That depends upon what the 1000 Hz is, along with the medium through which the 1000 Hz is traveling. The speed of most waves is not dependent on frequency.
If that is 1000 Hz of electromagnetic radiation, then its speed (in a vacuum) is approx 3x108 m/s meaning in 1 second it travels approx 3x108 m or approx 186000 miles. It travels at this speed regardless of the frequency.
If it is sound in air at room temperature and atmospheric pressure, then its speed is approx 343 m/s so in 1 second it travels 343 m. Through solid objects, sound travels much faster.
45 feet.
22 mph = 9.8 metres per second, approx.
186000 miles speed of light per second x 60 seconds in a minute x 60 minutes in one hour x 24 hours in one day = 16'070'400'000
45 miles per hour = 66 feet per second
40 x 5280/3600 feet...
A frequency does not travel. Anywhere, ever.
about 1000 km
1000 kilometers
Light travels at approximately 186,000 miles per second. By multiplying that amount by 60 it gives you the distance light travels in one minute. Multiply that figure by 60 and you get the distance for one hour. Then multiply by 24 to get the distance traveled in one day. Multiply that by 365 for one year then by 1000 to see how far light can travel in 1000 years. So, light traveling at approximately 186,000 miles per second, in 1000 years can travel a staggering...5,865,696,000,000,000 miles. That is nearly 6 quadrillion miles! There is also a unit of distance designed especially for light (but can also be used for other things) called a 'light year'. A light year is how far light can travel in one year. Therefore in 1000 years, light can travel 1000 light years.
29.782Mph
You travel 51.3 feet per second.
100 km per what time? speed is not given. Assume speed = 100 km/hour Then in 2 seconds you travel: 100 km/h = 100000/3600 m/second = 1000/36 meter/second in 2 seconds you travel 2000/36 meters = 500/9 meters = 55.6 meters
0.0166 miles
well, what is the distance in kilometers and wher is it from.
It travels approx 9.46 trillion kilometres.
2,750 feet per second.
higher frequencies attenuate more the further distance they travel.