Home
Class 12
CHEMISTRY
Elementary unimolecular reaction have fi...

Elementary unimolecular reaction have first order rate laws, elementary bimolecular reaction have second order rate laws. A rate law is often derived from a proposed mechanism by imposiing the steady state approximation by assuming that there in pre equilibrium A proposal mechanism must be constat with the experimental rate law.
The decomposition of `O_(3)` obeys the mechanism given below,
Step 1: `O_(3)hArrO_(2)+(O)-` fast
Step 2: `O_(3)+(O)toO_(2)+O_(2)-` slow
Then find the incorrect one

A

Order of reaction =1

B

`r=k[O_(3)]^(2)[O_(2)]^(-1)`

C

Order with respect to `O_(3)=2`

D

Order with respect to `O_(2)=1`

Text Solution

Verified by Experts

The correct Answer is:
D

`r=K[O_(3)]^(2)[O_(2)]^(-1)`
Promotional Banner

Topper's Solved these Questions

  • CHEMICAL KINETICS

    AAKASH SERIES|Exercise PRACTICE SHEET-4 (MATCH THE FOLLOWING QUESTIONS)|2 Videos
  • CHEMICAL KINETICS

    AAKASH SERIES|Exercise PRACTICE SHEET-4 (INTEGER ANSWER TYPE QUESTIONS)|6 Videos
  • CHEMICAL KINETICS

    AAKASH SERIES|Exercise PRACTICE SHEET-4 (SINGLE OR MORE THAN ONE OPTION QUESTIONS)|16 Videos
  • CHEMICAL KINETCS

    AAKASH SERIES|Exercise EXERCISE - 3.2|45 Videos
  • CHEMICAL THERMODYNAMICS

    AAKASH SERIES|Exercise Additional Practice Exercise|54 Videos

Similar Questions

Explore conceptually related problems

Elementary unimolecular reaction have first order rate laws, elementary bimolecular reaction have second order rate laws. A rate law is often derived from a proposed mechanism by imposiing the steady state approximation by assuming that there in pre equilibrium A proposal mechanism must be constant with the experimental rate law. The decomposition of O_(3) obeys the mechanism given below, Step 1: O_(3)hArrO_(2)+(O)- fast Step 2: O_(3)+(O)toO_(2)+O_(2)- slow The milk beacteria growth follows which order of reaction

Elementary unimolecular reaction have first order rate laws, elementary bimolecular reaction have second order rate laws. A rate law is often derived from a proposed mechanism by imposiing the steady state approximation by assuming that there in pre equilibrium A proposal mechanism must be constant with the experimental rate law. The decomposition of O_(3) obeys the mechanism given below, Step 1: O_(3)hArrO_(2)+(O)- fast Step 2: O_(3)+(O)toO_(2)+O_(2)- slow H_(2)+Br_(2)to2HBr Mechaism : Br_(2)hArr2Br (fast) H_(2)+brtoHBr+H (slow) H+BrtoHBR (Fast) Order of the reaction is

Elemantary unimolecular reactions have first order rate laws, elementary bimolecular reactions have second order rate laws. A rate law is often derived from a proposed mechanism by imposing the state approximation or by assuming that there is a pre -equilibrium. A proposed mechanism must be consistent with the experiment rate law. The decomposition of O_(3) obeys the mechanism give below Step 1: O_(3)hArrO_(2)+(O) (both forward and backward reactions are fast) Step 2: O_(3)+(O)overset("slow")(to)O_(2)+O_(2) (ignore) backward reaction), the rate of reaction is given by

Elemantary unimolecular reactions have first order rate laws, elementary bimolecular reactions have second order rate laws. A rate law is often derived from a proposed mechanism by imposing the state approximation or by assuming that there is a pre -equilibrium. A proposed mechanism must be consistent with the experiment rate law. The molecularity of the elementary reaction C_(2)N_(2)to2CN is

Elemantary unimolecular reactions have first order rate laws, elementary bimolecular reactions have second order rate laws. A rate law is often derived from a proposed mechanism by imposing the state approximation or by assuming that there is a pre -equilibrium. A proposed mechanism must be consistent with the experiment rate law. In a gas phase reaction, a reaction takes place only if the reactant molecules get________________during the molecular collisions

The rate of first order reaction increases:

Law of minimum was proposed by

Law of conservation of mass was proposed by

Law of octaves was first proposed by :

Depletion of ozone occurs as : 2O_3 to 3O_2 Step 1: O_3 overset(K_c)(iff) O_2 (O) (fast) Step 2: O_3 + (O) overset(K_c)(iff) 2O_2 (slow) What is the order of the reaction