Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 11 (down_part): The electric potential from the low-Mach-number model. | INPTDAT

Primary tabs

Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 11 (down_part): The electric potential from the low-Mach-number model.

Current 600 A, gas flow rate of argon 40 NLPM.

Data Preview: Note that by default the preview only displays up to 100 records. Use the pager to flip through more records or adjust the start and end fields to display the number of records you wish to see.

Resources

Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 2: Recorded operation conditions of the plasma spray torch.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 5a: The transfer function q_c (T_w,U) .
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 5b: The transfer functions j_w,c (T_w,U).
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 6: Voltage drop in the cathode boundary layer as a function of the arc current.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 7a: Distribution of the temperature T_w on the cathode surface for arc currents of 300 A, 600 A, and 800 A.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 7b: Distribution of the normal current density j_w,c along the cathode surface.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 7c: Distribution of the electron temperature on the edge between the cathode boundary layer and the LTE plasma.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 8 (down_part): The temperature field from the low-Mach-number model.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 8 (upper_part): The temperature field from the high-Mach-number model.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 9 (down_part): The velocity field from the low-Mach-number model.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 9 (upper_part): The velocity field from the high-Mach-number model.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 10 (down_part): The current density from the low-Mach-number model.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 10 (upper_part): The current density from the high-Mach-number model.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 11 (down_part): The electric potential from the low-Mach-number model.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 11 (upper_part): The electric potential from the high-Mach-number model.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 12a: Axial distribution of the flow velocity from different models.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 12b: Axial distribution of the speed of sound from different models.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 12c: Axial distribution of the Ma number from different models.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 13: Axial distribution of density and gauge pressure from different models.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 14: Axial distribution of temperature and current density from different models.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 15: Axial distribution of electric potential and electric field from different models.
Self-consistent Cathode-Plasma Coupling and Role of the Fluid Flow Approach in Torch Modelling - Figure 16: Arc voltage values obtained in experiments and modelling.

Additional Information

Field	Value
mimetype	text/csv
filesize	3.29 MB
resource type	file upload
timestamp	Sep 21, 2021

Resource filetype	csv
Resource datatype	data table
Resource range
Resource quality	published