the hands make a compression wave that travels through the air. Your ears pick up that compression wave and turns it into a neuron impulse that your brain registers as sound.
When you clap your hands together, the collision creates vibrations in the air that travel as sound waves to your ears. These sound waves are then processed by your brain to perceive the sound of clapping.
When you clap your hands together, the rapid collision of your hands creates a compression wave in the air. This compression wave travels to your ears and is picked up by your eardrums, which vibrate in response to the sound wave, sending signals to your brain that are interpreted as the sound of a clap.
When you clap your hands together, the collision creates a rapid compression of air between your palms, followed by a sudden release. This release generates a wave of pressure that produces the sound we hear as clapping.
A clap is created by the rapid collision and separation of two surfaces, typically hands, creating a sharp sound wave that travels through the air. This sound wave reaches your ears, where it is converted into electrical signals that are then processed by your brain, allowing you to perceive the sound of the clap.
When you clap, you create a sudden disturbance in the air, compressing and pushing the air molecules. This movement produces a pressure wave that travels through the air and reaches your ears, where they are detected as sound waves. The sound you hear is the result of this series of vibrations and pressure changes.
When you clap your hands together, the collision creates vibrations in the air that travel as sound waves to your ears. These sound waves are then processed by your brain to perceive the sound of clapping.
When you clap your hands together, the rapid collision of your hands creates a compression wave in the air. This compression wave travels to your ears and is picked up by your eardrums, which vibrate in response to the sound wave, sending signals to your brain that are interpreted as the sound of a clap.
the hands make a compression wave that travels through the air. Your ears pick up that compression wave and turns it into a neuron impulse that your brain registers as sound.
When you clap your hands together, the collision creates a rapid compression of air between your palms, followed by a sudden release. This release generates a wave of pressure that produces the sound we hear as clapping.
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A clap is created by the rapid collision and separation of two surfaces, typically hands, creating a sharp sound wave that travels through the air. This sound wave reaches your ears, where it is converted into electrical signals that are then processed by your brain, allowing you to perceive the sound of the clap.
You can explain thunder to a 2-year-old by saying that it's a loud sound in the sky that happens when clouds bump into each other. Just like how we hear a big clap when we clap our hands together, thunder is like the clouds clapping in the sky.
stimulus
When you clap, you create a sudden disturbance in the air, compressing and pushing the air molecules. This movement produces a pressure wave that travels through the air and reaches your ears, where they are detected as sound waves. The sound you hear is the result of this series of vibrations and pressure changes.
Because the light that brings the view to your eyes travels about 875,000 times faster, and reaches you sooner, than the sound that brings the sound to your ears. If the event is anywhere more than maybe a hundred feet from you, then you can begin to perceive the difference.
Because the deaf person can't hear you clap.
You don't hear a sound because the movement of your hand through the air is not creating enough disruption or vibration in the air molecules to produce an audible sound wave. Unlike when you clap your hands or speak, the movement of your hand alone does not generate sufficient sound energy to be detected by your ears.