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A radio nuclide A(1) with decay constant...

A radio nuclide `A_(1)` with decay constant `lambda_(1)` transforms into a radio nuclide `A_2` with decay constant `lambda_(2)`. Assuming that at the initial moment, the preparation contained only the radio nuclide `A_(1)`
(a) Find the equation describing accumulation of radio nuclide `A_(2)` with time. (b) Find the time interval after which the activity of ratio nucliei `A_(2)` reaches its maximum value.

A

`(ln(lambda_(2)//lambda_(1)))/(lambda_(2)-lambda_(1))`

B

`(ln(lambda_(1)//lambda_(2)))/(lambda_(1)-lambda_(2))`

C

`ln(lambda_(2)-lambda_(1))`

D

none of these

Text Solution

AI Generated Solution

To solve the problem step by step, we will break it down into two parts as per the question. ### Part (a): Finding the equation describing the accumulation of radionuclide A2 with time. 1. **Understanding the Decay Process**: - We have radionuclide A1 that decays into A2. The decay constant for A1 is \( \lambda_1 \) and for A2 is \( \lambda_2 \). - Initially, at time \( t = 0 \), we have only A1, so \( N_{A1}(0) = N_0 \) (where \( N_0 \) is the initial quantity of A1). ...
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