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You can hear your echo in an open space because sound waves bounce off surfaces and reflect back to you, creating a delayed repetition of the original sound. The time it takes for the sound to travel to a surface and bounce back determines how far away the surface is from you.
Sound can travel long distances, but it eventually dies out due to factors like air resistance and absorption. In general, sound can travel up to several miles before becoming too faint to hear.
To calculate the distance of an object based on echo timing, measure the time it takes for a sound wave to travel to the object and back. Divide this time by 2 to get the one-way travel time. Then multiply the one-way travel time by the speed of sound in the medium the sound is traveling through (approx. 343 m/s in air at room temperature) to find the distance to the object.
As far as the object is that produced thesound!
The characteristic of sound that determines how far it can travel before dying out is its intensity or amplitude. Sound waves with higher intensity can travel further before their energy is dissipated and they become too weak to be detected.
You can hear your echo in an open space because sound waves bounce off surfaces and reflect back to you, creating a delayed repetition of the original sound. The time it takes for the sound to travel to a surface and bounce back determines how far away the surface is from you.
Sound waves are created when an object vibrates, sending out energy in the form of waves. When these waves hit a surface, they bounce back towards the source, creating an echo. The time it takes for the sound to travel to the surface and back determines how far away the surface is and the strength of the echo.
Sound can travel long distances, but it eventually dies out due to factors like air resistance and absorption. In general, sound can travel up to several miles before becoming too faint to hear.
Depends on how high they are. Sound neeeds something - like air - to travel through. If they're high enough there's no or not enough air for sound to travel, and you won't hear a thing. If they make if down far enough in one piece, you might hear them.
To calculate the distance of an object based on echo timing, measure the time it takes for a sound wave to travel to the object and back. Divide this time by 2 to get the one-way travel time. Then multiply the one-way travel time by the speed of sound in the medium the sound is traveling through (approx. 343 m/s in air at room temperature) to find the distance to the object.
The sound of a tiger's roar can travel a distance of up to 2 miles (~3 km).
it makes it sound different because the viberations are the level the sounds travel and the way you will hear it.For example when you string a harp the vibration levels are far because it is huge and the sound is large because it travels further you are welcome
Voices echo because the sound waves create by the human voice bounce off an object and reflect back to the original source. Echos will usually take place in wide open spaces because the objects are far apart, thereby the sound takes longer to bounce off an object. When in closed spaces that absorb sound like a voice over booth, you will not hear any echo as objects are closer and the sound is being absorbed by soundproofing.
It is difficult to say how far the human ear can pick up sounds. The distance a human ear can hear varies according to the condition of the ear, the frequency of the sound, and other sounds taking place at the same time.
almost instantly.
We can't hear it from here.
If it takes 15 seconds for an echo to be heard, the distance between you and the reflecting surface (such as a wall, cliff, or building) is approximately 2,250 meters (15 seconds multiplied by the speed of sound at sea level, which is about 343 meters per second).