When you hit the bottom of a coin, the sound you hear is due to energy being transferred to the coin, causing it to vibrate. This vibration creates sound waves in the air that we perceive as noise. The specific sound depends on factors such as the material of the coin, how it is struck, and the surface it lands on.
When you hit the coins at the bottom of a container, the force transmits through the coins in a chain reaction due to the principles of kinetic energy and momentum transfer. This causes the bottom coin to move and collide with the surface of the container, resulting in a sound being produced.
When you hit the coin at the bottom of a rotating platform, its momentum is transferred to the platform causing it to rotate in the opposite direction. This is due to the principle of conservation of momentum, where momentum is conserved in a closed system. As the coin exerts a force on the platform, the platform exerts an equal and opposite force on the coin, resulting in the change in motion.
When you hit the bottom of a stack of coins, the impact transfers energy through the coins, causing them to jostle and move. This happens because the force of the impact is transmitted through the coins, which in turn push against each other due to their physical contact.
Friction is a sticky force that appears when 2 objects rub against each other. If you push or pull slowly friction helps pull or push the tower along with the bottom coin. If you push or pull quickly, the coins still rub, but the friction force doesn't have time to get the stack moving. So the coin shoots out without pulling the tower with it.
it is because the view we are seeing the coin is from rarer to denser that is from air to water so the refractive index differs so the view we so the coin at the bottom of the cointer appears to be raised
When you hit the coins at the bottom of a container, the force transmits through the coins in a chain reaction due to the principles of kinetic energy and momentum transfer. This causes the bottom coin to move and collide with the surface of the container, resulting in a sound being produced.
Friction is a sticky force that appears when 2 objects rub against each other. If you push or pull slowly friction helps pull or push the tower along with the bottom coin. If you push or pull quickly, the coins still rub, but the friction force doesn't have time to get the stack moving. So the coin shoots out without pulling the tower with it.
Friction is a sticky force that appears when 2 objects rub against each other. If you push or pull slowly friction helps pull or push the tower along with the bottom coin. If you push or pull quickly, the coins still rub, but the friction force doesn't have time to get the stack moving. So the coin shoots out without pulling the tower with it.
Friction is a sticky force that appears when 2 objects rub against each other. If you push or pull slowly friction helps pull or push the tower along with the bottom coin. If you push or pull quickly, the coins still rub, but the friction force doesn't have time to get the stack moving. So the coin shoots out without pulling the tower with it.
When you hit the coin at the bottom of a rotating platform, its momentum is transferred to the platform causing it to rotate in the opposite direction. This is due to the principle of conservation of momentum, where momentum is conserved in a closed system. As the coin exerts a force on the platform, the platform exerts an equal and opposite force on the coin, resulting in the change in motion.
When you hit the bottom of a stack of coins, the impact transfers energy through the coins, causing them to jostle and move. This happens because the force of the impact is transmitted through the coins, which in turn push against each other due to their physical contact.
Friction is a sticky force that appears when 2 objects rub against each other. If you push or pull slowly friction helps pull or push the tower along with the bottom coin. If you push or pull quickly, the coins still rub, but the friction force doesn't have time to get the stack moving. So the coin shoots out without pulling the tower with it.
Friction is a sticky force that appears when 2 objects rub against each other. If you push or pull slowly friction helps pull or push the tower along with the bottom coin. If you push or pull quickly, the coins still rub, but the friction force doesn't have time to get the stack moving. So the coin shoots out without pulling the tower with it.
Becuase the coin is heavier then what the water can hold
you are so stupid
canals are noot very deep so if the bottom of the boat was big it would hit the bottom of the calal. It all so glids very fast.
it is because the view we are seeing the coin is from rarer to denser that is from air to water so the refractive index differs so the view we so the coin at the bottom of the cointer appears to be raised