Nuclei of radioactive element `A` are being produced at a constant rate `alpha`. The element has a decay constant `lambda`. At time `t-0`, there are `N_(0)` nuclei of the element.

Nuclei of a radioactive element A are being produced at a constant rate alpha . The element has a decay constant lambda . At time t=0, there are N_0 nuclei of the element . The number N of nuclei of A at time t is

Nuclei of a radioactive element 'A' are being produced at a constant rate, alpha . The element has a decay constant, lambda . At time, t = 0, there are N_(0) nuclei of the element. If alpha = 4N_(0)lambda , the number of nuclei of A when A has reached steady state:

Nuclei of a radioactive element 'A' are being produced at a constant rate, alpha . The element has a decay constant, lambda . At time, t = 0, there are N_(0) nuclei of the element. If alpha = 2N_(0)lambda the number of nuclei of A after one half life of A becomes

Nuclei of a radioactive element A are being produced at a constant rate alpha . The element has a decay constant lambda . At time t=0 , there are N_0 nuclei of the element. (a) Calculate the number N of nuclei of A at time t. (b) If alpha=2N_0lambda , calculate the number of nuclei of A after one half-life of A, and also the limiting value of N as trarroo .

Nuclei of a radioactive element A are being produced at a constant rate alpha . The element has a decay constant lambda . At time t=0 , there are N_0 nuclei of the element. (a) Calculate the number N of nuclei of A at time t. (b) If alpha=2N_0lambda , calculate the number of nuclei of A after one half-life of A, and also the limiting value of N as trarroo .