Drag is a force that opposes the motion of a car, generated by air resistance. It acts in the opposite direction to the car's movement, slowing it down and requiring more energy to overcome at higher speeds. A streamlined design can help reduce drag and improve the car's performance and fuel efficiency.
When the parachute is deployed at the back of the car, it creates drag force by catching air. This drag force acts in the opposite direction of the car's motion, slowing it down. By increasing the drag force, the parachute helps the speeding car slow down and stop more quickly.
Drag is a force that acts in the opposite direction of the airplane's motion, creating resistance and slowing down the aircraft. This requires the engines to work harder to maintain forward motion, resulting in increased fuel consumption and reduced speed. Pilots and aircraft designers must account for drag to optimize performance and efficiency during flight.
In scientific terms, drag is a force that resists the motion of an object through a fluid (like air or water). It is caused by the friction and turbulence between the object and the fluid, resulting in a backward force that opposes the object's motion. Drag can significantly affect the speed and efficiency of moving objects, such as airplanes or cars.
Air resistance / drag and friction are both forces which act in the opposite direction to the motion of a car
The air effects the speed of the car because its kind of like a parachute. if you have a car that's not very aerodynamic it will catch the air and have to push it, but if you take a car that's very aerodynamic it will slice the air and have very little Resistance.
aerodynamics affects a car due to the force of drag. as you drive the car, you excerpt a force in one direction. since the air is a fluid, is excerpts and equal and opposite force on the car. you can overcome this force by changing the shape of the car to allow the air to flow over it more smoothly, thus reducing the drag. its similar to dragging your hand through water. if you drag your hand with your palm perpendicular to the direction of motion, you'll experience more drag then if you dragged your hand with your palm parallel to the motion.
The surface of an object affects the aerodynamic drag: a force which acts against the direction of motion.
The surface of an object affects the aerodynamic drag: a force which acts against the direction of motion.
Not as much as the shape of the car but different finishes do affect drag.
In school mechanics it does not. The force acting on the car is directly proportional to its mass (its weight adjusted for the incline of the ramp). The acceleration of the car is inversely proportional to this force. The overall result is that the mass of the car does not affect its motion. In more advanced mechanics, where friction and drag are taken into account, things start getting more complicated.
It feels amazing. Like a BJ
If you retain your license, car, and life, tremedously.
drag goes up 8times with the doubling of speed.
When the parachute is deployed at the back of the car, it creates drag force by catching air. This drag force acts in the opposite direction of the car's motion, slowing it down. By increasing the drag force, the parachute helps the speeding car slow down and stop more quickly.
Drag is a force that acts in the opposite direction of the airplane's motion, creating resistance and slowing down the aircraft. This requires the engines to work harder to maintain forward motion, resulting in increased fuel consumption and reduced speed. Pilots and aircraft designers must account for drag to optimize performance and efficiency during flight.
Drag coefficient and power to weight ratio come to mind .
Drag coefficient and power to weight ratio come to mind .