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Comments
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Enlighten me on it's background.
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Did you know that:
E^2 = p^2c^2)+([<delta>m^2]c^4.
which implies that:
E= [mc^2]/[<sq. root> 1-(v^2/c")].
when p=0 (in eq 1, or 2, whichever you find simpler)
E=mc^2........
(In reality, p can never=0, so E should, realistically not be =mc^2, )
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Did you know that:
E^2 = p^2c^2)+([<delta>m^2]c^4.
which implies that:
E= [mc^2]/[<sq. root> 1-(v^2/c")].
when p=0 (in eq 1, or 2, whichever you find simpler)
E=mc^2........
(In reality, p can never=0, so E should, realistically not be =mc^2, )
she's soo fricking manipulative.. yet i pity her
I LOVE THIS!! i wuld think..that try coloring this picture partially.. like color the cage, her lips and her eyes...
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*melts* This is why I spaz 24/7 bout him c'mere.. Babyjaan I
Watch "The Fall"!
Rhysenn."
-Cassandra Claire
--
Did you know that:
E^2 = p^2c^2)+([<delta>m^2]c^4.
which implies that:
E= [mc^2]/[<sq. root> 1-(v^2/c")].
when p=0 (in eq 1, or 2, whichever you find simpler)
E=mc^2........
(In reality, p can never=0, so E should, realistically not be =mc^2, )
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You never know if you have gone as far as you can until you try to go further.
Robert Merton Solow
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