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3 years ago

If you add 50 million and you divide by the power of ten what do you get

Mathematics

2 answers:

Olenka [21]3 years ago

6 0

Answer:

0.005

Step-by-step explanation:

the power of ten equals 10000000000 so 10000000000 divided by 50000000 equals 0.005

Marysya12 [62]3 years ago

3 0

0.005 hope I could help! Have a good day.

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A loaf of bread has a volume of 2270 cm3 and a mass of 454 g. What is the density of the bread?

svlad2 [7]

Density = Mass / Volume

Density = 454 / 2270

Density = 0.2 g/cm^3

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2 years ago

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What is an equivalent expression for 2.50(600-500*.25)-500?

Nonamiya [84]

Answer:

687.5

Step-by-step explanation:

To find the equivalent expression, simplify the operations using order of operations.

2.50(600 - 500*.25) - 500 Multiply -500*0.25

2.50(600 - 125) - 500 Subtract 600 - 125

2.50(475) - 500 Multiply 2.50(475)

1187.5 - 500 Subtract

687.5

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3 years ago

The Diamondbacks softball team orders a new baseball bat and pays $310.30 after tax. The tax rate is 7%. What is the original pr

VashaNatasha [74]

Answer: $255.58

Step-by-step explanation:

$310.30*0.07= $21.721

$310.30-$21.72= $255.579

<u>Round</u>

$255.579 --> $255.58

5 0

2 years ago

1. (5 points) At 6pm, ghost A is 5 kilometers due west of ghost B. Ghost A is flying west

zaharov [31]

Answer:

The distance between the ghost changes at 10 pm approximately at a rate of 24.981 kilometers per hour.

Step-by-step explanation:

At first we assume that north and east directions both represent positive quantities. Let suppose that $\vec r_{A,o} = (0\,km,0\,km)$ and $\vec r_{B,o} = (5\,km, 0\,km)$ . If both ghosts moves at constant velocity such that $\vec v_{A} = \left(-15\,\frac{km}{h}, 0\,\frac{km}{h} \right)$ and $\vec v_{B} = \left(0\,\frac{km}{h},20\,\frac{km}{h} \right)$ , then the final positions of both ghosts are, respectively:

Ghost A

$\vec r_{A} = \vec r_{A,o}+t\cdot \vec v_{A}$ (Eq. 1)

Ghost B

$\vec r_{B} = \vec r_{B,o}+t\cdot \vec v_{B}$ (Eq. 2)

Where $t$ is the time, measured in hours.

Then, the equations of motion of each ghost are, respectively:

Ghost A

$\vec r_{A} = (0\,km,0\,km)+t\cdot \left(-15\,\frac{km}{h}, 0\,\frac{km}{h} \right)$

$\vec r_{A} = \left(-15\cdot t, 0)\,\,\,\left[km \right]$

Ghost B

$\vec r_{B} = (5\,km, 0\,km)+t\cdot \left(0\,\frac{km}{h}, 20\,\frac{km}{h} \right)$

$\vec r_{B} = (5, 20\cdot t)\,\,\,\left[km\right]$

Then, the distance between both ghosts is:

$\vec r_{B/A} = (5,20\cdot t)-(-15\cdot t, 0)\,\,\,[km]$

$\vec r_{B/A} =(5+15\cdot t, 20\cdot t)\,\,\,[km]$ (Eq. 3)

The magnitude of the relative is represented by the following Pythagorean identity:

$r^{2}_{B/A} = (5+15\cdot t)^{2}+(20\cdot t)^{2}$

Then, we find the rate of change of the relative distance ( $\dot r_{B/A}$ ), measured in kilometers per hour, by implicit differentiation:

$2\cdot r_{B/A}\cdot \dot r_{B/A} = 2\cdot (5+15\cdot t)\cdot 15+2\cdot (20\cdot t)\cdot 20$

$r_{B/A}\cdot \dot r_{B/A} = 15\cdot (5+15\cdot t)+20\cdot (20\cdot t)$

$\dot r_{B/A} = \frac{75+625\cdot t}{r_{B/A}}$

$\dot r_{B/A} = \frac{75+625\cdot t}{\sqrt{(5+15\cdot t)^{2}+(20\cdot t)^{2}}}$ (Eq. 4)

If we know that $t = 4\,h$ , then the rate of change of the relative distance at 10 PM is:

$\dot r_{B/A} = \frac{75+625\cdot (4)}{\sqrt{[5+15\cdot (4)]^{2}+[20\cdot (4)]^{2}}}$

$\dot r_{B/A} \approx 24.981\,\frac{km}{h}$

The distance between the ghost changes at 10 pm approximately at a rate of 24.981 kilometers per hour.

4 0

3 years ago