Laplace Table for Differential Eq, Cheat Sheet of Mathematics

Laplace Table for differential equations

Typology: Cheat Sheet

2025/2026

Uploaded on 03/08/2026

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Laplace Transform Tables
Name Time Domain Frequency Domain
f(t) F(s)
Impulse δ(t) 1
Step 1(t)1
s
Ramp t1
s2
Monomial tnn!
sn+1
Fractional Power taΓ(a+ 1)
sa+1
Exponential eat 1
s+a
Sine sin(ωt)ω
s2+ω2
Cosine cos(ωt)s
s2+ω2
Decaying Sine eσt sin(ωt)ω
(s+σ)2+ω2
Decaying Cosine eσt cos(ωt)s+σ
(s+σ)2+ω2
Hyperbolic Sine sinh(ωt) = 1
2eωt eωt ω
s2ω2
Hyperbolic Cosine cosh(ωt) = 1
2eωt +eωt s
s2ω2
Table 1: Laplace transforms of common functions
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Laplace Transform Tables

Name Time Domain Frequency Domain

f(t) F(s)

Impulse δ(t) 1

Step 1(t)

s

Ramp t

s^2

Monomial tn^

n!

sn+

Fractional Power ta^

Γ(a + 1)

sa+

Exponential e−at^

s + a

Sine sin(ωt)

ω

s^2 + ω^2

Cosine cos(ωt)

s

s^2 + ω^2

Decaying Sine e−σt^ sin(ωt)

ω

(s + σ)^2 + ω^2

Decaying Cosine e−σt^ cos(ωt)

s + σ

(s + σ)^2 + ω^2

Hyperbolic Sine sinh(ωt) = (^12)

eωt^ − e−ωt

) (^) ω

s^2 − ω^2

Hyperbolic Cosine cosh(ωt) = (^12)

eωt^ + e−ωt

) (^) s

s^2 − ω^2

Table 1: Laplace transforms of common functions

Property Name Property

Definition F (s) = L

[

f (t)

]

0 f^ (t)e

−stdt

Scale Homogeneity L

[

af (t)

]

= aF (s)

Super-Position L

[

f (t) + g(t)

]

= F (s) + G(s)

Linearity L

[

af (t) + bg(t)

]

= aF (s) + bG(s)

Frequency Shift L

[

eatf (t)

]

= F (s − a)

Time Shift L

[

f (t − T )

]

= e−sT^ F (s)

Time Scaling L

[

f (at)

]

= F

s a

Derivative L

[

f˙ (t)

]

= sF (s) − f (0)

n-th Derivative L

[

dn

dtn^

f (t)

]

= snF (s) −

∑n− 1

k=

sk^

dk

dtk^

f (0)

Integral L

[∫^ t

0

f (τ )dτ

]

s

F (s)

Convolution L

[

(f ∗ g)(t)

]

= F (s)G(s)

Pointwise Multiplication L

[

f (t)g(t)

]

= (F ∗ G)(s)

Final Value Theorem f (∞) = limt→∞ f (t) = lims→ 0 sF (s)

Initial Value Theorem f (0) = limt→ 0 f (t) = lims→∞ sF (s)

Table 2: Properties of Laplace transforms