Magnetism and Electromagnetic Induction

The proton accelerates opposite to the direction of the electric field.

The proton moves at constant velocity opposite to the electric field.

The proton accelerates in the direction of the electric field.

The proton remains stationary due to its own electric field.

They increased the efficiency of data storage capacities using magnetic domains.

They facilitated communication techniques such as quantum encryption for data protection.

They have enabled the generation of extremely strong magnetic fields without significant energy loss due to resistive ohmic resistance.

They yielded breakthroughs in battery technology, permitting longer duration charge cycles.

The electrostatic theory describing interactions between charged particles.

Atomic theory explaining neutral atom behavior.

Conservation of momentum in isolated systems.

Gravitational theory describing attraction between masses.

Bohr model

Rutherford model

Quantum mechanical model

Dalton model

The motion of planets around the sun.

The relationship between current and voltage.

The behavior of light as a wave and particle.

The electric force between two charged objects.

It remains constant due to conservation of momentum.

It decreases because electrical forces do negative work.

It alternates between increasing and decreasing due to interactions between charges.

It increases as force is applied over time between charges.

The capacitance would double.

There would be no change in capacitance.

The capacitance would increase fourfold.

The capacitance would decrease by half.

It led to the discovery of the electron's charge-to-mass ratio.

It enables visualization and manipulation of variables within complex scenarios not easily replicated in physical experiments.

It was used to determine the exact value of Coulomb's constant.

It disproved earlier theories about gravitational influences on charged particles.

Electrons collide with each other before the slits, leading to a scattered pattern.

Electrons exhibit wave-like behavior and interfere to create an interference pattern.

Each electron splits in half, going through both slits simultaneously as partial particles.

Electrons demonstrate purely particle-like behavior by forming two distinct impact points on the screen behind the slits.

All scenarios produce repulsive forces only.

They have equal negative charges (-/-).

They have opposite signs (+/-).

They have equal positive charges (+/+).