Matter and its properties
Students start the year exploring what stuff is made of. They weigh objects, mix liquids, and test materials like metal, plastic, and wood to figure out what makes each one different.
This is the year science gets bigger, stretching from tiny particles to the whole planet. Students learn that matter is made of pieces too small to see, that plants build themselves mostly from air and water, and that the sun powers nearly everything that grows or moves. They also study how Earth's water, land, air, and living things shape one another. By spring, students can run a simple experiment, graph the results, and explain what the data shows.
Students start the year exploring what stuff is made of. They weigh objects, mix liquids, and test materials like metal, plastic, and wood to figure out what makes each one different.
Students melt, freeze, and combine substances to see what changes and what stays the same. They learn that even when something looks different, the total weight on the scale does not disappear.
Students figure out where plants actually get the stuff they grow from. The answer surprises most kids: mostly air and water, not soil. They also trace the food on their plate back to sunlight.
Students build models that follow matter as it moves from plants to animals to decomposers and back into the soil and air. Worms, mold, and dead leaves all get a turn in the spotlight.
Students track shadows across the day, watch how the night sky shifts with the seasons, and learn why the sun looks so much brighter than other stars. They also explore why things fall down rather than sideways.
Students study how land, water, air, and living things interact, and how little fresh water Earth actually has. They finish the year with a project on a local environmental problem and what their community can do about it.
Students measure and test materials to see what they're made of and how they behave. They explore what happens when two substances are mixed together or when something gets hotter or colder.
Matter is made of tiny particles invisible to the naked eye. Students build a model, such as a drawing or diagram, to show how those particles make up everyday objects like water, air, or a block of wood.
Students weigh substances before and after heating, cooling, or mixing them, then graph the results to show that the total weight stays the same no matter what change happens.
Students sort and identify everyday materials by observing and measuring their properties, things like color, texture, hardness, and how well they conduct heat or electricity.
Students mix two or more materials together and observe whether a new substance forms. A vinegar-and-baking-soda reaction or a dissolved-salt experiment can show whether mixing caused a real change or just a physical blend.
| Standard | Definition | Code |
|---|---|---|
| Use evidence, data, and modeling to investigate and measure the properties of… | Students measure and test materials to see what they're made of and how they behave. They explore what happens when two substances are mixed together or when something gets hotter or colder. | WA 5.PS1 |
| Develop a model to describe that matter is made of particles too small to be… | Matter is made of tiny particles invisible to the naked eye. Students build a model, such as a drawing or diagram, to show how those particles make up everyday objects like water, air, or a block of wood. | 5-PS1-1 |
| Measure and graph quantities to provide evidence that regardless of the type of… | Students weigh substances before and after heating, cooling, or mixing them, then graph the results to show that the total weight stays the same no matter what change happens. | 5-PS1-2 |
| Make observations and measurements to identify materials based on their… | Students sort and identify everyday materials by observing and measuring their properties, things like color, texture, hardness, and how well they conduct heat or electricity. | 5-PS1-3 |
| Conduct an investigation to determine whether the mixing of two or more… | Students mix two or more materials together and observe whether a new substance forms. A vinegar-and-baking-soda reaction or a dissolved-salt experiment can show whether mixing caused a real change or just a physical blend. | 5-PS1-4 |
Plants don't make food from thin air. Students investigate where plants actually get the matter they need to grow, using evidence to explain why soil, water, and air each play a part.
Plants don't grow mainly from soil. Students learn that plants pull carbon dioxide from the air and water from the ground to build new leaves, stems, and roots, then back that claim with evidence.
Students trace how sunlight becomes food energy in plants, then follows a path through the animals that eat them. They use diagrams or models to show how that energy keeps living things growing, moving, and staying alive.
Food gives animals the energy to move, grow, and heal. Students trace that energy back to the sun, showing how sunlight powers nearly every living thing through the food chain.
Students track how matter, like water, carbon, and nutrients, moves through an ecosystem by cycling between living things and non-living parts such as soil, air, and water. They use data and models to show where that matter comes from and where it goes.
Plants, animals, decomposers, and the soil pass matter in a cycle. Students draw or diagram how that cycle works, showing where matter goes when something grows, eats, dies, and breaks down.
| Standard | Definition | Code |
|---|---|---|
| Use investigation, evidence and data to show and explain where plants obtain… | Plants don't make food from thin air. Students investigate where plants actually get the matter they need to grow, using evidence to explain why soil, water, and air each play a part. | WA 5.LS1 |
| Support an argument that plants get the materials they need for growth chiefly… | Plants don't grow mainly from soil. Students learn that plants pull carbon dioxide from the air and water from the ground to build new leaves, stems, and roots, then back that claim with evidence. | 5-LS1-1 |
| Use models to show and explain how the sun’s energy is passed through systems… | Students trace how sunlight becomes food energy in plants, then follows a path through the animals that eat them. They use diagrams or models to show how that energy keeps living things growing, moving, and staying alive. | WA 5.PS3 |
| Use models to describe that energy in animals’ food | Food gives animals the energy to move, grow, and heal. Students trace that energy back to the sun, showing how sunlight powers nearly every living thing through the food chain. | 5-PS3-1 |
| Use evidence, data, and modeling to show and explain the movement of matter… | Students track how matter, like water, carbon, and nutrients, moves through an ecosystem by cycling between living things and non-living parts such as soil, air, and water. They use data and models to show where that matter comes from and where it goes. | WA 5.LS2 |
| Develop a model to describe the movement of matter among plants, animals… | Plants, animals, decomposers, and the soil pass matter in a cycle. Students draw or diagram how that cycle works, showing where matter goes when something grows, eats, dies, and breaks down. | 5-LS2-1 |
Students use data and models to explain why the sun rises and sets, why the moon seems to change shape, and why stars appear in different spots across the sky. These patterns all trace back to how Earth, the moon, and the sun move relative to each other.
Students use distance to explain why the sun looks so much brighter than other stars. The sun isn't the biggest or brightest star in the universe; it just sits far closer to Earth than any other star does.
Students graph shadow lengths, day-and-night cycles, and which stars appear in each season to find the pattern behind all three: Earth spinning and orbiting the Sun.
Students investigate why everything on Earth's surface gets pulled toward the ground. They use data and models to explain how Earth's mass creates that pull and why objects feel heavier or lighter depending on their size.
Gravity always pulls things toward the ground, never sideways or up. Students collect evidence, such as watching objects fall, to argue that Earth's pull works in one direction.
Students learn how Earth's air, water, land, and living things affect each other. They build models and use real evidence to explain what happens when these parts interact, like how rain shapes land or how plants change soil.
Students build a drawing or diagram showing how land, water, air, and living things affect each other. For example, they might show how rain soaks into soil and helps plants grow, or how a river shapes the land around it.
Students sort Earth's water by type and location, then graph the amounts. The work shows just how little fresh water exists compared to the vast amount of salt water in the oceans.
Students research real examples of communities cleaning up rivers, planting trees, or reducing pollution, then explain how those actions improved the local or global environment.
Students research how real communities use science to protect local resources like clean water, soil, or air. They pull that information together to explain what those communities are doing and why it matters.
| Standard | Definition | Code |
|---|---|---|
| Use evidence, data, and modeling to show and explain how relative locations and… | Students use data and models to explain why the sun rises and sets, why the moon seems to change shape, and why stars appear in different spots across the sky. These patterns all trace back to how Earth, the moon, and the sun move relative to each other. | WA 5.ESS1 |
| Support an argument that differences in the apparent brightness of the sun… | Students use distance to explain why the sun looks so much brighter than other stars. The sun isn't the biggest or brightest star in the universe; it just sits far closer to Earth than any other star does. | 5-ESS1-1 |
| Represent data in graphical displays to reveal patterns of daily changes in… | Students graph shadow lengths, day-and-night cycles, and which stars appear in each season to find the pattern behind all three: Earth spinning and orbiting the Sun. | 5-ESS1-2 |
| Use evidence, data, and modeling to show and explain how Earth’s mass affects… | Students investigate why everything on Earth's surface gets pulled toward the ground. They use data and models to explain how Earth's mass creates that pull and why objects feel heavier or lighter depending on their size. | WA 5.PS2 |
| Support an argument that the gravitational force exerted by Earth on objects is… | Gravity always pulls things toward the ground, never sideways or up. Students collect evidence, such as watching objects fall, to argue that Earth's pull works in one direction. | 5-PS2-1 |
| Use evidence and modeling to show and explain how the four major spheres of the… | Students learn how Earth's air, water, land, and living things affect each other. They build models and use real evidence to explain what happens when these parts interact, like how rain shapes land or how plants change soil. | WA 5.ESS2 |
| Develop a model using an example to describe ways the geosphere, biosphere… | Students build a drawing or diagram showing how land, water, air, and living things affect each other. For example, they might show how rain soaks into soil and helps plants grow, or how a river shapes the land around it. | 5-ESS2-1 |
| Describe and graph the amounts of salt water and fresh water in various… | Students sort Earth's water by type and location, then graph the amounts. The work shows just how little fresh water exists compared to the vast amount of salt water in the oceans. | 5-ESS2-2 |
| Conduct research to show and explain how communities can positively affect the… | Students research real examples of communities cleaning up rivers, planting trees, or reducing pollution, then explain how those actions improved the local or global environment. | WA 5.ESS3 |
| Obtain and combine information about ways individual communities use science… | Students research how real communities use science to protect local resources like clean water, soil, or air. They pull that information together to explain what those communities are doing and why it matters. | 5-ESS3-1 |
Students pick a real problem, design a solution, and test it. They track what worked and what didn't, then use that data to make the design better, staying within limits like cost or materials.
| Standard | Definition | Code |
|---|---|---|
| Use modeling, investigation | Students pick a real problem, design a solution, and test it. They track what worked and what didn't, then use that data to make the design better, staying within limits like cost or materials. | WA 5.ETS1 |
Students research a real local environmental problem, then design and present a solution by pulling together what they find about nature, people, and money. They work alongside community members, which may include local tribes.
Students pick a real environmental problem nearby, then research it using multiple sources to explain how it ties to jobs, people's health, and the land. They consider what different community members, including tribal voices, think should be done.
Students pick a real spot on school grounds, such as a parking lot or garden, and collect data to figure out whether it helps or harms the local environment. Then they share what they found.
Students pick a real environmental problem in their community, research ways to fix it, take action, and present what they found. The project shows what students understand about protecting the environment and why it matters for the people who live there.
| Standard | Definition | Code |
|---|---|---|
| Through project-based learning, synthesize information about ecological, social | Students research a real local environmental problem, then design and present a solution by pulling together what they find about nature, people, and money. They work alongside community members, which may include local tribes. | WA.5.ESE.1 |
| Cite multiple sources and perspectives in an analysis of a relevant local… | Students pick a real environmental problem nearby, then research it using multiple sources to explain how it ties to jobs, people's health, and the land. They consider what different community members, including tribal voices, think should be done. | 5.ESE.1-1 |
| Design an investigation on school grounds to gather, analyze | Students pick a real spot on school grounds, such as a parking lot or garden, and collect data to figure out whether it helps or harms the local environment. Then they share what they found. | 5.ESE.1-2 |
| Conduct a project that specifies a local environmental problem, identifies… | Students pick a real environmental problem in their community, research ways to fix it, take action, and present what they found. The project shows what students understand about protecting the environment and why it matters for the people who live there. | 5.ESE.1-3 |
Students study matter and how it changes, how plants and animals get the energy they need, patterns in the sky and seasons, and how Earth's land, water, air, and living things interact. They also work on a project about a real environmental problem in the community.
Cook together and talk about what changes when something melts, dissolves, or bakes. Step outside at the same time each week and notice the moon, the stars, or how long shadows are. Ask what evidence backs up an answer instead of just asking for the answer.
No, and this is a common idea to gently correct. Plants get most of what they need to grow from air and water, not soil. Try growing a bean in a clear cup with a wet paper towel so students can see roots and leaves form without any dirt at all.
A common path is matter and its properties first, then plants and energy from the sun, then ecosystems and matter cycling, then Earth and space patterns, with the environmental project running alongside the second half of the year. This lets earlier work on evidence and measurement feed the later modeling work.
Three sticky ones: weight is conserved when things dissolve or change state, plants build themselves from air and water, and the sun looks bright because it is close, not because it is a bigger star. Plan to revisit each through several investigations, not a single lesson.
Pick one real problem on or near school grounds, such as litter, runoff, or food waste. Students gather data, talk to community members including tribal partners when possible, propose a fix, and report what happened. Keep the scope small enough that students can act on it before the year ends.
By spring, students should be able to plan a simple test, record measurements, draw a model to explain what they think is happening, and back up a claim with evidence from what they saw. Ask them to explain a science idea using a drawing and listen for those habits.
Some words matter, such as evaporate, dissolve, gravity, ecosystem, and decomposer, but understanding beats memorizing. If students can explain what happens to a puddle on a sunny day or where a dead leaf goes in the woods, the words will stick.