RST.11-12.7: Solving a Problem with Data, Video and Simulation
Also written as CCSS.ELA-LITERACY.RST.11-12.7 · Cluster: Integration of Knowledge and Ideas.
The Official Wording
Integrate and evaluate multiple sources of information presented in diverse formats and media (e.g., quantitative data, video, multimedia) in order to address a question or solve a problem.
Common Core State Standards, Grades 11-12, Reading: Science & Technical Subjects · Read it at the source · Checked October 14, 2026
What RST.11-12.7 Means in Plain English
Juniors and seniors combine data tables, video, simulations and text to answer a science question or solve a technical problem, and judge what each source can be trusted to show. A school whose solar panels underperform needs a data table, a time-lapse video, a spec sheet and a simulation.
Ninth and tenth grade (RST.9-10.7) translated between words and visuals, turning a paragraph into a chart or an equation into a sentence. Grades 11-12 use many formats at once to solve a problem. This is the last band of the line, the reading college and career readiness depends on.
RST.11-12.7 I Can Statements
- I can pull the key information from data, video and simulations.
- I can use one source to rule out an explanation from another.
- I can combine several formats into one solution with stated limits.
RST.11-12.7 Worked Example
The school, its numbers and its sources are invented for this page. Each source rules out or explains one piece, and only the strong answer uses all four.
The problem: A high school’s new rooftop solar array produced 12 percent less electricity than forecast in its first year. Before the school pays for a second array, the facilities director wants to know why, and what to change.Source A, a table of monthly output against forecast: April to September, within 4 percent of forecast; November to February, 35 to 50 percent below forecast. In those winter months the west half of the array produced barely a quarter of what the east half did, while in summer the two halves matched.Source B, a time-lapse video from a roof camera on a clear day in mid-December: by 1 p.m. the shadow of the new three-story science wing reaches the west rows of panels, and by 3 p.m. it covers all of them.Source C, the panel spec sheet: output drops 0.35 percent for each degree Celsius the panel runs above 25 °C. Panels are wired in strings of 12, and shade on one panel can cut the output of its whole string unless each panel has its own optimizer.Source D, an interactive sun-path simulation set to the school’s location: in December the noon sun stands 25 degrees above the horizon and the science wing’s afternoon shadow stretches across the west half of the roof; dragged to June, the sun reaches 72 degrees and the shadow never touches the roof.
Common Mistakes with RST.11-12.7
Explaining the season instead of the shortfall
“Solar panels make less power in winter because the days are shorter.”
Try this: Point out that the forecast already expects less winter sun, and have students explain only the gap between forecast and actual output.
Skipping the video and the simulation
An answer built entirely from the table and the spec sheet, the two sources with numbers
Try this: Have students write one sentence per source on what only it can show, and require that sentence for the video and simulation.
Grabbing the most technical number
“The spec sheet says heat cuts output 0.35 percent per degree, so heat is the problem.”
Try this: Ask students to test each number against the data: if heat were the cause, which months would fall short, and did they?
Where RST.11-12.7 Fits
Practice RST.11-12.7
Quick Check
- Why can’t summer heat explain the shortfall?
- Which source shows why the losses happen only in winter?
- Why does shade on a few panels cut output so much?