Fig. 10 (b) Self-Organizing Sub-μm Surface Structures Stimulated by Microplasma Generated Reactive Species and Short-Pulsed Laser Irradiation png
Fig. 6 (b): O density distribution surface 1D Self-Organizing Sub-μm Surface Structures Stimulated by Microplasma Generated Reactive Species and Short-Pulsed Laser Irradiation xlsx
Fig. 6 (a): 2D O distribution surface Self-Organizing Sub-μm Surface Structures Stimulated by Microplasma Generated Reactive Species and Short-Pulsed Laser Irradiation txt
Fig. 5: O density flow var Self-Organizing Sub-μm Surface Structures Stimulated by Microplasma Generated Reactive Species and Short-Pulsed Laser Irradiation Fig. 5: O density flow var
Fig. 12: CuLMM Vergleich Self-Organizing Sub-μm Surface Structures Stimulated by Microplasma Generated Reactive Species and Short-Pulsed Laser Irradiation xlsx
Fig. 10 (a) Self-Organizing Sub-μm Surface Structures Stimulated by Microplasma Generated Reactive Species and Short-Pulsed Laser Irradiation jpeg
Fig. 13: Cu oxide conc block Self-Organizing Sub-μm Surface Structures Stimulated by Microplasma Generated Reactive Species and Short-Pulsed Laser Irradiation xlsx
Fig. 7: plids diameter Self-Organizing Sub-μm Surface Structures Stimulated by Microplasma Generated Reactive Species and Short-Pulsed Laser Irradiation xlsx
Fig. 3: 2D O distribution Self-Organizing Sub-μm Surface Structures Stimulated by Microplasma Generated Reactive Species and Short-Pulsed Laser Irradiation txt
Output data AEPT Concentration profiles of OH and H2O2 in plasma-treated water: influence of power, gas mixture and treatment distance zip