Respuesta :
Answer:
[tex] 2000=1000 (8)^t[/tex]
If we dicide both sides by 1000 we got:
[tex] 2 = 8^t[/tex]
Now we can apply natural log on both sides and we got:
[tex] ln (2)= ln (8^t) = t ln(8)[/tex]
And solving for t we got:
[tex] t = \frac{ln(2)}{ln(8)}=0.333[/tex]
So then we can conclude that every 0.333 seconds the amount of bacteria is doubled under the model assumed.
The number of bacteria is doubled every 0.333 seconds
Step-by-step explanation:
For this case we have the following model given for the number of bacteria after t seconds:
[tex] N(t) = 1000 (8)^t[/tex]
We want to find the time that is required to double the number of bacteria. If we analyze the function we see that the initial amount for t=0 is 1000. And if we want to double this amount we need to have 2000. And using this we have:
[tex] 2000=1000 (8)^t[/tex]
If we dicide both sides by 1000 we got:
[tex] 2 = 8^t[/tex]
Now we can apply natural log on both sides and we got:
[tex] ln (2)= ln (8^t) = t ln(8)[/tex]
And solving for t we got:
[tex] t = \frac{ln(2)}{ln(8)}=0.333[/tex]
So then we can conclude that every 0.333 seconds the amount of bacteria is doubled under the model assumed.
The number of bacteria is doubled every 0.333 seconds
Answer:
the bacteria doubled every 0.33 seconds
Step-by-step explanation:
got this from khan academia