Note: For each of the indefinite integrals, an arbitrary constant may be added to the result.
(E.20)
(E.21)
(E.22)
(E.23)
(E.24)
(E.25)
(E.26)
(E.27)
(E.28)
(E.29)
(E.30)
(E.31)
(E.32)
(E.33)
(E.34)
(E.35)
(E.36)
(E.37)
(E.38)
(E.39)
(E.40)
(E.41)
(E.42)
(E.43)
(E.44)
(E.45)
Signal (Time Domain) | Transform (Frequency Domain) |
rect(t/t0) | t0 sinc(ft0 ) |
tri(t/t0 ) | t0 sinc2 (ft0 ) |
sinc(t/t0 ) | t0 rect(ft0 ) |
sinc2(t/t0 ) | t0 tri(ft0 ) |
exp(j2πfo t) | δ(f – fo) |
cos(2πfo t + θ) | |
δ(t – to) | exp(−j2πfto) |
sgn(t) | |
u(t) | |
exp(−(t/t0 )2) |
Signal | Transform | Region of Convergence |
δ[n] | 1 | All z |
u[n] | |z| > 1 | |
nu[n] | |z| > 1 | |
n2 u[n] | |z| > 1 | |
n3 u[n] | |z| > 1 | |
bnu[n] | |z| > |b| | |
nbnu[n] | |z| > |b| | |
n2bnu[n] | |z| > |b| | |
bncos[Ωon]u[n] | |z| > |b| | |
bn sin[Ωon]u[n] | |z| > |b| | |
|z| > 1 | ||
|z| > |b| | ||
exp(bz_1) | All z |
Function | Transform | Region of Convergence |
u(t) | 1/s | Re[s]>0 |
exp(−bt)u(t) | Re[s]>-b | |
sin (bt)u(t) | Re[s] >0 | |
cos(bt)u(t) | Re[s] >0 | |
e− at sin(bt)u(t) | Rs[s] >-a | |
e− at cos(bt)u(t) | Rs[s] >-a | |
δ(t) | 1 | All s |
s | All s | |
tnu(t), n > 0 | Re[s] >0 | |
tne−btu(t), n ≥ 0 | Re[s] >-b |
The following table lists values of the function Q(x) for 0 ≤ x ≤ 4 in increments of 0.05. To find the appropriate value of x, add the value at the beginning of the row to the value at the top of the column. For example, to find Q (1.75), find the entry from the column headed by 1.00 and the row headed by 0.75 to get Q (1.75) = 0.04005916.