Core Skills Analysis
Science
During the iFly visit, the 12‑year‑old donned a flight suit, entered the vertical wind tunnel, and felt the lift that kept them airborne for several minutes. They observed how high‑velocity air creates an upward force that counteracts gravity, linking the experience to concepts of aerodynamics and Newton’s third law. By asking staff about air pressure and flow, they learned why the tunnel’s fans must generate a constant 120‑130 mph wind to simulate free‑fall. The activity helped them grasp the basics of forces, motion, and fluid dynamics in a tangible way.
Mathematics
The student measured the wind tunnel’s speed (reported as 130 mph) and calculated how long they stayed aloft, converting seconds into minutes to determine total flight time. They used multiplication to estimate the distance the air moved past them in that time and practiced ratio reasoning by comparing their flight time to a typical skydiver’s 60‑second free‑fall. Additionally, they plotted a simple bar graph comparing the wind speeds of different iFly locations they researched online. These tasks reinforced proportional reasoning, unit conversion, and basic data representation.
Language Arts
After the experience, the learner wrote a reflective journal entry describing the sensations of floating, the science explanations they heard, and personal feelings of excitement and nervousness. They incorporated new vocabulary such as "laminar flow," "gust," and "terminal velocity," and organized the piece with an introductory hook, descriptive body paragraphs, and a concluding thought about future flights. By editing for clarity and adding sensory details, they practiced narrative writing and informational text integration.
Physical Education
While inside the tunnel, the student practiced body positioning, using core muscles to maintain stability and adjusting arm and leg angles to control direction. They learned how posture influences lift and drag, linking kinesthetic awareness to scientific principles. The instructor’s feedback on posture helped the child understand the connection between physical coordination and successful flight, reinforcing concepts of balance, spatial awareness, and controlled movement.
Tips
To deepen the learning, have the student design and test paper‑airplane models that mimic the wind tunnel’s airflow, recording flight distance and angle of launch. Next, set up a math challenge where they calculate the force required to keep a 70‑lb object suspended at 130 mph using F=ma and compare it to real‑world data. Encourage a research project on the history of human flight, culminating in a short presentation that weaves together scientific, historical, and personal perspectives. Finally, schedule a reflective writing workshop where peers share their iFly experiences and give constructive feedback on descriptive language and scientific accuracy.
Book Recommendations
- The Wright Brothers: How They Invented the Airplane by Russell Freedman: A richly illustrated biography that follows the brothers' experiments, highlighting the physics of lift and the perseverance needed to achieve powered flight.
- The Science of Flight: Aerodynamics for Kids by Gregory A. Smith: An accessible guide that explains lift, drag, thrust, and weight with hands‑on activities and real‑world examples perfect for middle‑grade readers.
- The Boy Who Harnessed the Wind by William Kamkwamba & Bryan Mealer: A true story of a young inventor who uses wind power to solve problems, inspiring readers to explore renewable energy and engineering design.
Learning Standards
- NGSS MS-PS2-2: Apply force concepts to explain how the wind tunnel’s airflow creates lift.
- NGSS MS-ETS1-2: Evaluate design solutions for a wind tunnel that meet specific criteria (speed, safety).
- CCSS.Math.Content.7.RP.A.3: Use proportional relationships to solve problems involving wind speed and flight time.
- CCSS.Math.Content.6.EE.B.6: Write and interpret equations for forces (F=ma) in the context of the activity.
- CCSS.ELA-Literacy.W.7.2: Write informative/explanatory texts that include relevant scientific details.
- CCSS.ELA-Literacy.RI.7.3: Analyze the structure of a text to determine how specific sentences contribute to the whole (used when researching flight history).
Try This Next
- Worksheet: Diagram the wind tunnel’s airflow and label forces (lift, drag, thrust, weight).
- Quiz: Multiple‑choice questions on Newton’s laws, speed‑time calculations, and flight vocabulary.
- Drawing task: Sketch a cross‑section of the tunnel and annotate where air pressure changes occur.
- Writing prompt: “If I could design my own wind tunnel, what features would I include to make it safer and more fun?”