Fluids

Velocity

Density (for an ideal incompressible fluid)

Temperature

Pressure

Parabolic trajectory due to constant acceleration.

Straight line as the magnetic field has no effect.

Circular path due to the Lorentz force.

Helical path with increasing radius over time.

Radiant energy from muscle exertion is absorbed by the object's surface.

No work or heat exchange since there’s no displacement or temperature change.

Heat is generated due to friction between surfaces in contact.

Work is done on the object converting mechanical to thermal energy.

It remains constant since mass cannot be created or destroyed.

INCORRECTORGUNITCT answers are NOT outside related directlyto those that are plausible and relevant could appear on an exam; they also contain only information that would be known by someone familiar enough with physics principles at this level – avoiding any advanced associations beyond scope/AP curriculum guidelines.

The internal energy of the system remains unchanged

The internal energy alternates between increasing and decreasing

The internal energy of the system decreases

The internal energy of the system increases

Resistance stays the same because adding more paths does not change individual resistors' values; however, power dissipation goes up thanks to added contributions from each new path even though they each individually follow $P = IV$ rule where $I$=current & $V$=voltage drop across given resistor path).

Overall resistance decreases while total power dissipation increases due to more pathways for current flow and increased total current through parallel resistors respectively.

Both overall resistance and power dissipation decrease since each individual resistor dissipates less power when others share carrying some portion of total current load $(P=I^2R)$.

Overall resistance increases but power dissipation decreases due to splitting voltage between resistors evenly reducing effective voltage drop per resistor leading to reduced power per Ohm's law $P = \frac{V^2}{R}$.

Velocity decreases and pressure decreases.

Velocity decreases and pressure increases.

Velocity increases and pressure remains unchanged.

Velocity remains unchanged and pressure increases.

An interference pattern on a detector screen.

A curved path in a uniform electric field perpendicular to its velocity.

A decrease in speed due to frictional forces.

A trajectory consistent with classical projectile motion.

The velocity increases.

The velocity decreases.

The velocity remains unchanged.

The velocity fluctuates randomly.

Lower than the sum due to the fact that one acts as a bottleneck, limiting the charge that can be stored by the other.

Greater simply by combining the storing capacities, hence an additive relationship.

Equal to the average of the two amounts, considering the balance of charge distribution between them during the simultaneous charging process.

Smaller than either $C_1$ or $C_2$ because the series connection causes the reciprocals to add, giving a lower overall value.