A first order reaction has a rate constant `1.15xx10^(-3)s^(-1)`. How long will `5g` of this rea...

A first order reaction has a rate constant of 1.15xx10^(-3) s^(-1) . How long will 5 g of this reactant take to reduce to 3 g ?

Concentration dependence of rate is called differential rate equation. Integrated differential equations give relation between directly measured experimental data i.e., concentration at different times and rate constant. The integrated rate equations are different for the reactions of differennt reaction orders. the first-order reaction has a rate constant 1.15xx10^(-3)s^(-1) . Q. How long will 5g of this reactant take to reduce to 3g?

A first order reaction has a rate constant of 15 xx 10^(-3) s^(-1) . How long will 5.0 g of this reaction take to reduce to 3.0 g ?

Concentration dependence of rate is called differential rate equation. Integrated differential equations give relation between directly measured experimental data i.e., concentration at different times and rate constant. The integrated rate equations are different for the reactions of differennt reaction orders. the first-order reaction has a rate constant 1.15xx10^(-3)s^(-1) . Q. When the rate constant has same units as the rate of reaction, the order of the reaction is:

Concentration dependence of rate is called differential rate equation. Integrated differential equations give relation between directly measured experimental data i.e., concentration at different times and rate constant. The integrated rate equations are different for the reactions of differennt reaction orders. the first-order reaction has a rate constant 1.15xx10^(-3)s^(-1) . Q. Under which condition a bimolecular reaction is kinetically first order reaction:

A first order reaction has a specific rate constant of 2xx10^(-3)s^(-1) . How much time it will take for20 gm to reduce to 5 g ?