First off, A mouse trap lever only moves 180 degrees.
So you would take the length of your mouse trap pulling arm (e.g. 12''), and multiply it by two (24'')
Now you have the diameter of the circle if the mousetrap arm could spin a full 360 degrees.
So to find the circumference of that invisible circle you would multiply the diameter by pi (24'' x 3.14 = 75.36'') Now since the mouse trap arm only moves 180 degrees, you would divide your answer by 2, because 180 is half of 360.
(75.36'' divided by 2 = 37.68'')
Now that you have the distance that the arm travels you need to find the circumference of the axle your pulling wheels are on. Say that your axel has a quarter inch diameter ( .25'' ) you would do the same thing as before:
(e.g. .25'' x pi [3.14] = 0.785'')
Now you would divide the distance your lever arm moves by the circumference of your axle (e.g. 37.68'' divided by 0.785'' = 48)
this means that the string tied to the tip of the arm would wrap around the axle 48 times.
Now for the final step the circumference of the wheels, just do the same as before, diameter multiplexed by pi.
(e.g 5'' x 3.14 = 15.7'' )
Now that you know how many times the axle will rotate (48 times) and how far it travels each rotation (15.7'') all you have to do is multiply them!
e.g. (48 x 15.7 = 753.6'' )
or 20.93 yards, one fifth of a football field!
But keep in mind this is in a world with out friction.
I apologize if I was at all confusing, im not too good at teaching things, haha.
I hope I helped!
It depends on what the underlying distribution is and which coefficient you want to calculate.
By using the distance formula. We calculate the difference of the like coordinates (e.g longitude1-longitude2 or latitude1-latitude2 etc) then add the "squares" of the differences. And finally taking the square root of the answer.
Bulk density = dry weight / volume, then by knowing the dry weight and bulk density we can calculate the volume.
You cannot.
You CAN'T calculate the height of something, just by knowing its width.
The Moon's acceleration can be calculated using Newton's second law of motion, which states that force equals mass times acceleration (F = ma). By knowing the mass of the Moon and the force acting on it (such as the gravitational force from Earth), you can calculate its acceleration. It is found to be approximately 0.0027 m/s^2.
Speed is distance over time. Without knowing the speed, we cannot calculate this.
To find free-fall acceleration using only distance and initial speed, you can use the kinematic equation: distance = (1/2) * acceleration * time^2. Since the initial speed affects the time of fall, you would need to know the time of fall or other variables in order to solve for acceleration with just distance and initial speed.
Any time an object moves, and especially if it changes its velocity, the laws of motion apply. For example, you can use it to calculate the desired force, if you know the acceleration and the mass. Or the other way - to calculate the acceleration, knowing the force and the mass.
1). As an artificial space vehicle approaches and passes another planet, we can observe the effect of the other planet on its motion. 2). Knowing the vehicle's mass, and the effect the other planet has on its motion, we can calculate the other planet's mass. 3). Knowing the time the other planet takes to revolve around the sun, we can calculate its distance from the sun. 4). Knowing the other planet's distance from the sun, and its apparent size as seen from earth, we can calculate its actual size. 5). Knowing the other planet's actual size and mass, we can calculate the gravitational field at its surface, or at any distance from its center. 6). Knowing the gravitational field at any distance from the center of the other planet, we can calculate the weight that any familiar object would have if it were on or near that planet.
To calculate force when given speed, you would need to know the mass of the object. The equation that relates force, speed, and mass is F = m*a, where F is the force, m is the mass, and a is the acceleration (change in speed over time). Without knowing the mass or acceleration, it is not possible to calculate the force.
Speed is distance over time. Without knowing the speed, we cannot calculate this
Speed is distance over time. Without knowing the speed, we cannot calculate this.there is no conversion from minutes (time) to kilometres (distance)
The acceleration of gravity can be calculated using an Atwood machine by measuring the acceleration of the system as the masses move and applying Newton's second law of motion. By knowing the masses of the objects and the tension in the rope, one can determine the acceleration due to gravity.
Speed is distance over time. Without knowing the speed, we cannot calculate this.
To find the individual force acting on an object, you can use Newton's second law, which states that force is equal to mass multiplied by acceleration (F = ma). By knowing the mass of the object and its acceleration, you can calculate the individual force.
1/(focal length) = 1/(distance of object) + 1/(distance of image) is the formula for calculating x of a lens knowing only the focal length which is the distance from the lens to the image of sun formed by it.