Redistribution of Charge Between Conductors - AP Physics C: Electricity and Magnetism

$C = \frac{Q}{V}$. Ratio of stored charge to potential difference.

Electrostatic repulsion. Like charges repel, forcing charges to conductor surface.

Material that resists the flow of electric charge. Bound electrons prevent free charge movement through material.

Redistribution lowers potential energy. System moves toward minimum energy configuration naturally.

Charge redistributes to equalize potential. Charge flows until both conductors reach the same potential.

Material with free electrons that allow charge flow. Electrons move freely, allowing redistribution of charge.

$F = k \frac{|q_1 q_2|}{r^2}$. Force is proportional to product of charges, inversely proportional to distance squared.

Total charge in an isolated system is constant. Charge can neither be created nor destroyed in isolation.

Charge redistributes to equalize potential. Charge flows until both conductors reach the same potential.

Work done per unit charge to move a charge from infinity. Energy per unit charge required to bring charge from infinite distance.

Zero. Free electrons rearrange to cancel any internal field.

Prevents external electric fields from affecting the interior. Conductor surface blocks field penetration into protected region.

Material that resists the flow of electric charge. Bound electrons prevent free charge movement through material.

Electrostatic repulsion. Like charges repel, forcing charges to conductor surface.

Charge redistributes to equalize surface potential. Larger conductor gets more charge but same final potential.

Redistribution lowers potential energy. System moves toward minimum energy configuration naturally.

Electric field points from positive to negative charge. Field lines originate on positive charges and terminate on negative.

Charge resides on the surface. Internal charges would create fields, violating electrostatic equilibrium.

Charge resides only on the outer surface. Interior charge would create internal field, violating equilibrium.

Redistribution of charge in a conductor by nearby charge. External charge causes charge separation without direct contact.

Concentrated at points of smallest radius curvature. Higher curvature creates stronger local electric fields.

Induces opposite charge on the nearest surface. Polarization occurs through electrostatic attraction and repulsion.

Electric flux through a closed surface to charge enclosed. Fundamental relationship between electric field and charge distribution.

$F = k \frac{|q_1 q_2|}{r^2}$. Force is proportional to product of charges, inversely proportional to distance squared.

Total charge is $2\text{C}$. Charge conservation: total equals sum of initial charges.

Zero. Free electrons rearrange to cancel any internal field.

Constant. No potential difference exists between any two internal points.

Excess charge is transferred to or from Earth. Conductor reaches zero potential by charge exchange with Earth.

Perpendicular to the surface. Tangential field components would cause charge motion.