It accelerates
This type of problems about friction are extremely simple: You just multiply the normal force by the coefficient of friction to get the frictional force.
A gliding hockey puck illustrates Newton's laws of motion through its behavior on the ice. According to Newton's first law, the puck remains in motion at a constant velocity unless acted upon by an external force, such as friction or a player's stick. When a player strikes the puck, Newton's second law explains how the puck accelerates in the direction of the force applied, with its acceleration proportional to the force and inversely proportional to its mass. Finally, Newton's third law is demonstrated when the puck collides with another object, such as a player or the boards, resulting in an equal and opposite reaction.
An air hockey puck typically weighs between 1 and 2.5 ounces.
Yes, rough ice can slow down the speed of the puck in ice hockey as it creates more friction between the puck and the surface. This can affect the puck's ability to glide smoothly and decrease its speed and overall performance on the ice.
The term "puck-stopper"is just one of many names used to refer to the goal-keeper in hockey.
It accelerates
It accelerates
If a net force of 5N acts on a hockey puck, it will accelerate in the direction of that force according to Newton's second law (F=ma). The acceleration will depend on the mass of the puck – the greater the mass, the smaller the acceleration, and vice versa.
This type of problems about friction are extremely simple: You just multiply the normal force by the coefficient of friction to get the frictional force.
If you apply more force to a hockey puck, it will accelerate and move faster in the direction of that force. The puck's speed and distance traveled will increase, depending on the amount of force applied.
The force that the puck exerts on the hockey stick depends on various factors, such as the speed of the puck, the angle at which it hits the stick, and the mass of the puck. This force can be calculated using the principles of classical mechanics and is typically measured in Newtons.
what a stupid question!!
Hopefully they bury you.
No large force is needed for a hockey puck to slide across a frictionless surface. Once the puck is in motion, it will continue to move indefinitely without any additional force due to the absence of friction.
a puck
A hockey puck
If a puck is placed on the ice so that it isn't moving it will stay where it is placed. That's inertia.If a player whacks the puck straight for the net and no other player gets in the way then the puck will go into the net. The only thing that could slow the puck would be the tiny friction between the ice and the puck but that doesn't amount to much. The air turbulence around a puck must have a slight effect too. But the overall straight line trajectory of the puck is inertia too.In ordinary life, things 'at rest stay at rest' and things that are moving move in straight lines unless additional forces act on those things.