In the upper atmosphere, ozone is produced from oxygen gas in the following reaction.
3O2(g) → 2O3(g)
Calculate ΔGo for this reaction.
Enter your answer in kJ and give 3 significant figures.
Calculate ΔHo for ozone formation. (Enter your answer in kJ and give 3 significant figures).
Calculate ΔSo for ozone formation. (Enter your answer in J/K and give 3 significant figures).
Assume an atmosphere where p(O2) = 0.120 atm, and where T = 298 K. Below what pressure of O3 will ozone production be spontaneous? (Enter your answer in atm).
3 O2 (g) 2 O3 (g)
Go = 326 kJ
Ho = 285 kJ
So = -138 J/K
pressure of O3 = 1.03 x 10-30 atm
In the upper atmosphere, ozone is produced from oxygen gas in the following reaction. 3O2(g) →...
ozone can be created from oxygen gas (with an input of energy) via the following reaction: 3O2(g)=2O3(g) If the equilibrium constant, K, is 1.12 * 10^-54 for this reaction at a particular temperature and [O2]= 3.10*10^-2 M at equilibrium, what is [O3] (in M to two decimal places) at equilibrium? Ans: 5.78 * 10^-30 M
Under certain conditions, oxygen will react to form ozone, as shown in the following equation: 3O2 (g) ⇌ 2O3 (g) Kp = 2.5 × 10-59 at 25°C. What ozone partial pressure is in equilibrium with oxygen in the atmosphere (Poxygen = 0.21 atm)?
For the reaction: 2NO(g) + O2(g) ----> 2 NO2(g) ΔGo = −67.3 kJ and ΔSo= 146.5 J/K at 345K and 1 atm. Calculate the standard enthalpy change for the reaction of 3.75 moles of NO(g) at this temperature.Use 4 sig. figures. Hint: The ΔHo (heat absorbed or released) you have calculated is when 2 moles of NO reacted.
Ozone (O3) in the atmosphere can react with nitric oxide (NO): O3(g) + NO(g) --> NO2(g) + O2(g). ( ΔH° = –199 kJ/mol, ΔS° = –4.1 J/K·mol) Write answers to three significant figures. a. Calculate the ΔG°( kJ/mol) for this reaction at 25°C. b. Determine the temperature(oC) at which the reaction is at equilibrium.
QUESTION 7 A particular reaction has a ΔHo value of -152 kJ and ΔGo of -161 kJ at 484 K. Calculate ΔSo at 484 K in J/K. 1 points QUESTION 8 A particular reaction has a ΔHo value of -125 kJ and ΔSo of -230 J/mol K at 298 K. Assuming that ΔHo and ΔSohardly change with temperature, determine the temperature in K at which the spontaneity of this reaction changes. 1 points QUESTION 9 Given the following...
Ozone (O3) in the atmosphere can react with nitric oxide (NO): O3(g) + NO(g) --> NO2(g) + O2(g). ( ΔH° = –199 kJ/mol, ΔS° = –4.1 J/K·mol) Write answers to three significant figures. a. Calculate the ΔG°( kJ/mol) for this reaction at 25°C. Blank 1 b. Determine the temperature(oC) at which the reaction is at equilibrium.
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