Drag is the force exerted by a fluid stream on any obstacle in its path or felt by an object moving through a fluid.
In a drag vs velocity graph, the relationship between drag and velocity is that as velocity increases, drag also increases. This means that the drag force acting on an object moving through a fluid (like air or water) becomes stronger as the object moves faster.
The formula for aerodynamic drag is given by: drag force = 0.5 * drag coefficient * air density * velocity^2 * reference area. It represents the resistance encountered by an object moving through a fluid like air, with factors such as velocity, air density, drag coefficient, and reference area influencing the drag force.
Drag increases by the square of velocity increase, for example, tripling speed increases drag by a factor of nine!
Drag coefficient can be defined as the ratio of the drag on a body moving through air to the prioduct of the velocity and the surface area of the body.
In physics, drag is a force that opposes the motion of an object through a fluid, like air or water. It acts in the opposite direction of the object's velocity. Velocity, on the other hand, is the speed of an object in a specific direction. So, the main difference is that drag is a force that hinders motion, while velocity is the speed and direction of that motion.
velocity like to power becaus velocity related to power.
wheel size effects velocity by, way of drag and surface area that touches road or cement. the more drag or surface touching ground the slower you will move
To calculate drag, use the drag equation: ( F_d = \frac{1}{2} \cdot C_d \cdot A \cdot \rho \cdot v^2 ), where ( F_d ) is the drag force, ( C_d ) is the drag coefficient, ( A ) is the cross-sectional area, ( \rho ) is the air density, and ( v ) is the velocity. To find the velocity of a ride, you can rearrange the equation if you know the drag force and other parameters, or you can measure it directly using speed sensors or GPS. Ensure all units are consistent when performing these calculations.
It determines your terminal velocity, depending on your drag coefficient.
down and up forces balance at terminal velocitymass * g = v^2 * drag coefficientif mass and terminal velocity are known , drag coefficient can be foundsay mass = 100 kg, g = 9.8 (m/s)/s, terminal velocity = 70 m/sso at terminal velocity:100*9.8=4900* drag coefficientthen:100*9.8/4900 = 0.2 (drag coefficient)if you reduce the drag coefficient, the terminal velocity will increase, until the forces balance
The marble has lower drag so its terminal velocity would be greater. Each has its own terminal velocity.
Gravity. The object starts at zero velocity, and gravity always pulls the same. Drag, however, increases when velocity increases. Terminal velocity is when gravity has accelerated the object to the speed where drag is the same as gravity.