the speed at which sound propagates (or travels from its source) is directly influenced by both the medium through which it travels and the factors affecting the medium, such as altitude, humidity and temperature for gases like air. Bad news for Star Wars fans---there is no sound in the vacuum of space because there are too few molecules to propagate a wave.
It is important to note that sound speed in air is determined by the air itself. It is not dependent upon the sound's amplitude, frequency or wavelength. To calculate the speed of sound in dry air at sea level, use the following formula:
V = 331.4 + 0.6Tc
V = velocity (m/s), Tc = temperature in Celsius.
Use the interactive Speed of Sound calculator below to see the effect of temperature on sound's velocity.
For comparison, the speed of light in a vacuum is 299,792,458 meters per second or 186,000 miles per second (669,600,000 mph), which is roughly 870,000 times faster than the speed of sound. The difference between the speed of light and the speed of sound is why you see lightening before you hear it (unless you are struck by it, in which case it may be simultaneous!).
As a comparison with sound in other mediums, the speed of sound in helium at 0°C is approximately 972 meters per second (m/s), or around 3 times as fast as in air. Sounds travels even faster in liquids and solids because of their greater density (although standard measurement is slightly more complicated because of it is effected by the shape of the material and also the fact that both longitudinal and transverse waves may propagate in solids). Sound in 20° C water travels an average of 1482 m/s, while sound in aluminum travels at 6420 m/s. Modern navies depends heavily on being able to predict the speed of sound in varying water conditions for their SONAR echo-location systems.
If you have ever lived in an apartment with shared walls and a party next door, you are no doubt aware that sound waves can transfer from one medium to another and back again---in this case from air to the rigid wallboard and back to air again. The speed with which it travels changes accordingly with the shift in mediums. A wide variety of sound isolation products and construction techniques attempt to mitigate this sort of transfer. For further sound-abatement information, see Aural ex's .
It is important to realize that while all sound in the equivalent conditions travels at the same speed, whether louder or softer, higher or lower, the speed or force of the individual molecules bumping into one another increases with amplitude and/or frequency.
To break the sound barrier in the Earth's atmosphere, an object must travel at a speed of around 767 mph (1,235 km/h) at sea level. This speed is known as the speed of sound, or Mach 1.
The speed of sound at sea level is around 343 m/s. Adding one meter to the elevation would not significantly change the speed of sound, as it is mainly influenced by factors like temperature and humidity, not altitude. So, the speed of sound at sea level plus one meter would still be approximately 343 m/s.
The velocity of air at sea level can vary widely depending on factors such as weather conditions, altitude, and geographic location. On average, the wind speed at sea level ranges from 0 to 10 meters per second but can be higher during storms or intense weather events.
Sound travels at approximately 1088 feet per second at sea level in standard atmospheric conditions. Note that the speed of sound can vary based on factors such as temperature and humidity.
The speed of sound on land is approximately 343 meters per second (1235 kilometers per hour or 767 miles per hour). This speed can vary slightly depending on factors like temperature, humidity, and altitude.
761.207 mph at sea level.
speed of sound at sea level = 340.29 m / s
The speed of sound in air is approximately 661 knots or 767 mph at sea level and at room temperature.
" Sonic ", like the speed at which teens used to tool their hot-rods into the drive-in to get their hamburgers.
The speed of sound at sea level is 340.29 meters per second.
The speed of sound has nothing to do with the sea level. It has much to do with the temperature. At 20°C the speed of sound is 343 m/s.
To break the sound barrier in the Earth's atmosphere, an object must travel at a speed of around 767 mph (1,235 km/h) at sea level. This speed is known as the speed of sound, or Mach 1.
The speed of sound has nothing to do with the sound pressure, like "at sea level" or on top of a mountain. But the speed of sound has very much to do with temperature. Scroll down to related links and look at "Calculation of the Speed of Sound".
The speed of sound has neither to do with the sea level nor with Tucson. Speed of sound has mainly to do with the temperature of the air. Look at the link: "Speed of Sound in Air and the effective Temperature".
Forget the sea level. Think only of the temperature. Speed of sound depends on the temperature. At 20°C the speed of sound is c = 343 m/s.
It is flying 3 times the speed of sound. Agreed. 2,300 mph at sea level
The speed of sound at sea level is approximately 750 mph.