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Physics 19 Online
OpenStudy (anonymous):

Attached !

OpenStudy (destinymasha):

where!

OpenStudy (anonymous):

OpenStudy (anonymous):

Here it is !!

OpenStudy (roadjester):

lol

OpenStudy (destinymasha):

lol

OpenStudy (anonymous):

Its not B

OpenStudy (roadjester):

\[\huge\vec F = G {m_1m_2 \over r^2}\hat r\]

OpenStudy (anonymous):

Im not sure I tried B so i know its not B

OpenStudy (roadjester):

I'd honestly say C

OpenStudy (destinymasha):

im honestly not sure -- so you might wanna go with his answer?

OpenStudy (anonymous):

Im torn in between A and C

OpenStudy (destinymasha):

im thinking c --now that you think about it :}

OpenStudy (roadjester):

Think of it this way.

OpenStudy (destinymasha):

A is getting closer......

OpenStudy (anonymous):

It told me that the larger the object the stronger the gravitational force

OpenStudy (roadjester):

You want a location in which the gravitational force is closest to 0.

OpenStudy (destinymasha):

so where there is almost none?

OpenStudy (destinymasha):

yea -C

OpenStudy (roadjester):

if you were to place a mass closer to the moon, then it would "neutralize" the overall force

OpenStudy (roadjester):

if that makes sense...

OpenStudy (destinymasha):

a bit :}

OpenStudy (roadjester):

|dw:1392776799133:dw|

OpenStudy (anonymous):

I was thinking C . What you are saying makes sense

OpenStudy (destinymasha):

yes it does :}

OpenStudy (roadjester):

lol; already taking modern physics and yet I have trouble explaining this stuff...

OpenStudy (destinymasha):

lol

OpenStudy (anonymous):

|dw:1392776997641:dw|

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