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Mathematics 51 Online
OpenStudy (ajanijones):

medalss!!!!1 Upon which does the amount of gravitational pull between two bodies depend? A. the speed by which they travel B. the angle of the orbital plane C. the mass of the largest body D. the distance between the two bodies

OpenStudy (loser66):

@dan815

OpenStudy (ajanijones):

@dan815 @Phebe @Preetha @ParthKohli

OpenStudy (phebe):

im here

OpenStudy (ajanijones):

do you think you can help.

OpenStudy (phebe):

yess

OpenStudy (anonymous):

the mass, by the way this is physics

OpenStudy (phebe):

its out of C and D

OpenStudy (anonymous):

\[F _{g}=\frac{ GMm }{ r ^{2} }\] where M and m are mass

OpenStudy (anonymous):

oh wait there is distance as well

OpenStudy (anonymous):

can you select multiple answers?

OpenStudy (zepp):

There is only one answer to this question.

OpenStudy (anonymous):

Gravitational force is dependent upon the mass of the objects and the distance between them. Force drops off as a square of the distance

OpenStudy (dan815):

mass and distance

OpenStudy (dan815):

id go with D because it didnt mass of both bodies in C

OpenStudy (anonymous):

If only one can be selected. The question is flawed because it depends on both mass and distance between objects

OpenStudy (dan815):

it didnt say*

OpenStudy (anonymous):

But it says in general which does the the amount of gravitational pull between two bodies depends. It does depend on the mass of the largest body

OpenStudy (anonymous):

And in many situations the smallest mass can be negligable when the mass is significantly smaller than the larger mass, so I wouldn't say C is incomplete

OpenStudy (zepp):

Well, since it says 'two bodies', you can't assume that we are specifically talking about astral bodies. (Besides, assuming stuffs is such a bad habit to have.)

OpenStudy (anonymous):

@zepp I don't know if you can really make that assumption although I see where you're going. body can just be used generally as any object. planet + human can be a system of two bodies or planet + planet

OpenStudy (anonymous):

even a system of star + asteroid (2 cellestial bodies) may only require knowing the mass of the larger body in many cases

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