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What does a student learn in ?

This is the year science starts looking like science. Students stop just observing and start running real investigations, gathering data, and using evidence to explain what they see. They study matter and how it changes, energy moving through ecosystems, and the way Earth's water, air, and land shape each other. By spring, they can plan a simple experiment, record the results, and explain what those results mean.

  • Matter and its properties
  • Ecosystems
  • Earth's systems
  • Planning experiments
  • Energy
  • Solar system
  • Engineering design
Source: Illinois Illinois Learning Standards
Year at a glance
How the year usually goes. Every school and district set their own curriculum, so treat this as a guide, not official pacing.
  1. 1

    Thinking and working like scientists

    Students start the year learning how scientists actually work. They ask testable questions, plan simple experiments, and record what they notice so they can spot patterns later.

  2. 2

    Matter, forces, and energy

    Students look at what everything is made of and what makes it move. They mix substances, push and pull objects, and track how energy shows up as heat, light, sound, or motion.

  3. 3

    Plants, animals, and ecosystems

    Students study living things and how they depend on each other. They follow food and energy from the sun to plants to animals, and notice how traits pass from parents to offspring.

  4. 4

    Earth, sky, and human impact

    Students zoom out to the planet and the solar system. They track patterns like day and night and the seasons, and look at how land, water, air, and people shape each other.

  5. 5

    Designing and testing solutions

    Students finish the year solving real problems through engineering. They sketch a design, build it, test what works, and improve it based on what the results actually show.

Mastery Learning Standards
The required skills a student should display by the end of Grade 5.
Science and Engineering Practices
  • Asking Questions and Defining Problems

    Students practice turning a curiosity or real-world problem into a question that can actually be tested or built toward. The goal is to figure out whether a question belongs in a lab or a blueprint.

  • Developing and Using Models

    Students build or draw a model (like a diagram or a physical replica) to show how something in nature or a designed object works. The model helps explain a pattern or process that is hard to see directly.

  • Planning and Carrying Out Investigations

    Students plan a test, collect real measurements or observations, and use what they find to check whether an idea holds up.

  • Analyzing and Interpreting Data

    Students look at data from their own experiments and ask what it shows. They spot patterns in the numbers or results and use those patterns to draw a conclusion.

  • Mathematics and Computational Thinking

    Students use numbers, measurements, and basic calculations to back up scientific ideas. Instead of just describing what they observe, they show it with data.

  • Constructing Explanations

    Students build written explanations for science observations using real evidence and tested ideas, not guesswork. They also propose solutions to problems and back those solutions up with data or reasoning.

  • Engaging in Argument from Evidence

    Students look at two different explanations or solutions and use data or observations to argue for which one holds up better. The focus is on the evidence, not just the opinion.

  • Communicating Information

    Students read science articles and data, decide what's worth keeping, and explain their findings clearly in writing or conversation.

Physical Science
  • Matter and Interactions

    Students learn what matter is made of at the smallest scale and explore how atoms and molecules interact. That knowledge explains everyday physical changes, like why ice melts or why mixing two substances can change how they look or behave.

  • Motion and Stability

    Students learn why things speed up, slow down, or stay still. They explore how pushes and pulls affect motion and discover the rules that explain why a rolling ball slows down or a kicked soccer ball curves.

  • Students test how energy moves and changes form, like heat warming a cup of water or a rolling ball slowing to a stop. Energy shifts from one form to another, but none of it disappears.

  • Waves and Information

    Students study how waves carry energy and information from one place to another. They look at examples like sound, light, and signals used in phones or radios.

Life Science
  • Structures and Processes

    Students examine how living things are built, from the tiny cells inside them to the organs and systems those cells form. They look at how each part does a job that keeps the organism alive.

  • Ecosystems

    Students trace how food, water, and nutrients move through an ecosystem and how living things depend on each other to survive. They also explore what happens when one part of that web changes.

  • Students examine why offspring look similar to their parents but not identical. They trace which traits, like eye color or leaf shape, get passed down and which ones vary from one generation to the next.

  • Biological Evolution

    Students look at how living things share basic traits while still differing in striking ways, then examine why those differences build up over time and which ones help a species survive.

Earth and Space Science
  • 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 how Earth itself has changed over a very long time.

  • Earth's Systems

    Students examine how Earth's land, water, air, and living things connect and affect each other. A volcanic eruption, a rainstorm, or a wildfire shows all four layers working together.

  • Earth and Human Activity

    Students explore how things people do (building, farming, burning fuel) change the land, air, and water around them. They also look at how floods, earthquakes, and other natural events shape where and how people live.

Engineering, Technology, and Applications of Science
  • Engineering Design

    Students identify a real problem, sketch or build possible fixes, then test each one and improve it until the design works better. The focus is on the cycle of trying, learning from failure, and adjusting.

  • Links Among Engineering, Technology, and Society

    Students look at how new tools and inventions change everyday life, and how the needs of society push engineers to build something better.

Assessments
The state tests students at this grade and subject take.
State Summative

Illinois Science Assessment (Grade 5)

ISA is the spring science test in grade 5, aligned to the NGSS-based Illinois Learning Standards for Science.

When given:
spring
Frequency:
annual
Official source
Common Questions
  • What does fifth grade science cover?

    Students study four big areas: matter and motion, living things and ecosystems, Earth and space, and engineering design. They also learn how to act like scientists by asking questions, running tests, and explaining what they find with evidence.

  • How can I help my child with science at home?

    Ask why questions during everyday moments. Why does ice melt faster on the counter than in the freezer? Why do plants near the window grow taller? Letting students guess, test, and explain builds the same thinking they use in class.

  • Does my child need to memorize a lot of science facts?

    Memorizing matters less than explaining. Students should be able to describe how something works and back it up with what they observed or read. Quizzing on vocabulary helps, but asking them to teach the idea back is stronger.

  • How should I sequence the four science strands across the year?

    Most fifth grade teachers run physical science first because matter and forces give students concrete tools for measurement and modeling. Life science and Earth science come next and build on those habits. Engineering design fits well as a thread inside each unit rather than a standalone block.

  • What does a strong science investigation look like at this age?

    Students should plan a fair test, record data in a table, and write a claim backed by what they measured. The investigation does not need to be elaborate. A cup, a ruler, and a stopwatch are often enough.

  • Which topics usually need the most reteaching?

    Energy transfer, the difference between weight and mass, and how matter cycles through ecosystems tend to need a second pass. Students often grasp the vocabulary before they grasp the underlying idea, so plan a return visit later in the year.

  • What can I do if my child says science is boring or too hard?

    Move it off the page. Cook something and talk about what changes when it heats up. Watch the moon for a week and sketch it. Build a paper bridge and test how many coins it holds. Hands and eyes do more than worksheets at this age.

  • How do I know my child is ready for sixth grade science?

    By spring, students should be able to design a simple test, collect data, and explain a result using evidence. They should also be able to read a short science article and pull out the main idea. If those habits are solid, the next year will go well.