1. Calculate the individual electric force vectors between the charge of interest and each of the other charges using Coulomb's Law. 2. Resolve each force vector into x and y components. 3. Calculate the net force in the x-direction (Fx_net) and y-direction (Fy_net) by summing the respective components. 4. Find the magnitude of the net force using the Pythagorean theorem: $F_{net} = \sqrt{F_{x_{net}}^2 + F_{y_{net}}^2}$. 5. Use trigonometry to find the direction of the net force.

The object gains extra electrons.

The object loses electrons, resulting in more protons than electrons.

An object becomes negatively charged by gaining extra electrons.

An object becomes positively charged by losing electrons, resulting in more protons than electrons.

1. Resolve forces into x and y components. 2. Find the net force in the x-direction (Fx_net) and y-direction (Fy_net). 3. Use the Pythagorean theorem to find the magnitude of the net force: F_net = sqrt(Fx_net^2 + Fy_net^2). 4. Use trigonometry to find the direction of the net force.

A fundamental property of matter that can be positive (protons) or negative (electrons).

The smallest unit of charge, equal to the magnitude of the charge of a single electron or proton (1.602 x 10^-19 C).

Separation of charge within an object, creating partial positive and negative ends, even if the overall charge is neutral.

A charged particle where charge is concentrated at a single point.

Describes the force between two charged particles; attractive for unlike charges and repulsive for like charges.

The net force on a charge due to multiple other charges is the vector sum of the individual forces.