Quantum, Atomic, and Nuclear Physics

Diffusion

Conduction

Radiation

Convection

It enabled the development of powerful magnets for use in particle accelerators and MRI machines.

It led to the invention of optical fibers used to test theories about light quantization.

It allowed for more precise digital thermometers necessary for temperature-dependent quantum experiments.

It resulted in efficient electrical grids that improved power supply stability for large-scale physics experiments.

Farad

Weber

Henry

Tesla

Increase the mass of the small test masses to enhance the gravitational interaction.

Decrease the torsion coefficient of the suspending fiber to increase its sensitivity to force changes.

Use larger fixed masses to amplify measurable deflections on a scale.

Increase the distance between the large fixed masses and the small test masses to reduce local gravitational influences.

Celsius

Fahrenheit

Calorie

Kelvin

Neglecting minor perturbations due to solar radiation pressure on satellites' surfaces.

Assuming circular orbits despite slight eccentricities present in actual satellite trajectories.

Taking into account the non-uniform density of Earth causing variations in gravitational field strength.

Ignoring air resistance for satellites placed in very low Earth orbits (VLEO).

Use uncharged entangled pairs to see if there is an induction of Coulomb forces through their connection.

Test single-charged particles' spin states while applying a constant electromagnetic field across them.

Arrange pairs of charged entangled particles at variable distances and measure force changes upon altering one's state.

Position non-entangled charged particles at fixed distances and record force variations over time.

Observe electron capture frequency from outer shells as additional protons are introduced into neutral atoms.

Record beta-decay rates from isotopes that vary by neutron number but maintain constant proton count.

Utilize scattering experiments observing deflection angles of alpha particles from nuclei with increasing proton number.

Measure binding energies from nuclear fusion reactions involving nuclei with differing numbers of protons.

Gravitational forces are inversely proportional to distance squared but electromagnetic forces are not.

Electromagnetic interactions occur instantaneously over any distance whereas gravitational ones take time to propagate.

Electromagnetic interactions only occur between particles with mass, unlike gravitational interactions.

Gravitational interactions are always attractive while electromagnetic interactions can be attractive or repulsive.

Energy level spacings decrease slightly following classical electrostatics principles.

Energy levels remain unchanged as quantum mechanics principles are unaffected by force changes.

Energy levels become more widely spaced due to increased electron-proton attraction.

Energy levels converge because protons repel electrons more strongly.