y = f(x) + g(x) → y' = f'(x) + g'(x)
y = f(x) · g(x) → y' = f'(x) · g(x) + f(x) · g'(x)
y = f(x)/g(x) → y' = f'(x) · g(x) − f(x) · g'(x)/[g(x)]²
y = 1/f(x) → y' = −f'(x)/[f(x)]²
y = f[g(x)] → y' = f'[g(x)] · g'(x)
y = [f(x)]g(x) → y' = [f(x)]g(x) { g'(x) ln f(x) + g(x) f'(x)/f(x) }
y = f(x) + g(x) → y' = f'(x) + g'(x)
y = f(x) · g(x) → y' = f'(x) · g(x) + f(x) · g'(x)
y = f(x)⁄g(x) → y' = f'(x) · g(x) - f(x) · g'(x)⁄[g(x)]2
y = 1⁄f(x) → y' = - f'(x)⁄[f(x)]2
y = f[g(x)] → y' = f'[g(x)] · g'(x)
y = [f(x)]g(x) → y' = [f(x)]g(x) { g'(x) ln f(x) + g(x) f'(x)⁄f(x) }
y = xn → y' = nxn-1
y = [f(x)]n → y' = n[f(x)]n-1 · f'(x)
y = senx → y' = cos x
y = senf(x) → y' = f'(x) cos f(x)
y = cos x → y' = -senx
y = cos f(x) → y' = -f'(x) sen f(x)
y = ln x → y' = 1⁄x
y = ln f(x) → y' = f'(x)⁄f(x)
y = loga x → y' = 1⁄x loga e
y = loga f(x) → y' = f'(x)⁄f(x) loga e
y = ex → y' = ex
y = ef(x) → y' = f'(x) ef(x)
y = ax → y' = ax ln a
y = af(x) → y' = f'(x) af(x) ln a
y = tg x → y' = 1⁄cos2 x
y = tg f(x) → y' = f'(x)⁄cos2 f(x)
y = ctg x → y' = - 1⁄sen2 x
y = ctg f(x) → y' = - f'(x)⁄sen2 f(x)
y = arcsen x → y' = 1⁄√1-x2
y = arcsen f(x) → y' = f'(x)⁄√1-[f(x)]2
y = arccos x → y' = - 1⁄√1-x2
y = arccos f(x) → y' = - f'(x)⁄√1-[f(x)]2