CÁLCULO GRACELI SINTÉTICO [101]

G [f] t } G [s] = $P^{\mu }\!$ $\int _{s}^{\infty }F(\sigma )\,d\sigma \$ ] / PW] / $\zeta (s)$

G [f] t } G [s] = $P^{\mu }\!$ $\int _{s}^{\infty }F(\sigma )\,d\sigma \$ ] / PW] / $\Gamma (z)$

G [f] t } G [s] = $P^{\mu }\!$ $\int _{s}^{\infty }F(\sigma )\,d\sigma \$ ] / PW] / $B_{1}=-{\frac {1}{2}}.$

G [f] t } G [s] = $P^{\mu }\!$ $\int _{s}^{\infty }F(\sigma )\,d\sigma \$ ] / PW] / δ(x)

P = PROGRESSÃO.

W = VARIÁVEL COMPLEXA.

G [f] = / PW] / $\zeta (s)$ DX

G [f] t } = / PW] / $\Gamma (z)$ DX

G [f] t } =/ PW] / $B_{1}=-{\frac {1}{2}}.$ DX

G [f] t } = / PW] / δ(x) DX

G [f] t } G [s] = $P^{\mu }\!$ $\int _{s}^{\infty }F(\sigma )\,d\sigma \$ ] $i\omega e^{i\omega t}$ / PW] / $\zeta (s)$

G [f] t } G [s] = $P^{\mu }\!$ $\int _{s}^{\infty }F(\sigma )\,d\sigma \$ ] $i\omega e^{i\omega t}$ / PW] / $\Gamma (z)$

G [f] t } G [s] = $P^{\mu }\!$ $\int _{s}^{\infty }F(\sigma )\,d\sigma \$ ] $i\omega e^{i\omega t}$ / PW] / $B_{1}=-{\frac {1}{2}}.$

G [f] t } G [s] = $P^{\mu }\!$ $\int _{s}^{\infty }F(\sigma )\,d\sigma \$ ] $i\omega e^{i\omega t}$ / PW] / δ(x)

P = PROGRESSÃO.

W = VARIÁVEL COMPLEXA.

G [f] = / PW] $i\omega e^{i\omega t}$ / $\zeta (s)$ DX

G [f] t } = / PW] $i\omega e^{i\omega t}$ / $\Gamma (z)$ DX

G [f] t } = $i\omega e^{i\omega t}$ / PW] / $B_{1}=-{\frac {1}{2}}.$ DX

G [f] t } = $i\omega e^{i\omega t}$ / PW] / δ(x) DX