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Veronika [31]
4 years ago
13

Solve for m. (Include steps please <3) m = −(4+m) + 2

Mathematics
1 answer:
Sphinxa [80]4 years ago
3 0

Start by removing the brackets.

m = -4 - m + 2 Notice that the m inside the brackets becomes - m

m = -2 - m        Add m to both sides

m+m = - 2

2m = - 2            Divide by 2

2m/2 = -2/2

m = -1

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On Novermber 27, 1993, the New York times reported that wildlife biologists have found a direct ink between the increase in the
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Answer:

a.  1 263 888

b. 130 701

c. 72 years

Step-by-step explanation:

a. The differential equation applies here.

Let the quantity increase for a certain time be given by Q(t)

Every unity of time, the quantity increases by 1+\frac{r}{100} so that after the time t, the quantity remaining will be given by:

Q(t) = (1+ \frac{r}{100} )^{t}

In a similar manner, the quantity R(t) decreases at a rate given by the following expression:

1-\frac{r}{100} and after the time , t the quantity of R remaining will be given by:

R(t) = (1-\frac{r}{100} )^{t}

a. To find the population of humans in 1953

Q(t) = (1+ \frac{r}{100} )^{t}

1993 - 1953 = 40 years = t

Q(40) = Q×1.06^{40}

Q = 1 263 888.44

    ≈ 1 263 888

b. For bear population in 1993:

R(t) = (1-\frac{r}{100} )^{t}

t = 40

R(40) = b 0.94^{40} = 11 000

b = 130 700. 889

    ≈130 701

c. time taken for black bear population number less than 100 is given by:

130 = 11000×0.94^{t}

solving using natural logarithms gives t = 72.72666

                                                                  =   72 years Ans

8 0
3 years ago
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