Answer:
-14.60 kJ/mol
Explanation:
Equation for the reaction
A --------------> 2B + 3C
The ICE Table is shown as:
A --------------> 2B + 3C
Initial 9.13 0 0
Change - x + 2x + 3x
Equilibrium 9.13-x 2x 3x
(9.13-x)+2x+3x = 16.89
9..13 - x +5x = 16.89
9.13+4x = 16.89
4x = 16.89-9.13
4x = 7.76
x = 
x = 1.94
Equilibrium pressures are as follows:
A = 9.13 -x
= 9.13 - 1.94
= 7.19 atm
B = 2x
= 2 (1.94)
= 3.88 atm
C = 3x
= 3(1.94)
= 5.82 atm
![K_p=\frac{[P_3]^2[P_c]^3}{[P_a]}](https://tex.z-dn.net/?f=K_p%3D%5Cfrac%7B%5BP_3%5D%5E2%5BP_c%5D%5E3%7D%7B%5BP_a%5D%7D)
![K_p=\frac{[3.88]^2[5.82]^3}{[7.19]}](https://tex.z-dn.net/?f=K_p%3D%5Cfrac%7B%5B3.88%5D%5E2%5B5.82%5D%5E3%7D%7B%5B7.19%5D%7D)




Answer:
The percentage yield is 80.36% (see calculations in attachment).
Explanation:
The theoretical yield of the reaction is the <u>amount of product that would result if all the limiting reagent reacted.</u> The theoretical yield is calculated using the balanced equation.
In practice, the actual yield, or the <u>amount of product actually obtained from a reaction</u>, is almost always less than the theoretical yield.
To determine how efficient this reaction is, we need to calculate the percent yield, which describes the <u>proportion of the actual yield to the theoretical yield.</u> It is calculated as follows:

First we need to make sure that the equation is properly balanced. In the question they provide the balanced equation.
Since water is in excess, we calculate the theoretical yield using PCl₃.
Ionic compounds are composed of a non-metal as the anion and a metal as the cation. Covalent compounds on the other hand are composed of both non-metals from both charges. In this case, OF2 is covalent, PBr3 is covalent, SeO2 is ionic, C5H12 is covalent, and CBr4 is covalent.
It is approximately 400 - 700 nanometres.
Hope this helps.
r3t40