The coefficient of friction between two surfaces is highest when the surfaces are rough and have a large amount of resistance to sliding past each other. Smooth surfaces or surfaces with lubricants have lower coefficients of friction.
Two rough surfaces with high friction coefficients would have the highest coefficient of friction. For example, rubber on concrete or sandpaper on wood would typically result in a high coefficient of friction due to the roughness of the surfaces.
Surfaces with a high coefficient of friction include rubber on concrete, sandpaper on wood, or a shoe sole on carpet. Typically, surfaces that are rougher or have more texture will have a higher coefficient of friction.
The highest possible coefficient of friction is 1, representing perfect adhesion between two surfaces. This would mean that the force required to initiate motion between the surfaces is equal to the force pressing the surfaces together.
Two surfaces with high coefficients of friction are rubber on concrete and sandpaper on wood. These surfaces have rough textures that increase friction and resistance to sliding.
Rough concrete surfaces often have a high coefficient of friction due to the texture and unevenness of the material, providing good grip for walking or driving. Rubber on asphalt surfaces also tends to have a high coefficient of friction, which is why tires made of rubber provide good traction on roads.
Two rough surfaces with high friction coefficients would have the highest coefficient of friction. For example, rubber on concrete or sandpaper on wood would typically result in a high coefficient of friction due to the roughness of the surfaces.
Surfaces with a high coefficient of friction include rubber on concrete, sandpaper on wood, or a shoe sole on carpet. Typically, surfaces that are rougher or have more texture will have a higher coefficient of friction.
The highest possible coefficient of friction is 1, representing perfect adhesion between two surfaces. This would mean that the force required to initiate motion between the surfaces is equal to the force pressing the surfaces together.
Two surfaces with high coefficients of friction are rubber on concrete and sandpaper on wood. These surfaces have rough textures that increase friction and resistance to sliding.
Rough concrete surfaces often have a high coefficient of friction due to the texture and unevenness of the material, providing good grip for walking or driving. Rubber on asphalt surfaces also tends to have a high coefficient of friction, which is why tires made of rubber provide good traction on roads.
A high coefficient of friction indicates that there is strong resistance to sliding between two surfaces in contact. This means that it would take more force to move the surfaces against each other.
Friction is the static electricity of two things that are rubbed against each other. Ice would have a low coefficient of friction, as things could easily slide across it. This would also make sense for something like marble, which is very smooth.
On a flat surface it would be the friction coefficient and the weigh of body.
Limiting friction is just the maximum static friction force (if you go over that point static friction becomes kinetic friction).Let f = frictional force,c = coefficient of frictionN = Normal forcefmax = cN = limiting frictionAlthough the term coefficient of limiting friction is not really used, I'd assume it would just be "c" (it's a coefficient after all). So they would be the same.If you meant is coefficient of friction the same as limiting friction, than the answer is no. Coefficient of friction is just the "c" in the equation. Limiting friction however is the product of the coefficient and the normal force.
rubber on dry concreat
human joints are an excellent example. they have a static friction coefficient of .01 μs and a kinectic friction coefficient of .003 μkanother good example would be waxed wood on dry snow (as in a snowboard on a ski slope) this has a static friction coefficient of .04 μsHope this helped!
No , coefficient of friction can not be zero. if it is zero then there will be no frictional force between two bodies.And in our universe these types of object didnot exit.