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3 years ago

13

How long will it take u to drive 175 miles at a speed of 25 miles per hour?

2 answers:

Kisachek [45]3 years ago

6 0

It would take you 7 hours.

Take the 175 miles and divide that by the speed of 25 miles per hour.

175 miles÷25 miles per hour=7 hours

sukhopar [10]3 years ago

5 0

The Answer is 7, All you have to do is 175 divided by 25

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tankabanditka [31]

Problem:
The area of the patio of a relative's house is 20 square meters.
The width of the patio is 2 meters.
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Solution:
The area is:
A = (w) * (l)
Where,
w: width
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Clearing l we have:
l = A / w
Substituting values:
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3 years ago

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Gekata [30.6K]

Answer:

A. (7n-1) (8n-1)

Step-by-step explanation:

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3 years ago

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Nimfa-mama [501]

First of all, we can observe that

$x^2-6x+9 = (x-3)^2$

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This means that the expression is defined for every $x\neq 3$

Now, since the denominator is always positive (when it exists), the fraction can only be positive if the denominator is also positive: we must ask

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Since we can't accept 3 as an answer, the actual solution set is

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3 years ago

100 POINTS AND BRAINLIEST

zysi [14]

Answer:

8 square units and $\frac{40}{3}$ square units

Step-by-step explanation:

The area of the triangle ABC is 24 square units.

1. Triangles ABC and FBG are similar with scale factor $\frac{1}{3},$ then

$\dfrac{A_{\triangle FBG}}{A_{\triangle ABC}}=\dfrac{1}{9}\Rightarrow A_{\triangle FBG}=\dfrac{1}{9}\cdot 24=\dfrac{8}{3}\ un^2.$

2. Triangles ABC and DBE are similar with scale factor $\frac{2}{3},$ then

$\dfrac{A_{\triangle DBE}}{A_{\triangle ABC}}=\dfrac{4}{9}\Rightarrow A_{\triangle DBE}=\dfrac{4}{9}\cdot 24=\dfrac{32}{3}\ un^2.$

3. Thus, the area of the quadrilateral DFGE is

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4 0

3 years ago

Read 2 more answers

-u≥4−u≥4 true. Then write an equalivalent inequality, in terms of uu. (Numbers written in order from least to greatest going acr

ziro4ka [17]

Answer:

$(a)\ u \le -4$

$(b)\ u =\{-\infty,.....,-6,-5,-4\}$

Step-by-step explanation:

Given

$-u \ge 4$

Solving (a): An equivalent inequality

We have:

$-u \ge 4$

Multiply both sides by -1 (this changes the inequality)

$-u*-1 \le 4 * -1$

$u \le -4$

Solving (b): Values of u from least to greatest

$u \le -4$ implies that u ends at -4, starting from negative infinity

So, the list is:

$u =\{-\infty,.....,-6,-5,-4\}$

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3 years ago