Electric Force, Field, and Potential

Right-hand rule

Bernoulli’s equation

Left-hand rule

Pascal’s principle

It follows a circular path due to experiencing constant perpendicular force.

It follows a parabolic trajectory similar to projectile motion under gravity.

Its speed increases linearly because of continuous acceleration from the magnetic force.

It continues in straight-line motion because no net force acts on it.

Doubling $C$ reduces cutoff frequency leading less attenuation high frequencies doubling $f$ causes greater signal loss above original cutoff frequency.

Doubling $C$ leads directly doubled cutoff frequency resulting better high-frequency response without changing $f$.

Increasing both parameters results unchanged overall filtering effect since changes cancel out.

Decreasing capacitance increasing switching frequency simultaneously improves performance maintaining same level filtration.

Measuring capacitance change via LC resonance frequency shift when different dielectrics are placed between calibrated parallel plates connected in a circuit with known L value.

Recording time taken for small test charges released near positive plate surface to traverse set distance influenced by distinct dielectric media using high-speed camera analysis.

Comparing deflection angles of electron beams passing through varying dielectrics situated within homogeneous capacitor fields measured by fluorescent screen markings.

Monitoring potential difference across capacitor plates with high-resolution voltmeter as several dielectrics are swapped sequentially under constant charge conditions.

The gravitational attraction between them dominates over electrostatic repulsion.

The electrostatic repulsion between them decreases.

The electrostatic attraction between them increases.

The electrostatic repulsion between them remains unchanged.

Coulomb's torsion balance experiment

Rutherford's gold foil experiment

Millikan oil-drop experiment

Young's double-slit experiment

The reaction releases heat into its surroundings (exothermic)

Temperature automatically increases even if stated as constant initially

There's no effect; enthalpy doesn't affect reactions at constant conditions

The reaction absorbs heat from its surroundings (endothermic)

Since inversely proportional remains same regardless varying unless core saturation reached affecting permeability.

As increases proportionally increases provided stays constant given material's properties remain stable

Decreases linearly opposite direction compared keeping magnitude change uniform throughout operation range

Increases exponentially respect decreasing rapidly once reaches critical level causing nonlinearity behaviour

From positive to negative terminals

Is random and depends on the material of the conductor

From negative to positive terminals

In the same direction as electrons

When one particle has zero net charge rendering electrical interactions negligible.

When both particles carry identical positive charges but are bound by an external force.

When charges are submerged in a dielectric medium that cancels out electrostatic forces through polarization.

When one particle is much more massive than another reducing relative acceleration.