In a chemical engineering process, water vapor ( H 2 O ) is heated to sufficiently high temperatures that a significant portion of the water dissociates, or splits apart, to form oxygen ( O 2 ) and hydrogen ( H 2 ) H 2 O ⇌ H 2 + 1 2 O 2 If it is assumed that this is the only reaction involved, the mole fraction x of H 2 O that dissociates can be represented by K = x 1 − x 2 p t 2 + x ( P8 .3 .1 ) where K = the reaction equilibrium constant and p t = the total pressure of the mixture. If p t = 3 atm and K = 0.05 , determine the value of x that satisfies Eq. ( P8 .3 .1 ) .
In a chemical engineering process, water vapor ( H 2 O ) is heated to sufficiently high temperatures that a significant portion of the water dissociates, or splits apart, to form oxygen ( O 2 ) and hydrogen ( H 2 ) H 2 O ⇌ H 2 + 1 2 O 2 If it is assumed that this is the only reaction involved, the mole fraction x of H 2 O that dissociates can be represented by K = x 1 − x 2 p t 2 + x ( P8 .3 .1 ) where K = the reaction equilibrium constant and p t = the total pressure of the mixture. If p t = 3 atm and K = 0.05 , determine the value of x that satisfies Eq. ( P8 .3 .1 ) .
In a chemical engineering process, water vapor
(
H
2
O
)
is heated to sufficiently high temperatures that a significant portion of the water dissociates, or splits apart, to form oxygen
(
O
2
)
and hydrogen
(
H
2
)
H
2
O
⇌
H
2
+
1
2
O
2
If it is assumed that this is the only reaction involved, the mole fraction
x
of H
2
O
that dissociates can be represented by
K
=
x
1
−
x
2
p
t
2
+
x
(
P8
.3
.1
)
where
K
=
the reaction equilibrium constant and
p
t
=
the total pressure of the mixture. If
p
t
=
3
atm and
K
=
0.05
, determine the value of x that satisfies Eq.
(
P8
.3
.1
)
.
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