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## Is electric flux the same as charge?

The electric flux passing through any closed surface area is equal to the total charge enclosed by the respectiva surface. This is generliasation of so called Gauss’s law. This says that to find the flux on the surface we simply add up the electric field at each point on the surface.

## What is the relation between electric flux and charge?

If a net charge is contained inside a closed surface, the total flux through the surface is proportional to the enclosed charge, positive if it is positive, negative if it is negative.

## Is electric flux independent of charge?

The flux crossing through a closed surfaces is independent of the location of enclosed charge.

## Is flux equal to electric field?

In electromagnetism, electric flux is the measure of the electric field through a given surface, although an electric field in itself cannot flow.

## How do you calculate electric flux?

Know the formula for electric flux.

- The Electric Flux through a surface A is equal to the dot product of the electric field and area vectors E and A.
- The dot product of two vectors is equal to the product of their respective magnitudes multiplied by the cosine of the angle between them.

## What is electric flux used for?

In electromagnetism, electric flux is the measure of flow of the electric field through a given area. Electric flux is proportional to the number of electric field lines going through a normally perpendicular surface. It is the measure of flow of electric field through the given area.

## What is electric flux and relation between electric flux and electric field?

The electric field ( ) is defined as the electric force per unit charge. The electric flux ( )is defined as the electric field times the normal area vector. In Gausses law this quantity is proportional to the amount of charge enclosed by a surface.

## What is the relationship between electric flux and electric flux density?

The electric flux density, D, is then equal to the electric flux emanating from the charge, q, divided by the area of the sphere. coulombs per square meter; where the area is perpendicular to the lines of flux. (One coulomb is equal to the magnitude of charge of 6.25 X 10^{18} electrons.)

## How does electric flux due to a point charge?

How does the electric flux due to a point charge enclosed by a spherical Gaussian surface get affected when its radius is increased? … That is, on increasing the radius of the gaussian surface, charge q remains unchanged. So, flux through the gaussian surface will not be affected when its radius is increased.

## Can the electric flux be negative?

Yes, electric flux can be a negative number. When electric lines emerge out of surface, the electric flux is positive and when those lines enter into a surface, the electric flux in negative.

## What is the amount of flux?

Flux as flow rate per unit area. In transport phenomena (heat transfer, mass transfer and fluid dynamics), flux is defined as the rate of flow of a property per unit area, which has the dimensions [quantity]·[time]^{−}^{1}·[area]^{−}^{1}. The area is of the surface the property is flowing “through” or “across”.

## Does electric flux depend on charge distribution?

Gauss’s law of electricity, which is included within the fundamental laws of electromagnetism, states that the electric flux through a closed surface with electric charge inside, just depends on the net charge enclosed in the surface and does not depend the shape or size of the surface.

## When electric flux is maximum?

The electric flux of a surface is maximum when the area vector is parallel to the direction of the electric field. The electric flux is the total number of lines of force passing through a surface.

## What is electric flux in simple words?

Electric flux is the measure of flow of the electric field through a given area. Electric flux is proportional to the number of electric field lines going through a normally perpendicular surface.

## What is the charge when a conductor is charged?

The electric field lines either begin or end upon a charge and in the case of a conductor, the charge exists solely upon its outer surface. The lines extend from this surface outward, not inward. This of course presumes that our conductor does not surround a region of space where there was another charge.