I'm assuming you mean 
, not 
, like your prompt suggests.
First, let's figure out what rule we can use. A likely noticeable one is the Power Rule, which says the following:
![\dfrac{d}{dx} [u^a] = a(u)^{a-1} du](https://tex.z-dn.net/?f=%5Cdfrac%7Bd%7D%7Bdx%7D%20%5Bu%5Ea%5D%20%3D%20a%28u%29%5E%7Ba-1%7D%20du)
Applying this, we can solve for the derivative:
While you can simplify the expression to your liking, I believe that this form is not overly complex and will thus leave it as is.
Thus, our answer is:
Answer:
The correct option is;
Yes, his calculations are correct and the volumes for figures are equal
Step-by-step explanation:
The volume, V, of a square (of side s) pyramid of height h = 
Where:
s = 9.7 inches
h = 9 inches
We have;
The volume, 
, of a cylinder of radius r = Base area × Height, h = (π×r²)×h
Where:
Base area = π×r²
r = Radius of the cylinder = 5.47 inches
h = Height of the cylinder = 3 inches
= π × 5.47² × 3 = π × 29.9209 × 3 = π × 89.7627 = 281.998 ≈ 282 m³
Therefore, Jude is correct.
The third one ???? why does the answe have to be 20 characters lone ajshsbwh
To convert this into the rational form simply remember the rule:
M✔️X^n = X^n/M
6✔️43^1 = 43^1/6.
<h2>
Answer:</h2><h2>
The possible appetizer-main course-dessert combinations are there in the dinner buffet = 80</h2>
Step-by-step explanation:
The dinner buffet offers a choice of appetizers,main courses and desserts.
The number of appetizers available in the buffet = 4
The number of main courses available in the buffet = 5
The number of desserts available in the buffet = 4
By combinations, the possible appetizer-main course-dessert combinations are there in the dinner buffet = (4) (5) (4) = 80
