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Chemistry
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OpenStudy (anonymous):
http://oi68.tinypic.com/5a56yd.jpg
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OpenStudy (anonymous):
@Photon336
OpenStudy (anonymous):
@Cuanchi
@aaronq
OpenStudy (photon336):
for for starters spontaneuos in the forward direction would imply delta G<0
OpenStudy (anonymous):
@Photon336 Right so how exactly do I set this one up? I've been trying to no success : (.
OpenStudy (photon336):
damn I g2g but i'll tag someone else @sweetburger
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OpenStudy (anonymous):
thanks
OpenStudy (sweetburger):
Goodness this requires a hell of a lot of steps. I am thinking we start by using the expression \[\Delta G = -RT \ln(Q_p)\]
OpenStudy (sweetburger):
\[Q_p = K_p\]
OpenStudy (sweetburger):
Given we know T the Delta G and R(gas constant) we can solve for K_p
OpenStudy (anonymous):
Alright. Sorry I had to step away.
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OpenStudy (anonymous):
@sweetburger Are you able to go through the steps? I'm really lost on this one.
OpenStudy (cuanchi):
2600 J/mol = -8.314 x 298 x ln K
K= e^-1.049 = 0.35
0.35= (4.75)^2/(9.5 x "I2") ==> I2 = (4.75)^2/(9.5 x 0.35)= 6.79 atm
OpenStudy (anonymous):
That looked easier than I thought. Thanks!
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