(using squats for the sake of explanation)
The lifter exerts an action force on the weight, which is in the opposite direction to gravity. The lifters shoulders also experience the reaction force (from the weight - otherwise, the weight would pass through the lifter or vice versa). The feet of the lift also experience a reaction force, which, combined with the shoulder-reaction force, is equal to the action force (Newton's Third Law). The feet also experience friction on the floor surface in opposite directions (which cancel out, so the lifter is stationary on the ground) :)
the forces acting on the weight lifter and the weights are balanced because the forces are not moving or changing direction.
(using squats for the sake of explanation) The lifter exerts an action force on the weight, which is in the opposite direction to gravity. The lifters shoulders also experience the reaction force (from the weight - otherwise, the weight would pass through the lifter or vice versa). The feet of the lift also experience a reaction force, which, combined with the shoulder-reaction force, is equal to the action force (Newton's Third Law). The feet also experience friction on the floor surface in opposite directions (which cancel out, so the lifter is stationary on the ground) :)
It would depend on how strong the weight lifter is.
Weight of the chain and tension in the string
It's weight and the reaction force from it's weight. Hope that helps!
the forces acting on the weight lifter and the weights are balanced because the forces are not moving or changing direction.
(using squats for the sake of explanation) The lifter exerts an action force on the weight, which is in the opposite direction to gravity. The lifters shoulders also experience the reaction force (from the weight - otherwise, the weight would pass through the lifter or vice versa). The feet of the lift also experience a reaction force, which, combined with the shoulder-reaction force, is equal to the action force (Newton's Third Law). The feet also experience friction on the floor surface in opposite directions (which cancel out, so the lifter is stationary on the ground) :)
a weight lifter has to have a surtain amount of fat to lift the weights and a ballet dancer has to be skinny and flexible
the Olympic Weight lifter because the weights are much heavier then the microphone
(using squats for the sake of explanation) The lifter exerts an action force on the weight, which is in the opposite direction to gravity. The lifters shoulders also experience the reaction force (from the weight - otherwise, the weight would pass through the lifter or vice versa). The feet of the lift also experience a reaction force, which, combined with the shoulder-reaction force, is equal to the action force (Newton's Third Law). The feet also experience friction on the floor surface in opposite directions (which cancel out, so the lifter is stationary on the ground) :)
lift,thrust,weight,drag,
There is the apple's weight (mass * gravity) but there is also the air resistance acting against the object's weight.
No, the other way around: all weights are forces. The word "weight" is used for one specific type of force: the force of attraction due to gravity.
It would depend on how strong the weight lifter is.
This is a rather deluxe set intended for the serious lifter. You will get 20 pair of dumbbells, ranging in weight from 55-100 lbs.
98.07 newtons on earth.
Weight of the chain and tension in the string