The speed of sound in a gas increases with an increase in temperature.

Increasing the temperature increases the average kinetic energy of gas molecules, which in turn increases their average speed.

For most liquids, increasing the temperature decreases the density as the liquid expands.

Increasing the temperature increases the average kinetic energy of the molecules, resulting in a wider distribution of molecular speeds.

Generally, as temperature increases, the refractive index of a medium decreases due to reduced density.

Increasing the temperature of a conductor generally increases its resistance due to increased atomic vibrations.

Increasing the temperature generally increases the resistance of the potentiometer wire due to the increased vibrations of the atoms in the conductor.

Increasing the temperature increases the RMS speed, as v_rms is proportional to the square root of temperature.

Increasing the temperature of a gas increases the average kinetic energy of the molecules, which in turn increases their speed.

Increasing the tension in a string increases the speed of the wave, as speed is proportional to the square root of tension.

Increasing the tension in a string increases the speed of the wave traveling through it, as speed is proportional to the square root of tension.

Increasing the transmission power generally increases the range of the communication system.

Increasing the wavelength decreases the frequency, which may fall below the threshold frequency, thus decreasing or stopping the current.

Increasing the wavelength decreases the frequency of the incident light, which can lead to fewer or no electrons being emitted if the frequency falls below the threshold frequency.

Increasing the wavelength of light increases the fringe spacing in a diffraction grating experiment.

Increasing the wavelength of light increases the fringe spacing in a diffraction pattern.

Increasing the wavelength increases the fringe separation, as it is directly proportional to the wavelength.

Increasing the wavelength (λ) increases the fringe width (β), as β is directly proportional to λ.

Fringe separation is directly proportional to the wavelength; increasing the wavelength increases the fringe separation.

Increasing the wavelength results in a broader diffraction pattern due to increased spreading of the waves.

Fringe separation β = λD/d. Increasing λ increases β, hence fringe separation increases.

Increasing the wavelength (λ) increases the fringe separation (β), as β is directly proportional to λ.

Increasing the wavelength results in wider fringes in the diffraction pattern, as the angular width of the central maximum increases.

Increasing the wavelength results in wider fringes in the diffraction pattern, as fringe width is directly proportional to the wavelength.

Increasing the work function means that a higher frequency of light is required to emit electrons, resulting in fewer electrons being emitted for a given frequency of light.

Inserting a dielectric material increases the capacitance of the capacitor by a factor equal to the dielectric constant of the material.

The viscosity of gases increases with an increase in pressure.

For most liquids, increasing pressure tends to increase viscosity, although the effect is generally small.

As the polarizer is rotated, the intensity of the transmitted light varies according to Malus's law, decreasing as the angle increases.

As the polarizer is rotated, the intensity of the transmitted light varies according to the cosine square of the angle between the light's polarization direction and the polarizer's axis.