No. The strength of the electric field remains unchanged regardless of your proximity. However, the effects of the electric field on you are more pronounced as you move closer to it.
No, the strength of an electric field increases as you get closer to a charged object. The electric field is strongest closest to the charged object and decreases as you move farther away.
Electric field lines extend around a charged object. These lines represent the direction in which a positive test charge would move if placed in the vicinity of the charged object. The electric field is strongest closer to the charged object and gets weaker as you move further away.
The electric field strength decreases with distance from a point charge following an inverse square law. So at a distance of 2m from the point charge, the electric field strength will be weaker compared to when closer to the charge.
The electric field around a sphere is directly related to the charge distribution on the surface of the sphere. The electric field is stronger closer to the surface of the sphere and weaker further away, following the inverse square law.
The presence of a charged wire creates an electric field in its surrounding environment. The electric field is stronger closer to the wire and weaker farther away. The direction of the electric field lines depends on the charge of the wire.
No. It can exert a much weaker force on neutral objects, due to an induced separation of charges - that is, the charged object will cause a separation of charges in the uncharged object, thus creating an electric dipole.
The electric field is strongest close to the source charge and weakens with distance from the source. It is weaker in regions with insulating materials compared to regions with conducting materials. Additionally, the electric field is weaker inside a conductor compared to outside the conductor due to charge redistribution.
An object have greater gravitational pull closer from earth. As we get farther from earth, the gravitational pull becomes weaker. That is why objects sufficiently away from the earth do not fall on it.
An electric field gets stronger the closer you get to a charge exerting that field. Distance and field strength are inversely proportional. When distance is increased, field strength decreases. The opposite is true as well. Additionally, field strength varies as the inverse square of the distance between the charge and the observer. Double the distance and you will find that there is 1/22 or 1/4th the electric field strength as there was at the start of your experiment.
The electric field lines around a point charge extend outward in all directions, forming a pattern that radiates away from the charge. These field lines interact with their surroundings by influencing the direction and strength of the electric field at any given point in space. The density of the field lines indicates the strength of the electric field, with closer lines representing a stronger field and farther lines representing a weaker field.
The volume charge density of an electric dipole affects the overall electric field distribution by influencing the strength and direction of the electric field lines around the dipole. A higher volume charge density results in a stronger electric field, while a lower volume charge density results in a weaker electric field. The distribution of the electric field lines is also influenced by the orientation and separation of the charges in the dipole.
The strength of an electric field decreases with distance. As you move farther away from a charged object, the electric field intensity becomes weaker. This relationship follows an inverse square law, meaning that the electric field strength is inversely proportional to the square of the distance from the charged object.