Derivatives rules and common derivatives from Single-Variable Calculus. Most important rules/derivatives are bolded.
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Name
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Operation
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y versions
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f(x) versions
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Composition versions
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Second derivative
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nth derivative
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Leibniz/Fraction Notation
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d/dx (f(x))=d/dx (y)
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dy/dx=dy(x)/dx
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df/dx=df(x)/dx=d(f(x))/dx
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df/dg*dg/dx
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d2f/dx2
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dn/dxn=dnf/dxn
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Lagrange/Prime Notation
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d/dx (f(x))=d/dx (y)
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y'
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f'=f'(x)=(f(x))'
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(f(g(x)))'
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f''
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f(n)(x)
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Newton/Dot Notation
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d/dt (f(t))=d/dt (y(t))
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ẏ
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ÿ
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Euler/D-Notation
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Dx(f)
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Dxy
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Dxf
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Dx(f(g))
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Dx2f
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Dxnf
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Formal/Limit Definition of a Derivative
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f'(x)=lim h->0 (f(x+h)-f(x))/h
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Limit Definition of the Derivative at a point
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f'(a)=lim h->0 (f(a+h)-f(a))/h
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f'(a)=lim x->a (f(x)-f(a))/(x-a)
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Linearity 1: Constant-Multiple Rule
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d/dx (kf(x))
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k*d/dx (f)
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kf'
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Linearity 2: Sum/Difference Rule
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d/dx (f(x)±g(x))
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d/dx (f) ± d/dx (g)
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f'±g'
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Product Rule
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d/dx (f(x)*g(x))
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f'g+fg'
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Multi-Product Rule
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d/dx (p(x)*q(x)*r(x)*s(x)*...)
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p'qrs... + pq'rs... + pqr's... + pqrs'... + ...
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pqrs...*(p'/p + q'/q + r'/r + s'/s + ...)
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Quotient Rule
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d/dx (f(x)/g(x))
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(f'g-fg')/g2
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g(x)≠0, quotients can be rewritten into products with sign-flipped exponents
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Chain Rule
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d/dx (f(g(x)))
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f'(g)g'
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Multi-Chain Rule
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d/dx (p(q(r(s(...)))))
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p'(q(r(s(...))))*q'(r(s(...)))*r'(s(...))*s'(...)*...
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First Fundamental Theorem of Calculus (FTC I)
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d/dx (∫ax f(t)dt)
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f(x)
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Derivatives and integrals are inverses of each other
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FTC I Chain Rule 1
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d/dx (∫av(x) f(t)dt)
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f(v)v'
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FTC I Chain Rule 2
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d/dx (∫u(x)v(x) f(t)dt)
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f(v)v'-f(u)u'
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Summation Rule
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d/dx (Σf(x))
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Σf'(x)
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The summation must be within its interval of convergence
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Rule
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Function Derivative
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Derivative
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nth Derivative of Function
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nth Derivative
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Function Composition
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Derivative by Chain Rule
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Constant
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d/dx (k)
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0
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dn/dxn (k)
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0
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d/dx (f(k))
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0
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Power
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d/dx (xk)
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kxk-1
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dn/dxn (xk), k≠0, k-n+1≠-n
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Γ(k+1)xk-n/Γ(k-n+1)
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d/dx (u(x)k), u(x)≠0
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kuk-1u'
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Natural Exponential
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d/dx (ex)
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ex
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dn/dxn (ex)
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ex
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d/dx (eu(x))
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euu'
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Natural Logarithm
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d/dx (ln(x))
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1/x
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dn/dxn (ln(x))
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(-1)n+1(n-1)!/xn
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d/dx (ln(u(x))), u(x)>0
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u'/u
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General Exponential
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d/dx (kx), k>0
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kxln(k)
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dn/dxn (kx), k>0
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kx(ln(k))n
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d/dx (ku(x)), k>0
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kuln(k)u'
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General Logarithm
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d/dx (logk(x)), k>0, k≠1
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1/(xln(k))
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dn/dxn (logk(x)), k>0, k≠1
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(-1)n+1(n-1)!/(xnln(k))
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d/dx (logk(u(x))), k>0, k≠1, u(x)≠0
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u'/(uln(k))
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Absolute Value
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d/dx (|x|), x≠0
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x/|x| OR |x|/x
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d/dx (|u(x)|), u(x)≠0
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u*u'/|u| OR |u|*u'/u
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Function-Power-Function
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d/dx (f(x)g(x)), f(x)>0
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fg(f'g/f+ln(f)g')
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Standard Trigonometric
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Derivative
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Inverse Trigonometric
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Derivative
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Hyperbolic Trigonometric
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Derivative
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Hyperbolic Inverse Trigonometric
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Derivative
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d/dx (sin(x))
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cos(x)
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d/dx (arcsin(x))
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1/√(1-x2)
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d/dx (sinh(x))
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cosh(x)
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d/dx (arcsinh(x))
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1/√(1+x2)
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d/dx (cos(x))
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-sin(x)
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d/dx (arccos(x))
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-1/√(1-x2)
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d/dx (cosh(x))
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sinh(x)
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d/dx (arccosh(x))
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-1/√(x2-1)
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d/dx (tan(x))
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sec2(x)
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d/dx (arctan(x))
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1/(1+x2)
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d/dx (tanh(x))
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sech2(x)
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d/dx (arctanh(x))
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1/(1-x2)
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d/dx (csc(x))
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-csc(x)cot(x)
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d/dx (arccsc(x))
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-1/(|x|√(x2-1))
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d/dx (csch(x))
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-csch(x)coth(x)
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d/dx (arccsch(x))
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-1/(|x|√(x2+1))
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d/dx (sec(x))
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sec(x)tan(x)
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d/dx (arcsec(x))
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1/(|x|√(x2-1))
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d/dx (sech(x))
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-sech(x)tanh(x)
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d/dx (arcsech(x))
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-1/(|x|√(1-x2))
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d/dx (cot(x))
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-csc2(x)
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d/dx (arccot(x))
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-1/(1+x2)
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d/dx (coth(x))
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-csch2(x)
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d/dx (arccoth(x))
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1/(1-x2)
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d/dx (x)
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1
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d/dx (x^2)
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2x
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d/dx (x^3)
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3x2
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d/dx (x^4)
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4x3
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d/dx (1/x)
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-1/x2
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d/dx (-1/x2)
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2/x3
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d/dx (2/x3)
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-6/x4
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d/dx (-6/x4)
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24/x5
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d/dx (√x)
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1/(2√x)
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d/dx (x1/3)
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1/(3x2/3)
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d/dx (x1/4)
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1/(4x3/4)
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d/dx (x3/2)
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3√x/2
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d/dx (x5/3)
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5x2/3/3
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d/dx (x-√2-3)
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(-√2-3)x-√2-4
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d/dx (1/(1+x))
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-1/(1+x)2
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d/dx (-1/(1+x)2)
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2/(1+x)3
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d/dx (-1/(1-x))
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-1/(1-x)2
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d/dx (-1/(1-x)2)
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-2/(1-x)3
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d/dx (√(5x+1))
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5/(2√(4x+1))
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d/dx (√(x5+1))
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5x4/(2√(x5+1))
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d/dx ((2x2+5)9)
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36x(2x2+5)8
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d/dx (1)
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0
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d/dx (exsin(x))
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exsin(x)+excos(x)
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d/dx (excos(x))
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excos(x)-exsin(x)
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d/dx (sinx(x))
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sinx(x)(ln(sin(x))+xcot(x))
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d/dx (sin(x)cos(x))
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sin(x)cos(x)(cos2(x)csc(x)-sin(x)ln(sin(x)))
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d/dx (ln(1/(1-x)))
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1/(1-x)
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d/dx (ln(x3+7x+12))
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(3x2+7)/(x3+7x+12)
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d/dx (ln(e3xtan(x3)))
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3+(3x2sec2(x3))/(tan(x3))
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d/dx (1+k+t+√2+cos(a)+e+π+ln(3))
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0
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d/dx (-sin(x))
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-cos(x)
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d/dx (-cos(x))
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sin(x)
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d/dx (sin(2x))
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2cos(2x)
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d/dx (cos(2x))
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-2sin(2x)
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d/dx (sin2(x))
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2sin(x)cos(x)
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d/dx (cos2(x))
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-2cos(x)sin(x)
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d/dx (arctan(3x))
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3/(1+9x2)
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d/dx (sin(sin(x)))
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cos(x)cos(sin(x))
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d/dx (sin(arccos(x)))
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-x/√(1-x2)
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d/dx (sin(k))
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0
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d/dx (xex)
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ex+xex
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d/dx (e2x)
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2e2x
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d/dx (ex²)
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2xex²
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d/dx (eeˣ)
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exeeˣ
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d/dx (xx)
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xx(ln(x)+1)
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d/dx (23ˣ)
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23ˣ*3x*ln(2)*ln(3)
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d/dx (ek)
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0
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d/dx (ln(1/x))
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-1/x
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d/dx (ln(1+x))
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1/(1+x)
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d/dx (ln(1-x))
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-1/(1-x)
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d/dx (ln(x2))
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2/x
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d/dx (ln(x3))
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3/x
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d/dx (ln(x4))
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4/x
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d/dx (xln(x))
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ln(x)+1
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d/dx (ln(ln(x)))
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1/(xln(x))
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d/dx (ln(k))
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0
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