A polynomial function g(x) with integer coefficients has a leading coefficient of 1 and a constant term of 14. According to the Rational Root Theorem, which of the following are possible roots of g(x)?Multi-select Choices:(A) 198(B) 23(C) −2(D) −1
Q. A polynomial function g(x) with integer coefficients has a leading coefficient of 1 and a constant term of 14. According to the Rational Root Theorem, which of the following are possible roots of g(x)?Multi-select Choices:(A) 198(B) 23(C) −2(D) −1
Rational Root Theorem: The Rational Root Theorem states that any rational root, in the form of qp (where p and q are integers and q is not zero), of a polynomial equation with integer coefficients must have p as a factor of the constant term and q as a factor of the leading coefficient.
Leading Coefficient: Since the leading coefficient is 1, any rational root must have a denominator of 1. This means we are looking for integer roots only.
Constant Term Factors: The constant term is 14, so the possible integer factors of 14 are ±1, ±2, ±7, and ±14.
Check Given Options: Now we check the given options against the possible factors of 14. (A) 198 is not an integer, so it cannot be a root.
Check Given Options: Now we check the given options against the possible factors of 14.(A) 198 is not an integer, so it cannot be a root.(B) 23 is not an integer, so it cannot be a root.
Check Given Options: Now we check the given options against the possible factors of 14.(A) 198 is not an integer, so it cannot be a root.(B) 23 is not an integer, so it cannot be a root.(C) −2 is an integer and a factor of 14, so it could be a root.
Check Given Options: Now we check the given options against the possible factors of 14. (A) 198 is not an integer, so it cannot be a root. (B) 23 is not an integer, so it cannot be a root. (C) −2 is an integer and a factor of 14, so it could be a root. (D) −1 is an integer and a factor of 14, so it could be a root.