The integral form of the exponential growth equation as $N_{t}-N_{0} e^{r t}$
$A.$ Population density after time $t$
$B.$ Population density at time zero
$C.$ Intrinsic rate of natural increase
$D.$ The base of natural logarithms $(2.71828)$
Identify $A, B, C$ and $D$ from the given equation
The integral form of the exponential growth equation as $N_{t}-N_{0} e^{r t}$
$A.$ Population density after time $t$
$B.$ Population density at time zero
$C.$ Intrinsic rate of natural increase
$D.$ The base of natural logarithms $(2.71828)$
Identify $A, B, C$ and $D$ from the given equation
- A
$A -r, B -e, C - N_o , D -N E$
- B
$A -N_{t}, B - N_o , C -r ; D -e$
- C
$A - N_o, B -N E, C -r, D -e$
- D
$A -N_o , B -N E, C -e, D -r$
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- [AIIMS 2013]
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