- derivative of logarithmic and exponential functions
Differentiation with exponential functions
Apply the rules of differentiation to find the derivative of f(x)=keax, where k and a are constants
Use the chain rule to prove dxd(eax+b)=aeax+b, where a and b are constants and a=0
Prove and use the formula dxd(ax)=(lna)ax, where a is a constant and a>0
Use the chain rule to differentiate functions of the form ef(x)
Differentiation with logarithmic functions
Use chain rule on the identity elnx=x to prove the formula dxd(lnx)=x1 for the derivative of the natural logarithm function where x>0
Prove and use the formula dxd(logax)=xlna1, where a is a constant and a>0
Use the chain rule to differentiate functions of the form lnf(x)
Differentiation with trigonometric functions
Determine the formulas dxd(sinx)=cosx and dxd(cosx)=−sinx informally by using the graphs of y=sinx and y=cosx and verify with graphing applications
Use the rules of differentiation to show that dxd(tanx)=sec2x
Use the rules of differentiation to find the derivatives of cosecx, secx and cotx
Use the chain rule to differentiate functions of the form sinf(x), cosf(x) and tanf(x)
Using derivatives
Apply the product, quotient and chain rules to differentiate functions of the form f(x)g(x), g(x)f(x) or f(g(x)), where f(x) and g(x) are any of the functions within the scope of the Mathematics Advanced course
Solve problems involving equations of tangents and normals to curves involving any of the functions within the scope of the Mathematics Advanced course