Thinking and working like scientists
Students learn how scientists actually do their work. They ask questions they can test, plan simple experiments, record what happens, and look for patterns in what they find.
This is the year science becomes a real investigation, where students plan their own tests instead of just watching a demo. Students track how matter and energy move through ecosystems, weather, and the solar system, and they use measurements and simple math to back up what they claim. They also try engineering, designing something, testing it, and tweaking the weak spots. By spring, students can run a fair experiment, record the data, and explain what it shows.
Students learn how scientists actually do their work. They ask questions they can test, plan simple experiments, record what happens, and look for patterns in what they find.
Students explore what everyday stuff is made of and how it behaves. They look at how pushes and pulls change motion, how energy moves from one place to another, and how sound and light travel as waves.
Students study how plants and animals are built and how they stay alive. They trace food and energy through a habitat, look at how traits pass from parents to offspring, and see how living things change over long stretches of time.
Students zoom out to Earth and the solar system. They look at how land, water, air, and living things shape each other, what causes natural hazards like storms and earthquakes, and how human choices change the planet.
Students take on real problems and design things to solve them. They sketch ideas, build a version, test what works, and make it better. They also talk about how new tools change daily life.
Students figure out which questions can actually be tested with an experiment and which problems can be solved by designing or building something. They learn to tell the difference between a scientific question and one that science can't answer.
Students draw diagrams or build simple models to show how something in nature works or how a design solves a problem. The model helps explain what students can't easily see or test directly.
Students design a test, collect data, and use what they find to check whether their idea holds up. This is the core of doing science, not just reading about it.
Students look at data from experiments or observations and figure out what it means. They spot patterns, like which plant grew tallest or which material stayed warmest, and use those patterns to draw conclusions.
Students use numbers, measurements, and basic calculations to explain what they observed or found in a science investigation. Math becomes a tool for making sense of data, not just a separate subject.
Students take what they observed or measured and use it to explain why something happened. The explanation has to be backed by evidence, not just a guess.
Students look at two or more explanations or solutions, then use data or test results to argue which one holds up better. The goal is to pick the stronger answer based on evidence, not opinion.
Students read science articles, study diagrams, and decide which sources are trustworthy. Then they share what they found, in writing or out loud, clearly enough that someone else could understand it.
| Standard | Definition | Code |
|---|---|---|
| Asking Questions and Defining Problems | Students figure out which questions can actually be tested with an experiment and which problems can be solved by designing or building something. They learn to tell the difference between a scientific question and one that science can't answer. | MD-SCI.SEP.5.1 |
| Developing and Using Models | Students draw diagrams or build simple models to show how something in nature works or how a design solves a problem. The model helps explain what students can't easily see or test directly. | MD-SCI.SEP.5.2 |
| Planning and Carrying Out Investigations | Students design a test, collect data, and use what they find to check whether their idea holds up. This is the core of doing science, not just reading about it. | MD-SCI.SEP.5.3 |
| Analyzing and Interpreting Data | Students look at data from experiments or observations and figure out what it means. They spot patterns, like which plant grew tallest or which material stayed warmest, and use those patterns to draw conclusions. | MD-SCI.SEP.5.4 |
| Mathematics and Computational Thinking | Students use numbers, measurements, and basic calculations to explain what they observed or found in a science investigation. Math becomes a tool for making sense of data, not just a separate subject. | MD-SCI.SEP.5.5 |
| Constructing Explanations | Students take what they observed or measured and use it to explain why something happened. The explanation has to be backed by evidence, not just a guess. | MD-SCI.SEP.5.6 |
| Engaging in Argument from Evidence | Students look at two or more explanations or solutions, then use data or test results to argue which one holds up better. The goal is to pick the stronger answer based on evidence, not opinion. | MD-SCI.SEP.5.7 |
| Communicating Information | Students read science articles, study diagrams, and decide which sources are trustworthy. Then they share what they found, in writing or out loud, clearly enough that someone else could understand it. | MD-SCI.SEP.5.8 |
Students explore what matter is made of and how tiny particles interact to explain everyday physical events, like why ice melts or salt dissolves in water.
Students test what happens when they push, pull, or collide with objects, learning why things speed up, slow down, or stay put. The patterns they find match the same rules physicists use to describe motion.
Students investigate how energy changes form and moves from one object to another. They learn that energy is not created or destroyed, just shifted around.
Students study how waves, like sound and light, carry energy from one place to another. They also look at how waves are used to send information, like a radio signal or a phone call.
| Standard | Definition | Code |
|---|---|---|
| Matter and Interactions | Students explore what matter is made of and how tiny particles interact to explain everyday physical events, like why ice melts or salt dissolves in water. | MD-SCI.PS.5.1 |
| Motion and Stability | Students test what happens when they push, pull, or collide with objects, learning why things speed up, slow down, or stay put. The patterns they find match the same rules physicists use to describe motion. | MD-SCI.PS.5.2 |
| Energy | Students investigate how energy changes form and moves from one object to another. They learn that energy is not created or destroyed, just shifted around. | MD-SCI.PS.5.3 |
| Waves and Information | Students study how waves, like sound and light, carry energy from one place to another. They also look at how waves are used to send information, like a radio signal or a phone call. | MD-SCI.PS.5.4 |
Students look at how living things are built, from the tiny cells that make up skin or leaves all the way up to whole body systems like digestion or circulation.
Students trace how food, water, and nutrients move through an ecosystem, and how living things depend on each other to survive. This covers food webs, decomposers, and the roles different organisms play in keeping a community balanced.
Students look at how traits like eye color or height get passed from parents to offspring, and why children look similar to but not exactly like their parents.
Students look at how living things are both alike and different, then explore why those differences exist and how they help species survive over time.
| Standard | Definition | Code |
|---|---|---|
| Structures and Processes | Students look at how living things are built, from the tiny cells that make up skin or leaves all the way up to whole body systems like digestion or circulation. | MD-SCI.LS.5.1 |
| Ecosystems | Students trace how food, water, and nutrients move through an ecosystem, and how living things depend on each other to survive. This covers food webs, decomposers, and the roles different organisms play in keeping a community balanced. | MD-SCI.LS.5.2 |
| Heredity | Students look at how traits like eye color or height get passed from parents to offspring, and why children look similar to but not exactly like their parents. | MD-SCI.LS.5.3 |
| Biological Evolution | Students look at how living things are both alike and different, then explore why those differences exist and how they help species survive over time. | MD-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 what happens when one part changes, like how rain shapes rock or how plants change soil.
Students look at how things like farming, building, and burning fuel change land, water, and air. They also study how earthquakes, floods, and wildfires 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 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. | MD-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 what happens when one part changes, like how rain shapes rock or how plants change soil. | MD-SCI.ESS.5.2 |
| Earth and Human Activity | Students look at how things like farming, building, and burning fuel change land, water, and air. They also study how earthquakes, floods, and wildfires affect where and how people live. | MD-SCI.ESS.5.3 |
Students identify a real problem, come up with possible fixes, then test and improve their designs until one works well. It's the same process engineers use to build bridges, apps, or anything else meant to solve a problem.
Engineers borrow ideas from nature, culture, and everyday problems. Students explore how new tools and inventions change the way people live, work, and solve the next problem.
| Standard | Definition | Code |
|---|---|---|
| Engineering Design | Students identify a real problem, come up with possible fixes, then test and improve their designs until one works well. It's the same process engineers use to build bridges, apps, or anything else meant to solve a problem. | MD-SCI.ETS.5.1 |
| Links Among Engineering, Technology, and Society | Engineers borrow ideas from nature, culture, and everyday problems. Students explore how new tools and inventions change the way people live, work, and solve the next problem. | MD-SCI.ETS.5.2 |
Maryland Integrated Science Assessment in grade 5, aligned to Maryland's NGSS-based science standards.
Students study four big areas: matter and energy, living things and ecosystems, Earth and space, and engineering design. They also practice how scientists actually work, like asking questions, running tests, and explaining results with evidence.
Talk about what you notice together. Why does ice melt faster on metal than wood? Where did the puddle go? Five minutes of wondering out loud at dinner or on a walk builds the habit of asking science questions.
Facts matter, but explaining and investigating matter more. Students should be able to describe what they observed, what they think is happening, and why. Memorizing planet names or body parts is less important than using those ideas to answer a question.
Most plans rotate through physical science, life science, and Earth and space science across the year, with engineering design woven in as projects. Pick anchor phenomena for each unit early so investigations and models build toward an explanation students can defend.
Reading data tables and graphs, controlling variables in a fair test, and writing an explanation that connects evidence to a claim. Build small practice into every unit rather than saving these for one writing assignment at the end.
Students plan a test with one thing changing and the rest kept the same, collect data more than once, and use the results to answer the original question. Neat charts are nice, but the real goal is reasoning from what the data show.
Try a kitchen test or a backyard question instead of a worksheet. Float different fruits in water, time how long ice lasts in different cups, or track the moon for a week. Hands-on questions almost always pull students back in.
By spring, students should be able to plan a simple investigation, read a basic graph, and write a short explanation that uses evidence. They should also be able to sketch a model of something they cannot see directly, like particles in matter or the water cycle.