Respuesta :
Answer:
Create a factorable polynomial with a GCF of 3x. Rewrite that polynomial in two other equivalent forms. Explain how each form was created. (10 points)
My answer:
6x^3 + 39x^2 + 60x
two other equivalent forms:
1. 3x(x+4)(5+2x)
2. 3x(2x^2 + 13x +20)
1st- Here's how I got the first equation. I just choose 2 random binomial factors off the top of my head and had them be multiplied with 3x since it's the GCF.
2nd- Here's how I got the second equation. Using the last equation, 3x(x+4)(5+2x), I just multiplied (x+4) with (5+2x) which equals 2x^2 + 13x + 20.
I actually got help from my teacher for this so I know it's right. Really hope this helps because I was also having trouble with this :)
The factorable polynomial with a Greatest common factor of [tex]3x[/tex] will be[tex]6x^3 + 39x^2 + 60x[/tex] and its two other forms are [tex](A)[/tex] [tex]3x(2x^2 + 13x + 30)[/tex] and [tex](B)[/tex] [tex]3x(x+4)(2x+5)[/tex].
What is Greatest common factor ?
Greatest common factor is the largest factor that all the numbers have in common.
We have,
The factorable polynomial should have Greatest common factor of [tex]3x[/tex].
So,
Let a polynomial [tex]6x^3 + 39x^2 + 60x[/tex],
Now find its factor;
[tex]6x^3 + 39x^2 + 60x[/tex]
Taking [tex]3[/tex] common,
[tex]3(2x^3 + 13x^2 + 30x)[/tex]
Now, Taking [tex]x[/tex] common,
[tex]3x(2x^2 + 13x + 30)[/tex]
Now we have Quadratic equation now find its factor;
We get,
[tex]3x(x+4)(2x+5)[/tex]
So, this is the polynomial with Greatest common factor.
Now,
So two other equivalent form of this polynomial are;
[tex](A)[/tex] [tex]3x(2x^2 + 13x + 30)[/tex]
[tex](B)[/tex] [tex]3x(x+4)(2x+5)[/tex]
The explanation has been done while finding the factors.
Hence, we can say that the factorable polynomial with a Greatest common factor of [tex]3x[/tex] are [tex]6x^3 + 39x^2 + 60x[/tex] and its two other forms are [tex](A)[/tex] [tex]3x(2x^2 + 13x + 30)[/tex] and [tex](B)[/tex] [tex]3x(x+4)(2x+5)[/tex].
To know more about Greatest common factor click here
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