Radio-frequency heating is the most commonly used method for generating industrial plasmas due to its ability to efficiently transfer energy to the plasma and its scalability to large volumes.

Nuclear fusion is not a common application of industrial plasmas as it requires extremely high temperatures and pressures that are not typically encountered in industrial settings.

Plasmas offer a combination of high precision and control, low temperature processing, and rapid processing speeds, making them ideal for surface modification applications.

Oxygen plasma is commonly used for plasma cutting due to its ability to produce a clean and precise cut with minimal heat-affected zone.

Chemical vapor deposition is the primary mechanism used for depositing thin films using plasmas. In this process, a precursor gas is introduced into the plasma, and the plasma species react with the gas to form the desired thin film.

Arc plasma reactors are not commonly used in industrial applications due to their high energy consumption and the difficulty in controlling the plasma.

Plasmas offer a combination of high efficiency and effectiveness, low energy consumption, and environmental friendliness, making them an attractive option for waste treatment.

Plasma doping is not a common application of plasmas in the semiconductor industry as it is typically performed using ion implantation or diffusion techniques.

In an inductively coupled plasma reactor, radio-frequency energy is applied to an induction coil, which generates a magnetic field. This magnetic field induces electric currents in the plasma, which heat the plasma and sustain it.

Radio-frequency plasma torches are not commonly used in industrial applications due to their low power density and the difficulty in generating a stable plasma.

Plasmas offer a combination of high efficiency and energy savings, long lifespan, and environmental friendliness, making them an attractive option for lighting applications.

Field emission displays are not a type of plasma display panel as they do not use plasma to generate light.

In a capacitively coupled plasma reactor, radio-frequency energy is applied to a pair of electrodes, which generates an electric field. This electric field accelerates electrons in the plasma, which collide with other particles and generate more electrons and ions, sustaining the plasma.

Plasma polishing is not a common application of plasmas in the automotive industry as it is typically performed using mechanical or chemical polishing techniques.

Plasmas offer a combination of precise and minimally invasive procedures, reduced risk of infection, and faster healing times, making them an attractive option for medical applications.