Roller Coasters Reading Comprehension Article

Read about roller-coaster design and energy, then apply the ideas in comprehension and calculation questions. A worked key supports discussion of both the article and the physics problems.
Grades
Grades 6–8, High School
Pages
5
File type
Multiple File Types
Answer key
Included

Updated Mar 30, 2022

Subject
ELA, Science, Reading Comprehension
Topic
Roller coasters, Energy conversion
Resource types
Worksheets
Answer key
Included
Standards
RI.6.1

Product description

From the author

Read about wooden and steel roller-coaster construction and energy conversion, then answer eight questions. The tasks include comparing two hill heights and researching a real coaster’s height for an energy calculation using a supplied train mass.

The five-page PDF contains the article, questions, answer guidance and references. An editable Word version supplies the same material. Answers cover questions 1–7; question 8 supplies equation guidance because results depend on the chosen coaster height.

In the classroom

Teaching tips & learning objectives

Learning objectives

  • Explain the physical differences between wooden and steel roller-coaster construction

  • Describe how energy converts between gravitational potential and kinetic forms as a roller-coaster car moves along the track

  • Compare two hypothetical roller coasters with different hill heights and justify which produces a faster ride

Teaching tips

  • Review the GPE = mgh and KE = ½mv² formulas before assigning question 8, since it is the only question that requires applying both equations together

  • Have students research the height of a real coaster near them for question 8, which builds its calculation on locally sourced height data plus the article's supplied mass figures

  • Pair the article with its own captioned figures, since several questions (such as the wheel-setup description) connect the article’s written descriptions with its diagrams

Skills covered

  • Scientific text comprehension — students extract structural and mechanical facts, such as wheel setup and material differences, directly from an informational article.

  • Energy-conservation reasoning — students explain how gravitational potential energy converts to kinetic energy as a coaster descends and re-ascends smaller hills.

  • Applied physics calculation — students use the GPE = mgh and KE = ½mv² formulas with supplied mass data to calculate energy values for a real-world coaster.

Good to know

Questions teachers ask about this resource

Does the calculation question use a coaster from the article, or ask students to find their own?

Students research a real roller coaster near them and use the article's supplied mass data (a fully loaded train mass of 4,500 kg) together with that coaster's own height to calculate its gravitational potential and kinetic energy.

Are the wooden and steel construction examples describing the same coaster?

No, they're two different real coasters: the wooden section profiles the American Eagle at Six Flags Great America in Illinois, and the steel section profiles the Pepsi Max Big One at Blackpool Pleasure Beach in England.

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Curriculum

Standards, concepts & topics

Standards

  • RI.6.1

Core concepts

  • Gravitational potential energy

  • Kinetic energy

  • Energy conservation

  • Roller coaster engineering

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