Polynomials - Math
Card 1 of 136
Factor the following expression:

Factor the following expression:
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You can see that each term in the equation has an "x", therefore by factoring "x" from each term you can get that the equation equals
.
You can see that each term in the equation has an "x", therefore by factoring "x" from each term you can get that the equation equals .
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Expand this expression:


Expand this expression:
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Use the FOIL method (First, Outer, Inner, Last):




Put all of these terms together:

Combine like terms:

Use the FOIL method (First, Outer, Inner, Last):
Put all of these terms together:
Combine like terms:
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Find the zeros.

Find the zeros.
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This is a difference of perfect cubes so it factors to
. Only the first expression will yield an answer when set equal to 0, which is 1. The second expression will never cross the
-axis. Therefore, your answer is only 1.
This is a difference of perfect cubes so it factors to . Only the first expression will yield an answer when set equal to 0, which is 1. The second expression will never cross the
-axis. Therefore, your answer is only 1.
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Find the zeros.

Find the zeros.
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Factor the equation to
. Set
and get one of your
's to be
. Then factor the second expression to
. Set them equal to zero and you get
.
Factor the equation to . Set
and get one of your
's to be
. Then factor the second expression to
. Set them equal to zero and you get
.
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Factor 
Factor
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Use the difference of perfect cubes equation:

In
,
and ![b=\sqrt[3]{64}=4](https://vt-vtwa-assets.varsitytutors.com/vt-vtwa/uploads/formula_image/image/94643/gif.latex)


Use the difference of perfect cubes equation:
In ,
and
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Factor this expression:

Factor this expression:
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First consider all the factors of 12:
1 and 12
2 and 6
3 and 4
Then consider which of these pairs adds up to 7. This pair is 3 and 4.
Therefore the answer is
.
First consider all the factors of 12:
1 and 12
2 and 6
3 and 4
Then consider which of these pairs adds up to 7. This pair is 3 and 4.
Therefore the answer is .
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Factor the following polynomial:

Factor the following polynomial:
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Begin by extracting
from the polynomial:


Now, factor the remainder of the polynomial as a difference of cubes:

Begin by extracting from the polynomial:
Now, factor the remainder of the polynomial as a difference of cubes:
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Factor the following polynomial:

Factor the following polynomial:
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Begin by rearranging like terms:


Now, factor out like terms:

Rearrange the polynomial:

Begin by rearranging like terms:
Now, factor out like terms:
Rearrange the polynomial:
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Factor the following polynomial:

Factor the following polynomial:
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Begin by rearranging like terms:


Now, factor out like terms:

Rearrange the polynomial:

Factor:


Begin by rearranging like terms:
Now, factor out like terms:
Rearrange the polynomial:
Factor:
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Factor the following polynomial:

Factor the following polynomial:
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Begin by separating
into like terms. You do this by multiplying
and
, then finding factors which sum to 


Now, extract like terms:

Simplify:

Begin by separating into like terms. You do this by multiplying
and
, then finding factors which sum to
Now, extract like terms:
Simplify:
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Factor the following polynomial:

Factor the following polynomial:
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To begin, distribute the squares:

![[(3a-4b)+(a+3b)][(3a-4b)-(a+3b)]](https://vt-vtwa-assets.varsitytutors.com/vt-vtwa/uploads/formula_image/image/153192/gif.latex)
Now, combine like terms:

To begin, distribute the squares:
Now, combine like terms:
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Factor the following polynomial:

Factor the following polynomial:
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Begin by extracting
from the polynomial:


Now, distribute the cubic polynomial:

Begin by extracting from the polynomial:
Now, distribute the cubic polynomial:
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Factor the following polynomial:

Factor the following polynomial:
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Begin by extracting like terms:


Now, rearrange the right side of the polynomial by reversing the signs:

Combine like terms:

Factor the square and cubic polynomial:

Begin by extracting like terms:
Now, rearrange the right side of the polynomial by reversing the signs:
Combine like terms:
Factor the square and cubic polynomial:
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Factor the following polynomial:

Factor the following polynomial:
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Begin by rearranging the terms to group together the quadratic:


Now, convert the quadratic into a square:

Finally, distribute the
:

Begin by rearranging the terms to group together the quadratic:
Now, convert the quadratic into a square:
Finally, distribute the :
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Factor the following polynomial:

Factor the following polynomial:
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Begin by extracting
from the polynomial:


Now, rearrange to combine like terms:

Extract the like terms and factor the cubic:
![mn[(m-n)(m^2+mn+n^2)+1(m-n)]](https://vt-vtwa-assets.varsitytutors.com/vt-vtwa/uploads/formula_image/image/153204/gif.latex)
Simplify by combining like terms:

Begin by extracting from the polynomial:
Now, rearrange to combine like terms:
Extract the like terms and factor the cubic:
Simplify by combining like terms:
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Factor the following polynomial:

Factor the following polynomial:
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Begin by extracting
from the polynomial:


Now, rearrange to combine like terms:

Extract the like terms and factor the cubic:
![3[(x+1)(x^2-x+1)+3x(x+1)]](https://vt-vtwa-assets.varsitytutors.com/vt-vtwa/uploads/formula_image/image/153208/gif.latex)
Simplify by combining like terms:
![3[(x+1)(x^2-x+1+3x)]](https://vt-vtwa-assets.varsitytutors.com/vt-vtwa/uploads/formula_image/image/153209/gif.latex)



Begin by extracting from the polynomial:
Now, rearrange to combine like terms:
Extract the like terms and factor the cubic:
Simplify by combining like terms:
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Simplify.

Simplify.
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Put the negative exponent on the bottom so that you have
which simplifies further to
.
Put the negative exponent on the bottom so that you have which simplifies further to
.
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Simplify the following expression:
.
Simplify the following expression:
.
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First, multiply out the second expression so that you get
.
Then, multiply your like terms, taking care to remember that when multiplying terms that have the same base, you add the exponents. Thus, you get
.
First, multiply out the second expression so that you get .
Then, multiply your like terms, taking care to remember that when multiplying terms that have the same base, you add the exponents. Thus, you get .
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Simplify:

Simplify:
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Focus on each pair of like terms. The
completely cancel out, there is one
left on top, and five
left on the bottom.
reduces to
.
Put that all together to get
.
Focus on each pair of like terms. The completely cancel out, there is one
left on top, and five
left on the bottom.
reduces to
.
Put that all together to get .
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Simplify the following polynomial:

Simplify the following polynomial:
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To simplify the polynomial, begin by multiplying the first binomial by every term within the parentheses:


Now, combine like terms:

Convert the polynomial into fraction form:

To simplify the polynomial, begin by multiplying the first binomial by every term within the parentheses:
Now, combine like terms:
Convert the polynomial into fraction form:
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