The answer is 91 ft, of course!
The distance, expressed in inches, is(1.2) x (the particle's average speed, in feet per minute) .
When looking at a distance vs. time graph, it shows how far an object is traveling over a certain amount of time which can be written like this: distance per time or distance/time (distance divided by time) If we then put units in for distance (let's say meters) and time (seconds) we get this: meters/seconds which is the same as the units for speed.
When following large trucks, maintain at least a minimum of a ______ second following distance.
If it's falling near the earth's surface, the weight is 27.56 pounds (rounded), regardless of how long or how far it's been falling.
Time units and distance units can't directly convert to each other. If they could, then you'd be able to calculate how many yards of sleep you had last night, and how many seconds the pool is at the shallow end.
P(watt)=energy/time. Where power in measure in watt directly proportional to energy(work) and inversely proportional to time in seconds. 1W = .001kW
0.7848 meter
In that case, the parallax will decrease. It is inversely proportional. The relationship is the following:parallax (in arc-seconds) = 1 / distance (in parsec) In fact, that's how the parsec is defined.
The duration of Falling Hare is 480.0 seconds.
The duration of Falling Skies is 2700.0 seconds.
That depends on how long it's been falling altogether. If it was just dropped at the beginning of the 2.56 seconds, and it's only been falling for 2.56 seconds altogether, then it has fallen 32.1 meters (105.3 feet). (rounded) If it was falling for some time before the 2.56 seconds began, then it fell farther. A falling object keeps falling faster and faster as time goes on.
If you're talking about romantic relationships: distance + time = 0If you're talking about physics, then your question may relate to acceleration, where acceleration = distance over time squared. Speed increases incrementally, so acceleration equals such additional speed over so many seconds. If speed is distance over time then acceleration is distance over time over time or, put another way, distance over time squared.Another way of figuring this is by focusing on the distance.Distance is directly proportional to time for a moving body.Looking at the relationship of distance, square of time and acceleration, we may consider falling objects and gravity.Gravitational acceleration is speed = gravity x time squared. For every second of freefall an object accelerated 9.8 m per second. So, given the figures at hand, we have 9.8 meters per second squared.Somehow or other I'm sure all of these things are a metaphor for what happens in a long-distance relationship. Either way, one is looking at the continual acceleration of something falling until it hits bottom.
d = 0.5 * g * t2d = (0.5) * (9.8 m/s2) * (10 s)2 = 490 m
The duration of Last Year's Snow Was Falling is 1140.0 seconds.
Multiply by a value in seconds, that way you find out the distance. The distance will be in metres which will be travelled in a certain amount of seconds
4.9
If air resistance can be ignored, the distance in meters is 4.9t2. Note that 4.9 is half the numerical value of Earth's acceleration (9.8 meters per second square).