electric potential difference (Q77597807)
line integral over the sum of electric field strength and the time derivative of the magnetic vector potential
Language:
(P279) (Q107715)
(Q3707379)
(Q181175)
(P460) (Q25428)
(P1343) (Q26711936)
(Q117847945)
(P1889) (Q55451)
(Q25428)
(P2534) V_{\mathrm{a} \mathrm{b}} = \int\limits_{\boldsymbol{r}_\mathrm{a} (\mathrm{C})}^{\boldsymbol{r}_\mathrm{b}} \left (\boldsymbol{E} + \frac{\partial \boldsymbol{A}}{\partial t} \right ) \cdot \mathrm{d} \boldsymbol{r}
V_{\mathrm{a} \mathrm{b}} = V_{\mathrm{a}} - V_{\mathrm{b}}
(P4020) \mathsf{L}^2 \mathsf{M} \mathsf{T}^{-3} \mathsf{I}^{-1}
(P6104) (Q8487137)
(P7235) V_{\mathrm{a} \mathrm{b}}
\boldsymbol{E}
\boldsymbol{A}
t
\boldsymbol{r}
V_{\mathrm{a}}
V_{\mathrm{b}}
\int_{\boldsymbol{c}} \boldsymbol{F} \cdot \mathrm{d}\boldsymbol{s}
(P7973) V_{\mathrm{a} \mathrm{b}}
(P8111) (Q25250)
(Q107299709)
other details
description line integral over the sum of electric field strength and the time derivative of the magnetic vector potential

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