Consider the function f: R → R defined by f(x) = cos(x), where n is an even integer. It can be shown that any positive power of cos x can be expressed as a sum of multiples of terms of the form cos(kx), where the k are non-negative integers. Note that the term where k = 0 is the constant term. It can also be shown that any odd positive power of sin a can be expressed as a sum of multiples of terms of the form sin(kx), where the k are non-negative integers. (a) What is the constant term in the expansion of f(x) described above? & A Syntax advice: Remember to use correct Maple syntax. For example, • the factorial n! may be written as n! or factorial (n) the binomial coefficient (R) • the term a* is written a^x may be written as binomial (n,k) (b) Now, consider the function g: R → R defined by g(x) = sin 975 (x)f(x). Briefly explain in words why g(x) may be written as a sum of multiples of terms of the form sin(kx), where k are non-negative integers.
Consider the function f: R → R defined by f(x) = cos(x), where n is an even integer. It can be shown that any positive power of cos x can be expressed as a sum of multiples of terms of the form cos(kx), where the k are non-negative integers. Note that the term where k = 0 is the constant term. It can also be shown that any odd positive power of sin a can be expressed as a sum of multiples of terms of the form sin(kx), where the k are non-negative integers. (a) What is the constant term in the expansion of f(x) described above? & A Syntax advice: Remember to use correct Maple syntax. For example, • the factorial n! may be written as n! or factorial (n) the binomial coefficient (R) • the term a* is written a^x may be written as binomial (n,k) (b) Now, consider the function g: R → R defined by g(x) = sin 975 (x)f(x). Briefly explain in words why g(x) may be written as a sum of multiples of terms of the form sin(kx), where k are non-negative integers.
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