Home
Class 12
CHEMISTRY
Prove that t(99.9%)// t(50)% = 10 for a ...

Prove that `t_(99.9%)// t_(50)% = 10` for a first order reaction?

Promotional Banner

Topper's Solved these Questions

  • MODEL TEST PAPER-8

    ACCURATE PUBLICATION|Exercise SECTION-C (LONG ANSWER QUESTIONS)|14 Videos
  • MODEL TEST PAPER-8

    ACCURATE PUBLICATION|Exercise SECTION-D (LONG ANSWER QUESTIONS) (TYPE II)|11 Videos
  • MODEL TEST PAPER-8

    ACCURATE PUBLICATION|Exercise SECTION-A (True/False )|5 Videos
  • MODEL TEST PAPER-7

    ACCURATE PUBLICATION|Exercise SECTION-D (LONG ANSWER QUESTIONS) (TYPE II)|14 Videos
  • MODEL TEST PAPER-9

    ACCURATE PUBLICATION|Exercise SECTION-D (LONG ANSWER QUESTIONS) (TYPE II)|13 Videos

Similar Questions

Explore conceptually related problems

Prove that t_(75) = 2 t_(50) for 1^(st) order reaction.

The value of t_(0.875)/(t_(0.50) for n^(th) order reaction is

If t_(1//2) is 0.693 sec. for a first order reaction. Calculate reaction rate constant.

Show that the time required for 99% completion of a first order reaction In twice the time required for the completion of 90%.

The reaction SO _(2) Cl _(2) to SO _(2) + Cl _(2) is a first order reaction with rate constant is 2.2 xx 10 ^(-5) sec ^(-10 at 575 K. What percentage of SO _(2) Cl _(2) will get decomposed in 90 minutes. When reaction is carried out at 575 K ?

The integrated rate equations can be fitted with kinetic data to determine the order of a reaction. The integrated rate equations for zero, first and second order reactions are : Zero order : [Al =-kt+ [A]_0 First order : log [A] = -(kt)/2.303 + log [A]_0 Second order : 1/([A])=kt+1/[A]_0 These equations can also be used to calculate the halt life periods of different reactions, which give the time during which the concentration of a reactant is reduced to half of its initial concentration, i.e, at time t_(1//2), [A] = [A]_0//2 Answer the following (1 to 5) question : For a second order reaction, the correct plot of t_(1//2) vs. 1//[A]_0 is

If the rate constant for a first order reaction is k, the time (t) required for completion of 99 % of the reaction is given by

The time taken for 90% of a first order reaction to complete is approximately