falling object.
S6.2 - Identify the effects of air resistance, water resistance and friction, that act between moving surfaces.
S6.3 - Recognise that some mechanisms including levers, pulleys and gears allow a smaller force to have a greater effect.
Testing Forces: Rocket poppers
Magnetic Circus: investigating the poles of a magnet, which materials are magnetic? Are all magnets the same strength? investigating magnetic shields, investigating magnetism using neodymium magnets and investigating magnets.
Gravity: Collecting and analysing data whilst investigating forces, weight and mass, gravity defying water, gravity and the planets and Galileo's feather.
Friction: Collecting and analysing data through the balloon car challenge and shoes and friction.
Air Resistance: Collecting and analysing data when investigating helicopters.
Water Resistance: Collecting and analysing data when looking at water resistance, boat shapes and boat races.
Rockets: Collecting and analysing data from a fair test using rockets.
Simple Machines: Investigating, collecting data and analysing levers, pulleys and gears.
Particles
Vibration
Sound wave
Energy transfer
Frequency
Pitch
Hertz (Hz)
Volume
Amplitude
Decibel (dB)
Speed of Sound
Sound proofing
Tuning forks
Prediction
Data
Dependent variable
Independent variable
Fair test (collecting valid data)
Conclusion
Planning:
Defining Variables
Designing Questions
Making and justifying predictions
Writing Methods
Presenting and analysing data:
Selecting the type of data
Clearly identifying the independent and dependent variables
Completing results tables or other data capture mechanisms
Drawing graphs from the data or using other means of presentations
Spotting trends or patterns in the data
Writing a conclusion
Evaluating:
Stating if results matched a prediction
Commenting on the validity of the data
Spotting anomalies in the data
Suggesting explanations for anomalies in the data
Suggesting alternative expermiments or adjustments to the existing experiment to improve validity.
Identify how sounds are made, associating these with something vibrating.
Understand that sound is a type of energy and that energy is transferred when particles vibrate.
Recognise that vibrations from sounds travel through a medium (solid, liquid or gas) to our ears.
Identify that sounds travel in waves.
Understand that the volume of a sound is not related to how quickly sound travels.
Recognise that sounds get fainter as the distance from the source of the sound increases.
Identify that the speed of sound is different to the speed of light.
Understand that the frequency of sound waves determines the pitch we hear and we can measure this; this unit of measurement is called Hertz - Hz. Find patterns between the pitch of a sound and the features of the object that produced it.
Understand that the size of the sound wave (called amplitude) determines the volume we hear and we can measure this using a unit called Decibels (dB). Find patterns between the volume of a sound and the strength of the vibrations that produced it.
Understanding that some materials are better at allowing sounds to pass through them than others.
Lesson One – Assessment
Lesson Two – Investigating Sound
Lesson Three - How Does Sound Travel?
Lesson Four – Sound and Distance
Lesson Five – The Speed of Sound
Lesson Six – Sound and Pitch
Lesson Seven – Sound and Volume
Lesson Eight – Planning and Fair Test (1)
Lesson Nine – Planning and Fair Test (2)
For full lessons plans giving details of all 10 weeks, see Empiribox SoW.
Electron
Charge
Negative / Positive
Static electricity
Cell
Circuit
Component
Battery
Crocodile Lead
Buzzer
Bulb
Lamp
Voltage / volts
Switches
Magnets
Insulator
Conductor
Appliance
Ammeter
Watt
Solar cell / Solar panel
Electromagnetism
Dependent variable
Independent variable
Experiment
Fair test
Prediction
Conclusion
Data
Prediction
Data
Dependent variable
Independent variable
Fair test (collecting valid data)
Conclusion
The National Curriculum states that pupils in LKS2 should be able to:
identify common appliances that run on electricity;
construct a simple series electrical circuit, identifying and naming its basic parts, including cells, wires, lamps, switches and buzzers;
identify if a lamp will light up in a simple series circuit, based on if the lamp is part of a complete circuit, including a cell;
understand a switch can open or close this circuit;
and identify the properties of conductors and insulators, as well as some common materials that act as conductors or insulators.
In UKS2, children should be taught:
the brightness of a bulb or the volume of a buzzer depends on the number and voltage of cells used in the circuit;
to compare and give reasons for variations in how components function, including the brightness of bulbs, the loudness of buzzers and the on/off position of switches; to use the recognised symbols when representing a simple circuit in a diagram.
Planning:
Defining Variables
Designing Questions
Making and justifying predictions
Writing Methods
Presenting and analysing data:
Selecting the type of data
Clearly identifying the independent and dependent variables
Completing results tables or other data capture mechanisms
Drawing graphs from the data or using other means of presentations
Spotting trends or patterns in the data
Writing a conclusion
Evaluating:
Stating if results matched a prediction
Commenting on the validity of the data
Spotting anomalies in the data
Suggesting explanations for anomalies in the data
Suggesting alternative expermiments or adjustments to the existing experiment to improve validity.
L1: The History of Electricity
Children will research how electricity has been investigated over hundreds of years and milestones in the development of using electricity to power our homes and businesses.
L2: Static Electricity
Children will explore static electricity and how it is made. They will identify it as a non-contact force, extending their understanding about different types of forces - that some need to come into contact with each other and some do not. Children will plan an experiment to understand if the amount of time wool and balloons are rubbed against each other impacts the amount of static electricity generated.
L3: Creating Simple Circuits
Children will investigate how to create a simple circuit, making a bulb light up. They will understand the difference between batteries and cells. Children will identify a scientific question to answer and then plan an experiment to answer this by adding components to a simple circuit and observing the impact this has on the brightness of the bulbs or the volume of a buzzer. Children will predict and then observe the association between the number and / or voltage of cells in a circuit and the volume of a buzzer or brightness of bulbs.
L4: Investigating Switches
Children will build a circuit and include a switch, observing and explaining what happens when the switch is open or closed in the circuit. Children will learn the symbols for different components of an electrical circuit and how to draw these accurately.
L5: Insulators and Conductors - Keeping Safe!
Children will apply their knowledge of building circuits to investigate insulators and conductors. They will identify different materials that are good conductors and insulators. They will learn about Stephen Gray, an astronomer who investigated different materials and how they conducted electricity. Children will research how to be safe around electricity in and out of the home and the role of insulators and conductors in this. They will make a safety poster to help others be aware of the dangers of electricity.
L6: Getting Creative with Circuits
Children will use their knowledge of electrical circuits and switches to build a burglar alarm. Children will be able to write up their method and explain how their alarm works.
L7: Sustainable Power
Children will discover how we can use sustainable forms of energy, such as solar power. They will use their knowledge of building circuits to use a solar cell to power a circuit.
L8&9: Electromagnetism
The children will explore the relationship between electricity and magnetism. They will plan an experiment to understand how the number of magnets affects the brightness of an LED, making predictions. They will also use neodymium magnets to plan an experiment to investigate the science behind the Maglev train.
Solar System
Planet
Earth
Sun
Orbit
Spherical
Elliptical / Ellipse
Mercury
Venus
Mars
Jupiter
Saturn
Neptune
Uranus
Distance
Day
Night
Time zones
Rotation
Axis
Accurate
Moon
Full Moon
Phases of The Moon
Waxing
Waning
Satellite
Darkness
Light
Protect
Absence
Luminous
UV light
Concave
Convex
Reflection / Reflective
Periscope
Opaque
Translucent
Data
Pattern
Anomaly
Independent variable
Dependent variable
Valid data
Properties
Scientific question
Conclusion
The National Curriculum states that pupils should be able to:
recognise that they need light in order to see things and that dark is the absence of light;
notice that light is reflected from surfaces;
recognise that light from the sun can be dangerous and that there are ways to protect their eyes;
recognise that shadows are formed when the light from a light source is blocked by an opaque object;
find patterns in the way that the size of shadows change;
recognise that light appears to travel in straight lines;
use the idea that light travels in straight lines to explain that objects are seen because they give out or reflect light into the eye;
explain that we see things because light travels from light sources to our eyes or from light sources to objects and then to our eyes;
use the idea that light travels in straight lines to explain why shadows have the same shape as the objects that cast them.
Pupils should be taught to:
describe the movement of the Earth and other planets relative to the sun in the solar system;
describe the movement of the moon relative to the Earth;
describe the sun, Earth and moon as approximately spherical bodies;
use the idea of the Earth’s rotation to explain day and night and the apparent movement of the sun across the sky.
Planning:
Defining Variables
Designing Questions
Making and justifying predictions
Writing Methods
Presenting and analysing data:
Selecting the type of data
Clearly identifying the independent and dependent variables
Completing results tables or other data capture mechanisms
Drawing graphs from the data or using other means of presentations
Spotting trends or patterns in the data
Writing a conclusion
Evaluating:
Stating if results matched a prediction
Commenting on the validity of the data
Spotting anomalies in the data
Suggesting explanations for anomalies in the data
Suggesting alternative expermiments or adjustments to the existing experiment to improve validity.
L1: Identifying Scientific Questions. Children will identify scientific questions they want to answer about our topics of ‘Space’ and ‘Light’. They will learn about the history of our understanding of Space, including ideas from Ptomely and Copernicus.
L2: The Solar System. Children will explore the planets in our solar system, learning about how they orbit the Sun. They will discover how the planets’ orbits are elliptical, whilst the planets themselves are spherical.
L3: The Rotation of the Earth. Children will learn about how the Earth rotates on its axis, giving us night and day. They will learn about how time zones are different around the world, taking account of the position of the Earth to the Sun.
L4: The Phases of the Moon. Children will learn about the Moon being a satellite of the Earth. They will learn about the Moon’s orbit and the different phases of the Moon. They will learn about astronauts walking on the Moon using text books.
L5: The Sun and Light: Children will learn about the Sun and that it is a source of natural light for Earth. They will compare the light and the dark, looking at how light travels through different types of object. They will learn that it is dangerous to look at the Sun and learn about the spectrum of light, including UV light.
L6: How Light Travels. Children will explore the how light travels in straight lines and will using convex and concave lens to show how the path of light can be altered.
L7: Reflecting Light. Children will explore how light can be reflected by some materials, using prisms and mirrors to explore this idea. They will learn about how light can be reflected at different angles and how we use this science in everyday life.
L8: Up Periscope! Children will apply their learning of light and how it can be reflected to make a periscope for a submarine.
L9: Shadows. Children will explore how shadows are made and why they can vary in size. They will investigate if all materials create shadows and compare the properties of these.
L1: Introduction to Space and Light. Children will identify scientific questions about our topics. They will learn how scientific ideas can change, through learning about the history of our understanding of Space.
L2: The Solar System. The children will draw a scaled model of the solar system using chalk outdoors. They will then recreate this by constructing a labelled model of the planets orbiting the sun. They will summarise their work using scientific language and concepts (e.g. orbiting).
L3: The Rotation of the Earth. Children will use a lamp or torch to replicate the Sun and a globe for the Earth. They will draw a labelled diagram to show night and day. They will conduct an experiment tracking how the sun moves during the day, using tracing paper on the classroom window. They will evaluate their experiments to identify the variables they have controlled to ensure their data is valid.
L4: The Phases of the Moon. Outside children will recreate a scaled model of the Moon and Earth. They will then make a 3D model in the classroom, as well as drawing a diagram using a compass. They will explain their work using scientific vocabulary.
L5: The Sun and Light. Children will use different equipment including spectroscopes and light meters to explore what light is. They will use luminous and non-luminous materials and transparent and blackout materials to explore light and dark. They will complete an experiment to measure how light travels through different coloured paper, recording and then reviewing their data to spot patterns and anomalies.
L6: How Light Travels. Children will use blocks with holes in to experiment with how light travels. They will investigate how convex and concave lens change the way light travels. They draw accurate diagrams to summarise their findings and evaluate patterns of data, using scientific language to summarise and explain their results.
L7: Reflecting Light. Children will experiment with the angles light can be reflected at, using a protractor and mirror. They will record data accurately, summarising the findings of their experiments.
L8: Up Periscope! Children will make a periscope for a submarine, applying their knowledge of the Law of Reflection and that light travels in straight lines. They will evaluate their experiment and draw an accurate diagram and explanation to summarise their work.
L9: Shadows. Children will compare the distance needed to create the longest and shortest shadow, comparing their findings and identifying anomalies. They will consider how they could have adapted their experiment by reviewing any anomalies in their data. They will also investigate different materials to identify the properties of materials that create a shadow.