Thinking like a scientist
Students start the year learning how scientists work. They ask questions about everyday things, plan small experiments, and keep careful notes so they can spot patterns in what they find.
This is the year science shifts from observing the world to explaining how it works. Students run their own investigations, collect data, and use evidence to back up what they think is happening. They study matter and energy, how living things share an ecosystem, and how Earth fits into the solar system. By spring, students can plan a simple experiment, record results, and explain what the data shows.
Students start the year learning how scientists work. They ask questions about everyday things, plan small experiments, and keep careful notes so they can spot patterns in what they find.
Students explore what stuff is made of and how it moves. They test how pushes and pulls change motion, mix and heat materials, and track how energy travels through light, sound, and heat.
Students look at how plants, animals, and people work as living systems. They follow food and water through an ecosystem and see how traits pass from parents to offspring.
Students study Earth and its neighbors in space. They look at why we have day, night, and seasons, how rocks and water shape the land, and how weather and climate affect daily life.
Students look at how people change Earth and how Earth pushes back through storms, floods, and other hazards. They weigh evidence and suggest ways communities can protect land, water, and air.
Students close the year as young engineers. They pick a real problem, sketch possible fixes, build a model, and test it. Then they use what went wrong to make the next version better.
Students come up with questions that can be tested with an experiment or problems that can be solved by building or designing something. The question or problem has to be specific enough that someone could actually investigate it.
Students build or draw models to show how something in nature works or how an engineered design is put together. The model helps explain what is happening and why.
Students plan a test, gather real data, and use what they find to check whether their idea holds up. This is the core of how scientists work, and fifth graders practice it hands-on.
Students look at collected data, spot patterns, and explain what those patterns mean. This skill shows up when reading a graph, comparing measurements, or figuring out what an experiment's results actually say.
Students use numbers, measurements, and simple calculations to back up their science ideas. Instead of just saying something is "bigger" or "faster," they show it with data.
Students take what they observed or measured and write an explanation that shows why something happened. The explanation has to be backed by evidence, not just a guess.
Students look at two different explanations for how something works and decide which one the evidence supports better. They back up their choice with data or observations, not just opinion.
Students read science articles or data, decide what's reliable, and explain their findings in writing or discussion. The focus is on understanding real sources and sharing what the evidence actually says.
| Standard | Definition | Code |
|---|---|---|
| Asking Questions and Defining Problems | Students come up with questions that can be tested with an experiment or problems that can be solved by building or designing something. The question or problem has to be specific enough that someone could actually investigate it. | VT-SCI.SEP.5.1 |
| Developing and Using Models | Students build or draw models to show how something in nature works or how an engineered design is put together. The model helps explain what is happening and why. | VT-SCI.SEP.5.2 |
| Planning and Carrying Out Investigations | Students plan a test, gather real data, and use what they find to check whether their idea holds up. This is the core of how scientists work, and fifth graders practice it hands-on. | VT-SCI.SEP.5.3 |
| Analyzing and Interpreting Data | Students look at collected data, spot patterns, and explain what those patterns mean. This skill shows up when reading a graph, comparing measurements, or figuring out what an experiment's results actually say. | VT-SCI.SEP.5.4 |
| Mathematics and Computational Thinking | Students use numbers, measurements, and simple calculations to back up their science ideas. Instead of just saying something is "bigger" or "faster," they show it with data. | VT-SCI.SEP.5.5 |
| Constructing Explanations | Students take what they observed or measured and write an explanation that shows why something happened. The explanation has to be backed by evidence, not just a guess. | VT-SCI.SEP.5.6 |
| Engaging in Argument from Evidence | Students look at two different explanations for how something works and decide which one the evidence supports better. They back up their choice with data or observations, not just opinion. | VT-SCI.SEP.5.7 |
| Communicating Information | Students read science articles or data, decide what's reliable, and explain their findings in writing or discussion. The focus is on understanding real sources and sharing what the evidence actually says. | VT-SCI.SEP.5.8 |
Students examine what matter is made of and how tiny particles interact to explain everyday physical changes, like why ice melts or salt dissolves in water.
Students explore why objects speed up, slow down, or stay still by testing how pushes and pulls affect movement. They learn the patterns behind those changes, including what happens when forces balance out.
Students explore how energy moves from one object to another and changes form, such as heat turning into motion or light. They also learn that energy is never created or destroyed, just shifted around.
Students explore how waves, like sound and light, carry energy from place to place and move information, like a radio signal or a phone call, from one point to another.
| Standard | Definition | Code |
|---|---|---|
| Matter and Interactions | Students examine what matter is made of and how tiny particles interact to explain everyday physical changes, like why ice melts or salt dissolves in water. | VT-SCI.PS.5.1 |
| Motion and Stability | Students explore why objects speed up, slow down, or stay still by testing how pushes and pulls affect movement. They learn the patterns behind those changes, including what happens when forces balance out. | VT-SCI.PS.5.2 |
| Energy | Students explore how energy moves from one object to another and changes form, such as heat turning into motion or light. They also learn that energy is never created or destroyed, just shifted around. | VT-SCI.PS.5.3 |
| Waves and Information | Students explore how waves, like sound and light, carry energy from place to place and move information, like a radio signal or a phone call, from one point to another. | VT-SCI.PS.5.4 |
Students examine how living things are built, from the tiny cells that make up all life to the organs and systems those cells form. They connect what a structure looks like to the job it does inside the body.
Students trace how food, water, and nutrients move through an ecosystem as animals eat, die, and decompose. They also study how living things in a community depend on and affect each other.
Students study how traits like eye color or height pass from parents to offspring, and why siblings can look similar but not identical. Variation across generations is the focus.
Students look at how all living things share basic traits while also showing enormous variety, then explore why those differences exist. They study how populations change over generations when certain traits help survival.
| Standard | Definition | Code |
|---|---|---|
| Structures and Processes | Students examine how living things are built, from the tiny cells that make up all life to the organs and systems those cells form. They connect what a structure looks like to the job it does inside the body. | VT-SCI.LS.5.1 |
| Ecosystems | Students trace how food, water, and nutrients move through an ecosystem as animals eat, die, and decompose. They also study how living things in a community depend on and affect each other. | VT-SCI.LS.5.2 |
| Heredity | Students study how traits like eye color or height pass from parents to offspring, and why siblings can look similar but not identical. Variation across generations is the focus. | VT-SCI.LS.5.3 |
| Biological Evolution | Students look at how all living things share basic traits while also showing enormous variety, then explore why those differences exist. They study how populations change over generations when certain traits help survival. | VT-SCI.LS.5.4 |
Students study where Earth sits in the solar system and how the Sun, Moon, and planets move in predictable patterns. They also look at evidence that tells the story of how Earth itself has changed over billions of years.
Students study how Earth's land, water, air, and living things connect and affect each other. They look at real examples of those connections, like how rain shapes soil or how plants change the air.
Students look at how things like building roads or burning fuel change land, water, and air, and how events like floods or earthquakes affect the people living nearby.
| Standard | Definition | Code |
|---|---|---|
| Earth's Place in the Universe | Students study where Earth sits in the solar system and how the Sun, Moon, and planets move in predictable patterns. They also look at evidence that tells the story of how Earth itself has changed over billions of years. | VT-SCI.ESS.5.1 |
| Earth's Systems | Students study how Earth's land, water, air, and living things connect and affect each other. They look at real examples of those connections, like how rain shapes soil or how plants change the air. | VT-SCI.ESS.5.2 |
| Earth and Human Activity | Students look at how things like building roads or burning fuel change land, water, and air, and how events like floods or earthquakes affect the people living nearby. | VT-SCI.ESS.5.3 |
Students identify a problem, sketch or build possible solutions, then test and improve their design until it works better. The focus is on the back-and-forth process of trying, adjusting, and trying again.
Students explore how inventions shape daily life and how real-world problems push engineers to create new tools. A new medical device changes how doctors work; a community's needs drive what gets built next.
| Standard | Definition | Code |
|---|---|---|
| Engineering Design | Students identify a problem, sketch or build possible solutions, then test and improve their design until it works better. The focus is on the back-and-forth process of trying, adjusting, and trying again. | VT-SCI.ETS.5.1 |
| Links Among Engineering, Technology, and Society | Students explore how inventions shape daily life and how real-world problems push engineers to create new tools. A new medical device changes how doctors work; a community's needs drive what gets built next. | VT-SCI.ETS.5.2 |
Science assessment in grade 5, aligned to Vermont's NGSS-based science standards.
Students study matter, forces and motion, energy, waves, living things and ecosystems, Earth and space, and basic engineering. They spend a lot of time asking questions, running small experiments, and explaining what they found using evidence.
Ask them to show you what they tried and what surprised them. Cooking, gardening, watching the weather, or fixing something broken all count as science talk. The goal is curiosity and explaining why, not memorising vocabulary.
Students should know that matter is made of tiny particles too small to see, and that this idea explains things like dissolving sugar, evaporating water, and why a balloon still has weight when full of air. Deep chemistry comes later.
Try ice melting in different spots, balloons rubbed on hair, plants grown in light and dark, or shadows tracked across an afternoon. Ask what they think will happen, then what actually happened. That gap is where the learning lives.
Many teachers spread physical science, life science, and Earth science across the year and weave engineering design into each unit. Practices like asking questions and analysing data are not a separate unit. They show up in every investigation.
Particle ideas about matter, the difference between weight and mass, food webs that include decomposers, and Earth and Sun motion tend to need a second pass. Plan extra time for models and drawings, since these ideas are easier to show than to say.
Students can plan a simple investigation, collect data in a table, spot a pattern, and explain a result using evidence. They can also sketch a model of something they cannot see directly, like the water cycle or particles in a gas.
Quite a bit. Students write claims, back them up with evidence from their data, and explain their reasoning. Short paragraphs and labelled diagrams matter more than long reports at this age.
They should be comfortable running a fair test, reading a simple graph, and arguing a point using data rather than opinion. They should also be willing to revise an idea when the evidence does not match what they expected.