chain rule, derivatives of trigonometric/inverse trigonometric functions, derivatives of inverse functions, explicit functions, higher order(multiple) derivatives
chain rule: d/dx [f(g(x))] =
f’(g(x)) ⋅ g’(x)
d/dx [sin(x)] =
cos(x)
d/dx [cos(x)] =
-sin(x)
d/dx [tan(x)] =
sec2(x)
d/dx [cot(x)] =
-csc2(x)
d/dx [sec(x)] =
sec(x)tan(x)
d/dx [csc(x)] =
-csc(x)cot(x)
d/dx [ln(x)] =
x’/x
d/dx [ex] =
ex ⋅ x
d/dx [ax] =
ln(a) ⋅ ax
loga(x) =
1/lna ⋅ ln(x)
when finding dy/dx, what are you solving for?
y’ (derivative of y with respect to x)
derivative of inverse function: (f-1)’(x) =
1/f’(f-1(x))
d/dx [arcsin(u)] =
u’/√1-u2
d/dx [arccos(u)] =
-u’/√1-u2
d/dx [arctan(u)] =
u’/1+u2
d/dx [arccot(u)] =
-u’/1+u2
d/dx [arcsec(u)] =
u’/|u|√u2-1
d/dx [arccsc(u)] =
-u’/|u|√u2-1
position function
no derivative
velocity function
first derivative (y’)
acceleration function
second derivative (y’’)