Lets consider that we have to calculate electric flux of a charge "q" placed inside a spherical body since flux is calculated for a flat body so in order to convert sphere into flat body we will devide the whole sphere into small patches with area ∆A1,
∆A2, ∆A3, ∆A4----------∆An. There corresponding vector areas are parallel to electric
field intensity or perpendicular to the surface area as shown in the fig
Showing posts with label electric flux. Show all posts
Showing posts with label electric flux. Show all posts
Wednesday, 28 May 2014
ELECTRIC FLUX THROUGH SURFACE ENCLOSING CHARGE
Lets consider that we have to calculate electric flux of a charge "q" placed inside a spherical body since flux is calculated for a flat body so in order to convert sphere into flat body we will devide the whole sphere into small patches with area ∆A1,
∆A2, ∆A3, ∆A4----------∆An. There corresponding vector areas are parallel to electric
field intensity or perpendicular to the surface area as shown in the figSunday, 25 May 2014
ELECTRIC FLUX
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