The distance travelled is irrelevant; you need the speed. (Perhaps the problem states that the toy car travels so-and-so far in so-and-so much time; in this case, you can figure out the speed.) The formula for kinetic energy is: KE = (1/2)mv2, that is, 1/2 times the mass times the square of the speed.
The kinetic energy of the vehicle when it is travelling faster is four times as great. It the brakes apply the same retardation and the friction from the tires on the road surface is unchanged then the stopping time will be four times as long.
Kinetic energy is extra energy resultant of motion. So, a moving vehicle has kinetic energy.
"Kinetic head" is not a common term in physics or engineering. It may refer to the kinetic energy of an object traveling with a certain velocity or the energy associated with the movement of fluid in a system. Clarification would be needed to provide a more specific answer.
The kinetic energy of a falling object is directly proportional to the distance it falls.But the distance is not directly proportional to the time in fall, so the KE is not directly proportionalto the time either.
kinetic energyThe formula for determining kinetic energy is KE = 1/2mv2, where m is mass in kg, and v is speed in m/s.
Yes, traveling at a higher speed increases the kinetic energy of the vehicle, which means it will require a greater stopping distance to come to a complete stop. This is because the vehicle needs more time and distance to reduce its speed gradually.
i have an i pod and it is kinetic.
The kinetic energy of the vehicle when it is travelling faster is four times as great. It the brakes apply the same retardation and the friction from the tires on the road surface is unchanged then the stopping time will be four times as long.
A traveling bullet primarily carries kinetic energy due to its motion through the air. This kinetic energy is derived from the initial potential energy stored in the bullet when it was fired.
The bicycle traveling at 15 m/s has more kinetic energy because kinetic energy is proportional to the square of the velocity. Since the mass is the same for both bicycles, the one traveling faster will have a greater kinetic energy.
The kinetic energy of a vehicle is directly proportional to its mass and velocity. A larger vehicle will have more kinetic energy than a smaller vehicle traveling at the same velocity. This means that a larger vehicle will require more distance to come to a stop compared to a smaller vehicle, all else being equal.
Kinetic and potential energy are a type of energy, not a measurement of distance.
A car traveling at a higher speed will have more kinetic energy than a car moving at a slower speed. So, the car with the most kinetic energy would be the one traveling at the highest speed.
The braking distance is proportional to the square of speed because as speed increases, the amount of kinetic energy that needs to be dissipated during braking also increases exponentially. This means that stopping a vehicle traveling at twice the speed will require four times the distance to come to a complete stop due to the increased kinetic energy that needs to be overcome.
A charged battery is related to kinetic energy because it provides the electrical energy needed to power devices, which in turn can produce kinetic energy through movement or motion.
its potential
potential energy