Aerodynamics Teacher Resources
Find Aerodynamics educational ideas and activities
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Tap into the joy of bicycling with these suggestions to make a celebration of National Bike Month a blast.
Students create several given designs of paper airplanes and test how they fly. Then they design their own model and test its flying ability, as well. They compete to see who can build the best plane.
Students engage in a discussion about what a parachute is and how it works. They create a parachute using different materials that they think will work best. The students test their designs, which will be followed by a class discussion (and possible journal writing) to highlight which paper material worked best.
Pupils, after reading an explanation from a NASA Web-based textbook, demonstrate an understanding of the text by applying it to the calculations involving the motion of an airplane.
Young scholars, after reading an explanation from a NASA Web-based textbook, demonstrate an understanding of the text by applying it to the calculations involving the motion of an airplane.
Students demonstrate an understanding of the text by applying it to the calculations involving the area of a wing. They use an online textbook to help them calculate the area of the surface of wing planforms.
Students, after studying various pages of a NASA Web-based textbook, use dimensional analysis to verify actual aeronautic equations.
Learners explore how the different parts of a bicycle relate to each other and identify the subsystems. They discover how bicycles work and investigate their history. In groups, students research each of the subsystems and present their findings to the class.
Students design and build their own cars. In this physics instructional activity, students test their car's speed and make changes when necessary. They graph data and analyze results.
Pupils read a NASA Web-based text, then demonstrate an understanding of the text by using it to complete an activity on the center of gravity of a commercial cargo airplane.
Students label and describe the functions of the parts of an airplane. They access a NASA Web-based textbook and read a series of lessons before labeling the parts of an airplane.
Students calculate the potential energy of a glider, the kinetic energy of a moving glider and the change in velocity when potential energy changes to kinetic energy.
Students investigate Bernoulli's principle of air pressure and how it relates to the lift of an airplane. Students identify various Aeronautical vocabulary terms. Students construct a paper glider and experiment with the control surfaces of the glider which affect its fl ight. Students make historical connections to the how the invention of the airplane has affected the history of the last century.
Learners research to find the location of the flight of Charles Lindbergh, and interpret its significance. They identify and analyze the changes in aeronautic technology since 1927. The lesson lists several discussion questions that can be used to provide interest or focus to the student research.
Learners calculate the length of a side of a triangle using a trigonometric function. They calculate the measure of an angle given two sides of a triangle with a trigonometric function.
Students demonstrate an understanding of the text by completing an activity on the advantages and disadvantages of inventing and using a human-powered airplane.
Students participate in a paper airplane design contest. They are shown how to construct a basic paper airplane. Students are asked to follow the teachers example. They work in small groups to compete against each other. The winners from the groups then compete against each other. Students discuss the differences in speed and direction of their planes.
Students demonstrate their understanding of the equation of state by computing the gas constant from air properties. They use online research tools and apply integrated math problem-solving strategies to solve problems outside the realm of mathematics.
Students demonstrate an understanding of aircraft launch airspeed requirements. They read a selection on relative velocities from a NASA Web-based textbook, then calculate airspeed launch requirement problems.
Students read an explanation from a NASA Web-based textbook on lift and an explanation on the FoilSim software package given below. They use FoilSim to evaluate the relationship between wing area and lift.