Question 23 4 pts Nitric oxide gas (NO) reacts with chlorine gas according to the equation...
Nitric oxide gas (NO) reacts with chlorine gas according to the chemical equation given below. NO + Cl2 → NOCI The following initial rates of reaction have been measured for the given reagent concentrations. Expt. # Rate (M/hr) NO (M) Cl2.(M) 1 1.19 0.50 0.50 2 4.79 1.00 0.50 3 9.59 1.00 1.00 Which of the following is the rate law (rate equation) for this reaction? O rate = k[NO][C1212 rate =k[NO](C2 Orate = k[NO]2[Cl2] O rate = k[NO]2[C1212
21. Nitric oxide gas reacts with chlorine gas according to the equation: The following data were obtained for this reaction initial rate mol(I br. initial [NO] initial [Cl2] 1.19 0.50 0.50 4.19 1.00 0.50 1.00 1.00 9.59 1.50 32.27 1.50 Which of the following rate laws is consistent with these data? A. Rate kINO1 1/2 C. Rate kINO][C12] D. Rate kINO]2[Cl2] E. Rate k[NO] [Cl212
3. Nitric oxide, NO(g) reacts with chlorine gas, Cl2(g), in the reaction 2NO(g) + Cl2(g) → 2NOCIG) Initial rates of reaction are determined for various combinations of initial concentrations of reactants and recorded below; Trial Initial [NO] (mol/L) 0.10 0.10 0.20 Initial (C12] (mol/L) 0.10 0.20 0.20 Rate of production of NOCI (mol/L.s) 1.8 x 107 3.6 x 102 1.43 x 10" a) What is the rate law equation for the reaction? (1 mark) b) What is the rate-determining step?...
Nitric oxide (NO) reacts with chlorine gas (Cl) to form nitrosyl chloride (NOC) according to the reaction below: 2 NO(g) + C12()=2 NOCI(g) Kp = ? at 700 K A rigid vessel initially contains equimolar amounts of NO and C1, (and nothing else) at 700 K and a total pressure of 2.00 bar. After the system reaches equilibrium at 700 K, the total pressure is found to be 1.84 bar. What is the value of the equilibrium constant Kp? A)...
please answer Exercise 16.95 Nitric oxide reacts with chlorine gas according to the following reaction 2 NO(g) + CI, () - 2 NOCI (8) K 0.27 at 700 K A reaction mixture initially contains equal partial pressures of NO and Cl At equilibrium, the partial pressure of NOCI was measured to be 115 torr Part A What were the initial partial pressures of NO and Cl? Enter your answers numerically separated by a comma ΟΙ ΑΣΦ th ? Priorat tom...
2. The compound NOCI decomposes to nitric oxide and chlorine according to the following equation: 2 NOCI (g) 2 NO (g+ Cl (g) Suppose that 0.480 mol NOCI is placed in a 5.00-L flask at a given temperature. When equilibrium has been established, is found that the concentration of NO is 0.0196 M. Calculate the equilibrium constant for this reaction.
The equilibrium constant, K, for the formation of nitrosyl chloride from nitric oxide and chlorine. 2NO(g) + Cl2(8) = 2NOCI(g) is 6.5 x 104 at 35°C. In which direction will the reaction proceed to reach equilibrium if the starting concentrations of NO, Cl., and NOCI are 2.6 x 10-3 M, 7.4 x 10-M, and 5.8 M respectively? o o O shift right shift lent neither
please make sure the answer is correct 100% 1. [15 pts] Nitric oxide reacts with chlorine to form NOCI. The data refer to 298 K. 2NO (g) + Cl2(g) → 2NOCI (g) Substance: NO (g) Cl2(g) NOCI (g) 90.29 51.71 AHºf (kJ/mol): Sº (J/K-mol): 210.65 223.0 261.6 Calculate ASsurr and determine if the reaction is spontaneous at 298 K. 2. [10 pts] Rank the following compounds in order of decreasing molar entropy (the greatest is on the left). N204(g) at...
This is from chemistry 2 4. What three criteria must be met if a reaction between two reactants is to take place? 5. Nitric oxide reacts with chlorine to form nitrosyl chloride, NOCI. Use the following data to mathematically determine the rate equation for the reaction NO + % Cl → NOCI Expt. # ΝΟ) 0.22 0.66 0.44 [CI] 0.065 0.065 0.032 Initial Rate 0.96 M/min 8.6 M/min 1.9 M/min WN-
The compound NOCl decomposes to nitric oxide and chlorine according to the following equation: 2 NOCl (g) → 2 NO (g) + Cl2 (g) Suppose that 0.730 mol NOCl is placed in a 2.00-L flask at a given temperature. When equilibrium has been established, it is found that the concentration of NO is 0.0906 M. Calculate the equilibrium constant for this reaction.