A heavier stone creates larger disturbances in the water upon impact due to its greater mass and momentum. This results in larger waves with higher amplitudes compared to those produced by a lighter stone, which has less force upon impact, generating smaller waves.
The heavy stone carries more momentum due to its larger mass, resulting in a greater force upon impact. This force generates larger waves with higher amplitude compared to the impact of the lighter stone, which has less momentum and produces smaller waves.
The heavier stone carries more energy when it hits the water, causing a stronger disturbance and larger waves. The greater mass of the heavy stone results in a greater force exerted on the water upon impact, leading to higher amplitude waves.
due to higher intensityof heavy stone than a lighter stone
The heavy stone carries more energy when it impacts the water, causing larger waves with higher amplitude to be produced. This is because the heavier stone transfers more kinetic energy to the water upon impact, displacing more water molecules and creating larger waves compared to the lighter stone.
Amplitude does not have a direct effect on the color of light. The color of light is determined by its wavelength. Amplitude does impact the brightness or intensity of the light, with higher amplitudes producing brighter light.
The heavy stone carries more momentum due to its larger mass, resulting in a greater force upon impact. This force generates larger waves with higher amplitude compared to the impact of the lighter stone, which has less momentum and produces smaller waves.
The heavier stone carries more energy when it hits the water, causing a stronger disturbance and larger waves. The greater mass of the heavy stone results in a greater force exerted on the water upon impact, leading to higher amplitude waves.
due to higher intensityof heavy stone than a lighter stone
The heavy stone carries more energy when it impacts the water, causing larger waves with higher amplitude to be produced. This is because the heavier stone transfers more kinetic energy to the water upon impact, displacing more water molecules and creating larger waves compared to the lighter stone.
Amplitude does not have a direct effect on the color of light. The color of light is determined by its wavelength. Amplitude does impact the brightness or intensity of the light, with higher amplitudes producing brighter light.
The higher the ball is dropped from, the higher it will bounce due to increased potential energy converting to kinetic energy upon impact with the ground. However, it will not bounce at the same height it was dropped from due to energy losses from factors such as air resistance and deformation upon impact.
Changing the amplitude of a wave does not impact the wave speed. Wave speed is determined by the medium through which the wave is traveling. The amplitude only affects the energy of the wave, not its speed.
is when sound going up wave is going down
The higher the ball is dropped from, the higher it will bounce back. This is due to potential energy converting to kinetic energy upon impact with the ground, propelling the ball higher when dropped from greater heights. Ultimately, the bounce height depends on factors like gravity, air resistance, and the material of the ball.
Wave amplitude refers to the maximum displacement of a particle from its rest position within a wave. The differences in wave amplitude can affect the energy carried by the wave - higher amplitude waves carry more energy than lower amplitude waves. Additionally, wave amplitude can also impact the perceived intensity or loudness of a wave in the case of sound waves.
The rubber ball would bounce higher than the wooden ball when dropped at the same height. Rubber is an elastic material that can store and release more energy upon impact compared to wood, resulting in a higher bounce.
Increasing the height from which a ball is dropped will result in a higher bounce because the ball gains more potential energy as it falls from a greater height. This increase in potential energy translates to a greater kinetic energy upon impact with the ground, leading to a higher bounce.