Answer:
They would have to order 4 more uniforms in order to distribute an equal amount to each employee
Step-by-step explanation:
First we have to calculate the number of maximum uniforms that can be given to each employee equally
For this we simply divide the number of uniforms by the number of employees and look only at the whole number
980/41 = 23.92 = 23
we don't round we just take the decimals
now we multiply the number of maximum uniforms that we can give each one by the number of employees
23 * 41 = 943
to the 980 uniforms we subtract the 943
980 - 943 = 37
Calculate how much is left to 37 to reach 41
41 - 37 = 4
This means that they would have to order 4 more uniforms in order to distribute an equal amount to each employee
Answer: (use distributive property then add the like terms)
3(2p + 4) - (3p - 4) = 43
6p + 12 - 3p - 4 = 43
3p - 8 = 43
Answer:
x^4 -2x^2 -24
Step-by-step explanation:
(x^2+4)(x^2−6)
FOIL
First: x^2*x^2 = x^4
Outer: x^2 *-6 = -6x^2
Inner: x^2 *4 = 4x^2
Last: 4*-6 = -24
Add them together
x^4 -6x^2 +4x^2 -24
Combine like terms
x^4 -2x^2 -24
This is in standard form since the powers decrease
Answer: It's a tie between f(x) and h(x). Both have the same max of y = 3
The highest point shown on the graph of f(x) is at (x,y) = (pi,3). The y value here is y = 3.
For h(x), the max occurs when cosine is at its largest: when cos(x) = 1.
So,
h(x) = 2*cos(x)+1
turns into
h(x) = 2*1+1
h(x) = 2+1
h(x) = 3
showing that h(x) maxes out at y = 3 as well
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Note: g(x) has all of its y values smaller than 0, so there's no way it can have a max y value larger than y = 3. See the attached image to see what this graph would look like if you plotted the 7 points. A parabola seems to form. Note how point D = (-3, -2) is the highest point for g(x). So the max for g(x) is y = -2
Answer:
4x + y =6
Step-by-step explanation:
Line 8x + 2y = 12 is parallel to the line 4x + y = 6.