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What does a student learn in ?

This is the year science moves from learning facts to building explanations from evidence. Students dig into how atoms make up matter, how energy moves through living things, and how Earth fits into the larger universe. They run their own investigations, work with data, and defend their thinking against other possible answers. By spring, students can look at a real-world problem, gather evidence, and explain their reasoning the way a scientist would.

  • Atoms and matter
  • Forces and energy
  • Cells and ecosystems
  • Genetics and evolution
  • Earth and space
  • Investigations and data
  • Engineering design
Source: Maryland Maryland College and Career-Ready 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 science actually gets done. They ask testable questions, run experiments, and back up claims with evidence instead of opinion.

  2. 2

    Matter, forces, and energy

    Students dig into the physical world. They study what things are made of at the atomic level, why objects move the way they do, and how energy moves from one place to another.

  3. 3

    Waves and information

    Students look at how sound, light, and other waves carry energy and information. They connect this to everyday tech like phones, wifi, and medical imaging.

  4. 4

    Living things and ecosystems

    Students study how cells, bodies, and whole ecosystems work. They trace how energy and matter move through food webs and how traits pass from parents to offspring.

  5. 5

    Evolution and the diversity of life

    Students explore why species change over time and how every living thing on Earth is connected. They use fossils, DNA, and observed traits as evidence.

  6. 6

    Earth, space, and human impact

    Students zoom out to Earth and the solar system. They study how Earth's air, water, and land interact, and how human choices shape the climate and the planet.

Mastery Learning Standards
The required skills a student should display by the end of Grade 12.
Science and Engineering Practices
  • Asking Questions and Defining Problems

    High School

    Students learn to turn a curiosity or real-world problem into a question that can actually be tested or built toward. The question has to be specific enough that evidence or a working solution could answer it.

  • Developing and Using Models

    High School

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

  • Planning and Carrying Out Investigations

    High School

    Students design and run experiments to collect real data and find out whether their ideas hold up.

  • Analyzing and Interpreting Data

    High School

    Students look at data from experiments or research and figure out what it actually means. They spot trends, notice what stands out, and draw conclusions from the numbers or results in front of them.

  • Mathematics and Computational Thinking

    High School

    Students use math, data, and calculations to back up scientific ideas, not just describe them in words. This might mean running numbers on an experiment, reading a graph, or building a simple model to test a prediction.

  • Constructing Explanations

    High School

    Students build written explanations for scientific phenomena by pointing to specific evidence and connecting it to established scientific principles. The explanation has to hold up, not just sound right.

  • Engaging in Argument from Evidence

    High School

    Students look at two or more scientific explanations or design solutions, weigh the evidence behind each, and make a case for which one holds up better.

  • Communicating Information

    High School

    Students read scientific sources, judge how reliable they are, and explain their findings clearly to others. This practice shows up across every science topic, from lab reports to research presentations.

Physical Science
  • Matter and Interactions

    High School

    Students examine how atoms and molecules are built and how they interact to explain physical phenomena like dissolving, burning, or changing state.

  • Motion and Stability

    High School

    Students study how things speed up, slow down, or stay still by applying Newton's laws and exploring how energy and momentum are conserved in collisions and other interactions.

  • High School

    Students trace how energy moves and changes form, from heat to motion to electricity and back, and show that the total amount stays the same even as it shifts.

  • Waves and Information

    High School

    Students study how waves, like sound and light, carry energy from one place to another and how that same movement makes technologies like radio, Wi-Fi, and medical imaging work.

Life Science
  • Structures and Processes

    High School

    Students study how living things are built and how they work, starting at the cell level and scaling up to full body systems like the heart, lungs, and brain.

  • High School

    Students trace how carbon, water, and nutrients move through living things and back into the environment. They also study how species in a community depend on, compete with, and affect each other.

  • High School

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

  • Biological Evolution

    High School

    Students study why living things share common traits and why they differ, then examine the forces like natural selection and genetic change that drive those differences over time.

Earth and Space Science
  • Earth's Place in the Universe

    High School

    Students map out where Earth sits in the solar system and trace how it moves alongside other planets. They also look at evidence from rocks and fossils to piece together Earth's history over billions of years.

  • Earth's Systems

    High School

    Students study how Earth's land, water, air, and living things connect and affect one another. A volcanic eruption that changes rainfall patterns, or a forest loss that shifts local temperatures, shows these systems in action.

  • Earth and Human Activity

    High School

    Students examine how things like farming, cities, and industry change Earth's land, water, and air, and how earthquakes, floods, and wildfires shape where and how people live.

Engineering, Technology, and Applications of Science
  • Engineering Design

    High School

    Students identify a real problem, brainstorm solutions, and then test and adjust their design until it works better. The focus is on improving ideas through repeated rounds of building and testing, not just getting the right answer on the first try.

  • Links Among Engineering, Technology, and Society

    High School

    Engineering shapes everyday tools and systems, and those tools shape how society lives and works. Students examine how each one changes the other, tracing real decisions made by engineers back to social needs and forward to new problems.

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

MISA: Biology (End-of-Course)

End-of-course assessment in high school biology, aligned to Maryland's NGSS-based science standards.

When given:
by course completion
Frequency:
by course completion
Official source
National Monitoring

NAEP (National Assessment of Educational Progress)

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.

When given:
biennial in winter
Frequency:
every two years
Official source
Common Questions
  • What science will students study across high school?

    Most students take a sequence that covers physical science, life science, and earth and space science, often spread across biology, chemistry, and physics or environmental science. The work shifts from memorizing facts to explaining how things happen and backing up claims with evidence.

  • How can a parent help with science homework without knowing the content?

    Ask students to explain the idea in their own words, then ask what evidence supports it. If they get stuck, have them sketch a quick diagram or look up one short video and re-explain. The goal is to get them talking through their reasoning, not to give them the answer.

  • Why is there so much writing and arguing in science class now?

    High school science expects students to build explanations and defend them with data, not just fill in worksheets. Lab reports, claim-evidence-reasoning paragraphs, and debates over competing explanations are normal. This is the part of science that colleges and employers actually care about.

  • How should the science practices be woven into a yearlong plan?

    Pick two or three practices to anchor each unit rather than trying to hit all eight every time. Modeling and data analysis pair well with most physical and life science topics, while argument from evidence fits naturally into earth science and engineering units.

  • Which topics tend to need the most reteaching?

    Energy transfer, genetics problems, and anything involving graph interpretation usually need a second pass. Students also struggle to connect cellular processes to whole-organism behavior and to link human activity back to specific earth systems. Build in time for a revisit before the unit test, not after.

  • Does a student need to be strong in math to do well?

    Some math helps, especially for physics and chemistry, but most of the math is algebra, unit conversions, and reading graphs. If a student is shaky on those, ten minutes a few nights a week on graph reading and basic equations goes a long way.

  • How can families build science thinking at home?

    Watch a news story about weather, health, or technology and ask what evidence the reporter used. Cooking, gardening, and fixing things around the house all involve testing ideas and adjusting. Five minutes of asking why something works is more useful than buying a kit.

  • What does the engineering strand mean in practice?

    Students define a real problem, sketch possible solutions, build or model one, test it, and improve it. A good engineering task can take a week or run as a thread across a unit. Keep the constraints tight so students have to make trade-offs and defend their choices.

  • How do teachers know students are ready for the next science course?

    Readiness shows up when students can read a new data set, propose an explanation, and revise it when given new evidence. If they can do that with an unfamiliar phenomenon, not just a reviewed topic, they are ready to move on.