Formula sheet Leibniz, Cheat Sheet of Mathematics

Formula sheet using Leibniz notation with chain rule already factored in

Typology: Cheat Sheet

2021/2022

Uploaded on 08/28/2024

emile-santos-9
emile-santos-9 🇿🇦

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Derivative and Integral Reference Guide
Differentiation Rules
Linearity Product & Quotient Rules Chain Rule
d
dx u+v=u0+v0d
dx uv=u0v+v0ud
dx f(u)=f0(u)·u0
d
dx cu=cu0d
dx hu
vi=u0vv0u
v2
Derivative Identities
d
dx c= 0 d
dx x= 1 d
dx un=nun1u0
d
dx eu=u0eud
dx bu= ln(b)buu0
d
dx ln u=u0
u
d
dx logbu=1
ln b·u0
u
d
dx sin u=u0cos ud
dx cos u=u0sin ud
dx tan u=u0sec2u
d
dx csc u=u0csc ucot ud
dx sec u=u0sec utan ud
dx cot u=csc2u
d
dx arcsin u=u0
1u2
d
dx arccos u=u0
1u2
d
dx arctan u=u0
1 + u2
d
dx arccsc u=u0
uu21
d
dx arcsec u=u0
uu21
d
dx arccot u=u0
1 + u2
Fundamental Theorems of Calculus
F0(x) = f(x) =Zb
a
f(x)dx =F(b)F(a)
d
dx "Zb(x)
a(x)
f(t)dt#=fb(x)·b0(x)fa(x)·a0(x)
pf2

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Derivative and Integral Reference Guide

Differentiation Rules

Linearity Product & Quotient Rules Chain Rule d dx

[

u + v

]

= u′^ + v′^ d dx

[

uv

]

= u′v + v′u d dx

[

f (u)

]

= f ′(u) · u′

d dx

[

cu

]

= cu′^ d dx

[ (^) u v

]

u′v − v′u v^2

Derivative Identities

d dx

[

c

]

d dx

[

x

]

d dx

[

un

]

= nun−^1 u′

d dx

[

eu

]

= u′eu^ d dx

[

bu

]

= ln(b)buu′

d dx

[

ln u

]

u′ u

d dx

[

logb u

]

ln b

u′ u d dx

[

sin u

]

= u′^ cos u d dx

[

cos u

]

= − u′^ sin u d dx

[

tan u

]

= u′^ sec^2 u

d dx

[

csc u

]

= − u′^ csc u cot u d dx

[

sec u

]

= u′^ sec u tan u d dx

[

cot u

]

= − csc^2 u

d dx

[

arcsin u

]

u′ √ 1 − u^2

d dx

[

arccos u

]

u′ √ 1 − u^2

d dx

[

arctan u

]

u′ 1 + u^2 d dx

[

arccsc u

]

u′ u

u^2 − 1

d dx

[

arcsec u

]

u′ u

u^2 − 1

d dx

[

arccot u

]

u′ 1 + u^2

Fundamental Theorems of Calculus

F ′(x) = f (x) =⇒

∫ (^) b

a

f (x) dx = F (b) − F (a)

d dx

[∫ (^) b(x)

a(x)

f (t) dt

]

= f

b(x)

· b′(x) − f

a(x)

· a′(x)

Source: Stewart, J. (2020). Calculus, 9e. Cengage Learning.

Integration Rules Linearity Integration by Parts ∫ (^) [ f (x) + g(x)

]

dx =

f (x) dx +

g(x) dx

u dv = uv −

v du ∫ af (x) dx = a

f (x) dx

Integral Identities ∫ 0 dx = C

dx = x + C

xn^ dx = xn+ n + 1

  • C, n 6 = − 1 ∫ (^1) x dx = ln |x| + C

ex^ dx = ex^ + C

bx^ dx = bx ln b

+ C

ln x dx = x ln(x) − x + C

logb x dx =

ln(b) [x ln(x) − x] + C ∫ cos x dx = sin x + C

sin x dx = − cos x + C

sec^2 x dx = tan x + C ∫ sec x tan x dx = sec x + C

csc x cot x dx = − csc x + C

csc^2 x dx = − cot x + C ∫ tan x dx = − ln | cos x| + C

cot x dx = ln | sin x| + C ∫ sec x dx = ln | sec x + tan x| + C

csc x dx = − ln | csc x + cot x| + C ∫ √^1 a^2 − x^2

dx = arcsin x a +^ C

a^2 + x^2 dx^ =

a arctan^

x a +^ C

x

x^2 − 1

dx = arcsec x + C

Trig Sub

x = a sin θ dx = a cos θ dθ √ a^2 − x^2 = a cos θ

a (^) x

√ a^2 − x^2

θ

x = a tan θ dx = a sec^2 θ dθ √ a^2 + x^2 = a sec θ

x

a

√ a^2 + x^2

θ

x = a sec θ dx = a sec θ tan θ dθ √ x^2 − a^2 = a tan θ

x √x (^2) − a 2

a

θ