Main focus is on power deposition in samples which is of course affected by flux shape.
The first ensures constant power deposition from RF excitation as the evolution period is incremented.
The performance test under high power deposition was carried in the electron beam facility JUDITH.
The power deposition is a combination of parallel convection and cross-field transport of similar magnitudes.
The variation of RF power, deposition pressure and substrate bias voltage have been studied.
The dependence of the structure and micro-hardness on MF power was interpreted by the power deposition efficiency.
Improvements on power deposition, geometry and cooling are proposed, to be integrated in a new load design.
Earlier we reported on the existence of narrow power deposition profiles in JET, obtained mainly from Langmuir probe measurements.
Momentum, energy, and power deposition are found to be proportional to second, third and fourth power exponents, respectively.
The transformer model captures the effect of the matching circuit utilized in laboratory experiments for RF power deposition.
Short pulses with fast rise time terminate discharge development right after ignition, thus significantly decreasing the ion heating power deposition in the vicinity of the electrodes.
