What does a student learn in StateRhode Island,GradeGrade 5,SubjectScience?

Students identify a question or problem that can actually be tested or built to solve. They practice separating "I wonder why" questions science can answer from problems where a designed solution makes more sense.

Students build or draw models (like a diagram of the water cycle or a sketch of a bridge design) to show how something works. The model helps explain an idea or test a solution without needing the real thing in front of them.

Students plan a test, run it, and record what they find. The goal is to gather real data that either supports or challenges an idea they started with.

Students look at collected data, spot patterns, and explain what those patterns mean. This is the core of scientific thinking: numbers and observations only matter when students can say what they show.

Students use numbers, measurements, and basic calculations to explain what they observed or found in an investigation. The math backs up the science, turning raw data into a clear answer.

Students take what they observed or measured and use it to explain why something happened or how a problem could be solved. The explanation has to be backed by evidence, not just a guess.

Students look at two or more explanations or solutions, then use data and observations to argue which one holds up better. The focus is on the evidence, not on who makes the stronger case.

Students read science articles and data, decide what information is trustworthy, and explain what they found in writing or conversation. The focus is on sorting good information from bad and sharing findings clearly.

Students learn that all physical objects are made of tiny atoms and molecules. They run investigations to explain everyday phenomena, like why ice melts or why some materials dissolve in water.

Students study how objects speed up, slow down, or stay still depending on the forces acting on them. They learn why a kicked ball slows down, why a heavy cart is harder to push, and what keeps a moving object going when nothing stops it.

Students explore how energy shows up as heat, light, sound, and motion, and trace what happens when it moves from one object to another. Energy doesn't disappear; it just changes form.

Students explore how waves, like sound and light, carry energy and information from one place to another. They investigate real-world uses, such as how radios, phones, and musical instruments rely on waves to work.

Students study how living things are built and how they work, starting with the tiny cells that make up every organism and zooming out to the organs and body systems those cells form.

Students trace how energy from the sun and nutrients from the soil move through living things in an ecosystem. They also study how animals, plants, and other organisms depend on and affect each other.

Students look at traits like eye color or height and figure out how those features pass from parents to offspring. They also notice why siblings can look similar but not identical.

Students compare living things to find what makes each species unique and what all life shares. They also learn how traits change across generations and why some traits help a species survive.

Students explore where Earth sits in the solar system and how it moves around the sun. They also look at the story of how Earth itself formed and changed over billions of years.

Students study how Earth's land, water, air, and living things work together. They look at how each one affects the others, like how rain shapes land or how plants change the air.

Students look at how things like farming, building, and burning fuel change land, water, and air. They also study how earthquakes, floods, and storms disrupt daily life and what communities can do about it.

Students identify a real problem, sketch or build a solution, then test it and improve the design based on what they find out.

Students explore how inventions shape daily life and how the needs of daily life push engineers to build new things. A new tool can change a community, and a community's problems can spark the next invention.