This is the year science stretches beyond what students can see in the room and asks them to explain why things happen. Students learn that matter still exists when it melts or seems to vanish, and that forces like gravity pull things toward the center of the Earth. They study how the sun, Earth, and moon move together to cause day, night, seasons, and eclipses. By spring, students can use a model to explain why we have day and night.
Students study solids, liquids, and gases and watch what happens when ice melts or water boils. They learn that the amount of stuff stays the same even when it looks like it disappeared, and they test what happens when two substances mix.
Students push, pull, and roll objects to see how balanced and unbalanced forces change motion. They learn that gravity pulls things toward the center of the Earth and use patterns to predict where a moving object will go next.
Students use models to explain day and night, shadows, seasons, tides, and the phases of the moon. They learn why the sun looks brighter than other stars and where Earth sits inside the Milky Way.
Students look at how animals use their senses to take in information and how the brain stores it as memory. They compare behaviors animals are born with to ones they pick up through experience.
Students sort traits that come from parents from traits shaped by the environment, like a plant grown in the shade. They use examples to explain how small differences between animals of the same kind can help some survive better.
Students build a simple prototype, test one part at a time, and use what failed to make it better. They practice using rulers, scales, and other tools to measure carefully and answer a question they can actually test.
Students study what things are made of and how materials change when they mix, heat up, or react with each other.
Students learn how forces like gravity and magnetism make objects move, stop, or stay still. They study what keeps things balanced and what causes them to speed up, slow down, or change direction.
Students learn how living things are built and how they keep themselves alive, from the tiny molecules inside cells to the organs and systems that work together in a whole plant or animal.
Students learn why offspring look similar to their parents but not identical. They explore how traits like eye color or height are passed down and why siblings can look different from each other.
Students study how living things change over time and why some traits help animals and plants survive while others fade out. The focus is on how life on Earth has diversified across millions of years.
Students learn how Earth moves through space, including its orbit around the sun and how that motion causes day, night, and the seasons.
Students tackle a real problem by brainstorming ideas, building a model or prototype, and testing whether it works. Then they use what they learn from testing to improve their design.
Students learn how science discoveries lead to new technologies, and how those technologies shape daily life. They trace the connections between what scientists find out, what engineers build, and how people use those inventions.
| Standard | Definition | Code |
|---|---|---|
| Matter and Its Interactions | Students study what things are made of and how materials change when they mix, heat up, or react with each other. | 5.PS1 |
| Motion and Stability | Students learn how forces like gravity and magnetism make objects move, stop, or stay still. They study what keeps things balanced and what causes them to speed up, slow down, or change direction. | 5.PS2 |
| From Molecules to Organisms | Students learn how living things are built and how they keep themselves alive, from the tiny molecules inside cells to the organs and systems that work together in a whole plant or animal. | 5.LS1 |
| Heredity: Inheritance and Variation of Traits | Students learn why offspring look similar to their parents but not identical. They explore how traits like eye color or height are passed down and why siblings can look different from each other. | 5.LS3 |
| Biological Change: Unity and Diversity | Students study how living things change over time and why some traits help animals and plants survive while others fade out. The focus is on how life on Earth has diversified across millions of years. | 5.LS4 |
| Earth’s Place in the Universe | Students learn how Earth moves through space, including its orbit around the sun and how that motion causes day, night, and the seasons. | 5.ESS1 |
| Engineering Design | Students tackle a real problem by brainstorming ideas, building a model or prototype, and testing whether it works. Then they use what they learn from testing to improve their design. | 5.ETS1 |
| Links Among Engineering, Technology, Science | Students learn how science discoveries lead to new technologies, and how those technologies shape daily life. They trace the connections between what scientists find out, what engineers build, and how people use those inventions. | 5.ETS2 |
Students look at temperature readings and other measurements to explain why matter changes from solid to liquid to gas, or back again, like ice melting or water freezing.
Matter doesn't disappear when it burns, melts, or dissolves. Students track the total weight before and after a change to show that the same amount of matter is still there, just in a different form.
Students examine what happens when materials are mixed together, then argue whether a new substance formed or the original materials are still there. The evidence comes from changes in color, smell, texture, or how the material behaves.
| Standard | Definition | Code |
|---|---|---|
| Analyze and interpret data from observations and measurements of the physical… | Students look at temperature readings and other measurements to explain why matter changes from solid to liquid to gas, or back again, like ice melting or water freezing. | 5.PS1.1 |
| Analyze and interpret data to show that the amount of matter is conserved even… | Matter doesn't disappear when it burns, melts, or dissolves. Students track the total weight before and after a change to show that the same amount of matter is still there, just in a different form. | 5.PS1.2 |
| Construct an argument using the physical properties of matter that combining… | Students examine what happens when materials are mixed together, then argue whether a new substance formed or the original materials are still there. The evidence comes from changes in color, smell, texture, or how the material behaves. | 5.PS1.3 |
Students test what happens when forces on an object are equal (it stays put) versus unequal (it moves or changes direction). They plan the experiment, collect the results, and use those results as evidence.
Students track how an object moves, recording speed and direction, then use that pattern to predict where it will go next.
Students learn that gravity always pulls things straight down toward Earth's center, not just "down" in a vague way. They back that up with evidence, like watching objects fall or comparing how weight changes with distance from Earth.
Forces push and pull objects into patterns: straight paths, back-and-forth swings, or repeating cycles. Students explain what changes how fast or slow those patterns happen, like added weight or a stronger push.
| Standard | Definition | Code |
|---|---|---|
| Plan and carry out an investigation to provide evidence of the effects of… | Students test what happens when forces on an object are equal (it stays put) versus unequal (it moves or changes direction). They plan the experiment, collect the results, and use those results as evidence. | 5.PS2.1 |
| Make observations and measurements of an object’s motion to provide evidence… | Students track how an object moves, recording speed and direction, then use that pattern to predict where it will go next. | 5.PS2.2 |
| Use evidence to support that the gravitational force exerted by Earth on… | Students learn that gravity always pulls things straight down toward Earth's center, not just "down" in a vague way. They back that up with evidence, like watching objects fall or comparing how weight changes with distance from Earth. | 5.PS2.3 |
| Explain how forces can create patterns within a system | Forces push and pull objects into patterns: straight paths, back-and-forth swings, or repeating cycles. Students explain what changes how fast or slow those patterns happen, like added weight or a stronger push. | 5.PS2.4 |
Students sort animal behaviors into two groups: things animals are born knowing how to do, like a spider spinning a web, and things they figure out through experience, like a dog learning to sit on command.
| Standard | Definition | Code |
|---|---|---|
| Compare and contrast animal responses that are instinctual versus those that… | Students sort animal behaviors into two groups: things animals are born knowing how to do, like a spider spinning a web, and things they figure out through experience, like a dog learning to sit on command. | 5.LS1.1 |
Some traits come from parents, like eye color or a cat's fur pattern. Others are shaped by surroundings, like a plant growing tall in sunlight or a scar from an injury. Students sort traits by what causes them and explain how many traits involve both.
Students look at real examples, like coat color in dogs or leaf shape in plants, to show that offspring inherit traits from their parents. They also notice that siblings or members of the same species aren't identical.
| Standard | Definition | Code |
|---|---|---|
| Distinguish between inherited characteristics and those characteristics that… | Some traits come from parents, like eye color or a cat's fur pattern. Others are shaped by surroundings, like a plant growing tall in sunlight or a scar from an injury. Students sort traits by what causes them and explain how many traits involve both. | 5.LS3.1 |
| Provide evidence and analyze data that plants and animals have traits inherited… | Students look at real examples, like coat color in dogs or leaf shape in plants, to show that offspring inherit traits from their parents. They also notice that siblings or members of the same species aren't identical. | 5.LS3.2 |
Some animals in a species are faster, stronger, or better camouflaged than others. Students explain how those small differences can help certain individuals survive longer and have more offspring.
| Standard | Definition | Code |
|---|---|---|
| Use evidence to construct an explanation for how variations in characteristics… | Some animals in a species are faster, stronger, or better camouflaged than others. Students explain how those small differences can help certain individuals survive longer and have more offspring. | 5.LS4.1 |
The sun looks brighter than other stars because it is much closer to Earth. Students learn that a star's brightness in the sky depends on how far away it is, not how big or hot it actually is.
Students locate Earth inside the Milky Way galaxy and describe where the solar system sits within it. They also compare the Milky Way's size and shape to other galaxies scattered across the universe.
Students use a simple diagram to show why Earth spinning once a day creates daytime and nighttime, and why shadows grow long in the morning, shrink at noon, and stretch out again by evening.
Students learn why the moon looks different each night, why ocean tides rise and fall, and what causes a solar or lunar eclipse. It all comes down to how the sun, Earth, and moon line up as they move.
Earth's tilted axis means some places get more direct sunlight than others as we orbit the sun. Students explain why that tilt causes summer and winter, and why days grow longer or shorter depending on the time of year.
Students use star maps and observation tools to find constellations in the night sky and track how those star patterns shift to different positions as Earth moves through the seasons.
| Standard | Definition | Code |
|---|---|---|
| Explain that differences in the apparent brightness of the sun compared to… | The sun looks brighter than other stars because it is much closer to Earth. Students learn that a star's brightness in the sky depends on how far away it is, not how big or hot it actually is. | 5.ESS1.1 |
| Research and explain the position of the Earth and the solar system within the… | Students locate Earth inside the Milky Way galaxy and describe where the solar system sits within it. They also compare the Milky Way's size and shape to other galaxies scattered across the universe. | 5.ESS1.2 |
| Use a model to explain how the orbit of the Earth and sun cause observable… | Students use a simple diagram to show why Earth spinning once a day creates daytime and nighttime, and why shadows grow long in the morning, shrink at noon, and stretch out again by evening. | 5.ESS1.3 |
| Explain the cause and effect relationship between the positions of the sun… | Students learn why the moon looks different each night, why ocean tides rise and fall, and what causes a solar or lunar eclipse. It all comes down to how the sun, Earth, and moon line up as they move. | 5.ESS1.4 |
| Relate the tilt of the Earth’s axis, as it revolves around the sun, to the… | Earth's tilted axis means some places get more direct sunlight than others as we orbit the sun. Students explain why that tilt causes summer and winter, and why days grow longer or shorter depending on the time of year. | 5.ESS1.5 |
| Use tools to describe the position of constellations and how they appear to… | Students use star maps and observation tools to find constellations in the night sky and track how those star patterns shift to different positions as Earth moves through the seasons. | 5.ESS1.6 |
Students build a rough version of their design, test one part at a time to see what breaks or falls short, and then use what they learned to make it better.
| Standard | Definition | Code |
|---|---|---|
| Plan and carry out tests on one or more elements of a prototype in which… | Students build a rough version of their design, test one part at a time to see what breaks or falls short, and then use what they learned to make it better. | 5.ETS1.1 |
Students choose the right tool for the job, whether that means a ruler, a thermometer, or a scale, then use it to collect measurements that answer a specific science question.
| Standard | Definition | Code |
|---|---|---|
| Use appropriate tools to make measurements and answer testable questions | Students choose the right tool for the job, whether that means a ruler, a thermometer, or a scale, then use it to collect measurements that answer a specific science question. | 5.ETS2.1 |
Students study matter and how it changes, forces and motion, plants and animals and the traits they inherit, and Earth's place in space. They also plan simple tests and improve a design based on what the tests show.
Talk about everyday science. Watch ice melt in a glass, notice how shadows move across the yard, look at the moon over a week, or guess which paper airplane will fly farther and then test it. Five minutes of noticing and asking why goes a long way.
Students can explain why matter is conserved when something melts or dissolves, predict motion from a pattern, describe what causes day, night, seasons, and moon phases, and tell which traits come from parents and which come from the environment.
Many teachers start with matter and forces in the fall, move to life science and heredity in the winter, and finish with Earth and space in the spring. Engineering design works best woven through each unit, not saved for the end.
The sugar is still there, just spread through the water. Try weighing a cup of water, stirring in a spoon of sugar, and weighing it again. The weight stays the same, which is the big idea behind conservation of matter.
Conservation of matter during phase changes and dissolving, the difference between inherited and learned traits, and the cause of seasons. Students often think seasons come from Earth being closer to the sun, when the tilt of the axis is the real reason.
Go outside after dinner and find the moon, then look again a week later and talk about how it changed shape. On a sunny day, mark a shadow in the morning and check it at noon. These small habits build the patterns the unit is about.
Students should ask a testable question, change one thing at a time, measure with a ruler, scale, or stopwatch, and use the results to back up a claim. Redesigning a prototype after a failed test counts too, and shows real engineering thinking.
They can read a simple data table, explain a cause and effect with evidence, and use words like force, gravity, trait, orbit, and matter in the right context. They should also be comfortable revising an idea when the data does not match their first guess.