Rubber is more elastic than wood, so it can absorb and dissipate the kinetic energy of the moving ball more effectively, causing it to come to a stop more easily. The rubber ball will deform upon impact, while the wooden ball is more rigid and will retain its shape, resulting in a greater rebound effect and less energy dissipation.
It is generally easier to stop a rubber ball moving at the same speed as a wooden ball of the same size, due to the rubber ball's elasticity and ability to deform upon impact, absorbing some of the energy. The wooden ball, being more rigid, would transfer more energy upon impact, making it more difficult to stop.
The rubber ball will compress upon impact, absorbing some of the energy and reducing the bounce-back effect. This makes it easier to stop compared to a wooden ball, which is more rigid and will bounce back with more force due to its inability to compress.
Yes, it can. Perhaps the simplest example is when an object moves at constant speed, in a circle. In this case, the speed doesn't change; the velocity does.
Speed is a measure of how fast an object is moving in a certain direction. It does not explain the cause of the motion, but rather describes how quickly the object is changing its position over time. Understanding speed helps us quantify and compare different rates of motion.
The speed of the moving fluid determines its pressure according to Bernoulli's principle. As the speed of the fluid increases, the pressure decreases, and vice versa. This principle helps explain how lift is generated in airplane wings.
It is generally easier to stop a rubber ball moving at the same speed as a wooden ball of the same size, due to the rubber ball's elasticity and ability to deform upon impact, absorbing some of the energy. The wooden ball, being more rigid, would transfer more energy upon impact, making it more difficult to stop.
Explain how rate of diffusion principle is used while filling air in the rubber tubes to increase the speed of the vehicles.
Because you is gay
Yes, when it comes back to the starting point.
The rubber ball will compress upon impact, absorbing some of the energy and reducing the bounce-back effect. This makes it easier to stop compared to a wooden ball, which is more rigid and will bounce back with more force due to its inability to compress.
Yes, it can. Perhaps the simplest example is when an object moves at constant speed, in a circle. In this case, the speed doesn't change; the velocity does.
Speed is a measure of how fast an object is moving in a certain direction. It does not explain the cause of the motion, but rather describes how quickly the object is changing its position over time. Understanding speed helps us quantify and compare different rates of motion.
Yes, it can. Perhaps the simplest example is when an object moves at constant speed, in a circle. In this case, the speed doesn't change; the velocity does.
Wooden golf ball? Not a lot i'd imagine.
The speed of the moving fluid determines its pressure according to Bernoulli's principle. As the speed of the fluid increases, the pressure decreases, and vice versa. This principle helps explain how lift is generated in airplane wings.
Velocity includes both speed (magnitude of the velocity) and direction, while speed is just the magnitude of the velocity without any indication of direction. So velocity is a vector quantity, whereas speed is a scalar quantity.
Vacuum is the absence of any matter and does not, of itself, have any speed.The following thought experiment might explain why vacuum does not have a speed. Consider a steady stream of cars, with gaps between the cars. How fast are these gaps moving? Actually, the gaps are not moving, it is their boundaries - the cars at either side of the gap - that are moving.