OK. Let's use the following symbols:
M = mass of the sun
P = mass of the particle
E = mass of the earth
G = gravitational constant
Rs = distance from the sun
Re = distance from the earth
Fs = force between the particle and the sun
Fe = force between the particle and the earth
From Newton:
Fs = G (M P) / (Rs)2
Fe = G (E P) / (Re)2
We want to know where these forces are equal:
G (M P) / (Rs)2 = G (E P) / (Re)2
M / (Rs)2 = E / (Re)2
(Rs/Re)2 = M/E
Rs/Re = sqrt(M/E)
This gives us the ratio of distances to the sun and earth, and we can worry about the
actual miles later. Just now, we only need the square-root of the ratio of the masses.
sqrt(M/E) = sqrt[ (1.98X1030) / (5.97x1024) ] = sqrt(331658.29) = 575.9 (rounded)
Now we're ready to do the actual miles. Notice that the particle does not have to be on
the straight line between the earth and sun, as long as the ratio of the two distances is
correct. Just to keep it simple, though, we'll place the particle on the earth-sun line.
Distance between the earth and sun: 93 million miles
Ratio of the distances to earth and sun from the particle: 1 to 575.9
Distance from the earth: (93 million) x (1/576.9) = 161,207
Distance from the sun: (93 million) x (575.9/576.9) = 92,838,794
One very interesting thing to notice:
The position for equal attraction by earth and sun, on the line joining them, is about
161,000 miles from earth, or about 1/576th of the distance.
The moon's average distance from the earth is 238,000 miles, or about 1/391 of the
sun's distance.
So for a considerable portion of the moon's orbit, the force of the sun's attraction on it
exceeds the force of the earth's attraction ! Verrrrry interesting . . .
The law of universal gravitation states that every particle in the universe attracts every other particle with a force that is directly proportional to the product of their masses and inversely proportional to the square of the distance between their centers. It was formulated by Sir Isaac Newton in 1687.
Sir Isaac Newton is credited with developing the law of universal gravitation, which states that every particle in the universe attracts every other particle with a force that is directly proportional to the product of their masses and inversely proportional to the square of the distance between their centers.
Two factors that determine the physical characteristics of sediments are the size of the particles within the sediment and the sorting of those particles. Particle size affects sediment texture, while sorting refers to the range of particle sizes present in the sediment, which can influence how well the sediment is able to pack together.
It would depend on the location of the ring particle and the density of particles in the ring system. If the particle is in a sparse region, it may experience very few collisions, while in a denser area it could collide more frequently. Ultimately, it's difficult to predict an exact number without more specific information about the particle's environment.
What your looking for is this word Megacryometeorhave a look at this pagehttp://en.wikipedia.org/wiki/MegacryometeorAlso check out hale, hailstones
The mean square displacement formula is used to calculate the average distance a particle moves from its starting point over a period of time. It is calculated by squaring the distance traveled by the particle at each time step, summing these values, and then dividing by the total number of time steps.
To calculate the moment of inertia for a given object, you need to know the mass of the object and the distance of each particle from the axis of rotation. The moment of inertia is calculated by summing the mass of each particle multiplied by the square of its distance from the axis of rotation. This calculation helps determine how difficult it is to change the object's rotational motion.
No, the strength of the electric field of a charged particle becomes weaker as the distance from the particle increases. The electric field strength follows an inverse square law relationship with distance, meaning it decreases as the distance from the charged particle increases.
Yes. A single gas particle experiences gravitational force.
To calculate the weight of particle board, you will need to know the dimensions (length, width, thickness) and the density of the particle board. Simply multiply the volume (length × width × thickness) by the density to determine the weight of the particle board.
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Anytime a particle experiences a change in charge or anytime charged particle travels, a magnetic field a generated.
To conduct a mean square displacement calculation, you first need to track the position of a particle over time. Then, calculate the squared distance the particle has moved from its starting point at each time interval. Finally, average these squared distances to find the mean square displacement, which represents the average distance the particle has traveled from its starting point over time.
As the distance from a charged particle increases the strength of its electric field DECREASES.
Anytime a particle experiences a change in charge or anytime charged particle travels, a magnetic field a generated.
The distance travelled by a particle cannot be zero when displacement is not zero because unlike distance which is a scalar, displacement is a vector quantity implying that it has both direction and magnitude.
When a charged particle moves and experiences no magnetic force, it means that either the magnetic field is zero or the magnetic field is perpendicular to the velocity of the charged particle. As a result, the particle will only experience the electric force, causing it to follow a straight path according to the Lorentz force law.