The statement "The amount of dielectric heating is inversely proportional to frequency" is False.

Explanation:
Dielectric heating is a process where heat is generated within a dielectric material when it is subjected to an alternating electric field. This phenomenon occurs due to the frictional losses caused by the movement of polar molecules within the dielectric material.

In dielectric heating, the amount of heat generated is directly proportional to the frequency of the applied electric field. The higher the frequency, the greater the amount of heat generated. This can be explained by the following factors:

1. Energy Dissipation:
- At higher frequencies, the electric field alternates more rapidly, causing greater energy dissipation within the dielectric material.
- The polar molecules within the dielectric material experience rapid changes in the direction of the electric field, leading to increased molecular friction and energy dissipation in the form of heat.

2. Dipole Alignment:
- At higher frequencies, the polar molecules within the dielectric material have less time to align themselves with the alternating electric field.
- This results in increased molecular motion and collisions, leading to greater energy dissipation and heat generation.

3. Dielectric Loss Tangent:
- The dielectric loss tangent is a parameter that quantifies the dielectric losses in a material.
- It is directly proportional to the frequency of the applied electric field.
- Therefore, as the frequency increases, the dielectric loss tangent increases, indicating higher dielectric losses and heat generation.

Contrary to the given statement, the amount of dielectric heating is directly proportional to the frequency of the applied electric field. Higher frequencies result in greater energy dissipation, increased molecular motion, and higher dielectric losses, leading to more significant heat generation within the dielectric material.