Plasma-kg

addresses

• How does the safety and efficiency of the innovative plasma jet array system (PJAS) compare to established medical plasma jets like the kINPen® MED? 
• What is the cause of the two-step observation in the effluent temperature profile of the PJAS? 

conductedBy

• Balazinski, Martina  Person
• Gerling, Torsten   Person
• Glitsch, Sven  Person
• Hahn, Veronika  Person
• Horn, Stefan  Person
• Lüttjohann, Paul  Person
• Timm, Michael  Person
• Turski, Philipp  Person
• Wagner, Robert  Person
• Weltmann, Klaus-Dieter   Person
• von Woedtke, Thomas  Person

hasMedium

• Ar  Medium
• ambient air  Medium

hasOutput

• Safety and efficiency evaluation of an innovative plasma jet array in argon by gas switching technology  Dataset

hasPlasmaSource

• Plasma Jet Array System (PJAS) Device I  Plasma Source
• Plasma Jet Array System (PJAS) Device II  Plasma Source
• kINPen-MED  Plasma Source

hasTarget

• chronic wounds  Target
• conductive metal mesh  Target
• copper plate  Target
• counter electrode  Target
• dielectric plate  Target
• dielectric surface  Target
• grounded metallic mesh  Target
• non-healing wounds  Target
• quartz plate  Target

hasTopic

• Safety and efficiency evaluation  Research Topic
• Wound healing  Research Topic
• antibacterial  Research Topic
• biomedical applications  Application Field
• treating chronic wounds  Research Topic

investigates

• UV absorption 
• free jet expansion 
• gas flow 
• leakage current 
• optical emission 

involves

• chronic wounds  Target
• cold atmospheric plasma (CAP)  Plasma
• dielectric plate  Target
• grounded metallic mesh  Target
• non-healing wounds  Target
• plasma effluent  Plasma
• quartz plate  Target

usesConfiguration

• Configuration for PJAS I-1: Device I (homemade integrated circuit, 66 V DC from base unit); Valve Setting 1 (8 ms flushing per channel, 8.2-8.3 ms programming delay); Frequency ~1 MHz; Voltage 3-6 kV ptp; Pressure 1 atm; Argon pre-pressure 5 bar; Argon flow rate 2.5 slm or 5 slm 
• Configuration for PJAS I-2: Device I (homemade integrated circuit, 66 V DC from base unit); Valve Setting 2 (30 ms valve opening, 2 ms delay); Frequency ~1 MHz; Voltage 3-6 kV ptp; Pressure 1 atm; Argon pre-pressure 5 bar; Argon flow rate 2.5 slm or 5 slm 
• Configuration for PJAS II-2: Device II (homemade discrete circuitry, 60 V DC from base unit); Valve Setting 2 (30 ms valve opening, 2 ms delay); Frequency ~1 MHz; Voltage 3-6 kV ptp; Pressure 1 atm; Argon pre-pressure 5 bar; Argon flow rate 2.5 slm or 5 slm 
• Configuration for kINPen® MED: Frequency ~1 MHz; Voltage 3-6 kV ptp; Pressure 1 atm; Argon pre-pressure 5 bar; Argon flow rate 2.5 slm or 5 slm 

usesDevice

• APNA-370, Horiba  Diagnostic Device
• APOA-360, Horiba  Diagnostic Device
• AvaSpec 3648, Avantes  Diagnostic Device
• F-201 CM with E-8412-A-10, Bronkhorst  Diagnostic Device
• MTS50/M-Z8 with TSC 001 motor control, Thorlabs  Diagnostic Device
• TS5, Weidmann  Diagnostic Device
• UNIMET 800ST, Bender  Diagnostic Device
• base unit  Device
• linear stages  Device
• motorized stages  Device

usesMaterialEntity

• dielectric plate  Target
• dielectric surface  Target
• grounded metallic mesh  Target
• quartz plate  Target

usesMethod

• Fiber optic temperature (FOT) analysis  Diagnostic Method
• Flow switching technology  Method
• Gas switching technology  Method
• Optical Emission Spectroscopy (OES)  Diagnostic Method
• Ozone and nitrogen dioxide density measurement  Diagnostic Method
• Patient leakage current (PLC) measurement  Diagnostic Method
• UV absorption spectroscopy  Diagnostic Method