Find the derivative of a function defined parametrically using the chain rule
Solve problems involving derivatives of functions defined parametrically
Verify using the chain rule that the derivative of the inverse function is the reciprocal of the derivative of the function, evaluated at the value of the inverse function, that is (f−1)′(x)=f′(f−1(x))1
Solve problems involving derivatives of inverse functions
Examine the proofs of the derivatives of sin−1x, cos−1x and tan−1x
Use the chain rule to show that dxd[sin−1f(x)]=1−[f(x)]2f′(x), dxd[cos−1f(x)]=−1−[f(x)]2f′(x)=−dxd[sin−1f(x)] and dxd[tan−1f(x)]=1+[f(x)]2f′(x) and apply the results to solve problems involving derivatives of sin−1f(x), cos−1f(x) and tan−1f(x)
Apply the product, quotient and chain rules to find derivatives of functions of the form f(x)g(x), g(x)f(x) and f(g(x)) where f(x) and g(x) are any of the functions covered in the scope of the Mathematics Advanced 11–12 Syllabus (2024) or inverse trigonometric functions and solve related problems
Techniques of integration
Find indefinite and definite integrals involving expressions of the form a2−x21 or a2+x2a
Use integration by substitution to evaluate definite and indefinite integrals given the substitution, where the substitution is expressed as a function of the variable of integration or where the variable of integration is the subject of the substitution
Prove and use the identities sin2nx=21(1−cos2nx) and cos2nx=21(1+cos2nx) to find integrals involving ∫sin2nxdx and ∫cos2nxdx