Suppose (for this statement only), that q is moved from the origin but is still within both the surfaces. The flux through both
surfaces remains unchanged. True False The area vector and the E-Field vector point in the same direction for all points on the spherical surface.True False The flux through the spherical Gaussian Surface is independent of its radius.True False The Electric Flux through the spherical surface is greater than that through the cubical surface.True False The E-Field at all points on the spherical surface is equal due to spherical symmetry.True False Suppose (for this statement only), that q is moved from the origin but is still within both the surfaces. The flux through both surfaces is changed.
True The flow depends only on the charge into the surface, not on the relative position
True The two vectors are radial, so their relative direction do not changes
True It just depends on the charge inside
False, it only depends on the charge, not on the form from the integration surface
False, because if it has a load inside it can be considered in the center, but if the load is outside the flow lines change direction with respect to the surface
False The flow depends only on the load inside, not on its position
rubbing the ballon leads to it acquiring charges that are opposite to that in the wall.the electostatic forces attract the ballon to the wall and tyhe gravitational pull later acts on the ballon causing it to fall down
A :-) for this question , we should apply a = v - u by t Given - u = 4.77 m/s v = 23.5 m/s t = 5.18 m/s Solution - a = v - u by t a = 23.5 - 4.77 a = 28.27 m/s^2
