Let g(x)=tan(x).Can we use the intermediate value theorem to say the equation g(x)=0 has a solution where 4π≤x≤43π ?Choose 1 answer:(A) No, since the function is not continuous on that interval.(B) No, since 0 is not between g(4π) and g(43π).(C) Yes, both conditions for using the intermediate value theorem have been met.
Q. Let g(x)=tan(x).Can we use the intermediate value theorem to say the equation g(x)=0 has a solution where 4π≤x≤43π ?Choose 1 answer:(A) No, since the function is not continuous on that interval.(B) No, since 0 is not between g(4π) and g(43π).(C) Yes, both conditions for using the intermediate value theorem have been met.
Intermediate Value Theorem Application: The Intermediate Value Theorem states that if a function f is continuous on a closed interval [a,b] and k is any number between f(a) and f(b), then there exists at least one number c in the interval [a,b] such that f(c)=k. To apply this theorem to the function g(x)=tan(x) and the interval [4π,43π], we need to check two conditions: (1) that [a,b]0 is continuous on the interval, and (2) that [a,b]1 is between [a,b]2 and [a,b]3.
Checking Continuity: First, we check the continuity of g(x)=tan(x) on the interval [4π,43π]. The tangent function has discontinuities at odd multiples of 2π, because it is undefined there (the cosine function in the denominator of tan(x)=cos(x)sin(x) is zero at these points). Since 2π is within the interval [4π,43π], the function g(x) is not continuous on the entire interval.
Conclusion: Since g(x)=tan(x) is not continuous on the interval [4π,43π], we cannot use the Intermediate Value Theorem to guarantee that there is a solution to g(x)=0 on this interval. Therefore, the correct answer is A: No, since the function is not continuous on that interval.
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