2 NO(g) + 2 H2(g) → N2(g) + 2 H2O(g)
the initial concentrations are 5.25 M H2, 9.50 M NO, and no H2O or N2. At equilibrium, [N2] = 1.00 M.
a. Calculate the concentrations of H2, NO,
and H2O at equilibrium.
b. Calculate the value of K under the reaction conditions
at equilibrium.

a)
Given at equilibrium,
[N2] = 1.00
SO,
x = 1.00 M
[H2] = 5.25 - 2x
= 5.25 - 2*1.00
= 3.25 M
[NO] = 9.50 - 2x
= 9.50 - 2*1.00
= 7.50 M
[H2O] = 2x
= 2*1.00
= 2.00 M
Answer:
[H2] = 3.25 M
[NO] = 7.50 M
[H2O] = 2.00 M
b)
Kc = [N2][H2O]^2 / [NO]^2 [H2]^2
= 1.00 * 2.00^2 / (7.50^2 * 3.25^2)
= 4.00 / 594.14
= 6.73*10^-3
Answer: 6.73*10^-3
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The reaction 2 NO(g) + 2 H2(g)
N2(g) + 2 H2O(g) was studied at a certain
temperature with the following results:
Experiment
[NO(g)] (M)
[H2(g)] (M)
Rate (M/s)
1
0.0867
0.0867
71.7
2
0.0867
0.173
143
3
0.173
0.0867
285
4
0.173
0.173
570.
(a) What is the rate law for this reaction?
Rate = k [NO(g)] [H2(g)]
Rate = k [NO(g)]2
[H2(g)]
Rate = k [NO(g)] [H2(g)]2
Rate = k [NO(g)]2 [H2(g)]2
Rate = k [NO(g)] [H2(g)]3
Rate =...
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