Asking questions like scientists
Students start the year by noticing things around them and asking questions they can answer by looking, measuring, or testing. They learn to plan a simple investigation and write down what they see.
This is the year science becomes a habit of asking questions and looking for answers. Students notice patterns in the world around them, like how plants grow, how objects move when pushed or pulled, and how weather changes day to day. They sketch what they see, test simple ideas, and talk about what the results mean. By spring, students can ask a question about something they noticed outside and plan a small way to find out more.
Students start the year by noticing things around them and asking questions they can answer by looking, measuring, or testing. They learn to plan a simple investigation and write down what they see.
Students explore what things are made of and how they change when heated, cooled, pushed, or pulled. They test how objects move and where sound, light, and heat come from.
Students look at how plants and animals grow, what they need to live, and how they fit into the places they live. They compare parents and babies and notice traits that pass from one to the next.
Students track the sun, moon, and weather over time and look at land, water, and air around them. They see how people affect rivers, soil, and air, and what helps keep them clean.
Students finish the year acting like engineers. They pick a small problem, sketch a design, build it, test it, and improve it. Then they share what worked and what they would change.
Students come up with questions that can be tested with an experiment, and problems that could be solved by building or designing something.
Students draw or build a simple model (like a diagram or a physical mockup) to show how something in nature works or how a design would function. The model helps explain an idea that's hard to see just by looking.
Students plan a simple test, carry it out, and record what they find. The goal is to answer a question with real evidence, not a guess.
Students look at collected data, such as a chart or tally of measurements, and explain what it shows. They spot patterns, like which result happened most often or how something changed over time.
Students use counting, measuring, and simple math to back up what they notice in science. A chart or a number helps explain why something happened.
Students back up their explanations with evidence from what they observed or tested. They use that evidence to show why something happened or how a problem could be solved.
Students look at two different explanations or solutions, then use evidence to argue which one works better. The focus is on backing up a choice with real reasons, not just opinion.
Students read simple science texts, look at diagrams and charts, and share what they learned. They practice deciding whether information makes sense and explaining findings in their own words.
| Standard | Definition | Code |
|---|---|---|
| Asking Questions and Defining Problems | Students come up with questions that can be tested with an experiment, and problems that could be solved by building or designing something. | ME-SCI.SEP.2.1 |
| Developing and Using Models | Students draw or build a simple model (like a diagram or a physical mockup) to show how something in nature works or how a design would function. The model helps explain an idea that's hard to see just by looking. | ME-SCI.SEP.2.2 |
| Planning and Carrying Out Investigations | Students plan a simple test, carry it out, and record what they find. The goal is to answer a question with real evidence, not a guess. | ME-SCI.SEP.2.3 |
| Analyzing and Interpreting Data | Students look at collected data, such as a chart or tally of measurements, and explain what it shows. They spot patterns, like which result happened most often or how something changed over time. | ME-SCI.SEP.2.4 |
| Mathematics and Computational Thinking | Students use counting, measuring, and simple math to back up what they notice in science. A chart or a number helps explain why something happened. | ME-SCI.SEP.2.5 |
| Constructing Explanations | Students back up their explanations with evidence from what they observed or tested. They use that evidence to show why something happened or how a problem could be solved. | ME-SCI.SEP.2.6 |
| Engaging in Argument from Evidence | Students look at two different explanations or solutions, then use evidence to argue which one works better. The focus is on backing up a choice with real reasons, not just opinion. | ME-SCI.SEP.2.7 |
| Communicating Information | Students read simple science texts, look at diagrams and charts, and share what they learned. They practice deciding whether information makes sense and explaining findings in their own words. | ME-SCI.SEP.2.8 |
Students learn why things look, feel, and behave the way they do by studying what matter is made of and how tiny particles interact. This is the foundation for explaining everyday physical events.
Students push, pull, and observe how objects speed up, slow down, or stay still. They learn why a ball rolls farther on a hard floor than on grass, and what it takes to stop something that's already moving.
Students explore how energy shows up in everyday forms like light, heat, and sound, then trace what happens when energy moves from one object to another. They learn that energy changes form but doesn't disappear.
Students explore how waves move energy from place to place, like sound traveling through air or light bouncing off a mirror. They look at how waves carry information, the way a phone call or a walkie-talkie sends a voice across a distance.
| Standard | Definition | Code |
|---|---|---|
| Matter and Interactions | Students learn why things look, feel, and behave the way they do by studying what matter is made of and how tiny particles interact. This is the foundation for explaining everyday physical events. | ME-SCI.PS.2.1 |
| Motion and Stability | Students push, pull, and observe how objects speed up, slow down, or stay still. They learn why a ball rolls farther on a hard floor than on grass, and what it takes to stop something that's already moving. | ME-SCI.PS.2.2 |
| Energy | Students explore how energy shows up in everyday forms like light, heat, and sound, then trace what happens when energy moves from one object to another. They learn that energy changes form but doesn't disappear. | ME-SCI.PS.2.3 |
| Waves and Information | Students explore how waves move energy from place to place, like sound traveling through air or light bouncing off a mirror. They look at how waves carry information, the way a phone call or a walkie-talkie sends a voice across a distance. | ME-SCI.PS.2.4 |
Students learn how living things are built and how they work, from the tiny parts inside a plant or animal all the way up to the organs and systems that keep it alive.
Students explore how living things in a habitat depend on each other for food and shelter. They look at how plants, animals, and other organisms pass energy and materials along a food chain.
Students look at plants or animals across generations to see which traits get passed from parents to offspring and which ones vary. A puppy might have its mother's coat color but different ear shape.
Students look at how different living things (plants, animals, insects) share some features and differ in others, and begin to explore why those differences matter for survival.
| Standard | Definition | Code |
|---|---|---|
| Structures and Processes | Students learn how living things are built and how they work, from the tiny parts inside a plant or animal all the way up to the organs and systems that keep it alive. | ME-SCI.LS.2.1 |
| Ecosystems | Students explore how living things in a habitat depend on each other for food and shelter. They look at how plants, animals, and other organisms pass energy and materials along a food chain. | ME-SCI.LS.2.2 |
| Heredity | Students look at plants or animals across generations to see which traits get passed from parents to offspring and which ones vary. A puppy might have its mother's coat color but different ear shape. | ME-SCI.LS.2.3 |
| Biological Evolution | Students look at how different living things (plants, animals, insects) share some features and differ in others, and begin to explore why those differences matter for survival. | ME-SCI.LS.2.4 |
Students study where Earth sits in the solar system and how it moves around the sun. They also look at patterns in the sky, like why day follows night, and explore how Earth itself has changed over a long span of time.
Students learn that Earth has four main parts: the land, the water, the air, and all living things. They look at how these parts affect each other, like how rain fills rivers and rivers shape the ground.
Students explore how people change the land, water, and air around them, and how events like floods or storms affect where and how people live.
| Standard | Definition | Code |
|---|---|---|
| Earth's Place in the Universe | Students study where Earth sits in the solar system and how it moves around the sun. They also look at patterns in the sky, like why day follows night, and explore how Earth itself has changed over a long span of time. | ME-SCI.ESS.2.1 |
| Earth's Systems | Students learn that Earth has four main parts: the land, the water, the air, and all living things. They look at how these parts affect each other, like how rain fills rivers and rivers shape the ground. | ME-SCI.ESS.2.2 |
| Earth and Human Activity | Students explore how people change the land, water, and air around them, and how events like floods or storms affect where and how people live. | ME-SCI.ESS.2.3 |
Students spot a problem, sketch out ideas for fixing it, then test their designs and improve them based on what they learn.
Students explore how the tools and machines people invent change everyday life, and how the needs of everyday life shape what engineers build next.
| Standard | Definition | Code |
|---|---|---|
| Engineering Design | Students spot a problem, sketch out ideas for fixing it, then test their designs and improve them based on what they learn. | ME-SCI.ETS.2.1 |
| Links Among Engineering, Technology, and Society | Students explore how the tools and machines people invent change everyday life, and how the needs of everyday life shape what engineers build next. | ME-SCI.ETS.2.2 |
Federally administered sample-based assessment in reading, mathematics, science, and writing. NAEP results inform state-by-state comparisons rather than individual student or school accountability.
Students spend the year noticing things, asking questions, and trying small experiments. They watch plants grow, push and pull objects, sort rocks, and track the weather. Most of the learning happens by doing, not by reading a textbook.
Go outside and look closely at bugs, leaves, puddles, or the moon. Ask questions like what do you notice, what changed, and why do you think that happened. Five minutes of wondering on a walk does more than a worksheet.
Not really. The focus is on asking good questions and looking for patterns, not on memorizing parts of a cell or the names of planets. Curiosity matters more than vocabulary right now.
Start with observation routines and simple investigations students can repeat. Weather tracking, sorting materials by property, and short build-and-test challenges work well. These give students practice asking questions and recording what they see before deeper content lands later.
Recording data and using evidence to explain an idea. Students can describe what happened, but they often skip the why. Build in sentence frames like I saw this, so I think that, and revisit them across units.
Read picture books about animals, weather, or space and talk about what is real and what is made up. Have students draw what they saw outside and label one or two parts. Drawing and talking count as science writing at this age.
Give a clear problem, simple materials, and time to test and rebuild. A paper bridge that holds three coins, or a cup that keeps water from spilling on a ramp, works well. The rebuild step is where the real learning happens.
By spring, students should ask testable questions, follow a simple plan, and point to something they saw as the reason for their answer. They should also compare two ideas and say which fits the evidence better. Neat lab reports are not the goal.