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3 years ago

NEED HELP ASAP!! BRAINLEST WILL BE THe PRIZE FOR HELPING

Mathematics

2 answers:

DENIUS [597]3 years ago

8 0

Answer:

A ; y=2x+2

Step-by-step explanation:

you may simply plug in the given values of x and y into each equation to determine which holds true.

Alina [70]3 years ago

3 0

Answer:

y=2x+2

Step-by-step explanation:

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Hi :) I was wondering if you could help, I'm mixed up about this one.

grigory [225]

Answer:

the image is sideways

Step-by-step explanation:

8 0

3 years ago

Read 2 more answers

Find thhe remainder when 7^203 is divided by 4

Aleksandr [31]

Using the square-and-multiply approach, we have

$7^{203}=7\times(7^{101})^2$
$7^{101}=7\times(7^{50})^2$
$7^{50}=(7^{25})^2$
$7^{25}=7\times(7^{12})^2$
$7^{12}=(7^6)^2$
$7^6=(7^3)^2$
$7^3=7\times7^2$

and so, using the property that, if $a_1\equiv b_1\mod n$ and $a_2\equiv b_2\mod n$ , then $a_1a_2\equiv b_1b_2\mod n$ , we get

$7\equiv3\mod4$
$7^2\equiv9\equiv1\mod4$
$7^3\equiv7\times1\equiv7\equiv3\mod4$
$7^6\equiv9\equiv1\mod4$
$7^{12}\equiv1\mod4$
$7^{25}\equiv7\times1\equiv7\equiv3\mod4$
$7^{50}\equiv9\equiv1\mod4$
$7^{101}\equiv7\times1\equiv7\equiv3\mod4$
$7^{203}\equiv7\times9\equiv3\times1\equiv3\mod4$

4 0

3 years ago

If you were to rotate ABCD 180° about the origin,

Mars2501 [29]

Answer:

both elements will be negative in rot.180°

7 0

3 years ago

Please answer asap!!!!

san4es73 [151]

<h3>Answer: VX = 37</h3>

=======================================================

Explanation:

VX is a midsegment and it is half as long compared to the parallel side UY. This means UY is twice as long compared to VX

UY = 2*(VX)

s = 2*(s-37)

s = 2s - 74

s-2s = -74

-s = -74

s = 74

This makes UY be 74 units long

So VX = (1/2)*UY = 0.5*74 = 37

4 0

2 years ago

Read 2 more answers

A circle has a circumference of 361\pi361π361, pi. What is the diameter of the circle?

denpristay [2]

Remember, $C=\pi d$ , where $C$ is circumference and tex]d[/tex] is the diameter. They are related by a constant $\pi$ (pi).

We can solve the above equation for d and then substitute our known values.
$C=\pi d$

$d= \dfrac{C}{ \pi } = \dfrac{361 \pi }{ \pi } = 361 \ units$

7 0

3 years ago