Unit 3 - Derivative rules Flashcards
d/dx (x^n)
d/dx= nx^n-1
d/dx (k * f(x))
d/dx= k * f’(x)
d/dx (f(x) ± g(x))
d/dx= f’(x) ± g’(x)
d/dx (e^u)
d/dx= e^u * du
d/dx (a^u)
d/dx= a^u * ln(a) *du
d/dx (u * v)
d/dx= (u)(dv) + (v)(du)
d/dx= Hi/Lo
d/dx= ((Lo)(dHi) - (Hi)(dLo)) / LoLo
d/dx (sinx)
d/dx= cosx
d/dx (cosx)
d/dx= -sinx
d/dx (tanx)
d/dx= (secx)^2
d/dx (cscx)
d/dx= -cscx * cotx
d/dx (secx)
d/dx= secx * tanx
d/dx (cotx)
d/dx= -csc^2x
Composition: What is another way to write (f o g)(x)
f(g(x))
d/dx(f(u)) <– chain rule
d/dx= f’(u) * du
d/dx (ln(u))
d/dx= 1/u * du
d/dx (loga(u))
d/dx= (1/u*ln(a)) *du
d/dx (sin-1u)
d/dx = (1/√1-u^2) * du
d/dx (cos-1u)
d/dx = -(1/√1-u^2) * du
d/dx (tan-1u)
d/dx = (1/1+u^2) * du
d/dx (cot-1u)
d/dx = -(1/1+u^2) * du
d/dx (sec-1u)
d/dx = (1/IuI * √u^2-1) * du
d/dx (csc-1u)
d/dx = -(1/IuI * √u^2-1) * du
(f-1)’(b)
= 1/f’(a)