Figure B1-2 TET Zero-dimensional simulations of DC ns-pulsed plasma jet in N2 at near atmospheric pressure: validation of the vibrational kinetics zip
Figure 9 TET Zero-dimensional simulations of DC ns-pulsed plasma jet in N2 at near atmospheric pressure: validation of the vibrational kinetics zip
Figure 7 TET Zero-dimensional simulations of DC ns-pulsed plasma jet in N2 at near atmospheric pressure: validation of the vibrational kinetics zip
Figure 6 TET Zero-dimensional simulations of DC ns-pulsed plasma jet in N2 at near atmospheric pressure: validation of the vibrational kinetics zip
Figure 5 TET Zero-dimensional simulations of DC ns-pulsed plasma jet in N2 at near atmospheric pressure: validation of the vibrational kinetics zip
Figure 4 TET Zero-dimensional simulations of DC ns-pulsed plasma jet in N2 at near atmospheric pressure: validation of the vibrational kinetics zip
Figure 3 TET Zero-dimensional simulations of DC ns-pulsed plasma jet in N2 at near atmospheric pressure: validation of the vibrational kinetics zip
Figure 2 TET Zero-dimensional simulations of DC ns-pulsed plasma jet in N2 at near atmospheric pressure: validation of the vibrational kinetics zip
Figure 10 - TKE and Vorticity profiles AEPT The role of flow field dynamics in enhancing volatile organic compound conversion in a surface dielectric barrier discharge system xlsx
Figure 9, distance and vorticities for low, up and total part of the gap AEPT The role of flow field dynamics in enhancing volatile organic compound conversion in a surface dielectric barrier discharge system .txt