In salt water that is free of air bubbles or suspended sediment, sound travels at about 1560 m/s. The speed of sound in seawater depends on pressure (hence depth), temperature (a change of 1 °C ~ 4 m/s),and empirical equations have been derived to accurately calculate sound speed from these variables. In pure water the speed of sound is less than in ocean water.
Isaac Newton calculated the speed of sound in air at room temperature to be around 343 meters per second.
Notice: The speed of sound changes with temperature and a little bit with humidity − but not with air pressure (atmospheric pressure). The words "sound pressure at sea level" are incorrect and misleading. The temperature indication, however, is absolutely necessary. The speed of sound in air at 20 degrees Celsius (68 degrees Fahrenheit) is 343 metres per second. That is 1126.547 feet per second.
C = F1/F2 F1 - higher - frequency before vehicle pass (Hz) F2 - lower - frequency after vehicle pass* (Hz) V = - V0 * ( (1 - C) / (1 + C) ) ------------------------------------- V - speed of vehicle (m/s) V0 - speed of sound in air (m/s) ~= 343 m/s Valid only if vehicle speed is lower than the speed of sound :) * Measurement must be done in position very close to where vehicle passes by. Otherwise things become more complex.
The speed of sound in 30w oil can vary depending on factors such as temperature, pressure, and density of the oil. In general, the speed of sound in oil is slower than in air, typically ranging from around 1400 to 1800 meters per second. You would need specific measurements and properties of the 30w oil to calculate an accurate speed of sound value.
In salt water that is free of air bubbles or suspended sediment, sound travels at about 1560 m/s. The speed of sound in seawater depends on pressure (hence depth), temperature (a change of 1 °C ~ 4 m/s),and empirical equations have been derived to accurately calculate sound speed from these variables. In pure water the speed of sound is less than in ocean water.
they get a computer and get it in slow motion and calculate it on the computer by km
The sound distance formula, also known as the speed of sound formula, is used to calculate the distance traveled by sound waves in a given medium. It is represented as distance speed of sound x time.
The two measurements needed to calculate the speed of an object in motion are distance traveled and the time taken to travel that distance. Speed is calculated as distance divided by time.
The distance in sound waves can be calculated using the formula: distance = speed of sound x time. The speed of sound in air at room temperature is approximately 343 meters per second. By knowing the time it takes for the sound wave to travel from the source to the receiver, you can calculate the distance the sound wave has traveled.
Speed of sound in water is affected by the oceanographic variables of temperature, salinity, and pressure. Look at the link: "How fast does sound travel in water?"
The wavelength of sound can be calculated using the formula: wavelength = speed of sound / frequency. Assuming the speed of sound is around 343 m/s, we can calculate the wavelength of sound with a frequency of 539.8 Hz to be approximately 0.636 meters.
Speed of sound in water is faster than in air. Speed of sound in steel is c = 5930 m/s. That is faster than in air and in water. Speed of sound in water is c = 1480 m/s. It is affected by the oceanographic variables of temperature, salinity, and pressure. Speed of sound in air is c = 343 m/s at 20°C = 68°F. The speed of sound changes clearly with temperature, a little bit with humidity - but not with air pressure (atmospheric pressure).
This is imposible to calculate. In order to find acceleration, knowlege of at least 3 of these variables must be given: initial speed, final speed, distance, and time.
There are factors in addition to speed the cause a baseball to make sound when it is thrown. The spin on the ball also has an impact. On average the speed needed would have to be in the mid sixties at least.
Isaac Newton calculated the speed of sound in air at room temperature to be around 343 meters per second.
You solve this as follows: 1) Decide on a number for the speed of sound. Note that the speed of sound in air is quite different to the speed of sound in water, for example. Convert this speed to meters/second, if it isn't already in meters/second. 2) Divide the speed by the wavelength, to get the frequency. 3) The period is simply the reciprocal of the frequency.