Answer:
None of the distinct real number zeros the function have.
Step-by-step explanation:
Considering the function

The zeroes of a function are those values that touches the x-axis. In order to find those values we must
Set
in order to find those values









As
so



Similarly,



BUT, NONE OF THEM ARE REAL NUMBER ZEROS.
Therefore, none of the distinct real number zeros the function have.
27/250=0.108
so this decimal is non-repeating and terminating.
Use both!
You want to minimize <em>P</em>, so differentiate <em>P</em> with respect to <em>x</em> and set the derivative equal to 0 and solve for any critical points.
<em>P</em> = 8/<em>x</em> + 2<em>x</em>
d<em>P</em>/d<em>x</em> = -8/<em>x</em>² + 2 = 0
8/<em>x</em>² = 2
<em>x</em>² = 8/2 = 4
<em>x</em> = ± √4 = ± 2
You can then use the second derivative to determine the concavity of <em>P</em>, and its sign at a given critical point decides whether it is a minimum or a maximum.
We have
d²<em>P</em>/d<em>x</em>² = 16/<em>x</em>³
When <em>x</em> = -2, the second derivative is negative, which means there's a relative maximum here.
When <em>x</em> = 2, the second derivative is positive, which means there's a relative minimum here.
So, <em>P</em> has a relative maximum value of 8/(-2) + 2(-2) = -8 when <em>x</em> = -2.
Answer:
628 9/16 m
Step-by-step explanation:
distance = (100)(2)(22/7) = 628.57 m or 628 9/16
Let a be the arc length...
a/(2πr)=90/360
a/(2πr)=1/4
a=πr/2 and r=7.5 so
a=3.75π cm
a≈11.78 cm (to the nearest one hundredth of a cm)