An example of the atmospheric hollow cathode plasma application for the NOx conversion is given.
Experimental results on the atmospheric hollow cathode plasma generation and performance, using a special configuration with tunable wall separations, are presented.
Indeed, simulating the behavior of an atmospheric mono-cathode plasma spray torch used in the APS process requires a global approach which considers those interrelated nonlinear relationships together with those related to the coating structural characteristics, its properties in-service and the operating process parameters (e.g., power, feedstock injection and kinematics).
The analytical characteristics of a capillary design of the electrolyte cathode atmospheric glow discharge (ELCAD), operated with a W-rod anode at a discharge current of 70 mA and a discharge voltage of 950 V, were exploited through spatially resolved atomic absorption spectrometry (AAS) experiments.
hollow cathode at atmospheric pressure was tested for neon, argon, nitrogen and air.
Experimental results coming from a commercial PEM fuel cell module that uses hydrogen from a pressurized cylinder at the anode and atmospheric oxygen at the cathode, clearly verify the simulation results.
Hydrogen and oxygen streams were supplied to the anode and cathode at atmospheric pressures, respectively.
The recently introduced three-cathode TriplexPro™-200 atmospheric plasma spray gun was tested with yttria-stabilized zirconia.
The development of air-breathing cathodes, which utilise atmospheric oxygen, enables the construction of lightweight, high energy density metal-air batteries and fuel cells.
Generation of the cold atmospheric plasma in single cylindrical hollow cathodes and in structures forming Fused Hollow Cathode (FHC) is described and discussed in more detail.
The Fused Hollow Cathode noble gas cold atmospheric plasma was applied to low-temperature surface treatments of plastics, metals and semiconductors.
