4th Grade Science Checklist: What Your Child Should Know

Dinosaurs & Paleontology

Your child is exploring how scientists study dinosaurs through fossils — learning about dinosaur classification, evolution into birds, extinction events, and how paleontologists uncover and interpret evidence from millions of years ago.

• Changing Scientific Knowledge

  Evaluate competing scientific explanations about dinosaurs by weighing fossil evidence — understanding that scientific knowledge changes as new fossils are discovered and new methods of analysis are developed

  • Give an example of a scientific idea about dinosaurs that changed when new evidence was found
  • Explain that different scientists may interpret the same fossil evidence differently
  • State that the best scientific explanation is the one supported by the most evidence from multiple sources

• Reading Cladograms

  Read and create simple cladograms (branching diagrams) that show how groups of dinosaurs are related based on shared features, understanding that species sharing more features are more closely related

  • Explain that a cladogram shows evolutionary relationships based on shared features
  • Read a simple cladogram to identify which two dinosaurs share the most recent common ancestor
  • Add a new species to a partially completed cladogram based on its listed features

• Birds Evolved from Dinosaurs

  Understand that modern birds evolved from a group of small feathered theropod dinosaurs, using evidence such as the fossil Archaeopteryx, feathered dinosaur fossils from China, and shared skeletal features

  • State that birds evolved from small theropod dinosaurs
  • Name Archaeopteryx or Chinese feathered dinosaurs as key fossil evidence
  • List at least two features birds share with theropods (e.g. hollow bones, wishbone, three-toed feet)

• Palaeoart & Speculation

  Understand that palaeoart — scientific illustrations and models of dinosaurs — is based on fossil evidence but involves informed speculation about skin colour, feathers, and soft tissues that don't usually fossilise

  • Explain that bones and teeth are known from fossils but skin colour and soft tissues usually are not
  • State that recent discoveries of preserved skin impressions and feather fossils have improved reconstructions
  • Give an example of how our picture of a dinosaur has changed over time (e.g. feathered vs scaly Velociraptor)

• Fossils as Evidence

  Analyse and interpret data from fossils to provide evidence of organisms and environments that existed long ago

  • Explain that fossils are preserved remains or traces of organisms that lived long ago
  • Use fossil evidence to make inferences about past organisms and their environments
  • Describe how comparing fossils with living organisms helps us understand how life has changed

• Fossils Reveal Ancient Environments

  Understand that fossils tell us not only about ancient animals but also about ancient environments — for example, marine fossils found on a mountaintop show that area was once underwater

  • Give an example of a fossil that reveals a past environment different from today's
  • Explain that finding marine fossils inland means that area was once covered by sea
  • State that plant fossils can show whether an area was once a forest, desert, or swamp

• How Fossils Form

  Explain in simple terms how fossils form: an organism dies and is quickly buried in sediment; over millions of years minerals replace the remains and the sediment turns to rock, preserving the shape

  • Describe the basic sequence: organism dies, buried in sediment, minerals replace remains over time
  • Explain why fossilisation is rare — most organisms decompose before being buried
  • Use the words 'sediment', 'minerals', and 'rock' correctly when explaining

• Rock Layers & Relative Dating

  Understand that rock layers (strata) form in sequence with the oldest at the bottom and the youngest at the top, and that fossils found in deeper layers are older — this is the principle of relative dating

  • Explain that sedimentary rock forms in layers with the oldest at the bottom
  • Use a diagram of rock strata to determine which fossil is older based on its position
  • Define relative dating as working out the age of something by comparing its position in rock layers

• How Palaeontologists Work

  Describe how palaeontologists work in the field and lab: prospecting for exposed fossils, careful excavation with hand tools, plaster jacketing for transport, preparation in the lab, and scientific description and publication

  • List the main stages: prospecting, excavation, jacketing, transport, preparation, study, display
  • Explain why careful excavation with small tools is necessary to avoid damaging the fossil
  • Describe plaster jacketing as wrapping fossils in plaster for safe transport to a lab

• Fossilised Dinosaur Dung

  Describe what coprolites are (fossilised dinosaur dung) and how palaeontologists analyse them to discover what dinosaurs ate, including plant fragments, bones, and seeds

  • Define a coprolite as fossilised dung (animal droppings preserved as rock)
  • Explain that scientists cut coprolites open to find plant seeds, bone fragments, or fish scales inside
  • State one example of what coprolite contents reveal about a dinosaur's diet

• Types of Fossils

  Distinguish body fossils (preserved bones, teeth, shells) from trace fossils (footprints, trackways, eggs, burrows, coprolites) and explain what each type can tell scientists

  • Sort examples into body fossils (bones, teeth, shells) and trace fossils (footprints, eggs, dung)
  • Explain that body fossils show what an animal looked like physically
  • Explain that trace fossils show how an animal behaved — how it moved, what it ate, where it nested

• Reading Dinosaur Trackways

  Use dinosaur trackways (fossilised footprints) to make inferences about a dinosaur's size, speed, and behaviour — widely spaced prints suggest running, closely spaced suggest walking

  • Explain that larger footprints generally mean a larger dinosaur
  • Compare spacing between prints to infer walking versus running
  • Suggest what a set of parallel trackways might mean (e.g. dinosaurs travelling in a group)

• Dinosaur Hip Groups

  Classify dinosaurs into the two major groups based on hip structure: Saurischia (lizard-hipped, including theropods and sauropods) and Ornithischia (bird-hipped, including Triceratops and Stegosaurus)

  • Name the two major dinosaur groups: Saurischia and Ornithischia
  • Explain the difference is based on hip bone structure (lizard-hipped vs bird-hipped)
  • Correctly classify at least two dinosaurs into each group (e.g. T. rex = Saurischia, Triceratops = Ornithischia)

• The Mesozoic Era

  Place the three periods of the Mesozoic Era — Triassic, Jurassic, and Cretaceous — in order and understand that different dinosaurs lived in different periods, not all at the same time

  • List Triassic, Jurassic, and Cretaceous in the correct chronological order
  • Assign at least one well-known dinosaur to the correct period
  • Explain that millions of years separated these periods and different species lived in each

• The K-Pg Extinction Event

  Describe the Cretaceous–Palaeogene (K-Pg) extinction event approximately 66 million years ago, including the asteroid impact theory and its evidence (iridium layer, Chicxulub crater), and understand that this ended the reign of non-avian dinosaurs

  • State that the K-Pg extinction happened about 66 million years ago and wiped out non-avian dinosaurs
  • Describe the asteroid impact hypothesis and name the Chicxulub crater in Mexico
  • Explain one piece of evidence: the iridium-rich layer found worldwide in rocks from that time

• Dinosaurs Around the World

  Understand that different dinosaurs lived on different continents and that fossil discoveries around the world show dinosaurs were a global phenomenon, with some species found only in certain regions

  • State that dinosaur fossils have been found on every continent including Antarctica
  • Name at least one dinosaur discovery location (e.g. T. rex in North America, Velociraptor in Mongolia)
  • Suggest a reason why the same type of dinosaur is sometimes found on continents now far apart

• Mary Anning, Fossil Hunter

  Know who Mary Anning was — a pioneering fossil hunter from Lyme Regis, England, who discovered ichthyosaur and plesiosaur skeletons in the early 1800s and contributed to our understanding of prehistoric life

  • State that Mary Anning lived in England in the early 1800s and hunted for fossils along the coast
  • Name at least one of her major discoveries (ichthyosaur or plesiosaur)
  • Explain why her work was important — she helped scientists understand that extinct creatures once lived on Earth

Polar Regions

• Polar Conservation & Future

  Understand the conservation challenges facing polar regions — marine protected areas in the Southern Ocean aim to preserve Antarctic ecosystems, Arctic nations dispute sovereignty over northern sea routes and resources as ice retreats, indigenous peoples fight for land rights and voice in environmental decisions, and international cooperation (Paris Agreement, Antarctic Treaty) is essential but difficult to maintain as economic pressures grow

  • Describe at least two conservation measures: marine protected areas in the Southern Ocean and the Antarctic Treaty
  • Explain why Arctic sovereignty is contested as ice retreats and shipping routes open
  • Describe the role of indigenous peoples in Arctic environmental decisions and why their knowledge matters

• Climate Change at the Poles

  Understand how climate change is affecting polar regions — Arctic sea ice is shrinking dramatically (losing about 13% per decade since 1979), the Greenland and Antarctic ice sheets are losing mass and contributing to sea level rise, permafrost is thawing and releasing methane (a powerful greenhouse gas), and these changes create positive feedback loops where melting leads to more warming which leads to more melting

  • State that Arctic sea ice has been declining at roughly 13% per decade since 1979
  • Explain the positive feedback loop: warming → ice melts → dark ocean absorbs more heat → more warming → more melting
  • Describe at least two consequences of polar ice loss: sea level rise and permafrost thawing releasing methane

• Earth's Frozen Water

  Understand the cryosphere and its role in Earth's water system — the cryosphere is all frozen water on Earth (ice sheets, glaciers, sea ice, permafrost, snow cover); polar ice sheets hold about 69% of Earth's fresh water; if all polar ice melted, sea levels would rise over 65 metres; and the water cycle connects polar ice to the global system through evaporation, precipitation, and meltwater flowing into oceans

  • Define the cryosphere as all frozen water on Earth and name its components: ice sheets, glaciers, sea ice, permafrost, snow
  • State that polar ice sheets hold approximately 69% of Earth's fresh water
  • Explain how polar ice connects to the global water cycle and what would happen if it all melted (65m+ sea level rise)

• Polar Oceans and World Climate

  Understand how polar oceans connect to the global climate system — cold, dense polar water sinks and drives thermohaline circulation (a global conveyor belt of ocean currents), sea ice reflects sunlight back to space (the albedo effect) helping regulate Earth's temperature, and the Southern Ocean around Antarctica is one of the most productive marine ecosystems on Earth due to upwelling nutrients

  • Explain that cold, dense polar water sinks and drives global ocean circulation (thermohaline circulation)
  • Describe the albedo effect: white ice reflects sunlight back to space, while dark ocean absorbs heat
  • State that the Southern Ocean is extremely productive because upwelling brings nutrients to the surface

• Polar Climate Zone

  Understand that polar regions belong to the polar climate zone — one of Earth's five main climate zones (tropical, arid, temperate, continental, polar) — characterised by temperatures rarely above 10°C even in summer, low precipitation (polar deserts receive less rain than the Sahara), and strong winds; know that latitude is the key factor determining climate zones, with polar regions above 60°N/S

  • Name the five main climate zones and place polar regions correctly within them
  • State that polar regions are above approximately 60° latitude and explain that distance from the Equator is the main reason they are cold
  • Describe polar climate characteristics: rarely above 10°C in summer, very low precipitation, strong winds

• Comparing Arctic & Antarctic

  Compare the Arctic and Antarctic in detail — the Arctic is an ocean covered by floating sea ice with surrounding land masses (Canada, Russia, Greenland, Scandinavia), while Antarctica is a continent larger than Europe buried under ice up to 4 km thick; polar bears, Arctic foxes, and walruses live only in the Arctic while penguins, leopard seals, and albatrosses are found only in the Antarctic

  • State that the Arctic is a frozen ocean surrounded by land (name at least two bordering countries), while Antarctica is a continent covered by ice sheet up to 4 km thick
  • Correctly assign at least three animals to the Arctic and three to the Antarctic
  • Name at least two differences in human presence: indigenous peoples in the Arctic vs research stations only in Antarctica

• Polar Food Chains

  Understand polar food chains — in the Antarctic, phytoplankton are eaten by krill, krill are eaten by fish and penguins, and penguins are eaten by leopard seals and orcas; in the Arctic, algae under ice feeds zooplankton, which feeds fish, which feeds seals, which feeds polar bears — and that tiny organisms like krill and plankton are the foundation of all polar life

  • Construct an Antarctic food chain: phytoplankton → krill → penguin → leopard seal or orca
  • Construct an Arctic food chain: algae → zooplankton → fish → seal → polar bear
  • Explain why krill and plankton are critical — without them, the entire food chain collapses

• The Race to the South Pole

  Know the story of the race to the South Pole in detail — Norwegian Roald Amundsen and British Robert Falcon Scott both set out in 1911, Amundsen arrived first on 14 December using dog sleds and careful planning, Scott arrived 34 days later using man-hauled sledges and tragically died with his team on the return journey; also know about Ernest Shackleton's 1914 Endurance expedition where the ship was trapped and crushed by ice, and Shackleton's extraordinary boat journey to South Georgia to rescue his crew

  • Describe the Scott vs Amundsen race: Amundsen arrived 14 December 1911 using dog sleds; Scott arrived 34 days later and died on the return
  • Explain at least two reasons Amundsen succeeded: better planning, dog sleds, polar experience, and lighter supplies
  • Narrate the key events of the Endurance expedition: ship crushed, camps on ice, boat journey to South Georgia, all crew rescued

• Antarctic Treaty & Research

  Know that Antarctica is governed by the Antarctic Treaty (signed 1959, in force since 1961) — which sets Antarctica aside for peaceful purposes and scientific research, bans military activity and mining, and is signed by over 50 countries; understand that international research stations study climate, astronomy, biology, and geology, and that Antarctica is the closest thing on Earth to a continent for science rather than politics

  • State that the Antarctic Treaty (1959) sets Antarctica aside for peace and science, banning military activity and mining
  • Know that over 50 countries have signed the treaty and that many operate research stations
  • Name at least two areas of scientific research conducted in Antarctica: climate, astronomy, biology, or geology

• Ice & States of Matter

  Understand ice in different forms and states of matter — sea ice forms when ocean water freezes (it's salty and relatively thin), glacial ice forms from compacted snow over centuries (fresh water, very thick), and icebergs break off from glaciers and float in the sea; know that water exists as solid (ice), liquid (water), and gas (water vapour), and that salt lowers the freezing point of water

  • Distinguish between sea ice (frozen ocean, salty, thin) and glacial ice (compacted snow, fresh water, thick)
  • Explain that icebergs break off from glaciers and float because ice is less dense than liquid water
  • Describe the three states of water (solid, liquid, gas) and explain that salt lowers the freezing point

• The Arctic Tundra

  Know what the Arctic tundra is — a vast, treeless landscape with permafrost (permanently frozen ground) just below the surface, a very short growing season in summer when mosses, lichens, and tough grasses burst into life, and home to caribou/reindeer, musk oxen, lemmings, and snowy owls

  • Describe the tundra as a treeless landscape with permafrost (permanently frozen ground) beneath the surface
  • Explain that the tundra has a very short summer growing season when mosses, lichens, and grasses grow quickly
  • Name at least three tundra animals: caribou/reindeer, musk oxen, lemmings, or snowy owls

• Polar Ecosystems Compared

  Compare Arctic and Antarctic ecosystems — the Arctic has both terrestrial (tundra) and marine ecosystems supporting large land mammals and indigenous human communities, while the Antarctic is almost entirely marine-based with virtually no land plants or mammals; both regions have short, intense food chains anchored by phytoplankton and krill, and both are disproportionately affected by climate change and human activity

  • Compare Arctic (terrestrial + marine, land mammals, human communities) with Antarctic (almost entirely marine, no land mammals)
  • Explain that both polar food chains depend on phytoplankton and krill at the base
  • Describe why polar ecosystems are particularly vulnerable to climate change (short food chains, specialised organisms)

• Polar Exploration Then & Now

  Compare historical polar exploration with modern polar science — the Heroic Age (1897–1922) relied on ships, dogs, and human endurance with many fatalities, while today's polar scientists use GPS, satellites, icebreaker ships, heated research stations, and aircraft; understand that modern challenges include studying climate change data, and that polar science now includes diverse international teams including women scientists like glaciologist Liz Thomas and marine biologist Sylvia Earle

  • Compare Heroic Age exploration (dog sleds, man-hauling, many deaths) with modern science (GPS, satellites, icebreakers, heated stations)
  • Name at least two technologies that make modern polar science possible
  • Name a modern polar scientist and explain that today's polar teams are diverse and international

• Inuit & Sami Peoples

  Know that indigenous peoples have lived in the Arctic for thousands of years — the Inuit across Canada, Alaska, and Greenland, and the Sami in northern Scandinavia — developing remarkable knowledge of the environment, using dog sleds and kayaks for transport, wearing animal-skin clothing for warmth, and building igloos as temporary shelters, with a deep respect for the animals and land they depend on

  • Name the Inuit (Canada, Alaska, Greenland) and Sami (northern Scandinavia) as Arctic indigenous peoples
  • Describe at least three aspects of traditional Arctic life: dog sleds, kayaks, animal-skin clothing, igloos, or hunting practices
  • Explain that indigenous Arctic peoples have deep knowledge of their environment developed over thousands of years

• Cold-Weather Adaptations

  Understand how polar animals are adapted to survive extreme cold — blubber (thick fat layer) insulates seals and whales, hollow fur traps air for warmth in polar bears, counter-current heat exchange in penguin flippers prevents heat loss, Arctic foxes grow thick white winter coats for camouflage and warmth, and some animals migrate to avoid the harshest months

  • Describe at least three cold-weather adaptations: blubber, hollow fur, counter-current heat exchange, white winter coats, or migration
  • Explain the purpose of each adaptation (e.g. blubber insulates against cold water, white fur provides camouflage in snow)
  • Use the word adaptation correctly to mean a feature that helps an animal survive in its environment

• Glaciers & Ice Sheets

  Understand how glaciers and ice sheets form and behave — snow accumulates over centuries and compresses into dense ice, glaciers flow slowly downhill under their own weight carving U-shaped valleys and depositing moraines; the Greenland and Antarctic ice sheets together hold enough ice to raise sea levels by over 65 metres; and ice cores drilled from these sheets contain trapped air bubbles that reveal Earth's climate history going back 800,000 years

  • Describe how glaciers form: snow accumulates, compresses, and becomes dense ice that flows slowly under its own weight
  • Explain that the Greenland and Antarctic ice sheets hold enough water to raise sea levels dramatically if melted
  • Describe how ice cores reveal climate history through trapped air bubbles from hundreds of thousands of years ago

• Why Polar Seasons Are Extreme

  Understand why the poles have extreme seasons — Earth's axis is tilted at about 23.5°, so as it orbits the Sun, each pole spends half the year tilted toward the Sun (continuous daylight, warmer summer) and half tilted away (continuous darkness, bitter winter); this tilt also drives the annual cycle of sea ice expanding in winter and retreating in summer, and triggers animal behaviours like migration and breeding

  • Explain that Earth's axis is tilted at about 23.5° and this tilt causes the extreme polar seasons
  • Describe how the tilt means each pole faces toward the Sun for half the year (summer/daylight) and away for the other half (winter/darkness)
  • Connect the seasonal cycle to at least one animal behaviour, such as migration or sea ice retreat affecting hunting

Scientific Inquiry

Your child is developing advanced scientific investigation skills — planning fair tests, taking precise measurements, recording complex data, and evaluating evidence to draw reliable conclusions.

• Evidence Supporting Ideas

  Identify scientific evidence that has been used to support or refute ideas or arguments, evaluating the strength of evidence

  • Distinguish between a claim and the evidence supporting it
  • Evaluate whether evidence is strong (fair test, multiple trials) or weak (single observation, no controls)
  • Identify when evidence supports or refutes a scientific idea and explain why

• Drawing conclusions from evidence (age 9+)

  Report and present findings including conclusions, causal relationships, explanations, and a degree of trust in results using oral and written forms

  • Present findings clearly in written and oral form with appropriate scientific vocabulary
  • Identify causal relationships (X caused Y because...) supported by evidence
  • Discuss the degree of trust in results, considering sample size, repeat readings, and possible errors

• Controlling variables

  Plan different types of scientific enquiries to answer questions, recognising and controlling variables where necessary

  • Independently plan an investigation identifying the independent, dependent, and controlled variables
  • Choose the appropriate type of enquiry for the question (fair test, observation over time, pattern seeking, research)
  • Explain why controlling variables is essential for valid results

• Fair testing (age 9+)

  Use test results to make predictions and set up further comparative and fair tests to investigate new questions

  • Use results from an investigation to make a specific, testable prediction
  • Design a follow-up test to verify the prediction
  • Explain the reasoning linking the original results to the new prediction

• Using evidence to answer questions

  Identify differences, similarities, or changes related to scientific ideas and use straightforward scientific evidence to answer questions or support findings

  • Identify at least one pattern (similarity, difference, or trend) in a set of scientific data
  • Explain how the pattern relates to the scientific idea being investigated
  • Use specific data points as evidence when answering a scientific question

• Drawing conclusions from evidence

  Report on findings from enquiries using oral and written explanations, draw simple conclusions, make predictions, and suggest improvements

  • Write or present a clear report of findings from an investigation
  • Draw a conclusion that answers the original question, supported by data
  • Make a prediction for a new situation based on the results, and suggest improvements to the method

• Could there be another explanation?

  For any result, ask: is there another explanation? — the first explanation that fits isn't always the right one, and good scientists actively look for alternatives

  • prompts to consider alternative possible worlds research (6-7 year olds)
  • scientific thinking promotes critical thinking (MDPI 2025)

• Classifying living things

  Gather, record, classify, and present data in a variety of ways including tables, bar charts, labelled diagrams, and keys

  • Organise data into a clear table with appropriate headings
  • Create a bar chart or pictogram from collected data
  • Use labelled diagrams and classification keys to present findings

• Science Can Be Revised

  Scientific knowledge is provisional — it is the best current explanation based on available evidence, and it can and should be revised when better evidence arrives

  • Give an example of a scientific idea that changed when new evidence was found — e.g. people once thought the Sun orbited the Earth
  • Explain that scientists update their ideas when experiments give unexpected results, and that this is a strength not a weakness
  • Describe why it is important to keep testing ideas rather than just accepting them because an expert said so

• Correlation vs Causation

  Two things happening together doesn't mean one caused the other — recognise the difference between correlation and causation before drawing conclusions

  • developmental changes in children's recognition of evidence relevance to causal explanations
  • causal learning research

• Measuring accurately

  Make systematic and careful observations, take accurate measurements using standard units and equipment including thermometers and data loggers

  • Use at least three types of measuring equipment correctly (ruler, thermometer, measuring jug, scales)
  • Read measurements in standard units (cm, ml, °C, g) with reasonable accuracy
  • Make systematic observations by following a planned method consistently

• Classifying living things (age 9+)

  Record data and results of increasing complexity using scientific diagrams, classification keys, tables, scatter graphs, bar and line graphs

  • Choose and create an appropriate graph type for the data (bar chart, line graph, scatter graph)
  • Draw graphs with correctly labelled axes, appropriate scales, and accurate plotting
  • Use classification keys and scientific diagrams to present complex findings

• Fair testing

  Set up simple practical enquiries, comparative tests, and fair tests, understanding the importance of changing only one variable at a time

  • Explain what makes a test 'fair' (only one variable changes, everything else stays the same)
  • Identify the variable to change, the variable to measure, and the variables to keep the same
  • Set up and carry out a comparative or fair test with support

• Comparing Possible Solutions

  Generate and compare multiple possible solutions to a problem based on how well each is likely to meet the criteria and constraints

  • Generate at least three possible solutions to a defined design problem
  • Compare solutions against the specified criteria and constraints
  • Select the most promising solution with reasoning for the choice

• Fair testing (age 8+)

  Plan and carry out fair tests in which variables are controlled and failure points are considered to identify aspects of a model or prototype that can be improved

  • Plan a fair test of a prototype with clearly identified variables to control
  • Carry out the test and identify failure points or weaknesses in the design
  • Propose specific improvements based on test results and retest

• Simple Design Problems

  Define a simple design problem reflecting a need or want that includes specified criteria for success and constraints on materials, time, or cost

  • Define a design problem by describing the need or want it addresses
  • Specify at least two criteria for a successful solution (e.g. must hold X weight, must cost less than Y)
  • Identify constraints such as available materials, time limits, or cost

• Accurate Measurement

  Take measurements with increasing accuracy and precision using a range of scientific equipment, taking repeat readings when appropriate

  • Use scientific equipment (scales, thermometers, measuring cylinders, stopwatches) with increasing precision
  • Explain why repeat readings improve reliability and take at least three readings
  • Identify and deal with anomalous results (measurements that don't fit the pattern)

Volcanoes & Earthquakes

Your child is exploring how Earth's powerful forces work — understanding what causes volcanoes and earthquakes, how scientists monitor them, and how communities prepare for these natural events.

• Earthquake-Resistant Design

  Know that buildings can be designed to resist earthquakes, tsunami warning systems alert coastal communities, and communities prepare through evacuation plans and drills

  • Describe at least one feature that makes buildings more earthquake-resistant
  • Explain how tsunami warning systems detect danger and alert communities
  • Describe how communities prepare for earthquakes and eruptions through drills and evacuation plans

• Plate Boundaries

  Explain how plate boundaries cause earthquakes and volcanoes: plates pushing together, pulling apart, or sliding past each other create the forces that trigger these events, and mountains form where plates collide

  • Describe three types of plate boundary movement: convergent, divergent, and transform
  • Explain that earthquakes occur when plates grind or collide at boundaries
  • Explain that volcanoes form where plates pull apart or one slides under another, allowing magma to rise

• Tectonic Plates

  Understand that Earth's crust is broken into large pieces called tectonic plates that float on hotter, softer rock beneath and move very slowly — a few centimetres per year

  • Describe Earth's crust as broken into large plates
  • Explain that the plates float on hotter, partially melted rock underneath
  • State that plates move very slowly, typically a few centimetres per year

• Famous Eruptions & Pangaea

  Know about famous eruptions and their global effects: Mount St Helens (1980), Eyjafjallajökull (2010), and how large eruptions can affect weather and climate worldwide; understand that continents were once joined (Pangaea) and have slowly drifted apart

  • Describe at least one famous volcanic eruption and its key effects
  • Explain how volcanic ash and gases in the atmosphere can cool global temperatures
  • State that continents were once joined in a supercontinent and have slowly moved apart over millions of years

• Eruption Types & Volcano Shape

  Understand that not all volcanic eruptions are the same: some flow gently (effusive) and some explode violently (explosive), depending on the properties of the magma, and that volcano shape is related to eruption type

  • Contrast effusive eruptions (gentle lava flows) with explosive eruptions (violent blasts of ash and rock)
  • Explain that eruption type depends on properties of the magma such as thickness and gas content
  • Connect volcano shape to eruption style: shield volcanoes from runny lava, steep cones from thick explosive magma

• Natural Disaster Solutions

  Generate and compare multiple solutions to reduce the impacts of natural Earth processes on humans, such as earthquakes, floods, or volcanic eruptions

  • Identify at least two natural hazards and their impacts on human life and property
  • Generate multiple solutions for reducing impacts (e.g. earthquake-resistant buildings, flood barriers, early warning systems)
  • Compare solutions based on criteria like effectiveness, cost, and feasibility

• Monitoring Volcanoes

  Understand how volcanologists monitor volcanoes by looking for warning signs — gas emissions, ground swelling, small earthquakes — and that prediction involves evidence and uncertainty, not certainty

  • Name at least two warning signs scientists look for before an eruption
  • Explain that volcanologists combine multiple types of evidence to assess risk
  • Discuss why volcanic prediction involves uncertainty and cannot guarantee exact timing

• Ring of Fire

  Recognise that volcanoes and earthquakes tend to happen in certain places — especially around the edges of the Pacific Ocean (Ring of Fire) — not randomly across the Earth

  • Describe the pattern that volcanoes and earthquakes cluster in certain zones
  • Locate the Ring of Fire on a world map
  • Explain that the locations of earthquakes and volcanoes are not random

• Earth's Layers

  Know that Earth has layers — a thin outer crust, a thick hot mantle, and a core at the centre — and that the inside of the Earth is extremely hot

  • Name Earth's three main layers: crust, mantle, and core
  • Explain that the crust is thin compared to the other layers
  • State that Earth's interior is extremely hot — hot enough to melt rock

• Why Earthquakes Happen

  Understand that earthquakes happen when rocks underground suddenly move or break, releasing energy that shakes the ground

  • Explain that earthquakes are caused by rocks underground suddenly moving
  • Describe how this movement sends shaking through the surrounding ground
  • Distinguish between the underground cause and the surface effects of an earthquake

• Measuring Earthquake Strength

  Know that scientists measure earthquakes using seismometers, that earthquakes release energy that travels as waves through the ground, and that a magnitude scale describes their strength

  • Explain that a seismometer is an instrument that detects and records ground shaking
  • Describe earthquake energy as waves that travel outward from where rocks broke
  • Interpret a magnitude number as a measure of an earthquake's strength

• The Rock Cycle

  Understand the rock cycle: rocks slowly change from one type to another over millions of years — igneous rock weathers into sediment, sediment becomes sedimentary rock, heat and pressure create metamorphic rock, and melting starts the cycle again

  • Describe the rock cycle as a continuous process with no beginning or end
  • Trace at least one complete path through the cycle from igneous to sedimentary to metamorphic and back
  • Explain that the rock cycle operates over millions of years through weathering, pressure, heat, and melting

• Types of Rock

  Know the three main types of rock — igneous (formed when lava or magma cools), sedimentary (formed from layers pressed together), and metamorphic — and that fossils are found in sedimentary rock

  • Name the three main rock types: igneous, sedimentary, metamorphic
  • Explain that igneous rock forms when lava or magma cools and hardens
  • State that fossils are preserved in sedimentary rock because it forms in layers

• Inside a Volcano

  Understand the inside of a volcano: magma is hot melted rock underground, lava is the same material after it reaches the surface, and volcanoes have a magma chamber, vent, and crater

  • Explain that magma is melted rock underground and lava is the same material above ground
  • Label a magma chamber, vent, and crater on a volcano cross-section
  • Describe the path magma takes from underground to the surface during an eruption

• Active, Dormant & Extinct

  Classify volcanoes as active (could erupt any time), dormant (sleeping but could wake up), or extinct (will not erupt again)

  • Define active, dormant, and extinct volcanoes
  • Explain that a dormant volcano is not safe just because it has not erupted recently
  • Classify a given volcano based on its eruption history

• Pompeii & Vesuvius

  Know the story of Pompeii: a Roman city buried by the eruption of Mount Vesuvius in 79 AD, preserved under volcanic ash, and rediscovered by archaeologists centuries later

  • Retell the key events: Vesuvius erupted, Pompeii was buried under ash
  • Explain that the ash preserved the city, its buildings, and even people's shapes
  • Describe how archaeologists uncovered the city and what we can learn from it

• Tsunamis

  Know what a tsunami is: a very large, fast ocean wave caused by an earthquake or volcanic eruption under the sea, which can cause great damage when it reaches land

  • Explain that a tsunami is caused by an earthquake or eruption under the sea
  • State that tsunamis travel very fast across the ocean
  • Describe the damage a tsunami can cause when it reaches the coast

Weather & Climate

Your child is exploring how the Sun drives weather patterns and creates different climate zones around Earth, learning about extreme weather events, climate change, and how people design solutions to protect communities from weather hazards.

• Climate Change Basics

  Understand the basics of climate change: Earth’s atmosphere traps some of the Sun's heat (the greenhouse effect), burning fossil fuels adds extra greenhouse gases (especially CO₂), this is making Earth gradually warmer, and this warming changes weather patterns, melts ice, and raises sea levels

  • Describe the greenhouse effect: the atmosphere traps heat from the Sun
  • Explain that burning fossil fuels increases CO₂ in the atmosphere
  • Name at least two consequences of global warming: changing weather patterns, melting ice, rising seas

• Geography & Local Weather

  Know that different places around the world have very different typical weather — tropical places are hot and wet all year, deserts are very dry, polar regions are freezing cold — and that geography (distance from the equator, altitude, nearness to the sea) affects local weather

  • Describe typical weather in at least three different climate types
  • Explain that places near the equator tend to be hotter
  • Name at least one factor that affects a place's weather besides latitude

• The Water Cycle

  Understand the water cycle: the Sun heats water in oceans and lakes causing it to evaporate into water vapour, the vapour rises and cools to form clouds (condensation), and water falls back to Earth as rain, snow, or hail (precipitation) — then the cycle repeats

  • Name the three main stages: evaporation, condensation, precipitation
  • Explain the Sun's role in driving the water cycle
  • Describe the water cycle as a continuous loop with no beginning or end

• Weather vs Climate

  Distinguish between weather and climate: weather is what the atmosphere is doing right now or today (it can change hour to hour), while climate is the typical pattern of weather in a place over many years

  • Define weather as short-term atmospheric conditions
  • Define climate as the long-term pattern of weather in a place
  • Give an example showing the difference: a cold day doesn't change the overall climate

• Cloud Types

  Identify the three main cloud types — cumulus (fluffy, fair weather), stratus (flat layers, overcast or drizzle), and cirrus (thin wisps, high up) — and understand that clouds form when water vapour in the air cools and condenses into tiny droplets

  • Name and describe the three main cloud types: cumulus, stratus, cirrus
  • Explain that clouds form when water vapour cools and condenses
  • Use cloud type to make a simple prediction about the weather

• Natural resources

  Obtain and combine information to describe that energy and fuels are derived from natural resources and that their uses affect the environment

  • Name natural resources used for energy and fuels (coal, oil, gas, wind, sun, water)
  • Describe how extracting and using these resources affects the environment (pollution, habitat loss, climate change)
  • Distinguish between renewable (wind, solar) and non-renewable (fossil fuels) energy sources

• Sun-Driven Weather Systems

  Understand how the Sun drives weather: the Sun heats Earth's surface unevenly (land heats faster than water, equator gets more heat than poles), creating differences in air pressure that cause wind patterns, ocean currents, and large-scale weather systems

  • Explain that the Sun heats land and water at different rates
  • Describe how temperature differences create air pressure differences that drive wind
  • Connect uneven heating to large-scale weather patterns

• Climate Zones

  Understand that Earth has distinct climate zones — tropical (hot and wet near the equator), temperate (moderate, with four seasons), polar (freezing cold), arid/desert (very dry), and mountain (cold at high altitude) — and that each zone supports different ecosystems and ways of life

  • Name and describe at least four climate zones
  • Explain what determines which zone a place belongs to (mainly latitude and geography)
  • Give an example of how a climate zone affects the plants, animals, or people living there

• What Causes Wind

  Understand what causes wind: the Sun heats the Earth's surface unevenly, warm air rises because it is lighter, and cooler air rushes in to take its place — this movement of air is wind

  • Explain that the Sun heats Earth's surface unevenly
  • State that warm air rises and cooler air moves in to replace it
  • Define this air movement as wind

• Weather-Resistant Engineering

  Understand that engineers design buildings, flood defences, and warning systems to protect communities from extreme weather — hurricane-resistant roofs, flood barriers, tornado shelters, and early-warning alert systems — and evaluate the merits of these solutions

  • Describe at least two engineering solutions designed to protect against extreme weather
  • Explain how a specific design feature reduces damage from a weather hazard
  • Evaluate the advantages and limitations of a weather protection solution

• Designing for Weather Hazards

  Make a claim about the merit of a design solution that reduces the impacts of a weather-related hazard such as flooding, wind damage, or extreme temperatures

  • Identify a specific weather-related hazard and its impacts on people
  • Describe at least two design solutions intended to reduce those impacts
  • Make a claim supported by evidence about which solution is most effective and why

• Reading Weather Maps

  Read and interpret weather maps, data tables, and graphs — identifying symbols for sun, rain, wind, and temperature; spotting trends and patterns in weather data over weeks, months, or seasons; and using data to make simple predictions

  • Interpret common weather map symbols for temperature, precipitation, and wind
  • Read a data table or graph of weather data and identify patterns
  • Use weather data to make a simple prediction about upcoming conditions

• The Atmosphere

  Know that Earth is surrounded by a layer of air called the atmosphere, that air has weight and exerts pressure, that the atmosphere protects us from harmful radiation and keeps the planet warm enough for life, and that weather happens in the lowest layer (troposphere)

  • Define the atmosphere as the layer of air surrounding Earth
  • State that air has weight and exerts pressure
  • Explain that weather occurs in the troposphere, the lowest layer of the atmosphere

• Extreme Weather Events

  Know about extreme weather events — hurricanes (spinning storms over warm ocean), tornadoes (violent rotating columns of air), floods, droughts, and blizzards — how they form, where they typically occur, and their effects on people and the environment

  • Describe how at least two types of extreme weather form
  • Explain where hurricanes and tornadoes typically occur and why
  • Describe the effects of extreme weather on communities and landscapes

• Weather Forecasting

  Know that meteorologists are scientists who study and forecast the weather using satellites, radar, weather balloons, and computer models, and that weather forecasts help people plan their activities and prepare for dangerous weather

  • Define a meteorologist as a scientist who studies and predicts weather
  • Name at least three tools meteorologists use
  • Explain why weather forecasting is useful for safety and daily planning

• Using Weather Instruments

  Use weather instruments to measure and record weather data: thermometers for temperature in °C, rain gauges for rainfall, wind vanes for direction, and anemometers for wind speed — and keep a weather diary over time

  • Name at least three weather instruments and explain what each measures
  • Read a thermometer and record the temperature in degrees Celsius
  • Record weather data in a table or diary over several days

• Thunder & Lightning

  Know that thunder and lightning happen during thunderstorms: lightning is a giant spark of electricity that forms in clouds, thunder is the sound the lightning makes, and we see lightning before hearing thunder because light travels faster than sound

  • Describe lightning as a large electrical discharge in clouds
  • Explain that thunder is the sound caused by lightning
  • State that we see lightning before hearing thunder because light travels faster than sound

Rainforests

• Rainforest Futures & Trade-Offs

  Understand that the future of rainforests depends on balancing competing needs — economic development for local communities, indigenous peoples' rights to their ancestral lands, global biodiversity conservation, and climate stability — and that there are no simple answers, requiring cooperation between governments, businesses, scientists, indigenous leaders, and consumers worldwide

  • Name at least three competing interests: economic development, indigenous rights, biodiversity, and climate stability
  • Explain why there is no single simple solution to rainforest protection
  • Suggest how different groups (governments, businesses, consumers, scientists) can each contribute to a better outcome

• Rainforests & Global Climate

  Understand the connection between rainforests and global climate — rainforests absorb carbon dioxide and release oxygen through photosynthesis, store enormous amounts of carbon in their biomass, and generate rainfall through transpiration; when forests are burned or cleared, stored carbon is released as CO₂, accelerating climate change and disrupting regional rainfall patterns

  • Explain that rainforests absorb CO₂ and store carbon in their trees, acting as a carbon sink
  • Describe how deforestation releases stored carbon back into the atmosphere, accelerating climate change
  • Explain that transpiration from rainforest trees generates rainfall, and losing trees disrupts rain patterns

• Deforestation Causes & Scale

  Understand the causes and scale of rainforest deforestation — cattle ranching (largest driver in the Amazon), soy and palm oil plantations, logging for timber, and mining — and know that approximately 10 million hectares of forest are lost globally each year, with devastating consequences for biodiversity, climate, and indigenous communities

  • Name at least three major causes of deforestation: cattle ranching, palm oil, soy, logging, and mining
  • State that approximately 10 million hectares of forest are lost globally each year
  • Explain the impact of deforestation on at least two of: biodiversity, climate, and indigenous peoples

• Rainforest Conservation

  Know the main approaches to rainforest conservation — protected areas and national parks, reforestation and rewilding programmes, sustainable certification schemes (Rainforest Alliance, FSC), recognition of indigenous land rights as the most effective form of forest protection, and international agreements like REDD+ that pay countries to keep forests standing

  • Name at least three conservation approaches: protected areas, reforestation, sustainable certification, and indigenous land rights
  • Explain why protecting indigenous territories is one of the most effective ways to prevent deforestation
  • Describe what certification labels like Rainforest Alliance or FSC mean and how they help

• Rainforest Products in Daily Life

  Understand how rainforest products connect to everyday life through global supply chains — palm oil is in snacks, soap, and cosmetics; soy feeds livestock worldwide; cocoa becomes chocolate; rubber is in tyres and gloves; timber becomes furniture; and many medicines originate from rainforest plants — and that consumer choices can drive either destruction or sustainable practices

  • Name at least four products linked to rainforests: palm oil, soy, cocoa, rubber, timber, and medicines
  • Explain how a product like palm oil travels from a rainforest region to a supermarket shelf
  • Describe how consumer choices (e.g. buying Rainforest Alliance certified products) can reduce deforestation pressure

• Temperate Rainforests

  Know that not all rainforests are tropical — temperate rainforests exist in cooler, wet regions like the Pacific Northwest of North America, western Scotland and Wales, southern Chile, and New Zealand — with similar features (high rainfall, moss-draped trees, dense canopy) but different species, including ancient oaks, giant redwoods, and tree ferns

  • Name at least two locations of temperate rainforests, such as the Pacific Northwest, western Scotland, or southern Chile
  • Compare temperate and tropical rainforests: both have high rainfall and dense canopy, but differ in temperature and species
  • Name species found in temperate rainforests, such as ancient oaks, giant redwoods, or tree ferns

• Rainforest Food Webs

  Understand how energy and nutrients flow through a rainforest food web — from plants (producers) to herbivores (primary consumers) to predators (secondary consumers) — and that decomposers like fungi and insects break down dead material on the forest floor, recycling nutrients back into the soil for plants to use again

  • Construct a simple rainforest food chain with at least three levels: producer → herbivore → predator
  • Explain the role of decomposers in breaking down dead material and returning nutrients to the soil
  • Use the terms producer, consumer, and decomposer correctly

• Classifying Rainforest Organisms

  Classify rainforest organisms into major groups — mammals (jaguars, monkeys, bats), birds (toucans, macaws, hummingbirds), reptiles (snakes, lizards, caimans), amphibians (tree frogs, poison dart frogs), insects (butterflies, ants, beetles), and plants (trees, epiphytes, ferns) — using observable features to sort them

  • Sort at least eight rainforest organisms into correct groups: mammals, birds, reptiles, amphibians, insects, or plants
  • State the key feature that defines each group (e.g. mammals have fur and feed milk to their young)
  • Explain why classification helps scientists understand and study the huge variety of life in rainforests

• Rainforest Water Cycle

  Understand how the water cycle works in a rainforest — trees absorb water through their roots and release it through their leaves (transpiration), this moisture forms clouds above the canopy, and the clouds produce rain that falls back into the forest — creating a self-sustaining cycle that generates much of the rainforest's own rainfall

  • Describe the sequence: trees absorb water → release it through leaves (transpiration) → moisture rises → clouds form → rain falls
  • Explain that rainforests generate much of their own rainfall through this cycle
  • Use the word transpiration correctly when describing how water leaves a plant through its leaves

• Rainforest Biodiversity

  Understand that rainforests are biodiversity hotspots — covering just 6% of Earth's land surface but containing over 50% of all known plant and animal species — and that this extraordinary richness makes them irreplaceable for global biodiversity and a priority for conservation

  • State that rainforests cover about 6% of Earth's land but hold over 50% of all species
  • Explain why this concentration of species makes rainforests a conservation priority
  • Give specific examples of rainforest biodiversity, such as one hectare containing more tree species than all of northern Europe

• Tropical Rainforest Climate

  Understand that rainforests have a tropical climate — consistently hot (25–30°C) with over 2000 mm of rainfall per year — and that this combination of heat and moisture creates ideal conditions for rapid plant growth and extraordinary biodiversity

  • State that tropical rainforests are hot (25–30°C) and wet (over 2000 mm rain per year) all year round
  • Explain that the constant heat and moisture create ideal growing conditions for plants
  • Compare tropical rainforest climate to the UK or local climate, noting key differences in temperature and rainfall

• The Amazon Rainforest

  Know that the Amazon is Earth's greatest rainforest — spanning nine countries across South America, containing the world's largest river by water volume, and home to an estimated 10% of all species on Earth including 40,000 plant species, 1,300 bird species, and 3,000 types of fish

  • Locate the Amazon rainforest on a map of South America and name at least two countries it spans
  • State that the Amazon contains the world's largest river by volume and is home to roughly 10% of all species on Earth
  • Give at least two specific numbers showing the Amazon's biodiversity, such as 40,000 plant species or 1,300 bird species

• Nutrient Cycling in Thin Soil

  Understand the paradox of nutrient cycling in rainforests — despite lush growth, rainforest soil is typically thin and nutrient-poor because most nutrients are locked in living organisms, not the soil; decomposition is rapid in the warm, wet conditions, and nutrients released from dead material are immediately absorbed by plant roots and fungi, creating a fast, closed-loop recycling system

  • Explain that rainforest soil is thin and nutrient-poor despite the lush growth above
  • Describe the rapid decomposition cycle: dead material → decomposers → nutrients released → immediately absorbed by roots
  • Explain why clearing rainforest for farming fails after a few years — once the trees are gone, the nutrients are lost

• Indigenous Ecological Knowledge

  Understand that indigenous peoples of the rainforest have developed deep ecological knowledge over thousands of years — using plants for medicine, food, and building materials, practising sustainable farming methods like shifting cultivation, and understanding animal behaviour and forest ecology in ways that modern science is only beginning to appreciate

  • Give at least two examples of indigenous knowledge, such as using specific plants as medicine or practising sustainable farming
  • Explain what shifting cultivation is and why it is less harmful to the forest than permanent clearing
  • Describe how indigenous knowledge and modern science can work together to protect rainforests

• Rainforest Plant Adaptations

  Know how rainforest plants are adapted to their environment — drip-tip leaves channel water off quickly to prevent rot, buttress roots spread wide to support tall trees in thin soil, epiphytes (like orchids and bromeliads) grow on tree branches to reach sunlight without needing soil, and lianas climb trunks to reach the canopy

  • Describe at least three plant adaptations: drip-tip leaves, buttress roots, and epiphytes
  • Explain the purpose of each adaptation (e.g. drip-tips shed water to prevent rot)
  • Use the word adaptation to mean a feature that helps an organism survive in its environment

• Rainforest Animal Survival Tricks

  Know how rainforest animals are adapted to their environment — camouflage helps leaf insects and tree frogs hide, bright warning colours (aposematism) signal that poison dart frogs are toxic, prehensile tails let monkeys grip branches, toucans' large beaks help reach distant fruit, and many animals are nocturnal to avoid daytime heat

  • Describe at least three animal adaptations such as camouflage, warning colours, and prehensile tails
  • Explain how each adaptation helps the animal survive (e.g. camouflage hides prey from predators)
  • Give a specific example for each adaptation, linking the animal to its rainforest layer

Space Exploration

Your child is discovering the wonders of space — learning about stars, planets, and galaxies, understanding how our ideas about the solar system have changed over time, and exploring humanity's journey into space.

• The Sun is a star

  Know that the Sun is a star — the closest star to Earth — and that it is at the centre of our solar system, with all eight planets orbiting around it

  • State that the Sun is a star, not a unique type of object
  • Explain that the Sun appears bigger and brighter than other stars because it is much closer
  • Describe the solar system as the Sun at the centre with planets orbiting around it

• Earth's Spin & Orbit

  Understand that Earth moves in two ways: it rotates (spins) on its axis once every 24 hours causing day and night, and it orbits (travels around) the Sun once every 365 days, which is one year

  • Demonstrate with a globe or ball that Earth's rotation causes day on the Sun-facing side and night on the opposite side
  • State that one full rotation takes about 24 hours (one day)
  • State that one full orbit around the Sun takes about 365 days (one year)

• Why the Sun Looks Brightest

  Explain why the Sun appears much brighter than other stars: it is the nearest star to Earth, not the biggest or brightest star in the universe — understanding the difference between apparent brightness (how bright something looks) and actual brightness

  • State that the Sun is a medium-sized star that appears brightest because it is the closest star to Earth
  • Explain the difference between apparent brightness (how bright it looks) and actual brightness (how much light it gives off)
  • Give an example: a torch held close looks brighter than a distant floodlight, even though the floodlight is more powerful

• The Eight Planets

  Name the eight planets in order from the Sun (Mercury, Venus, Earth, Mars, Jupiter, Saturn, Uranus, Neptune), know that Pluto is a dwarf planet, and distinguish rocky inner planets from gas giant outer planets

  • List all eight planets in order from the Sun
  • State that Pluto was reclassified as a dwarf planet in 2006
  • Explain that the four inner planets are small and rocky while the four outer planets are large gas giants

• Gravity Pulls Things Down

  Understand gravity as a force that pulls objects towards the centre of the Earth, that 'down' means towards Earth’s centre regardless of where you stand on the sphere, and that gravity keeps the Moon orbiting Earth and planets orbiting the Sun

  • Define gravity as a pulling force that attracts objects towards the centre of the Earth
  • Explain that 'down' points towards Earth's centre, so people on opposite sides of the globe both feel pulled 'down'
  • State that gravity keeps the Moon orbiting Earth and planets orbiting the Sun

• Space Robots & Rovers

  Describe how robots and rovers have explored places humans cannot easily go — Mars rovers like Curiosity and Perseverance drive across Mars taking photos, collecting rock samples, and searching for signs of past water

  • Name at least one Mars rover (Curiosity or Perseverance) and state it drives on Mars's surface
  • Explain that rovers take photos, analyse rocks, and look for evidence of water
  • State why we send robots instead of people: Mars is very far away and has no breathable air

• Space Exploration Milestones

  Describe key milestones in human space exploration: the Space Race (Sputnik, Yuri Gagarin, Apollo 11 Moon landing), the Space Shuttle era, the International Space Station, and current missions (Artemis programme, Mars exploration plans, commercial spaceflight)

  • Name Sputnik as the first satellite (1957) and Yuri Gagarin as the first person in space (1961)
  • Describe the Apollo 11 Moon landing (1969) with Neil Armstrong and Buzz Aldrin
  • Name at least one current space programme (Artemis, SpaceX, ISS) and describe its goal

• Planet Features

  Describe a key feature of each planet: Mercury is smallest and closest, Venus is the hottest, Mars is red with rust, Jupiter is the largest with a Great Red Spot, Saturn has rings, Uranus tilts on its side, Neptune is the farthest and very cold

  • State one distinctive feature for at least six of the eight planets
  • Compare at least two planets (e.g. Jupiter is much bigger than Earth, Venus is hotter than Mercury)
  • Explain why Mars appears red (iron oxide/rust in its rocks)

• The Moon's Orbit

  Know that the Moon orbits Earth approximately once a month, that it does not make its own light but reflects sunlight, and that its changing appearance (phases) is caused by how much of the sunlit side we can see from Earth

  • State that the Moon orbits Earth roughly once every 28-30 days
  • Explain that the Moon reflects sunlight rather than producing its own light
  • Describe how Moon phases happen: we see different amounts of the lit-up side as the Moon orbits Earth

• Seasonal Constellations

  Recognise named constellations visible in different seasons and understand why we see different constellations at different times of year — because Earth’s orbit around the Sun changes which part of the sky we face at night

  • Name at least three constellations (e.g. Orion, Ursa Major/Big Dipper, Leo, Cassiopeia)
  • State that different constellations are visible in different seasons
  • Explain that this happens because Earth's orbit means we face different directions in space at different times of year

• Changing Ideas About Space

  Understand that ideas about the solar system changed over time: ancient people believed Earth was at the centre (geocentric model, Ptolemy), until Copernicus proposed the Sun was at the centre (heliocentric model), later confirmed by Galileo’s telescope observations

  • Describe the geocentric model (Earth at the centre) and name Ptolemy as its main proponent
  • Describe the heliocentric model (Sun at the centre) and name Copernicus as the person who proposed it
  • Explain that Galileo used a telescope to find evidence supporting the heliocentric model (e.g. moons orbiting Jupiter)

• The Vast Scale of Space

  Describe the scale of the universe in nested layers: Earth is one planet in our solar system, the Sun is one star among billions in the Milky Way galaxy, and the Milky Way is one galaxy among billions in the universe

  • State that the Milky Way is our galaxy and it contains billions of stars
  • Explain the hierarchy: planet → solar system → galaxy → universe
  • Use a comparison to convey cosmic scale (e.g. if the Sun were a football, Earth would be a peppercorn 26 metres away)

• Life Cycle of Stars

  Understand the basics of a star’s life cycle: stars are born in clouds of gas and dust (nebulae), shine for millions or billions of years by fusing hydrogen, and eventually die — massive stars explode as supernovae while smaller stars fade into white dwarfs

  • Describe that stars form from clouds of gas and dust called nebulae
  • State that stars produce energy by fusing hydrogen into helium in their cores
  • Explain that massive stars end in a supernova explosion while smaller stars shrink to become white dwarfs

• Scale of the Solar System

  Use scale models, diagrams, or calculations to represent the relative sizes and distances of objects in the solar system, understanding that the distances between planets are enormously larger than the planets themselves

  • Explain that if the Sun were the size of a beach ball, Earth would be a pea about 26 metres away
  • State that the distances between planets are much greater than the sizes of the planets themselves
  • Create or interpret a scale model showing both relative sizes and distances

• Asteroids, Comets & Dwarf Planets

  Identify other objects in the solar system beyond planets: asteroids (rocky bodies mostly between Mars and Jupiter), comets (icy bodies with tails when near the Sun), and meteoroids/meteors/meteorites (space rocks that enter Earth’s atmosphere)

  • Describe asteroids as rocky bodies mostly found in the belt between Mars and Jupiter
  • Describe comets as icy bodies that develop a glowing tail when they approach the Sun
  • Explain the difference between a meteoroid (in space), meteor (streak of light in atmosphere), and meteorite (lands on Earth)

• How Telescopes Work

  Know that telescopes are instruments that help us see distant objects in space, and that space telescopes like Hubble and James Webb orbit above Earth’s atmosphere to get clearer views of the universe

  • Explain that a telescope magnifies distant objects so we can see them in more detail
  • State that Earth's atmosphere blurs the view, so space telescopes get clearer pictures
  • Name at least one space telescope (Hubble or James Webb) and describe what it does

Animals of the World

Your child is discovering how animals have evolved amazing adaptations to survive in their environments, exploring complex animal behaviors and intelligence, and learning about conservation efforts to protect endangered species and biodiversity.

• Biodiversity

  Understand that biodiversity — the variety of different species in an ecosystem — is essential for healthy ecosystems, and that keystone species (like wolves in Yellowstone, sea otters in kelp forests, or bees as pollinators) have an outsized impact on their ecosystem, so that losing one key species can cause a cascade of changes affecting many others

  • Defines biodiversity as the variety of species in an ecosystem
  • Explains why biodiversity matters (stability, resilience, ecosystem services)
  • Defines keystone species and gives at least 2 examples

• Protecting Endangered Animals

  Know how people work to protect endangered animals — through national parks and marine reserves, captive breeding programmes (like those that saved the California condor and Arabian oryx), anti-poaching patrols, wildlife corridors connecting habitats, and laws banning trade in endangered species — and understand that children can contribute through habitat-friendly choices

  • Describes at least 3 conservation strategies with specific examples
  • Names an animal saved from near-extinction by conservation efforts
  • Suggests at least one action children or families can take to help wildlife

• Endangered & Extinct Species

  Understand why some animal species become endangered or go extinct — habitat destruction, hunting/poaching, pollution, climate change, and invasive species — and know examples like the giant panda, mountain gorilla, Amur leopard, and the now-extinct dodo and thylacine, using the IUCN Red List as the system scientists use to track threatened species

  • Defines endangered as a species at risk of extinction
  • Names at least 3 causes of species becoming endangered
  • Gives at least 3 examples of endangered or extinct animals

• Invasive Species

  Understand that invasive species are animals (or plants) that have been introduced to a place where they don't naturally belong — like grey squirrels outcompeting red squirrels in the UK, cane toads poisoning native predators in Australia, or rabbits devastating ecosystems in Australia — and that they can cause serious harm to native wildlife by competing for food, spreading disease, or having no natural predators

  • Defines invasive species as non-native animals introduced to a new environment
  • Names at least 2 examples of invasive species and their impacts
  • Explains at least 2 reasons invasive species are harmful (no predators, outcompete natives, spread disease)

• Structural Adaptations

  Understand that animals have structural adaptations (body features like the giraffe's long neck, eagle's talons, dolphin's streamlined shape), behavioural adaptations (migration, hibernation, tool use), and physiological adaptations (antifreeze in Arctic fish blood, echolocation in bats) — and that these developed over many generations through natural selection

  • Defines adaptation as a feature or behaviour that helps an animal survive in its environment
  • Gives examples of structural, behavioural, and physiological adaptations
  • Explains that adaptations develop over many generations, not during one animal's lifetime

• Symbiosis

  Understand symbiosis — close relationships between different species — including mutualism (both benefit, like clownfish and anemones), commensalism (one benefits without harming the other, like remora fish riding sharks), and parasitism (one benefits at the other's expense, like ticks on deer) — and recognise these relationships in nature

  • Defines symbiosis as a close relationship between different species
  • Distinguishes mutualism, commensalism, and parasitism with an example of each
  • Identifies symbiotic relationships when presented with new scenarios

• Polar Animals

  Explore animals of the Arctic and Antarctic — polar bears, Arctic foxes, and walruses in the north; penguins, seals, and albatrosses in the south — and understand how polar animals survive extreme cold through thick fur or blubber, huddling behaviour, and seasonal changes like white winter coats

  • Names at least 3 animals each from the Arctic and Antarctic
  • Explains at least two adaptations for surviving cold (blubber, thick fur, huddling, white camouflage)
  • Knows polar bears live only in the Arctic and penguins only in the Antarctic/Southern Hemisphere

• Animal Migration

  Know that many animals make incredible journeys called migrations — Arctic terns fly from pole to pole, monarch butterflies travel thousands of miles across North America, wildebeest cross the Serengeti following rain, and humpback whales swim between polar feeding grounds and tropical breeding waters — and that these journeys are linked to food, breeding, and seasons

  • Defines migration as a regular long journey animals make
  • Names at least 3 migratory animals with their routes or destinations
  • Explains that migration is driven by food availability, breeding, or seasonal changes

• Predator Hunting Strategies

  Understand that predators have evolved hunting strategies — wolves hunt in packs, chameleons use their long tongues, spiders build webs, crocodiles ambush at water's edge — and prey animals have evolved defences — porcupine spines, skunk spray, poison dart frog toxins, zebra stripes confusing predators, playing dead

  • Describes at least 3 predator hunting strategies with examples
  • Describes at least 3 prey defence mechanisms with examples
  • Understands the concept of an 'arms race' between predators and prey

• Savanna & Grassland Animals

  Explore animals of the grasslands and savanna — lions, zebras, wildebeest, elephants, cheetahs in African savanna; bison and prairie dogs in American grasslands — understanding why large herds form on open grasslands and how predators and prey interact in these wide-open spaces

  • Names at least 5 grassland/savanna animals
  • Explains that herding provides safety in numbers against predators
  • Describes the predator-prey relationship (e.g., lions hunt zebras)

• Desert Animals

  Explore animals of the desert — camels, fennec foxes, scorpions, rattlesnakes, meerkats — and understand how desert animals survive extreme heat and lack of water through being active at night, storing water or fat, burrowing underground during the day, and having large ears to lose heat

  • Names at least 4 desert animals
  • Explains at least two desert survival adaptations (nocturnal behaviour, water storage, burrowing, large ears for cooling)
  • Knows deserts can be hot or cold but are always dry

• The World of Minibeasts

  Know that insects and other minibeasts (spiders, worms, snails, centipedes) are the most numerous and diverse group of animals on Earth — there are more species of beetle than any other animal — and that they play vital roles as pollinators (bees, butterflies), decomposers (woodlice, worms), and food for other animals

  • Knows that insects/minibeasts are the most numerous animal group
  • Names at least 3 roles minibeasts play: pollinators, decomposers, food source
  • Distinguishes insects (6 legs) from spiders (8 legs) from other minibeasts

• Rainforest Animals

  Explore animals of the tropical rainforest — the most species-rich habitat on Earth — learning that the forest has layers (canopy, understory, forest floor) with different animals at each level: toucans and monkeys in the canopy, jaguars and frogs on the floor, and that rainforests are found near the equator

  • Names at least 4 rainforest animals from different layers
  • Describes the rainforest as having layers (canopy, understory, forest floor)
  • Explains that rainforests are near the equator and are hot and wet

• Animal Intelligence

  Explore animal intelligence and complex behaviour — chimpanzees and crows use tools, dolphins recognise themselves in mirrors, octopuses solve puzzles and escape enclosures, elephants mourn their dead, meerkats teach their young to handle scorpions — understanding that many animals think, learn, and have social lives more complex than once believed

  • Gives at least 4 examples of animal intelligence or complex behaviour
  • Explains what 'tool use' means and names at least 2 tool-using animals
  • Discusses how scientists test animal intelligence (mirror test, puzzle boxes, observation)

• Animal Communication

  Understand that animals communicate in many different ways — birds sing to attract mates and defend territory, whales call across vast ocean distances, bees dance to show other bees where food is, wolves howl to keep the pack together, and fireflies flash light signals — and that communication is essential for survival

  • Describes at least 4 different methods of animal communication (sound, dance, light, scent, body language)
  • Gives a specific animal example for each method
  • Explains that animals communicate to find mates, warn of danger, or share food locations

Insects & Minibeasts

• Insects in ecosystems

  Insects in ecosystems: the many roles insects play. Pollinators (bees, butterflies, hoverflies), decomposers (dung beetles, fly larvae), food source for birds, bats, fish, and frogs, and pest controllers (ladybirds eating aphids). The thought experiment: what would happen if all insects disappeared?

  • Name at least three different ecological roles that insects play such as pollinator, decomposer, and food source
  • Explain how the removal of one insect group like bees would affect plants, other animals, and humans
  • Describe a specific example of insects as pest controllers such as ladybirds controlling aphid populations

• The most successful animals on Earth

  The most successful animals on Earth: there are roughly one million described insect species, and scientists estimate 5–10 million may exist. More insect species than all other animal groups combined. Why so many? Small body size means less food needed, fast reproduction with many offspring, flight allows reaching new habitats, and the exoskeleton is incredibly versatile.

  • State that insects are the most species-rich group of animals with about one million known species
  • Give at least two reasons why insects are so successful such as small size, fast reproduction, or flight
  • Compare insect diversity to another animal group, explaining that there are far more insect species than mammals or birds

• Threats to insects and conservation

  Threats to insects and conservation: insect populations are declining worldwide. Causes include habitat loss, pesticide use, light pollution disrupting nocturnal insects, and climate change. Pollinator decline threatens food production. What children can do: plant pollinator-friendly gardens, reduce pesticide use, participate in citizen science like the Big Butterfly Count.

  • Name at least three threats to insect populations such as habitat loss, pesticides, and light pollution
  • Explain why declining bee populations are a problem for humans and the food we eat
  • Suggest at least two actions that children or families can take to help insects such as planting wildflowers or joining a butterfly count

• The insect body plan

  The insect body plan: all insects share three body parts (head, thorax, abdomen), six legs attached to the thorax, and antennae on the head. Most have wings. They have an exoskeleton — a hard outer shell — instead of bones inside.

  • Label the three body parts of an insect — head, thorax, and abdomen — on a diagram or real specimen
  • State that all insects have exactly six legs and that the legs attach to the thorax
  • Explain that insects have an exoskeleton, a hard outer covering, instead of bones inside their body

• Not all minibeasts are insects

  Not all minibeasts are insects: distinguishing insects from other minibeasts. Spiders have 8 legs and 2 body parts (arachnids), woodlice have 14 legs (crustaceans), worms have no legs, snails have a shell and one foot. The 'Is it an insect?' sorting game.

  • Sort a set of minibeasts into 'insect' and 'not insect' groups using the six-legs rule
  • Explain why a spider is not an insect by noting it has eight legs and two body parts
  • Name at least one difference between insects and another minibeast group such as worms having no legs or woodlice having fourteen

• Sorting and Identifying Minibeasts

  Using classification keys to identify minibeasts. Branching yes/no questions: 'Does it have legs?' → 'How many legs?' → 'Does it have wings?' Dichotomous keys as a systematic tool for sorting and identifying creatures.

  • Follow a simple branching key to correctly identify at least four different minibeasts
  • Create a yes/no question that separates insects from spiders, such as 'Does it have six legs?'
  • Explain why asking questions in a set order helps identify a creature you have never seen before

• Social insects: ants and bees

  Social insects: how ants and bees live and work together in colonies. Queens, workers, and drones. Division of labour — some gather food, some build, some guard. Ant tunnels and bee hives as organised homes. Parallels to human teamwork.

  • Describe at least two different roles within an ant colony or bee hive such as queen, worker, or guard
  • Explain that social insects live together in large groups and divide up the jobs needed to survive
  • Compare an ant colony or bee hive to a human team, describing how different members do different tasks

• Bees and pollination

  Bees and pollination: how flowers and insects depend on each other. Bees visit flowers for nectar, pollen sticks to their bodies and transfers to the next flower. Without pollination many plants cannot make seeds or fruit. Why bees matter for the food we eat.

  • Describe how pollen moves from one flower to another when a bee visits to collect nectar
  • Explain that many fruits and vegetables depend on bees or other insects for pollination
  • State what would happen to a garden or farm if there were no pollinating insects

• Insect Adaptations

  Adaptation and evolution in insects: peppered moths as a famous example of natural selection (dark moths survived better on soot-covered trees during the Industrial Revolution). Stick insects evolved to look like twigs. Ant-mimicking spiders evolved to fool predators. How small changes over many generations lead to remarkable disguises.

  • Retell the peppered moth story and explain how the environment changed which colour moth survived best
  • Describe how a stick insect's body shape is an adaptation that helps it avoid being eaten
  • Explain that adaptations develop over many generations through natural selection, not during one insect's lifetime

• Camouflage, warning colours, and mimicry

  Camouflage, warning colours, and mimicry: how insects survive by hiding or sending visual signals. Stick insects look like twigs, leaf insects look like leaves. Wasps have warning stripes; hoverflies mimic wasps but are harmless. The 'can you spot it?' challenge.

  • Give at least two examples of insect camouflage such as stick insects resembling twigs or leaf insects resembling leaves
  • Explain why bright warning colours like a wasp's yellow and black stripes help the insect survive
  • Describe mimicry by explaining that a harmless insect like a hoverfly copies a dangerous one like a wasp to trick predators

• Insect life cycles: complete metamorphosis

  Insect life cycles — complete metamorphosis in detail. Egg → larva → pupa → adult. The larva (caterpillar, grub, maggot) looks completely different from the adult. Inside the pupa the body is rebuilt. Butterflies, beetles, flies, and ladybirds all undergo complete metamorphosis.

  • Name the four stages of complete metamorphosis using the correct terms: egg, larva, pupa, adult
  • Explain that the larva stage is when the insect eats and grows, and the pupa stage is when its body transforms
  • Give at least two examples of insects that undergo complete metamorphosis such as butterflies and beetles

• Insect communication and behaviour

  Insect communication and behaviour: bees perform a waggle dance to tell hive-mates where flowers are. Ants lay pheromone trails for others to follow. Fireflies flash light patterns to find mates. Crickets chirp by rubbing their wings. Monarch butterflies migrate thousands of miles across continents. How insects 'talk' without words.

  • Describe at least three ways insects communicate such as the bee waggle dance, ant pheromone trails, and firefly light signals
  • Explain what information a bee conveys through its waggle dance, including direction and distance to flowers
  • Describe the monarch butterfly migration and explain why it is remarkable in terms of distance and navigation

• Types of Metamorphosis

  Complete vs incomplete metamorphosis. Complete: egg → larva → pupa → adult (butterflies, beetles, flies). Incomplete: egg → nymph → adult — the nymph looks like a small version of the adult and moults as it grows (grasshoppers, dragonflies, crickets). Why do some insects transform completely while others grow gradually?

  • Compare complete and incomplete metamorphosis by describing the stages of each on a diagram
  • Classify at least three insects into the correct metamorphosis type such as butterfly (complete) and grasshopper (incomplete)
  • Explain that nymphs resemble adults while larvae look completely different from their adult form

• Incredible insects: record-breakers

  Incredible insects — record-breakers and superpowers. Dung beetles are the strongest animals relative to body weight. Dragonflies are among the fastest flying insects. Fleas can jump over 150 times their own body length. Bombardier beetles spray boiling chemicals. The 'wow factor' of the insect world.

  • Name at least three insect record-breakers and their extreme abilities such as dung beetle strength or flea jumping
  • Compare an insect's ability to a human scale, for example a flea's jump would be like a person leaping over a skyscraper
  • Explain why being very small helps insects achieve extreme feats of strength or speed relative to their size

• Insect anatomy in depth

  Insect anatomy in depth: compound eyes made of thousands of tiny lenses, spiracles (breathing holes along the body), diverse mouthparts (chewing mandibles in beetles, sucking proboscis in butterflies, sponging pad in flies), and moulting the exoskeleton to grow. Biomimicry — how engineers copy insect designs.

  • Describe at least two specialised insect structures such as compound eyes or spiracles and explain their function
  • Compare the mouthparts of a beetle (chewing) and a butterfly (sucking) and explain how each is suited to its food
  • Give one example of biomimicry where human technology is inspired by an insect structure or ability

Ocean Life

Your child is diving into ocean science — learning about marine ecosystems, animal migrations, how human activities affect the ocean, and the vital role oceans play in Earth's climate.

• Oceans & Climate

  Understand the connection between the ocean and climate: the ocean absorbs heat and carbon dioxide, drives weather patterns through evaporation, and ocean currents distribute warmth around the planet — making the ocean Earth's climate engine

  • Explain that the ocean absorbs a large amount of the Sun's heat and atmospheric carbon dioxide
  • Describe the ocean's role in the water cycle through evaporation
  • Explain how ocean currents distribute warmth and affect weather patterns in distant places

• Ocean Ecosystems

  Understand ocean ecosystems as interconnected systems where living things (producers, consumers, decomposers) and non-living factors (temperature, salinity, light, currents) all interact, and that changes to one part affect the whole system

  • Describe an ocean ecosystem as a system of living and non-living parts that interact
  • Name key non-living factors that affect ocean life: temperature, salinity, light, currents
  • Explain how a change in one factor (like temperature) cascades through the whole ecosystem

• Classifying Ocean Animals

  Classify ocean animals into major groups: fish (breathe through gills, have scales), marine mammals (breathe air, warm-blooded, feed milk), and invertebrates (no backbone — jellyfish, octopuses, crabs, starfish)

  • Sort ocean animals into fish, marine mammals, and invertebrates
  • Give defining features of each group (gills vs lungs, backbone vs none)
  • Correctly classify at least two animals in each group

• Ocean Food Webs

  Understand ocean food webs: multiple interconnected food chains where energy flows from phytoplankton (producers) through zooplankton, small fish, and large predators, and that removing one species affects the whole web

  • Distinguish a food web from a simple food chain
  • Trace at least two paths of energy through an ocean food web
  • Explain what could happen if one species in the web were removed

• Protecting the Ocean

  Understand how people protect the ocean: marine protected areas limit fishing and pollution, sustainable fishing prevents overharvesting, beach clean-ups reduce plastic, and international agreements aim to reduce carbon emissions that cause ocean acidification

  • Explain what a marine protected area is and why it helps
  • Describe sustainable fishing as taking only what the ocean can replace
  • Name at least two actions people can take to protect oceans: reducing plastic, marine reserves, cutting emissions

• Ocean Depth Zones

  Understand that the ocean has different zones depending on depth and light: the sunlight zone near the surface where most life lives, the twilight zone where light fades, and the midnight zone of total darkness

  • Name the three main ocean zones: sunlight, twilight, and midnight
  • Explain that light decreases with depth until it disappears completely
  • State that most ocean life is found in the sunlight zone because plants need light to grow

• The Five Oceans

  Name and locate the five oceans — Pacific (largest), Atlantic, Indian, Southern, and Arctic (smallest and coldest) — on a world map, and understand that they are all connected as one global ocean

  • Name all five oceans: Pacific, Atlantic, Indian, Southern, Arctic
  • Locate at least three oceans on a world map
  • Explain that the five named oceans are all connected as one continuous body of water

• Ocean Pollution & Harm

  Identify ways humans harm the ocean — plastic pollution, overfishing, oil spills, and ocean acidification from carbon dioxide — and understand that most ocean pollution comes from land-based activities, not just ships

  • Name at least three ways humans harm the ocean
  • Explain that most ocean pollution originates on land, not from ships
  • Describe how plastic pollution or overfishing specifically harms marine animals

• Ocean Animal Adaptations

  Understand that ocean animals have special adaptations for their environment: streamlined bodies for fast swimming, camouflage to hide from predators, blubber to keep warm in cold seas, and tentacles or suckers to catch prey

  • Name at least three different ocean animal adaptations
  • Explain how each adaptation helps the animal survive in its environment
  • Connect an adaptation to the specific challenge it addresses (cold, predators, catching food)

• Tides, Waves & Currents

  Know that the ocean has tides (water level rises and falls twice a day, caused mainly by the Moon's gravity), waves (caused by wind), and currents (rivers of water flowing through the ocean that carry warmth and nutrients around the world)

  • Describe tides as the regular rise and fall of water level, caused by the Moon's gravity
  • Explain that waves are caused by wind blowing across the water surface
  • Describe ocean currents as large flows of water that carry heat and nutrients around the globe

• Ocean Animal Migrations

  Know that many ocean animals undertake remarkable migrations — humpback whales travel thousands of miles between feeding and breeding grounds, sea turtles return to the same beach where they hatched to lay eggs — and understand these journeys are linked to seasonal food supplies and reproduction

  • Describe at least one example of marine animal migration in detail
  • Explain that migrations are driven by seasonal food availability and breeding needs
  • Estimate the scale of these journeys (thousands of miles)

• Deep-Sea Creatures

  Explore life in the deep sea: animals that make their own light (bioluminescence), creatures adapted to crushing pressure and total darkness, and hydrothermal vents where life thrives without sunlight

  • Define bioluminescence as the ability of some deep-sea creatures to produce their own light
  • Describe at least two adaptations deep-sea animals have for life in darkness and pressure
  • Explain that hydrothermal vents support life without sunlight through chemical energy

• The Ocean Floor

  Know that the ocean floor is not flat — it has mountains, valleys, and the deepest trenches on Earth — and that the deepest point is the Mariana Trench, deeper than Mount Everest is tall

  • State that the ocean floor has varied terrain including mountains, ridges, and trenches
  • Name the Mariana Trench as the deepest point on Earth
  • Compare its depth to a familiar reference like Mount Everest's height

• Coral Reefs

  Know that coral reefs are built by tiny living animals called coral polyps, that reefs are home to more species than almost any other ocean habitat, and that they are sometimes called the 'rainforests of the sea'

  • State that coral is built by tiny living animals called polyps, not made of rock
  • Describe coral reefs as one of the most biodiverse habitats in the ocean
  • Explain why reefs are compared to rainforests

• Exploring the Ocean

  Know that oceanographers and marine biologists study the ocean using submarines, remotely operated vehicles (ROVs), satellites, and diving, and that much of the ocean remains unexplored — we know more about the Moon's surface than the deep ocean floor

  • Name at least two tools scientists use to explore the ocean: submarines, ROVs, satellites
  • State that most of the deep ocean remains unexplored
  • Explain why ocean exploration is difficult: darkness, pressure, vastness

Organisms & Life Processes

Your child is learning how plant and animal body parts help them survive and grow, while exploring the human life cycle and how our senses help us understand and respond to the world.

• How animals adapt to environments

  Identify how animals and plants are adapted to suit their environment and understand that adaptation may lead to evolution over time

  • Define adaptation as a feature that helps an organism survive in its environment
  • Give at least three examples of adaptations in different organisms and explain how each helps survival
  • Explain that over many generations, organisms with helpful adaptations survive and reproduce more, leading to evolution

• Life Cycles of Organisms

  Develop models to describe that organisms have unique and diverse life cycles but all share the common stages of birth, growth, reproduction, and death

  • Describe the life cycle of at least two different organisms (e.g. butterfly, frog, plant)
  • Identify the common stages all life cycles share: birth, growth, reproduction, death
  • Explain how life cycles can look very different (metamorphosis vs gradual growth) but follow the same pattern

• Variation & Survival Advantage

  Use evidence to explain how variations in characteristics among individuals of the same species may provide advantages in surviving, finding mates, and reproducing

  • Explain that variation within a species means some individuals have traits better suited to their environment
  • Give examples of advantageous variations (e.g. camouflage, speed, drought resistance in plants)
  • Connect variation to survival advantage: individuals with beneficial traits are more likely to survive and reproduce

• Animal Classification Vocabulary

  Use vocabulary for classifying animals and describing life cycles — vertebrate, invertebrate, mammal, bird, reptile, amphibian, fish, insect, arachnid, larva, pupa, metamorphosis, gestation, offspring, complete metamorphosis, incomplete metamorphosis — and apply these correctly when sorting and comparing organisms

  • Correctly classify a set of animals as vertebrates or invertebrates, then into more specific groups
  • Use 'metamorphosis' correctly to describe insect and amphibian life cycles and distinguish complete from incomplete metamorphosis
  • Compare a mammal's life cycle with an insect's using precise vocabulary

• Inheritance Vocabulary

  Use vocabulary for variation and inheritance — inherited characteristic, acquired characteristic, variation, offspring, trait, species, breed, genetic, environment — and apply these when comparing organisms and explaining similarities and differences within and between species

  • Distinguish between inherited and acquired characteristics with a correct example of each
  • Use 'variation' correctly to describe differences within a species and explain what causes variation
  • Use 'offspring', 'species', and 'trait' correctly in written descriptions of living things

• Inherited characteristics

  Analyse and interpret data to provide evidence that plants and animals have traits inherited from parents and that variation of these traits exists in a group of similar organisms

  • Define inherited traits as characteristics passed from parents to offspring
  • Collect or interpret data showing variation within a group (e.g. different heights, colours, sizes)
  • Explain that while traits are inherited, there is natural variation among individuals of the same species

• Human Life Stages

  Describe the changes as humans develop to old age, including the stages of the human life cycle

  • Name the main stages of human development: baby, toddler, child, teenager, adult, elderly
  • Describe key changes at puberty (growth spurt, body changes)
  • Explain that old age brings changes like reduced strength, greying hair, and slower healing

• The Digestive System

  Describe the simple functions of the basic parts of the human digestive system: mouth, oesophagus, stomach, small intestine, large intestine

  • Name the main organs in order: mouth, oesophagus, stomach, small intestine, large intestine
  • Describe the function of each (mouth chews, stomach breaks down, small intestine absorbs nutrients)
  • Draw or label a simple diagram of the digestive system

• Senses, Brain & Responses

  Use a model to describe that animals receive information through their senses, process it in their brain, and respond in different ways

  • Describe the pathway: sense organ detects stimulus → brain processes information → body responds
  • Give examples of different animal senses (sight, smell, hearing, echolocation, vibration)
  • Explain how the same stimulus can produce different responses in different animals

• Structures for Survival

  Construct an argument that plants and animals have internal and external structures that function to support survival, growth, behaviour, and reproduction

  • Give examples of external structures and their survival functions (e.g. thorns for protection, claws for catching prey)
  • Give examples of internal structures and their functions (e.g. heart pumps blood, lungs take in air)
  • Construct a reasoned argument linking a specific structure to how it helps the organism survive or reproduce

• Types of Teeth

  Identify the different types of human teeth (incisors, canines, molars) and describe their functions in eating

  • Name three types of teeth: incisors, canines, molars
  • Describe the function of each: incisors cut, canines tear, molars grind
  • Relate tooth type to diet (e.g. herbivores have flat molars, carnivores have sharp canines)

• Offspring resemble parents

  Observe that young plants and animals resemble their parents but are not identical, recognising inherited similarities and individual differences

  • Describe at least three features that offspring inherit from parents (e.g. eye colour, petal colour, fur type)
  • Explain that offspring are similar to parents but not identical copies
  • Give examples from both plants and animals showing resemblance with variation

• Organ Systems Vocabulary

  Use technical vocabulary for the major organ systems — organ, organ system, circulatory system, digestive system, respiratory system, skeletal system, muscular system, nutrient, oxygen, carbon dioxide, blood vessel, artery, vein, capillary, enzyme — and describe the function of each system using these terms

  • Name the main organs in at least two body systems and state their functions using the correct vocabulary
  • Use 'circulatory', 'digestive', and 'respiratory' correctly in written descriptions of the body
  • Explain the difference between an artery and a vein using the correct anatomical terms

• Traits: inherited and environmental

  Use evidence to support the explanation that traits can be influenced by the environment as well as inheritance

  • Explain that traits result from both inheritance and environmental factors
  • Give examples of environmental influence on traits (e.g. sunlight affects plant growth, diet affects animal size)
  • Distinguish between inherited traits (e.g. eye colour) and environmentally influenced traits (e.g. muscle strength from exercise)

The Human Body

Your child is discovering how their body works — exploring the respiratory, circulatory, and nervous systems in detail, and understanding how lifestyle choices affect their health and development.

• Growing Up & Puberty

  Describe the stages of human development from birth to old age: baby, toddler, child, adolescent (puberty), young adult, middle-aged adult, elderly — understanding the physical changes that happen at each stage, especially during puberty

  • Name and order at least six life stages from birth to old age
  • Describe key physical changes during puberty (growth spurts, body shape changes, development of adult features)
  • Explain that puberty is triggered by hormones — chemical messengers released by glands

• Healthy Lifestyle Choices

  Understand how lifestyle choices affect the body’s health: a balanced diet, regular exercise, adequate sleep, and avoiding harmful substances (tobacco, alcohol, drugs) help body systems function well, while poor choices increase the risk of disease

  • Explain how regular exercise strengthens the heart, lungs, and muscles
  • Describe how a poor diet high in sugar and fat can lead to obesity, tooth decay, and heart problems
  • State at least two harmful effects of smoking (damages lungs, increases heart disease risk) or alcohol (damages liver, affects brain)

• Cells, Tissues & Organs

  Understand that the body is organised in a hierarchy: tiny cells are the building blocks, groups of similar cells form tissues, tissues combine into organs (like the heart or stomach), and organs work together in organ systems (like the circulatory system)

  • State that cells are the smallest building blocks of the body, too small to see without a microscope
  • Describe the hierarchy: cells → tissues → organs → organ systems
  • Give an example: muscle cells form muscle tissue, which forms the heart organ, which is part of the circulatory system

• Balanced Diet & Food Groups

  Know the main food groups (carbohydrates, proteins, fats, vitamins, minerals, fibre, water) and understand that a balanced diet includes the right amounts from each group to keep the body healthy and provide energy, growth materials, and protection from illness

  • Name at least five food groups and give an example food for each (e.g. carbohydrates = bread, protein = chicken)
  • Explain what carbohydrates (energy), proteins (growth and repair), and fats (energy and warmth) do for the body
  • State that vitamins and minerals protect against illness and help the body work properly

• The Digestive Journey

  Trace the journey of food through the digestive system: food enters the mouth where teeth break it down and saliva begins digestion, travels down the oesophagus to the stomach, passes through the small intestine where nutrients are absorbed, and waste moves through the large intestine

  • List the organs in order: mouth, oesophagus, stomach, small intestine, large intestine
  • Describe what happens at each stage (teeth chew, stomach churns with acid, small intestine absorbs nutrients)
  • State that the small intestine is where most nutrients pass into the blood, and the large intestine removes water from waste

• Heart & Blood Circulation

  Describe the circulatory system in detail: the heart has four chambers (two atria, two ventricles) that pump blood in a double loop — one to the lungs for oxygen and one to the rest of the body to deliver it — through arteries, veins, and tiny capillaries

  • Name the four heart chambers and describe the double-loop pathway (heart → lungs → heart → body)
  • Distinguish arteries (carry blood away from heart), veins (carry blood back to heart), and capillaries (tiny vessels where exchange happens)
  • Name the components of blood: red blood cells (carry oxygen), white blood cells (fight infection), platelets (help clotting), plasma (liquid)

• Circulation & Breathing Together

  Understand how the circulatory and respiratory systems work together: the lungs oxygenate the blood, the heart pumps it around the body, cells use the oxygen and produce carbon dioxide waste, and the blood carries the waste back to the lungs to be breathed out

  • Describe the cycle: lungs add oxygen to blood → heart pumps oxygenated blood to body → cells use oxygen → blood returns CO₂ to lungs
  • Explain why heart rate and breathing rate increase during exercise (muscles need more oxygen)
  • Measure their own resting and post-exercise heart rate and explain the difference

• The Nervous System

  Understand that the nervous system has two parts — the central nervous system (brain and spinal cord) and nerves that branch throughout the body — and that nerve signals travel at high speed to coordinate senses, thought, and movement

  • Name the two parts of the nervous system: central (brain + spinal cord) and peripheral (nerves throughout the body)
  • Describe the reflex arc: stimulus → sensory nerve → spinal cord/brain → motor nerve → muscle response
  • State that nerve signals travel extremely fast, which is why reflexes happen almost instantly

• How the Eye Works

  Describe how the eye works: light enters through the pupil, the lens focuses it onto the retina at the back of the eye, and the retina sends signals along the optic nerve to the brain, which interprets the image

  • Name the main parts: pupil (lets light in), lens (focuses light), retina (detects light), optic nerve (sends signals to brain)
  • Describe the sequence: light enters → lens focuses → retina detects → nerve signals brain → brain interprets image
  • Explain that the pupil gets bigger in dim light and smaller in bright light to control how much light enters

• How the Lungs Work

  Explain how the respiratory system works in detail: air travels through the nose/mouth, down the trachea, into bronchi and bronchioles, reaching tiny air sacs (alveoli) in the lungs where oxygen passes into the blood and carbon dioxide passes out

  • Trace the air pathway: nose/mouth → trachea → bronchi → bronchioles → alveoli
  • Explain gas exchange in the alveoli: oxygen passes into blood capillaries, carbon dioxide passes out
  • Describe the mechanical process: the diaphragm contracts to pull air in and relaxes to push air out

• The Immune System

  Know that the body has an immune system that protects against illness: the skin acts as a barrier, white blood cells identify and destroy germs (bacteria and viruses), and vaccines train the immune system to recognise specific diseases before they cause illness

  • Describe the skin as the body's first line of defence against germs
  • Explain that white blood cells detect and fight bacteria and viruses inside the body
  • Describe how vaccines work: they contain weakened or inactive germs that train the immune system to recognise the real disease

• Types of Teeth

  Identify the four types of human teeth (incisors for cutting, canines for tearing, premolars and molars for grinding) and understand that tooth shape is linked to function, just as in other animals — herbivores have flat teeth, carnivores have sharp teeth

  • Name the four tooth types and describe each one's job: incisors cut, canines tear, premolars/molars grind
  • Compare human teeth to herbivore teeth (flat, for grinding plants) and carnivore teeth (sharp, for tearing meat)
  • Explain that humans have all types because we are omnivores — we eat both plants and meat

• How Muscles Move Bones

  Understand that muscles work in pairs to move bones: when one muscle contracts (gets shorter and pulls), the opposite muscle relaxes, and that some muscles are voluntary (we choose to use them) while others like the heart are involuntary (they work automatically)

  • Demonstrate or describe how biceps and triceps work as a pair to bend and straighten the arm
  • Explain the difference between voluntary muscles (we control them) and involuntary muscles (they work automatically)
  • Name the heart and muscles of the digestive system as examples of involuntary muscles

• Naming Major Bones

  Identify major bones of the human skeleton by name (skull, spine/vertebrae, ribcage, pelvis, femur, humerus) and explain the skeleton’s three jobs: supporting the body’s shape, protecting organs, and enabling movement with muscles

  • Name and locate at least six major bones or bone groups on a diagram or their own body
  • Explain the three functions: support (holds us upright), protection (skull protects brain, ribs protect heart/lungs), movement (bones work with muscles)
  • State that not all animals have internal skeletons — some have shells or exoskeletons

Energy

Your child is exploring how energy works — understanding how it moves between objects, changes from one form to another, and can be transferred through sound, light, heat, and electricity.

• How energy travels around

  Observe and provide evidence that energy can be transferred from place to place by sound, light, heat, and electric currents

  • Give at least one example of energy transfer by each: sound, light, heat, electric current
  • Explain that energy moves from a source to a destination through these means
  • Describe how electric currents transfer energy from a battery to a bulb through wires

• Building a simple circuit

  Construct a simple series electrical circuit, identifying and naming its basic parts: cells, wires, bulbs, switches, and buzzers

  • Build a complete series circuit that lights a bulb or sounds a buzzer
  • Name each component: cell (battery), wire, bulb, switch, buzzer
  • Explain the role of each component in making the circuit work

• What uses electricity at home

  Identify common appliances that run on electricity and understand that electricity is a form of energy that powers devices in everyday life

  • Name at least ten common appliances that run on electricity
  • Distinguish between mains-powered and battery-powered appliances
  • Explain that electricity provides the energy that makes these devices work

• Naming types of energy

  Name and use vocabulary for types of energy and energy transfer — kinetic energy, potential energy, heat energy, light energy, sound energy, electrical energy, chemical energy, stored energy, energy transfer, energy transformation — and describe energy changes in familiar situations using these terms

  • Name the type of energy stored in a battery, a stretched spring, and a moving ball
  • Use 'energy transfer' or 'energy transformation' to describe what happens in a simple device such as a torch or a toaster
  • Distinguish between 'stored energy' and 'transferred energy' with a correct example of each

• Reading and drawing circuit diagrams

  Draw and read simple circuit diagrams using standard symbols for cells, bulbs, switches, buzzers, and wires; identify whether a circuit is complete or broken from a diagram; match circuit diagrams to physical circuits

  • Draw a circuit diagram for a cell, switch, and bulb using standard symbols
  • Identify from a diagram whether a switch is open or closed and predict whether the bulb lights
  • Match a photograph of a physical circuit to the correct circuit diagram from a set of options

• Speed and energy

  Use evidence to construct an explanation relating the speed of an object to the energy of that object

  • Explain that a moving object has energy, and the faster it moves the more energy it has
  • Provide evidence from observations (e.g. faster ball causes more damage/movement)
  • Use the term 'kinetic energy' or 'energy of motion' appropriately

• How switches work

  Recognise that a switch opens and closes a circuit, controlling whether a lamp lights or a buzzer sounds

  • Explain that a closed switch completes the circuit (current flows) and an open switch breaks it (current stops)
  • Demonstrate adding a switch to a circuit and using it to control a bulb or buzzer
  • Relate the switch concept to everyday switches in the home

• Will the bulb light up?

  Identify whether or not a lamp will light in a simple series circuit, based on whether the lamp is part of a complete loop with a battery

  • Predict whether a lamp will light by tracing the circuit for a complete loop
  • Explain that a gap anywhere in the circuit breaks the loop and the bulb won't light
  • Identify the fault in a non-working circuit (e.g. loose wire, missing connection)

• Circuit vocabulary

  Use technical vocabulary for electrical circuits — circuit, component, cell, battery, current, voltage, resistance, conductor, insulator, switch, series circuit, parallel circuit — and apply these when describing, drawing, and designing working circuits

  • Use 'series' and 'parallel' correctly to describe two different circuit configurations and explain the key difference
  • Apply 'current', 'voltage', and 'resistance' correctly in a written description of how a circuit works
  • Name at least six standard circuit components and describe what each one does

• Building an energy-converting device

  Apply scientific ideas to design, test, and refine a device that converts energy from one form to another

  • Design a device that converts one form of energy to another (e.g. electrical to light, kinetic to sound)
  • Build, test, and identify what works well and what needs improvement
  • Explain the energy conversion taking place in the device

• What happens when things collide

  Ask questions and predict outcomes about the changes in energy that occur when objects collide

  • Predict the outcome of a collision based on the speeds and sizes of the objects
  • Explain that energy transfers from one object to another during a collision
  • Describe observable changes: one object speeds up, the other slows down, sound is produced

• Conductors and insulators

  Recognise some common conductors and insulators, and associate metals with being good conductors of electricity

  • Define conductors (allow electricity to flow through) and insulators (block electricity)
  • Test at least six materials and correctly classify them as conductors or insulators
  • State that metals are generally good conductors and explain why wires are made of metal with plastic coating

Matter & Materials

Your child is exploring how materials behave and change — investigating which substances dissolve in water, learning to separate mixtures, and distinguishing between changes that can be reversed and those that create entirely new materials.

• Heating & Cooling Changes

  Observe and describe that some materials change state when heated or cooled, and measure the temperature at which changes occur in degrees Celsius

  • Describe melting (solid to liquid) and freezing (liquid to solid) with everyday examples
  • State that water freezes at 0°C and boils at 100°C
  • Explain that heating adds energy causing particles to move more, leading to state changes

• Drawing Particle Diagrams

  Draw and interpret particle diagrams — dot representations showing the arrangement, spacing, and movement of particles in solids (close, regular, vibrating in place), liquids (close, random, flowing past each other), and gases (widely spaced, moving rapidly in all directions) — and use these diagrams to explain observable properties such as fixed shape, fixed volume, and compressibility

  • Draw labelled particle diagrams for solids, liquids, and gases showing the correct arrangement and spacing of particles
  • Use their particle diagram to explain why solids keep their shape but liquids flow
  • Sketch what happens to particles during a change of state (e.g. melting) and explain the energy changes involved

• Dissolving & Solutions

  Understand that some materials dissolve in liquid to form a solution, and describe how to recover a substance from a solution by evaporation

  • Explain that dissolving means a solid mixes completely into a liquid to form a solution
  • Describe how to recover a dissolved substance by evaporating the liquid
  • Distinguish between a mixture (can see separate parts) and a solution (looks clear, fully dissolved)

• Solids, Liquids & Gases

  Compare and group materials as solids, liquids, or gases based on their observable properties and behaviour

  • Define solids (fixed shape, hard to compress), liquids (flow, take shape of container), gases (spread out, fill space)
  • Sort at least eight everyday materials into solid, liquid, or gas categories
  • Explain tricky cases like sand (solid particles) or steam (gas, not visible water droplets)

• Irreversible Changes

  Explain that some changes result in the formation of new materials and are not usually reversible, such as burning, rusting, and reactions with acid

  • Define an irreversible change as one that creates new materials that cannot be changed back
  • Give at least three examples: burning, rusting, mixing bicarbonate of soda with vinegar
  • Describe observable signs of irreversible change: gas produced, colour change, heat given off, new substance formed

• Reversible Changes

  Demonstrate that dissolving, mixing, and changes of state are reversible changes where no new materials are formed

  • Define a reversible change as one where the original materials can be recovered
  • Give at least three examples of reversible changes: melting, freezing, dissolving, evaporating
  • Explain how to reverse each example (e.g. freeze melted chocolate, evaporate a solution)

• Evaporation & the Water Cycle

  Identify the role of evaporation and condensation in the water cycle, and associate the rate of evaporation with temperature

  • Describe evaporation as liquid turning to gas and condensation as gas turning to liquid
  • Explain the water cycle: evaporation from seas/lakes → condensation into clouds → precipitation
  • Explain why evaporation happens faster at higher temperatures (e.g. puddles dry faster on hot days)

• Separating Mixtures

  Use knowledge of solids, liquids, and gases to decide how mixtures might be separated through filtering, sieving, and evaporating

  • Choose the correct separation method for a given mixture (sieving for large particles, filtering for small, evaporating for dissolved)
  • Describe a multi-step separation plan for a complex mixture like sand, salt, and water
  • Explain why each method works based on the properties of the materials

• Advanced Material Properties

  Compare and group everyday materials based on advanced properties: hardness, solubility, transparency, electrical and thermal conductivity, and response to magnets

  • Define and test for at least four properties: hardness, solubility, conductivity, magnetism
  • Group a set of materials based on test results for each property
  • Use results to explain why certain materials are chosen for specific uses (e.g. copper for wires because it conducts electricity)

• Changes & Separation Vocabulary

  Use process vocabulary for changes of state and material separation — dissolve, solution, soluble, insoluble, evaporate, condense, melt, freeze, filter, sieve, mixture, separate — and understand precisely what each term describes, including the important distinction between dissolving and melting

  • Distinguish 'dissolve' from 'melt' correctly in context and explain the difference
  • Use 'soluble' and 'insoluble' accurately when describing whether a material dissolves in water
  • Explain the difference between evaporation and condensation using the correct terms

• Material Properties Vocabulary

  Use technical vocabulary to describe and compare material properties — conductor, insulator, thermal, electrical, transparent, opaque, translucent, soluble, insoluble, magnetic, flexible, rigid, density — and apply these terms precisely when selecting and justifying materials for particular purposes

  • Classify a set of materials as electrical conductors or insulators and explain why using the correct terms
  • Use 'transparent', 'translucent', and 'opaque' correctly and distinctly in descriptions
  • Apply at least four property terms correctly when justifying a material choice for a given purpose

• Testing Materials for Uses

  Give reasons, based on evidence from comparative and fair tests, for the particular uses of everyday materials including metals, wood, and plastic

  • Design a fair test to compare a specific property of two or more materials
  • Present test results as evidence for why a material is suited to a particular use
  • Explain the link between a material's tested properties and its real-world application

Ecosystems & Habitats

Your child is learning about how living things reproduce and grow — comparing different life cycles from mammals to insects, and understanding the various ways plants and animals create new generations.

• Changing Environments

  Recognise that environments can change and that this can sometimes pose dangers and challenges to living things

  • Give at least two examples of environmental changes (natural and human-caused)
  • Describe how a specific change affects the organisms in that environment
  • Explain why some organisms may not survive if their environment changes too quickly

• Food Chains & Energy Transfer

  Construct and interpret food chains identifying producers, predators, and prey, and understand energy transfer between trophic levels

  • Construct a food chain with at least four organisms, labelling producer, primary consumer, predator
  • Define producer, predator, and prey with examples
  • Interpret a given food chain to predict what happens if one organism is removed

• Animal Life Cycles

  Describe differences in the life cycles of mammals, amphibians, insects, and birds, comparing metamorphosis with direct development

  • Describe the life cycle of a mammal, amphibian, insect, and bird with key stages for each
  • Compare metamorphosis (complete change of form) with direct development (gradual growth)
  • Identify which groups undergo metamorphosis and which do not

• Plant & Animal Reproduction

  Describe the life process of reproduction in some plants and animals, including sexual and asexual reproduction in plants

  • Describe sexual reproduction in plants: pollination, fertilisation, seed production
  • Give examples of asexual reproduction in plants: runners (strawberries), bulbs, cuttings
  • Compare reproduction in egg-laying animals (birds, frogs) vs live-bearing mammals

• Grouping Living Things

  Recognise that living things can be grouped in a variety of ways based on observable features

  • Group a set of organisms using at least two different criteria (e.g. by habitat, by body covering, by diet)
  • Explain the reasoning behind each grouping choice
  • Recognise that the same organism can belong to different groups depending on the criteria used

• Classification Keys

  Explore and use classification keys to identify, group, and name living things in local and wider environments

  • Follow a branching classification key to identify an unknown organism
  • Create a simple yes/no classification key for a set of 6-8 organisms
  • Use a key to identify organisms in the local environment during a field activity

• Human impact on environments

  Use vocabulary for human impact on the environment — pollution, habitat destruction, deforestation, biodiversity, conservation, renewable energy, non-renewable energy, fossil fuel, carbon footprint, sustainability, endangered, extinct — and apply these when discussing environmental issues and human choices

  • Distinguish between renewable and non-renewable energy sources using the correct terms and give examples of each
  • Use 'biodiversity' and 'conservation' correctly in discussing why protecting habitats matters
  • Apply 'carbon footprint' and 'sustainability' correctly in a discussion about everyday human choices

• Animal Groups & Survival

  Construct an argument that some animals form groups that help members survive, such as herds, packs, or colonies

  • Give at least two examples of animals that live in groups (e.g. wolves, ants, fish schools)
  • Explain how group living provides survival advantages (protection, finding food, raising young)
  • Construct a simple argument with evidence for why a specific animal benefits from group behaviour

• Ecology Vocabulary

  Use vocabulary for feeding relationships and ecological roles — producer, consumer, predator, prey, herbivore, carnivore, omnivore, decomposer, food chain, food web, nutrient cycle — and describe how energy and matter flow through ecosystems using these terms

  • Construct a food chain correctly using producer, consumer, predator, and prey in the right positions
  • Distinguish between herbivore, carnivore, and omnivore with correct examples from a given ecosystem
  • Explain what a decomposer does and why it matters, using the correct vocabulary

• Reading Food Web Diagrams

  Read and interpret food web diagrams — identify producers, primary and secondary consumers, and decomposers; trace energy flow along food chains within the web; predict the effect of removing or adding a species

  • Identify the producer, herbivore, and carnivore in a food web from a diagram
  • Trace two food chains through the same food web and identify shared species
  • Predict what would happen to fox numbers if rabbits were removed from a food web diagram

Waves, Light & Sound

Your child is learning how light allows us to see objects and how waves work, including exploring different ways to send information using patterns and codes.

• Vibrations & Sound

  Understand that vibrating materials can make sound, and that sound can make materials vibrate

  • Describe that sounds are made when objects vibrate (move back and forth quickly)
  • Give at least three examples of vibrating objects making sound (drum skin, guitar string, voice box)
  • Demonstrate that sound can cause objects to vibrate (e.g. rice on a drum jumps when you shout near it)

• How We See Objects

  Develop a model to describe that light reflecting from objects and entering the eye allows objects to be seen

  • Draw a diagram showing light source → light hits object → reflects into eye
  • Explain that we see objects because reflected light enters our eyes, not because our eyes send out light
  • Use this model to explain why we can't see in total darkness (no light to reflect)

• Waves & How They Move

  Develop a model of waves to describe patterns in terms of amplitude and wavelength, and understand that waves can cause objects to move

  • Describe a wave using the terms amplitude (height) and wavelength (distance between peaks)
  • Demonstrate that larger amplitude means more energy (bigger waves move objects more)
  • Model wave patterns using a slinky, rope, or water and describe what they observe

• Sound Travels Through Materials

  Recognise that vibrations from sounds travel through a medium (solid, liquid, or gas) to the ear

  • Explain that sound vibrations need a material (medium) to travel through — they can't travel in a vacuum
  • Give examples of sound travelling through different media: air, water, solid objects
  • Describe how a string telephone works: voice vibrates the cup, vibrations travel along the string to the other cup

• Wave Behaviour Vocabulary

  Use technical vocabulary for wave behaviour — refraction, absorption, reflection, scattering, amplitude, frequency, wavelength, echo, spectrum, angle of incidence, angle of reflection — and apply these when explaining how light and sound travel and interact with different materials

  • Use 'refraction' correctly to explain why a straw appears bent in a glass of water
  • Distinguish 'reflection' from 'refraction' using the correct definitions
  • Explain what an echo is using the vocabulary of sound reflection correctly

• Volume & Vibrations

  Find patterns between the volume of a sound and the strength of the vibrations that produced it

  • Describe the pattern: stronger vibrations (larger movements) produce louder sounds
  • Demonstrate volume changes by varying the force applied to a sound-making object
  • Explain volume as how loud or quiet a sound is, determined by the size of vibrations

• Patterns & Codes for Information

  Generate and compare multiple solutions that use patterns to transfer information, such as codes and signals

  • Describe at least two systems that use patterns of light or sound to transfer information (e.g. Morse code, semaphore, drum signals)
  • Design a simple code using light or sound patterns to send a message
  • Compare the advantages and disadvantages of different information transfer methods

• Sound Fading with Distance

  Recognise that sounds get fainter as the distance from the sound source increases

  • State that sound gets quieter as distance from the source increases
  • Describe an observation or investigation demonstrating this pattern
  • Explain that vibrations spread out and get weaker as they travel further from the source

• Pitch of Sounds

  Find patterns between the pitch of a sound and features of the object that produced it

  • Describe the pattern: shorter/thinner/tighter objects produce higher-pitched sounds
  • Demonstrate pitch changes using at least one instrument or everyday object
  • Explain pitch as how high or low a sound is, determined by how fast the object vibrates

Forces & Motion

Your child is learning about gravity and forces that resist motion like friction and air resistance, while discovering how simple machines like levers and pulleys can make tasks easier.

• Predicting Motion Patterns

  Make observations and measurements of an object's motion to provide evidence that a pattern can be used to predict future motion

  • Measure an object's motion (distance, speed, direction) under different conditions
  • Identify a pattern in the data (e.g. steeper ramp = further roll)
  • Use the pattern to make and test a prediction about future motion

• Drawing Force Diagrams

  Draw and interpret force diagrams showing forces as labelled arrows — where the arrow's length represents the force's magnitude and its direction shows which way the force acts; show multiple forces on one object; identify from the diagram whether forces are balanced (equal arrows in opposite directions, no resultant) or unbalanced (arrows of different sizes, producing a resultant); represent the resultant with a single arrow

  • Draw a force diagram with labelled arrows showing direction and relative size for at least two forces acting on an object
  • Use their diagram to explain whether forces are balanced or unbalanced and what will happen to the object
  • Add a resultant force arrow to a diagram and explain how they calculated it

• Balanced & Unbalanced Forces

  Plan and conduct an investigation to provide evidence of the effects of balanced and unbalanced forces on the motion of an object

  • Define balanced forces (equal in size, opposite in direction — no change in motion) and unbalanced forces (cause motion to change)
  • Plan a fair test investigating how different force sizes affect an object's motion
  • Use results as evidence to explain when forces are balanced versus unbalanced

• Gravity & Falling Objects

  Explain that unsupported objects fall towards the Earth because of the force of gravity acting between the Earth and the falling object

  • Define gravity as a force of attraction between the Earth and objects
  • Explain that unsupported objects fall because gravity pulls them towards the Earth
  • Give examples showing gravity in action (dropping objects, jumping, water flowing downhill)

• Air Resistance & Friction

  Identify the effects of air resistance, water resistance, and friction, and understand that these forces act between moving surfaces to oppose motion

  • Define air resistance, water resistance, and friction as forces that oppose motion
  • Give everyday examples of each force and explain how they slow things down
  • Describe how these forces depend on factors like speed, surface area, or surface texture

• Levers, Pulleys & Gears

  Recognise that some mechanisms including levers, pulleys, and gears allow a smaller force to have a greater effect

  • Describe how a lever works: effort at one end moves a load at the other, with a pivot in between
  • Explain how a pulley changes the direction of a force and can make lifting easier
  • Describe how gears transfer and change the size or direction of forces

• Magnetic Poles

  Describe magnets as having two poles (north and south) and predict whether two magnets will attract or repel based on which poles face each other

  • Identify and label the north and south poles of a magnet
  • State the rule: like poles repel, opposite poles attract
  • Predict the outcome of bringing two magnets together based on their pole orientation

• Force & Motion Vocabulary

  Use technical vocabulary for force and motion — balanced forces, unbalanced forces, resultant force, acceleration, deceleration, speed, moment, lever, fulcrum, mechanical advantage — and apply these when explaining and predicting how forces affect the motion and position of objects

  • Distinguish between balanced and unbalanced forces and describe the effect of each on an object's motion
  • Use 'resultant force' correctly when describing the net effect of two or more forces acting on an object
  • Apply 'moment', 'lever', and 'fulcrum' correctly when describing how simple machines work

Earth's Systems

Your child is learning how Earth's surface changes over time — studying how wind, water, and ice shape our landscape through weathering and erosion, and interpreting maps to understand geological patterns.

• Finding patterns in data

  Analyse and interpret data from maps to describe patterns of Earth's features, recognising that many features result from processes that occur over long periods

  • Use a map to identify patterns in the location of mountains, rivers, lakes, and other features
  • Describe patterns observed (e.g. mountains in chains, rivers flow from high to low ground)
  • Explain that Earth's features result from processes like erosion, volcanic activity, and plate movement over long periods

• Weather vs climate

  Obtain and combine information to describe climates in different regions of the world, distinguishing between weather and climate

  • Define weather as day-to-day conditions and climate as the long-term pattern of weather in an area
  • Describe at least three different climate types (tropical, temperate, polar, desert) with examples
  • Explain that climate varies by region due to factors like distance from the equator

• Seasonal changes (age 8+)

  Represent data in tables and graphical displays to describe typical weather conditions expected during a particular season

  • Collect and organise weather data in a table (temperature, precipitation, cloud cover)
  • Create a graphical display (bar chart, pictogram) showing weather patterns for a season
  • Use the data to describe typical weather conditions for that season and compare with other seasons

• Erosion and weathering

  Make observations and measurements to provide evidence of the effects of weathering or the rate of erosion by water, ice, wind, or vegetation

  • Define weathering (breaking down of rock in place) and erosion (movement of broken rock/soil)
  • Describe the effects of at least three agents of weathering/erosion: water, ice, wind, vegetation
  • Provide evidence from observations showing how weathering or erosion has changed a landscape

• Types of rocks

  Use vocabulary for Earth's geological processes and rock types — igneous, sedimentary, metamorphic, erosion, weathering, deposition, fossil, sediment, strata, permeable, impermeable — and apply these when explaining how rocks form and how landscapes change over time

  • Correctly classify igneous, sedimentary, and metamorphic rocks and explain in one sentence how each type forms
  • Use 'erosion', 'weathering', and 'deposition' correctly as three distinct stages in a sequence
  • Explain how fossils form using 'sediment' and 'sedimentary rock' correctly

• Evaporation and condensation

  Name and use vocabulary for the water cycle — evaporation, condensation, precipitation, collection, transpiration, water vapour, runoff, groundwater — and describe each stage of the cycle using these terms in the correct sequence

  • Describe the complete water cycle using at least four correct technical terms in the right order
  • Distinguish 'evaporation' from 'condensation' and explain where each occurs in the water cycle
  • Use 'water vapour' and 'precipitation' correctly in descriptions of weather and the water cycle

Space Systems & Earth's History

Your child is exploring our solar system and Earth's place in it — understanding how the Earth's rotation creates day and night, how planets orbit the sun, and how we can read Earth's history through rocks and fossils.

• The solar system

  Describe the sun, Earth, and moon as approximately spherical bodies, and describe the movement of the Earth and other planets orbiting the sun in the solar system

  • State that the sun, Earth, and moon are approximately spherical
  • Name the planets in order from the sun and explain they all orbit the sun
  • Describe the moon orbiting the Earth while both orbit the sun

• How fossils form

  Identify evidence from patterns in rock formations and fossils in rock layers to support an explanation for changes in a landscape over time

  • Explain that rock layers (strata) form over time, with the oldest at the bottom
  • Describe how fossils in different layers provide evidence of organisms that lived at different times
  • Use patterns in rock formations to explain how a landscape has changed over millions of years

• Earth's rotation and day/night

  Use the idea of the Earth's rotation to explain day and night and the apparent movement of the sun across the sky

  • Explain that the Earth rotates (spins) on its axis once every 24 hours
  • Describe how this rotation causes day (facing the sun) and night (facing away)
  • Explain that the sun appears to move across the sky because we are rotating, not the sun

• Earth & Space Vocabulary

  Use technical vocabulary for Earth's motion and the wider universe — rotation, revolution, axis, tilt, orbit, light year, gravitational force, atmosphere, lunar phases, waxing, waning, solstice, equinox, eclipse — and apply these when explaining day and night, the seasons, and the Moon's phases

  • Use 'rotation' and 'revolution' correctly to describe Earth's two distinct types of movement and explain what each causes
  • Use 'waxing' and 'waning' to describe the Moon's phases and explain what causes them
  • Apply 'solstice' and 'equinox' correctly when explaining why seasons exist and why day length varies