We factored the expression
into its basic terms:
Take out the common factor from the factored expression
We factored the expression
\( 4x^2 + 16x \)
into its basic terms:
\( 4 \cdot x \cdot x + 16 \cdot x \)
Take out the common factor from the factored expression
We factored the expression
\( 4x^2+2x \) into its basic terms:
\( 2\cdot2\cdot x\cdot x+2\cdot x \)
Take out the common factor from the factored expression
We factored the expression
\( 5x^2+10x \) into its basic terms:
\( 5\cdot x\cdot x+5\cdot2\cdot x \)
Take out the common factor from the factored expression
We factored the expression
\( 6x^2+3x \) into its basic terms:
\( 3\cdot 2\cdot x\cdot x+3\cdot x \)
Take out the common factor from the factored expression
We factored the expression \( 3x^2 + 12x \) into its basic terms:
\( 3 \cdot x \cdot x + 12 \cdot x \)
Take out the common factor from the factored expression
We factored the expression
into its basic terms:
Take out the common factor from the factored expression
To factor the expression , we start by identifying the greatest common factor (GCF) of and . The GCF is . We factor out from each term:
.
This simplifies the expression to .
We factored the expression
into its basic terms:
Take out the common factor from the factored expression
To factor the expression , first notice that each term shares a common factor of :
Start by factoring out :
Thus, the factored expression is , as is the common factor.
We factored the expression
into its basic terms:
Take out the common factor from the factored expression
To factor the expression , first identify the common factor in each term. Here, both terms share a factor.
Next, factor out from each term:
The common factor extracted is , making it the simplified expression.
We factored the expression
into its basic terms:
Take out the common factor from the factored expression
For the expression , the greatest common factor is :
When you factor out , the expression becomes:
This expresses the original expression in its factored form, with being the simplest form.
We factored the expression into its basic terms:
Take out the common factor from the factored expression
To factor the expression , we start by looking for the greatest common factor (GCF) of the terms and . The GCF is . We can factor out from each term:
.
This allows us to write the expression as .
We factored the expression \( 3y + 6y \) into its basic terms:
\( 3\cdot y + 6\cdot y \)
Take out the greatest common factor from the factored expression.
We factored the expression \( 5x^2 + 25x \) into its basic terms:
\( 5 \cdot x \cdot x + 25 \cdot x \)
Take out the common factor from the factored expression
We factored the expression \( 9a+8a \) into its basic terms:
\( 9\cdot a+8\cdot a \)
Take out the common factor from the factored expression.
We factored the expression into its basic terms:
Take out the greatest common factor from the factored expression.
We start with the expression .
First, we notice that both terms share a common factor of .
So, we factor out from each term:
and .
We can also see that can be factored to .
Now when we look at the expression we can see that both and are the common factor:
This allows us to rewrite the expression as , as nothing is left from the first term, and so we keep there a , and is left from the second term.
Thus, the factored form is
We factored the expression into its basic terms:
Take out the common factor from the factored expression
To factor the expression , we look for the greatest common factor (GCF) of the terms and . The GCF is . We factor out from each term:
.
This results in the expression .
We factored the expression into its basic terms:
Take out the common factor from the factored expression.
We start with the expression .
First, we notice that both terms share a common factor of .
So, we factor out from each term:
and .
This allows us to rewrite the expression as .
Thus, the factored form is .