Greenhouse gas `CO_(2)` can be converted to `CO(g)` by the following reaction
`CO_(2)(g)+H_(2)(g) rarr CO+H_(2)O(g)` , termed as water gas reaction.
Calculate `DeltaG` for the reaction at 1000K `(DeltaH_(1000K)=35040 J "mol"^(-1) DeltaS_(1000K) =32.11 J "mol"^(-1)K^(1))`.

Greenhouse gas CO_(2) can be converted to CO(g) by the following reaction CO_(2)(g)+H_(2)(g) rarr CO_(2)+H_(2)O(g) , termed as water gas reaction. Calculate DeltaH at 1400 K using the given data for 1000K , assuming the C_(p)^(@) values remain constant in the given temoerature range. DeltaH=35040 J"mol"^(-1), C_(p)^(@)(CO_(2))=(42.31 + 10.09 xx 1^(-3)T) J "mol"^(-1)K_(1) C_(P)^(@)(H_(2))=(27.40 + 3.20 xx 10^(-3)T) J"mol"^(-1)K_(1) C_(P)^(@)(CO)=(28.34+ 4.14 xx 10^(-3)T)J"mol"^(-1)K^(-1) C_(P)^(@)(H_(2)O)=(30.09 + 10.67 xx 10^(-3)T)J"mol^(-1)K^(-1)

Greenhouse gas CO_(2) can be converted to CO(g) by the following reaction CO_(2)(g)+H_(2)(g) rarr CO_(2)+H_(2)O(g) , termed as water gas reaction. A mixture of gases containing 35 vol% of H_(2) ,45 vol.% of CO and 20 vol. % H_(2)O is heated to 1000K . What is the composition of the mixture at equilibrium?

Greenhouse gas CO_(2) can be converted to CO(g) by the following reaction CO_(2)(g)+H_(2)(g) rarr CO_(2)+H_(2)O(g) , termed as water gas reaction. Based on your answer in 3,4 mark the correct box: (a) K_(p) will increase with increase in temperature (b) K_(p) will not change with increase in temperature (c) K_(p) will decrease with increase in temperature

Consider the following reaction : CO_((g))+(1)/(2)O_(2(g)) rarr CO_(2(g)) How are Delta U and DeltaH related for the reaction ?

K_(p)//K_(c) for the reaction CO(g)+1/2 O_(2)(g) hArr CO_(2)(g) is

K_(p)//K_(c) for the reaction CO(g)+1/2 O_(2)(g) hArr CO_(2)(g) is

For the reaction CO(g)+(1)/(2) O_(2)(g) hArr CO_(2)(g),K_(p)//K_(c) is

For the following reaction in gaseous phase CO(g)+1/2O_(2) rarr CO_(2) K_(P)/K_(c) is

(K_(p))/(K_(c)) for following reaction will be CO_((g))+(1)/(2)O_(2(g))rarrCO_(2(g))

In the reaction, CO_(2)(g)+H_(2)(g)toCO(g)+H_(2)O(g)," "DeltaH=2.8 kJ DeltaH represents :