What does a student learn in StateVermont,GradeGrade 10,SubjectScience?

Students learn to ask questions that science can actually test and spot problems that engineering can actually solve. This separates a good research question from one that belongs in philosophy class.

Students build diagrams, simulations, or physical models to show how a system or process works, then use those models to explain what they observed or predict what might happen next.

Students design experiments, collect data, and use what they find to test whether an idea holds up. The focus is on planning the steps carefully so the results actually answer the question.

Students pull patterns and meaning out of data sets, graphs, and experimental results. They explain what the numbers actually show, not just describe what they see.

Students use math, including calculations, graphs, and data analysis, to back up their scientific ideas. Numbers and patterns become the evidence behind a conclusion.

Students take evidence from investigations or research and use it to explain why something happens or to design a fix for a real problem. The explanation has to hold up against what science already knows.

Students look at two or more scientific explanations or engineering solutions, weigh the evidence behind each one, and argue for the stronger choice using data and reasoning, not just opinion.

Students read scientific sources, judge how reliable they are, and explain what the evidence actually says. This practice shows up across every science topic, from lab reports to research presentations.

Students study how atoms and molecules are arranged and how they interact to explain physical phenomena like dissolving, melting, or chemical reactions.

Students study Newton's laws to explain why objects speed up, slow down, or stay still, then apply conservation principles to predict what happens when forces act on colliding or moving objects.

Students trace how energy changes form and moves from one object to another, and show that the total amount of energy in a closed system stays the same even as it shifts.

Students study how waves carry energy and information from one place to another. They look at real applications, like how radio signals, light, and sound waves move data and power across distances.

Students study how living things are built and how they work, starting at the cell and zooming out to whole body systems like digestion or circulation.

Students trace how energy flows through a food web and how matter like carbon or water cycles back through living things and the environment. They also examine how organisms compete, cooperate, or depend on each other within a community.

Students study how traits like eye color or height pass from parents to offspring, and why siblings can look different even when they share the same parents.

Students study why living things share common traits and why they differ, then examine the forces (like natural selection and mutation) that drive those changes across generations.

Students learn where Earth sits in the solar system and how it moves through space. They also trace how Earth itself formed and changed over billions of years.

Students study how Earth's major systems, the land, water, air, and living things, affect each other. A volcanic eruption, a flood, or a shift in climate shows these systems in action.

Students examine how things like farming, building, and burning fuel change Earth's land, water, and air, and how earthquakes, floods, and storms shape where and how people live.

Students identify a real problem, come up with possible fixes, then test and improve their designs until one works well enough to use.

Students study how the tools and systems people build shape daily life, and how the needs of society push engineers to solve new problems. It goes both ways.