Respuesta :
Answer:
Any rational root of f(x) a factor of 35 divided by a factor of 66.
Step-by-step explanation:
Rational Root Theorem-
[tex]a_{n}x^{n}+a_{n-1}x^{n-1}+\cdots +a_{0}=0[/tex]
If [tex]a_{0}[/tex] and [tex]a_{n}[/tex] are nonzero, then each rational solution x will be,
[tex]x=\pm \dfrac{\text{Factors of }a_0}{\text{Factors of }a_n}[/tex]
The given polynomial is,
[tex]66x^4-2x^3+11x^2 +35[/tex]
Here,
[tex]a_{0}=35[/tex] and [tex]a_{n}=66[/tex]
Applying the theorem,
[tex]x=\pm \dfrac{\text{Factors of }35}{\text{Factors of }66}[/tex]
Answer:
Any rational root of f(x) is a factor of 35 divided by a factor of 66.
Step-by-step explanation:
The Rational Root Theorem states that:
If P(x) is a Polynomial with integer coefficients and if there exist a rational root of the polynomial i.e. of the form p/q then p is the factor of the constant term and q is a factor of leading coefficient of the polynomial function P(x).
Here we have:
[tex]P(x)=66x^4-2x^3+11x^2+35[/tex]
So, according to the Rational Root Theorem the statement that holds true is:
Any rational root of f(x) is a factor of 35 divided by a factor of 66.