Solution
The dimension of the rectangular floor is 18ft long and 12 ft wide
Using the conversion table
It is given that 1yd =3 ft
This shows that
12 feet will be equivalent to
![\frac{12}{3}=4yd](https://tex.z-dn.net/?f=%5Cfrac%7B12%7D%7B3%7D%3D4yd)
Also 18ft will be equialent to
![\frac{18}{3}=6yd](https://tex.z-dn.net/?f=%5Cfrac%7B18%7D%7B3%7D%3D6yd)
Therefore the new dimension is 6 yard by 4 yard
The area will be
![A=6\times4](https://tex.z-dn.net/?f=A%3D6%5Ctimes4)
Therefore the required area is
It was stated in the problem that a given volume of a is inversely proportional with the pressure of the system. It means that the as the volume increases, the pressure would decrease and as the volume decreases, the pressure would increase. We would express it as:
V α 1/P
To change it to an equality, we introduce a proportionality constant, k. We do as follows:
V = k/P
So, to determine what is asked, we need to first calculate for the value of k.
V = k/P
At V = 160 m^3 P = 108 cmHg
160 = k / (108)
k = 17280
Thus, at P = 87 cmHg
V = 17280 / 87
V = 198.62 m^3
The answer is .33333333
Because 8 divided by 24= .33333333
I hope this helps:)
For this case what we should know is that the function that best adapts to this problem is given by:
y = 2 * (4) ^ x
The graph of the function is shown for two different intervals:
A small interval of -1.5 to 0.5
A larger interval of -6.5 to 6.5.
In both intervals the exponential growth of the function is demonstrated.
Answer:
See attached image.
Answer:B
looks like it has asymptotes but doesnt actually