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.
Sliding friction in field hockey is demonstrated when the player's feet slide on the ground as they change direction or come to a sudden stop. This friction helps players control their movements on the field by providing resistance against the sliding motion. The type of shoes worn by field hockey players, with studs or cleats, also play a role in enhancing sliding friction for better traction on the field.
yes, it just has less friction across the table from the air pushing up on the puck through the holes.
If it weren't for friction, the hockey puck would have slid forever on the huge frozen pond.
The hockey puck has kinetic energy as it slides across the ice. This energy is due to the puck's motion and is directly related to its mass and speed.
Yes, a hockey puck sliding across the ice at a constant speed can be considered to be in dynamic equilibrium. While the puck is moving, the forces acting on it are balanced, resulting in no acceleration in its velocity.
one is a hockey puck sliding down the ice
Sliding friction in field hockey is demonstrated when the player's feet slide on the ground as they change direction or come to a sudden stop. This friction helps players control their movements on the field by providing resistance against the sliding motion. The type of shoes worn by field hockey players, with studs or cleats, also play a role in enhancing sliding friction for better traction on the field.
kinetic
yes, it just has less friction across the table from the air pushing up on the puck through the holes.
Hockey is a good example of many simple phenomena in physics: a puck sliding across ice or, manifested in field hockey, a ball across turf (friction and momentum). Hockey can be played in variants, on ice, on hard surface (floor hockey) and turf (field), as demonstrated by the puck/ball being hit (friction, force, acceleration, rotational torque, impulse), players being hit (also momentum, tensile stress, thermodynamics), the ball falling along a parabolic path (projectile motion), etc. The surface the game is played on lies the beauty of physics: ice requires a Zamboni machine (kinematics and low temperature physics).
Both air hockey and the dry ice pellet skidding across a table rely on a low-friction surface for smooth movement. In air hockey, a cushion of air reduces friction between the puck and the table, allowing for fast and agile play. Similarly, dry ice sublimates into gas, creating a thin layer of gas that enables the pellet to glide effortlessly across the surface. Both phenomena showcase the effects of reduced friction on motion, enhancing speed and responsiveness.
kinetic energy
If it weren't for friction, the hockey puck would have slid forever on the huge frozen pond.
The hockey puck has kinetic energy as it slides across the ice. This energy is due to the puck's motion and is directly related to its mass and speed.
In 2001, the "Physics of Hockey: Sliding Friction and Momentum on Ice" was born. It is the top site for information. Now it is simply called Hockey Physics 2.0. Go there: http://www.hockeyphysics.com
Yes, a hockey puck sliding across the ice at a constant speed can be considered to be in dynamic equilibrium. While the puck is moving, the forces acting on it are balanced, resulting in no acceleration in its velocity.
If you have eliminated all resistance then the initial force will be enough.