Electric Force, Field, and Potential

The gravitational potential energy increases.

The gravitational potential energy decreases.

There isn't enough information to determine a change in gravitational potential energy.

The gravitational potential energy remains unchanged.

The current decreases by half.

The current increases by four times.

The current remains unchanged.

There is not enough information to determine the change in current.

Theory Of Relativity

Thermodynamics

Classical Mechanics

Quantum Field Theory

It halves.

It decreases by a factor of four.

It increases by a factor of four.

It doubles.

There is no change in either internal energy or work done by the gas.

The internal energy of the gas increases while doing work on its surroundings.

The gas does work on its surroundings while its internal energy remains constant.

The gas absorbs heat without doing any work on its surroundings.

From the lower-temperature object to the higher-temperature object until thermal equilibrium is reached.

From the higher-temperature object to the lower-temperature object until thermal equilibrium is reached.

Equally from both objects regardless of their initial temperatures.

Energy does not flow in isolated systems.

Their larger mass leads to shorter de Broglie wavelengths making quantum effects harder to detect.

Quantum effects are independent of mass, rendering element weight irrelevant.

Heavier elements absorb more energy before showing quantum mechanical behavior.

Lighter elements have lower gravitational attraction affecting their quantum states.

Positive or negative charges can create either attractive or repulsive forces within electric fields while gravity is always attractive.

Inaccurate.

Inaccurate.

Inaccurate.

F = k * (Q1 * Q2 / r^2

P = I * V

F = m * a

F_b = q * (v X b)

The pull between the Earth and the Moon.

The strong interaction within an atomic nucleus.

A ball rolling down a hill due to gravity.

The attraction between opposite charges.