What are Streamlines in Bernoulli's Principle

Bernoulli's Principle: Velocity and Pressure in a Pipe

Bernoulli's Principle: Velocity & Pressure

ENTRANCE VELOCITY
v₁
0.0 m/s
THROAT VELOCITY
v₂
0.0 m/s
ENTRANCE PRESSURE
P₁
0.0 kPa
THROAT PRESSURE
P₂
0.0 kPa
VOLUME FLOW RATE
Q = A·v
0.00 m³/s
FLUID VELOCITY v ALONG PIPE
FLUID PRESSURE P ALONG PIPE
PIPE GEOMETRY & FLOW
ENTRANCE RADIUS r₁ (cm)
THROAT RADIUS r₂ (cm)
EXIT RADIUS r₃ (cm)
ENTRANCE VELOCITY v₁ (m/s)

Interactive Bernoulli's Principle & Venturi Effect Simulation

An interactive fluid dynamics simulation visualizing the relationship between pipe geometry, fluid velocity, and pressure. Users can dynamically adjust the entrance, throat, and exit radii of a horizontal pipe to observe the Continuity Equation (A_1v_1 = A_2v_2) and Bernoulli's Principle in real-time. As the pipe narrows, the simulation demonstrates how fluid velocity increases quadratically to conserve mass, resulting in a corresponding pressure drop (the Venturi effect).

Key features include live piezometer standpipes visualizing pressure head, a tracked fluid parcel with a dynamic velocity vector, dual Cartesian graphs mapping velocity and pressure gradients along the pipe, and threshold warnings for fluid cavitation. Ideal for AP Physics, college engineering, and fluid mechanics education.

Complete and Continue  
Discussion

0 comments