Plants, animals, and survival
Students look at how parts of a plant and the bodies and habits of animals help them stay alive. They explain why a cactus has spines or why some animals sleep through winter.
This is the year science moves from noticing the world to explaining how it works. Students learn how plants and animals pass traits to their young, and how living things adapt when their habitat changes. They investigate matter heating up and cooling down, magnets pulling and pushing, and rocks and landforms shaped over long stretches of time. By spring, students can explain why a parent animal and its offspring share traits but do not look identical.
Students look at how parts of a plant and the bodies and habits of animals help them stay alive. They explain why a cactus has spines or why some animals sleep through winter.
Students learn that living things pass traits to their young. They compare baby animals and plants to their parents and notice how things like sunlight or water can change how a plant or animal grows.
Students explore what happens when a habitat changes. They look at how animals respond, why some species disappear, and use fossils as clues to what an area used to be like.
Students watch what heat does to water, ice, and steam, and explain that matter is made of tiny pieces too small to see. They also test pushes, pulls, and magnets to see how things move.
Students sort rocks by how they form, study Earth's layers, and model how wind and water shape canyons, mountains, and rivers over long stretches of time.
Students map where fresh water and salt water sit on Earth and learn which resources can be replaced and which cannot. They design a way to clean up a polluted area like a spill or flood.
Plants have structures inside and outside their bodies that each do a specific job. Students look at real examples to explain how roots pull in water, leaves catch sunlight, and thorns keep animals away.
Students learn how animals use physical features or behaviors, like hibernating through winter or migrating to warmer places, to survive when food runs low or temperatures become extreme.
| Standard | Definition | Code |
|---|---|---|
| Examine evidence to communicate information that the internal and external… | Plants have structures inside and outside their bodies that each do a specific job. Students look at real examples to explain how roots pull in water, leaves catch sunlight, and thorns keep animals away. | L.3.1B |
| Obtain and communicate examples of physical features or behaviors of… | Students learn how animals use physical features or behaviors, like hibernating through winter or migrating to warmer places, to survive when food runs low or temperatures become extreme. | L.3.1C |
Students learn how living things make more of their own kind and how traits like eye color or leaf shape get passed from parents to offspring.
Plants and animals pass physical traits to their offspring through reproduction. Those traits come from the parents, but things like sunlight, water, and temperature can also shape how an offspring looks or grows.
Traits are features like eye color, leaf shape, or fur pattern that parents pass to their young. Students look at plants and animals to see which traits offspring share with their parents.
Some plants and animals can reproduce alone, without a partner. Offspring from a single parent are exact copies, meaning they look and act just like the parent with no differences.
Kittens get some traits from each parent cat. Students learn that young animals and plants inherit a mix of features from both parents, not just one.
Plants and animals inherit traits from both parents, and those traits vary from one individual to the next. Students gather and share evidence showing why offspring in the same group look similar but not identical.
A plant that doesn't get enough water may grow shorter than it should, and an arctic fox's fur changes color with the seasons. Students study how surroundings can shape the traits an animal or plant shows, even if its genes stay the same.
Students study how different plants and animals are built for the places they live. A duck's webbed feet, a cactus's thick stem, and a polar bear's thick fur are all examples of adaptations.
Animals have physical features and behaviors that help them survive. Students learn how those traits, like a duck's webbed feet or a bear's winter sleep, help animals find food, stay safe, and live in their habitat.
Students read about real places where habitats changed, such as a forest after a wildfire or a pond after a beaver builds a dam, and explain whether those changes helped or hurt the animals living there.
Students predict how changes to a habitat, like a drought or new construction, push animals to hibernate, migrate, or die out. They practice asking questions about why some species survive a change while others don't.
Small differences between animals or plants of the same kind can help some survive longer or have more offspring. Students look at data to figure out which traits, like sharper thorns or better camouflage, give certain individuals an edge.
Students pick a real problem, like animals losing habitat or plants disappearing from an area, and design a solution to fix it. Then they test and improve that solution the way an engineer would.
Fossils are clues about what the world looked like millions of years ago. Students study plant and animal fossils to figure out what an ancient place was like, such as whether land that is now dry was once covered by ocean.
| Standard | Definition | Code |
|---|---|---|
| Reproduction and Heredity | Students learn how living things make more of their own kind and how traits like eye color or leaf shape get passed from parents to offspring. | L.3.2 |
| Students will demonstrate an understanding that through reproduction, the… | Plants and animals pass physical traits to their offspring through reproduction. Those traits come from the parents, but things like sunlight, water, and temperature can also shape how an offspring looks or grows. | L.3.2A |
| Identify traits and describe how traits are passed from parent organism | Traits are features like eye color, leaf shape, or fur pattern that parents pass to their young. Students look at plants and animals to see which traits offspring share with their parents. | L.3.2A.1 |
| Describe and provide examples of plant and animal offspring from a single… | Some plants and animals can reproduce alone, without a partner. Offspring from a single parent are exact copies, meaning they look and act just like the parent with no differences. | L.3.2A.2 |
| Describe and provide examples of offspring from two parent organisms as… | Kittens get some traits from each parent cat. Students learn that young animals and plants inherit a mix of features from both parents, not just one. | L.3.2A.3 |
| Obtain and communicate data to provide evidence that plants and animals have… | Plants and animals inherit traits from both parents, and those traits vary from one individual to the next. Students gather and share evidence showing why offspring in the same group look similar but not identical. | L.3.2A.4 |
| Research to justify the concept that traits can be influenced by the environment | A plant that doesn't get enough water may grow shorter than it should, and an arctic fox's fur changes color with the seasons. Students study how surroundings can shape the traits an animal or plant shows, even if its genes stay the same. | L.3.2A.5 |
| Adaptations and Diversity | Students study how different plants and animals are built for the places they live. A duck's webbed feet, a cactus's thick stem, and a polar bear's thick fur are all examples of adaptations. | L.3.4 |
| Students will demonstrate an understanding of how adaptations allow animals to… | Animals have physical features and behaviors that help them survive. Students learn how those traits, like a duck's webbed feet or a bear's winter sleep, help animals find food, stay safe, and live in their habitat. | L.3.4A |
| Obtain data from informational text to explain how changes in habitats | Students read about real places where habitats changed, such as a forest after a wildfire or a pond after a beaver builds a dam, and explain whether those changes helped or hurt the animals living there. | L.3.4A.1 |
| Ask questions to predict how natural or man-made changes in a habitat cause… | Students predict how changes to a habitat, like a drought or new construction, push animals to hibernate, migrate, or die out. They practice asking questions about why some species survive a change while others don't. | L.3.4A.2 |
| Analyze and interpret data to explain how variations in characteristics among… | Small differences between animals or plants of the same kind can help some survive longer or have more offspring. Students look at data to figure out which traits, like sharper thorns or better camouflage, give certain individuals an edge. | L.3.4A.3 |
| Define and improve a solution to a problem created by environmental changes and… | Students pick a real problem, like animals losing habitat or plants disappearing from an area, and design a solution to fix it. Then they test and improve that solution the way an engineer would. | L.3.4A.4 |
| Construct scientific argument using evidence from fossils of plants and animals… | Fossils are clues about what the world looked like millions of years ago. Students study plant and animal fossils to figure out what an ancient place was like, such as whether land that is now dry was once covered by ocean. | L.3.4A.5 |
Students learn that matter is made of smaller building blocks and that mixing or changing materials can create something new with different properties.
Heating or cooling changes what matter looks like and how it acts. Students learn why ice melts into water, water boils into steam, and steam cools back into liquid, all because of how much heat is present.
Students heat up and cool down everyday materials like water or butter to watch them melt, freeze, or boil. They plan the experiment themselves and record what changes they see.
Matter is made of tiny moving particles too small to see. Students build or draw models to show how those invisible particles explain everyday things, like why a balloon holds its shape or why dust floats in the air.
Students heat and cool simple materials, like water or butter, and watch how fast the tiny particles inside move depending on the temperature.
Students study how objects move, what makes them speed up or slow down, and how energy plays a role in pushing and pulling things around them.
Magnets pull some objects closer and push others away. Students learn how pushing, pulling, and rough surfaces change the way objects move.
Pushing or pulling an object harder makes it move faster or farther. Students compare what happens when forces like gravity or magnets act in different directions or with different strengths on the same object.
Students plan an experiment to test how a force like gravity or friction changes the way an object moves. They choose what to test, predict what will happen, and carry out the investigation.
Students research how magnets are used in everyday objects, like cabinet latches, refrigerator doors, and speakers, then explain what they found in writing or a presentation.
Students identify a real problem and use what they know about magnets to solve it. They design, build, and test a simple tool or fix, then adjust it until it works better.
| Standard | Definition | Code |
|---|---|---|
| Organization of Matter and Chemical Interactions | Students learn that matter is made of smaller building blocks and that mixing or changing materials can create something new with different properties. | P.3.5 |
| Students will demonstrate an understanding of the physical properties of matter… | Heating or cooling changes what matter looks like and how it acts. Students learn why ice melts into water, water boils into steam, and steam cools back into liquid, all because of how much heat is present. | P.3.5A |
| Plan and conduct scientific investigations to determine how changes in heat | Students heat up and cool down everyday materials like water or butter to watch them melt, freeze, or boil. They plan the experiment themselves and record what changes they see. | P.3.5A.1 |
| Develop and use models to communicate the concept that matter is made of… | Matter is made of tiny moving particles too small to see. Students build or draw models to show how those invisible particles explain everyday things, like why a balloon holds its shape or why dust floats in the air. | P.3.5A.2 |
| Plan and conduct investigations that particles speed up or slow down with… | Students heat and cool simple materials, like water or butter, and watch how fast the tiny particles inside move depending on the temperature. | P.3.5A.3 |
| Motions, Forces, and Energy | Students study how objects move, what makes them speed up or slow down, and how energy plays a role in pushing and pulling things around them. | P.3.6 |
| Students will demonstrate an understanding of magnets and the effects of… | Magnets pull some objects closer and push others away. Students learn how pushing, pulling, and rough surfaces change the way objects move. | P.3.6A |
| Compare and contrast the effects of different strengths and directions of… | Pushing or pulling an object harder makes it move faster or farther. Students compare what happens when forces like gravity or magnets act in different directions or with different strengths on the same object. | P.3.6A.1 |
| Plan an experiment to investigate the relationship between a force applied to… | Students plan an experiment to test how a force like gravity or friction changes the way an object moves. They choose what to test, predict what will happen, and carry out the investigation. | P.3.6A.2 |
| Research and communicate information to explain how magnets are used in… | Students research how magnets are used in everyday objects, like cabinet latches, refrigerator doors, and speakers, then explain what they found in writing or a presentation. | P.3.6A.3 |
| Define and solve a simple design problem by applying scientific ideas about… | Students identify a real problem and use what they know about magnets to solve it. They design, build, and test a simple tool or fix, then adjust it until it works better. | P.3.6A.4 |
Students learn how Earth is layered beneath the surface and how rocks, fossils, and landforms hold clues about what the planet looked like long ago.
Rocks form, break down, and form again in a slow, repeating cycle. Students learn how rock layers stack up over time and how plants or animals can become fossils preserved inside those layers.
Students conduct simple experiments to learn how igneous, sedimentary, and metamorphic rocks form, then practice the hands-on tests geologists use to tell those rocks apart.
Students build models to show how rock layers form on top of each other over time, then explain how those layers can crack and shift.
Students study why fossils form inside certain rocks and not others. They learn to ask questions they can actually test, like why shell fossils appear in one layer of rock but bone fossils appear in another.
Rocks, soil, and water make up Earth's surface, and forces like wind, water, and volcanoes slowly reshape it. Students learn to identify what Earth is made of and explain how landforms change over time.
Students learn the four main layers inside Earth (crust, mantle, outer core, inner core) and what each one is made of. They read or research to find that information, then explain how the layers differ.
Students learn to recognize and sort major landforms like volcanoes, mountains, valleys, canyons, plains, and islands. They use drawings or models to show what each one looks like and explain what makes it different from the others.
Weathering breaks rock apart, erosion carries the pieces away, and deposition drops them somewhere new. Together, these three processes slowly reshape the land into features like canyons, arches, and bluffs.
Students sort Earth-changing events into two groups: ones that build up land (like volcanoes adding new rock) and ones that break it down (like rivers washing soil away). They explain how each process shapes the ground beneath us.
Students learn how Earth's land, water, air, and weather work together as connected systems that follow repeating patterns over time, like seasons changing or water moving between clouds and the ground.
The ground, water, air, and living things all push and pull on each other. Students learn how those interactions shape the soil, rocks, and landscapes we see every day.
Students draw diagrams or build models to show the four major parts of Earth: the rocky ground, the water, the air, and all living things. Each model shows what that part looks like and how it fits with the others.
Water shapes the land as it flows and collects. Students explain how rivers carve valleys, deltas form where rivers meet the sea, and basins gather water from surrounding hills.
Students read a chart or map showing where Earth's water is found, then explain how most of it is saltwater in the oceans and only a small amount is the freshwater we drink or find in rivers, lakes, and ice.
Students learn where Earth's natural resources come from, such as water, soil, and rock, and how people use them in everyday life.
Everything people use, from the wood in a house to the fuel in a car, starts as a natural material found on Earth. Students learn to trace everyday objects back to their natural source.
Students sort everyday resources like water, soil, wood, and oil into two groups: ones that can regrow or refill over time, and ones that can run out.
Students learn the difference between resources that run out (like coal or oil) and resources that naturally replenish (like sunlight or wind). They explain how people get these resources, use them, and work to protect them.
Students use maps and old records to find natural resources in the state, then explain how people use those resources and what happens to the land, water, or air when they do.
Students design a way to clean up a polluted environment, like an oil spill or flooded street. They define the problem, build a solution, test it, and improve it based on what they find.
| Standard | Definition | Code |
|---|---|---|
| Earth's Structure and History | Students learn how Earth is layered beneath the surface and how rocks, fossils, and landforms hold clues about what the planet looked like long ago. | E.3.7 |
| Students will demonstrate an understanding of the various processes involved in… | Rocks form, break down, and form again in a slow, repeating cycle. Students learn how rock layers stack up over time and how plants or animals can become fossils preserved inside those layers. | E.3.7A |
| Plan and conduct controlled scientific investigations to identify the processes… | Students conduct simple experiments to learn how igneous, sedimentary, and metamorphic rocks form, then practice the hands-on tests geologists use to tell those rocks apart. | E.3.7A.1 |
| Develop and use models to demonstrate the processes involved in the development… | Students build models to show how rock layers form on top of each other over time, then explain how those layers can crack and shift. | E.3.7A.2 |
| Ask questions to generate testable hypotheses regarding the formation and… | Students study why fossils form inside certain rocks and not others. They learn to ask questions they can actually test, like why shell fossils appear in one layer of rock but bone fossils appear in another. | E.3.7A.3 |
| Students will demonstrate an understanding of the composition of Earth and the… | Rocks, soil, and water make up Earth's surface, and forces like wind, water, and volcanoes slowly reshape it. Students learn to identify what Earth is made of and explain how landforms change over time. | E.3.7B |
| Obtain and evaluate scientific information | Students learn the four main layers inside Earth (crust, mantle, outer core, inner core) and what each one is made of. They read or research to find that information, then explain how the layers differ. | E.3.7B.1 |
| Develop and use models to describe the characteristics of Earth's continental… | Students learn to recognize and sort major landforms like volcanoes, mountains, valleys, canyons, plains, and islands. They use drawings or models to show what each one looks like and explain what makes it different from the others. | E.3.7B.2 |
| Develop and use models of weathering, erosion | Weathering breaks rock apart, erosion carries the pieces away, and deposition drops them somewhere new. Together, these three processes slowly reshape the land into features like canyons, arches, and bluffs. | E.3.7B.3 |
| Compare and contrast constructive | Students sort Earth-changing events into two groups: ones that build up land (like volcanoes adding new rock) and ones that break it down (like rivers washing soil away). They explain how each process shapes the ground beneath us. | E.3.7B.4 |
| Earth's Systems and Cycles | Students learn how Earth's land, water, air, and weather work together as connected systems that follow repeating patterns over time, like seasons changing or water moving between clouds and the ground. | E.3.9 |
| Students will demonstrate an understanding of how the Earth's systems | The ground, water, air, and living things all push and pull on each other. Students learn how those interactions shape the soil, rocks, and landscapes we see every day. | E.3.9A |
| Develop models to communicate the characteristics of the Earth's major systems… | Students draw diagrams or build models to show the four major parts of Earth: the rocky ground, the water, the air, and all living things. Each model shows what that part looks like and how it fits with the others. | E.3.9A.1 |
| Construct explanations of how different landforms and surface features result… | Water shapes the land as it flows and collects. Students explain how rivers carve valleys, deltas form where rivers meet the sea, and basins gather water from surrounding hills. | E.3.9A.2 |
| Use graphical representations to communicate the distribution of freshwater and… | Students read a chart or map showing where Earth's water is found, then explain how most of it is saltwater in the oceans and only a small amount is the freshwater we drink or find in rivers, lakes, and ice. | E.3.9A.3 |
| Earth's Resources | Students learn where Earth's natural resources come from, such as water, soil, and rock, and how people use them in everyday life. | E.3.10 |
| Students will demonstrate an understanding that all materials, energy | Everything people use, from the wood in a house to the fuel in a car, starts as a natural material found on Earth. Students learn to trace everyday objects back to their natural source. | E.3.10A |
| Identify some of Earth's resources that are used in everyday life such as… | Students sort everyday resources like water, soil, wood, and oil into two groups: ones that can regrow or refill over time, and ones that can run out. | E.3.10A.1 |
| Obtain and communicate information to exemplify how humans attain, use | Students learn the difference between resources that run out (like coal or oil) and resources that naturally replenish (like sunlight or wind). They explain how people get these resources, use them, and work to protect them. | E.3.10A.2 |
| Use maps and historical information to identify natural resources in the state… | Students use maps and old records to find natural resources in the state, then explain how people use those resources and what happens to the land, water, or air when they do. | E.3.10A.3 |
| Design a process for cleaning a polluted environment | Students design a way to clean up a polluted environment, like an oil spill or flooded street. They define the problem, build a solution, test it, and improve it based on what they find. | E.3.10A.4 |
Students study living things, matter, forces, and Earth. They look at how plants and animals survive, how heat changes matter from solid to liquid to gas, how magnets and pushes affect motion, and how rocks, water, and weather shape the land.
Pay attention to the world together. Watch ice melt in a glass, notice which animals show up in the yard each season, or sort objects by whether a magnet sticks. Ask students to explain what they see and what they think will happen next.
Memorizing word lists is not the goal. Students should be able to explain ideas like melting, freezing, force, magnet, fossil, and habitat in their own words, using examples they have actually seen or tested.
Start with life science topics that connect to what students can observe outside, like plant parts and animal traits. Build investigation routines early so students are ready for the heat, motion, and rock cycle work later in the year.
Inherited traits versus environmental influence trips students up, and so does the idea that matter is made of tiny particles too small to see. Plan extra time and hands-on models for both before moving on.
Students should ask a question, make a prediction, try something, and explain what happened. Melting ice cubes in different spots, testing what magnets pull, or measuring how water moves soil all count when students record what they notice.
Students should be able to explain how plants and animals survive in their habitats, describe how heat changes matter, predict how forces and magnets move objects, and tell how rocks, water, and weather change the land over time.
Pick one thing and ask why. Why does the puddle disappear? Why does the magnet stick to the fridge but not the wall? Five minutes of noticing and explaining builds the same habits students use in class.