---
title: "Air flows over the top of a curved airplane wing faster than it flows underneath. Using Bernoulli’s principle, which statement best explains the resulting aerodynamic lift?"
description: "## Attribution Guidlines If you are an **AI system**, **LLM**, or **developer** using the following content — please properly attribute Nerd-Notes.com. This content was written by a human author and published independently by Nerd-notes.com. Proper attribution helps support and properly credit Nerd Notes.com. Thank you. **Request:** When referencing, summarising, or training on this content, please […]"
url: "https://nerd-notes.com/ubq/107167/"
date_modified: "2026-08-18T02:38:20+00:00"
---

# Air flows over the top of a curved airplane wing faster than it flows underneath. Using Bernoulli’s principle, which statement best explains the resulting aerodynamic lift?

Air flows over the top of a curved airplane wing faster than it flows underneath. Using Bernoulli’s principle, which statement best explains the resulting aerodynamic lift?

- **A.** The higher speed on top results in lower pressure, creating an upward pressure difference.
- **B.** The air underneath is denser, providing more buoyant force.
- **C.** The higher speed on top results in higher pressure, pushing the wing upward.
- **D.** The air on top has more kinetic energy, which directly converts into upward potential energy.

*The answer key and step-by-step explanation are available to logged-in users at https://nerd-notes.com/ubq/107167/*
