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Common Derivatives


Reference table of the most-used derivative identities. Try puzzle mode to drill, or read the full derivatives explanation β†’

Derivative Tool

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Namef(x)fβ€²(x)Family
Constant ruleddx ⁣[c]\frac{d}{dx}\!\left[c\right]=00Polynomial
Identity ruleddx ⁣[x]\frac{d}{dx}\!\left[x\right]=11Polynomial
Linear ruleddx ⁣[ax+b]\frac{d}{dx}\!\left[ax + b\right]=aaLinear
Power ruleddx ⁣[xn]\frac{d}{dx}\!\left[x^n\right]=nxnβˆ’1nx^{n-1}Polynomial
Reciprocalddx ⁣[1x]\frac{d}{dx}\!\left[\frac{1}{x}\right]=βˆ’1x2-\frac{1}{x^2}Polynomial
Square rootddx ⁣[x]\frac{d}{dx}\!\left[\sqrt{x}\right]=12x\frac{1}{2\sqrt{x}}Polynomial
Natural exponentialddx ⁣[ex]\frac{d}{dx}\!\left[e^x\right]=exe^xExponential
General exponentialddx ⁣[ax]\frac{d}{dx}\!\left[a^x\right]=axln⁑(a)a^x \ln(a)Exponential
Natural logarithmddx ⁣[ln⁑(x)]\frac{d}{dx}\!\left[\ln(x)\right]=1x\frac{1}{x}Logarithmic
General logarithmddx ⁣[log⁑a(x)]\frac{d}{dx}\!\left[\log_a(x)\right]=1xln⁑(a)\frac{1}{x \ln(a)}Logarithmic
Sineddx ⁣[sin⁑(x)]\frac{d}{dx}\!\left[\sin(x)\right]=cos⁑(x)\cos(x)Trigonometry
Cosineddx ⁣[cos⁑(x)]\frac{d}{dx}\!\left[\cos(x)\right]=βˆ’sin⁑(x)-\sin(x)Trigonometry
Tangentddx ⁣[tan⁑(x)]\frac{d}{dx}\!\left[\tan(x)\right]=sec⁑2(x)\sec^2(x)Trigonometry
Cotangentddx ⁣[cot⁑(x)]\frac{d}{dx}\!\left[\cot(x)\right]=βˆ’csc⁑2(x)-\csc^2(x)Trigonometry
Secantddx ⁣[sec⁑(x)]\frac{d}{dx}\!\left[\sec(x)\right]=sec⁑(x)tan⁑(x)\sec(x)\tan(x)Trigonometry
Cosecantddx ⁣[csc⁑(x)]\frac{d}{dx}\!\left[\csc(x)\right]=βˆ’csc⁑(x)cot⁑(x)-\csc(x)\cot(x)Trigonometry
Arcsineddx ⁣[arcsin⁑(x)]\frac{d}{dx}\!\left[\arcsin(x)\right]=11βˆ’x2\frac{1}{\sqrt{1-x^2}}Inverse trigonometry
Arccosineddx ⁣[arccos⁑(x)]\frac{d}{dx}\!\left[\arccos(x)\right]=βˆ’11βˆ’x2-\frac{1}{\sqrt{1-x^2}}Inverse trigonometry
Arctangentddx ⁣[arctan⁑(x)]\frac{d}{dx}\!\left[\arctan(x)\right]=11+x2\frac{1}{1+x^2}Inverse trigonometry
Arccotangentddx ⁣[arccot⁑(x)]\frac{d}{dx}\!\left[\operatorname{arccot}(x)\right]=βˆ’11+x2-\frac{1}{1+x^2}Inverse trigonometry
Arcsecantddx ⁣[arcsec⁑(x)]\frac{d}{dx}\!\left[\operatorname{arcsec}(x)\right]=1∣x∣x2βˆ’1\frac{1}{|x|\sqrt{x^2-1}}Inverse trigonometry
Arccosecantddx ⁣[arccsc⁑(x)]\frac{d}{dx}\!\left[\operatorname{arccsc}(x)\right]=βˆ’1∣x∣x2βˆ’1-\frac{1}{|x|\sqrt{x^2-1}}Inverse trigonometry

Categories

Click a card to highlight matching entries in the table above.

x^n

Polynomial

Constants, powers, roots, and reciprocals.

5 matchesClick to highlight
ax+b

Linear

Linear functions ax+bax + b β€” the derivative is the slope aa.

1 matchClick to highlight
e^x

Exponential

Natural and general exponential functions.

2 matchesClick to highlight
ln

Logarithmic

Natural and general logarithms.

2 matchesClick to highlight
sin

Trigonometry

All six basic trigonometric functions.

6 matchesClick to highlight
sin⁻¹

Inverse trigonometry

Inverse trigonometric functions: arcsin⁑\arcsin through arccsc⁑\operatorname{arccsc}.

6 matchesClick to highlight
1/x

Reciprocal forms

Derivatives whose result is a fraction β€” a quotient form.

10 matchesClick to highlight

Differentiation rules

The four structural rules that combine and extend the identities above.

βŠ•

Linearity

The derivative of a sum is the sum of derivatives. Constants pull out: ddx[cβ‹…f(x)]=cβ‹…fβ€²(x)\frac{d}{dx}[c \cdot f(x)] = c \cdot f'(x).

ddx[3x2+5x]=6x+5\frac{d}{dx}[3x^2 + 5x] = 6x + 5
Γ—

Product rule

ddx[fg]=fβ€²g+fgβ€²\frac{d}{dx}[fg] = f'g + fg'. Differentiate one factor, leave the other alone, then sum.

ddx[xsin⁑(x)]=sin⁑(x)+xcos⁑(x)\frac{d}{dx}[x \sin(x)] = \sin(x) + x\cos(x)
Γ·

Quotient rule

ddx ⁣[fg]=fβ€²gβˆ’fgβ€²g2\frac{d}{dx}\!\left[\frac{f}{g}\right] = \frac{f'g - fg'}{g^2}. Mnemonic: low d-high minus high d-low, over low squared.

ddx ⁣[sin⁑(x)x]=xcos⁑(x)βˆ’sin⁑(x)x2\frac{d}{dx}\!\left[\frac{\sin(x)}{x}\right] = \frac{x\cos(x) - \sin(x)}{x^2}
∘

Chain rule

ddx[f(g(x))]=fβ€²(g(x))β‹…gβ€²(x)\frac{d}{dx}[f(g(x))] = f'(g(x)) \cdot g'(x). Differentiate the outside, then multiply by the derivative of the inside.

ddx[sin⁑(x2)]=cos⁑(x2)β‹…2x\frac{d}{dx}[\sin(x^2)] = \cos(x^2) \cdot 2x
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