Abstract Recently, many different plasma sources are being investigated for exhaust gases treatment, odor abatement, VOC removal, soil conditioning, surface decontamination or tissue disinfection and sterilization. Among many different plasma reactors investigated in laboratories, gliding arc discharges (GAD), dielectric barrier discharges (DBD), pulsed discharges (PD), atmospheric pressure glow discharges (APGD) and atmospheric pressure plasma jets (APPJ) seem to be the most promising for high pressure low temperature applications. They can be designed as multi-electrodes’ high power system that can be used in environment protection processes, like decontamination of large surfaces and treatment of large volume of polluted gases, as well as small size and low power devices for biomedical applications, like plasma healing, disinfection and sterilization. Paper presents review of power supply systems for cold plasma reactors. Dielectric Barrier Discharge (DBD), Gliding Arc Discharge (GAD) and atmospheric pressure plasma jet (APPJ) reactors with their supply systems have been discussed from the point view of their characteristics, possibility to control power to the discharge and efficiency. Taking into account the plasma reactor characteristics and nature (nonlinear resistive and/or capacitive) different solutions of power suppliers have been presented: transformer type, AC/DC/AC inverter, RF-frequency system and frequency resonant inverter.
[1]
L. Huber,et al.
Corona Discharge Surface Treater Without High Voltage Transformer
,
2008,
IEEE Transactions on Power Electronics.
[2]
Gon-Ho Kim,et al.
Capacitance Between an Atmospheric Discharge Plasma and the Dielectric Electrode in the Parallel Cell Reactor
,
2006
.
[3]
M. Wertheimer,et al.
Plasma Processes and Polymers: D'AGOSTINO:PLASMA PROCESS O-BK
,
2005
.
[4]
Vijit Kinnares,et al.
Circuit Analysis and Modeling of a Phase-Shifted Pulsewidth modulation Full-Bridge-Inverter-Fed Ozone Generator With Constant Applied Electrode Voltage
,
2010,
IEEE Transactions on Power Electronics.
[5]
Henryka Danuta Stryczewska.
Technologie plazmowe w energetyce i inżynierii środowiska
,
2009
.