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Constant Rule (General Differentiation Rules)
d/dx[c] = 0, [c] is a real number
Constant Multiple Rule (General Differentiation Rules)
d/dx[cu] = cu’, c is a real number
Product Rule (General Differentiation Rules)
d/dx[uv] = uv’ + vu’
Chain Rule #1 (General Differentiation Rules)
d/dx[f (u) ] = f ’(u) u ’
Chain Rule #2 (Derivatives of Trig functions)
d/dx[sin x] = cos x
Chain Rule #3 (Derivatives of Trig functions)
d/dx[sec x] = sec x tan
Chain Rule #4 (Derivatives of Trig functions)
d/dx[cot x] = -csc2x
Chain Rule #5 (Derivatives of Exponential and Logarithmic)
d/dx[ex] = ex
Chain Rule #6 (Derivatives of Exponential and Logarithmic)
d/dx[ax] = (ln a)ax
Chain Rule #7 (Derivatives of Exponential and Logarithmic)
a is a positive real number (a ≠ 1)
(Simple) Power Rule (General Differentiation Rules)
d/dx[xn] = nxn-1, d/dx[x] = 1 n is a rational number
Sum or Difference Rule (General Differentiation Rules)
d/dx[u +- v] = u’ +- v’
Quotient Rule (General Differentiation Rules)
d/dx [u/v] = vu’ - uv’/v2
General Power Rule #1 (General Differentiation Rules)
d/dx[un] = nun-1, n is a rational number
General Power Rule #2 (Derivatives of Trig functions)
d/dx[tan x[ = sec2x
General Power Rule #3 (Derivatives of Trig functions)
d/dx[cos x] = -sin x
General Power Rule #4 (Derivatives of Trig functions)
d/dx[csc x] = -csc x cot x
General Power Rule #5 (Derivatives of Exponential and Logarithmic)
d/dx[ln x] = 1/x’ x>0
General Power Rule #6 (Derivatives of Exponential and Logarithmic)
d/dx[logax] = 1/(1na)x’