It it balanced by the upward reaction exerted by the smooth surface (or "soomthy surafce", as you prefer) on the block.
The apparent weight of the floating block is equal to the weight of the displaced water, according to Archimedes' principle. Since the block is floating, its weight is balanced by the upthrust force of the water pushing up on it. So, the apparent weight of the floating block is less than its actual weight.
When a block is floating in a fluid, the net force in the vertical direction is zero. This is because the weight of the block is balanced by the buoyant force acting in the opposite direction, resulting in equilibrium.
The buoyancy force is typically larger than the weight of a floating block because the buoyant force is equal to the weight of the fluid displaced by the block. This relationship allows objects to float when the buoyant force exceeds their weight.
To move a block, you have to overcome the weight of the block plus the force of friction between the block and the surface it's on. Friction opposes motion, so you'll need to apply a force greater than the combined force of the block's weight and friction to move it. Your own body weight doesn't directly affect the force needed to move the block unless you're using your weight to increase the force you're applying.
The tension in the rope is equal to the weight of the hanging block when the block is stationary and not accelerating.
The apparent weight of the floating block is equal to the weight of the displaced water, according to Archimedes' principle. Since the block is floating, its weight is balanced by the upthrust force of the water pushing up on it. So, the apparent weight of the floating block is less than its actual weight.
No, It does not depends on weight of block because this weight of block is being balanced by normal force. So by increasing weight of block, there is no effect on coefficient of friction.
When a block is floating in a fluid, the net force in the vertical direction is zero. This is because the weight of the block is balanced by the buoyant force acting in the opposite direction, resulting in equilibrium.
The harmonic balancer and flexplate are externally balanced on the 400, meaning the balancer isn't smooth and consistent all the way around. The flexplate for the 400 has a balancing weight welded to it. The 350 is internally balanced and has the typical smooth balancer and unbalanced flexplate.
The weight of water displaced by the floating block of wood is exactly equal to the weight of the ENTIRE block of wood, regardless of how much of the wood is above the water level.
The buoyancy force is typically larger than the weight of a floating block because the buoyant force is equal to the weight of the fluid displaced by the block. This relationship allows objects to float when the buoyant force exceeds their weight.
yes a 2.8 litre Chevy is internally balanced
the weight of my 427 Chevy big block. Which is the same as the 396, 454. This is a bare block we are speaking about. the total weight of a bare block Is right at 200 pounds.
To move a block, you have to overcome the weight of the block plus the force of friction between the block and the surface it's on. Friction opposes motion, so you'll need to apply a force greater than the combined force of the block's weight and friction to move it. Your own body weight doesn't directly affect the force needed to move the block unless you're using your weight to increase the force you're applying.
The tension in the rope is equal to the weight of the hanging block when the block is stationary and not accelerating.
Balanced .
The friction force is directly proportional to the normal force acting on the block. The normal force is equal to the weight of the block when the block is on a horizontal surface. Therefore, the relationship between the weight of the block and the friction force is that the friction force increases with the weight of the block.