Helpppppp meeeeeeeee

Answer: Solution

=

−

2

4

Step-by-step explanation: Combine multiplied terms into a single fraction

1

4

+

2

=

−

4

1

4

+

2

=

−

4

Multiply by 1

1

4

+

2

=

−

4

4

+

2

=

−

4

Subtract  

2

2

2

from both sides of the equation

Answer:

2.31

Step-by-step explanation:

yup thats the answer

Step-by-step explanation:

(×) x ×2 + 1

x= 2+1

×= 3

3.2 +1 = x

6+1 = 7

×=7

F = (7)

Answer:

Side a = 442.85

Side b = 270

Side c = 255

Angle ∠A = 114.998° = 114°59'54" = 2.0071 rad

Angle ∠B = 33.544° = 33°32'37" = 0.58545 rad

Angle ∠C = 31.458° = 31°27'29" = 0.54905 rad

Step-by-step explanation:

Side a = 442.85

Side b = 270

Side c = 255

Angle ∠A = 114.998° = 114°59'54" = 2.0071 rad

Angle ∠B = 33.544° = 33°32'37" = 0.58545 rad

Angle ∠C = 31.458° = 31°27'29" = 0.54905 rad

Answer:

d. -3

Step-by-step explanation:

Answer:

I don’t know but I have the same question with different numbers

Step-by-step explanation:

Answer:

4.5

Step-by-step explanation:

Answer:

5 units

Step-by-step explanation:

bc = ad

Answer:

57319 Centigrams

Step-by-step explanation:

You would just multiple 0.57319 by 100,000.

Hope this helps! :)

Answer:

1 kilogram=100,000 centigram

0.57319 kilogram=0.57319 ×100,000= 57319 centigram

Answer:

i need help with this one

Step-by-step explanation:

Answer: There are 9 outcomes in this experiment.

Step-by-step explanation:

Rock-Paper- Scissor is a simple game, in which Rock beats scissor, scissor beats paper, paper beats rock. If any two people made the same gesture it will be a tie.

So if two roommates are playing the game , total outcomes in the sample space = 3 x 3   [By fundamental principal of counting]

= 9

Hence, there are 9 outcomes in this experiment.

Answer:

Step-by-step explanation:

if 8 oranges cost 1 dollars

4 oranges cost 1/2=0.50 cents

one dozen=4*3= 12 oranges

0.50*3=1.50 dollars/dozen

4 dozen=4*1.50=6 dollars

Cost = $6.00

EXPLANATION:

0 = 1 orange

0 0 0 0 0 0 0 0 = 8 oranges = $1.00

1 dozen = 12 (oranges)

4 dozens = 48 (oranges)

0 0 0 0 0 0 0 0 = $1 (1)

0 0 0 0 0 0 0 0 = $1 (2)

0 0 0 0 0 0 0 0 = $1 (3)

0 0 0 0 0 0 0 0 = $1 (4)

0 0 0 0 0 0 0 0 = $1 (5)

0 0 0 0 0 0 0 0 = $1 (6)

I divided the 48 oranges in groups of 8.

One group of 8 oranges equals $1.

There was a total of 6 groups of 8 oranges, without any leftovers.

The Total Is $6.

Answer: The answer would be No, Yes, No.

Step-by-step explanation:

Look at the grid, you can see that it has 100 units in all.

0.42 equals 21/50, so they are both wrong. The denominator would have to be 100. The only logical one would be the second one.

Answer:

33

Step-by-step explanation:

Step-by-step explanation:

Unlimited money

ay u know how it is with unlimited money

i buy arab countries with them oils innit

And buy a large shares of big companies like Microsoft ,Apple Tesla , SpaceX .. u name it

Answer:

i cant even read the word there too small  

Step-by-step explanation:

Use FOIL to expand and simplify:

Triangle Tiger:

A = (2x + 6)(x - 4)

= 2x^2 -8x + 6x - 24

= 2x^2 - 2x - 24 ft^2 (N)

Anthony's Computer Monitor:

A = (x - 3)(2x + 1)

= 2x^2 + x - 6x - 3

= 2x^2 - 5x - 3 in^2 (I)

Art Class:

A = (x - 4)^2

= x^2 - 8x + 16 in^2 (O)

Easel:

A = [(2x - 5)(2x + 4)] / 2

= (4x^2 + 8x - 10x - 20) / 2

= (4x^2 - 2x - 20) / 2

= 2x^2 - x - 10 in^2 (E)

Four Square:

A = (x + 2)^2

= x^2 + 4x + 4 ft^2 (A)

Answer:

Doesnt he still have 3? All he did was drop 2

Step-by-step explanation:

Answer:

506

Step-by-step explanation:

Following PEMDAS you'd start with your exponent

8^3-9×2÷3

Then you'd move on to multiplication

512-9×2÷3

Then do the division

512-18÷3

Then finish the problem by subtracting these two

512-6

Answer:

506

Step-by-step explanation:

just follow PEMDAS

Parenthesis

Exponents

Multiplication

Division

Addition

Subtraction

Answer:

13

Step-by-step explanation:

3n=12+1=13

Answer:

7

Step-by-step explanation:

a:b = 5:6

∃x such that a=5x and b=6x

a+b = 77

5x+6x = 77

x = 7

a = 5x = 35

b = 6x = 42

42-35 = 7

Answer:

124°.

Step-by-step explanation:

x+24°+32°=180° (sum of angles is 180°)

⟹x+56°=180°⟹ x=180°–56°=124°.

Answer:

there isnt a picture

Step-by-step explanation:

Answer:

D. 0.9599

Step-by-step explanation:

Graph Transformations

There are many times when you’ll know very well what the graph of a

particular function looks like, and you’ll want to know what the graph of a

very similar function looks like. In this chapter, we’ll discuss some ways to

draw graphs in these circumstances.

Transformations “after” the original function

Suppose you know what the graph of a function f(x) looks like. Suppose

d 2 R is some number that is greater than 0, and you are asked to graph the

function f(x) + d. The graph of the new function is easy to describe: just

take every point in the graph of f(x), and move it up a distance of d. That

is, if (a, b) is a point in the graph of f(x), then (a, b + d) is a point in the

graph of f(x) + d.

As an explanation for what’s written above: If (a, b) is a point in the graph

of f(x), then that means f(a) = b. Hence, f(a) + d = b + d, which is to say

that (a, b + d) is a point in the graph of f(x) + d.

The chart on the next page describes how to use the graph of f(x) to create

the graph of some similar functions. Throughout the chart, d > 0, c > 1, and

(a, b) is a point in the graph of f(x).

Notice that all of the “new functions” in the chart di↵er from f(x) by some

algebraic manipulation that happens after f plays its part as a function. For

example, first you put x into the function, then f(x) is what comes out. The

function has done its job. Only after f has done its job do you add d to get

the new function f(x) + d. 67Because all of the algebraic transformations occur after the function does

its job, all of the changes to points in the second column of the chart occur

in the second coordinate. Thus, all the changes in the graphs occur in the

vertical measurements of the graph.

New How points in graph of f(x) visual e↵ect

function become points of new graph

f(x) + d (a, b) 7! (a, b + d) shift up by d

f(x) Transformations before and after the original function

As long as there is only one type of operation involved “inside the function”

– either multiplication or addition – and only one type of operation involved

“outside of the function” – either multiplication or addition – you can apply

the rules from the two charts on page 68 and 70 to transform the graph of a

function.

Examples.

• Let’s look at the function • The graph of 2g(3x) is obtained from the graph of g(x) by shrinking

the horizontal coordinate by 1

3, and stretching the vertical coordinate by 2.

(You’d get the same answer here if you reversed the order of the transfor-

mations and stretched vertically by 2 before shrinking horizontally by 1

3. The

order isn’t important.)

74

7:—

(x) 4,

7c’

‘I

II

‘I’

-I

Answer:

She will save $62.50 and the new amount is 187.49 jut in case

Step-by-step explanation: