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. | INPTDAT

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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.

The predicted voltage drop in the cathode boundary layer for current between 100 and 800 A.

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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	114 bytes
resource type	file upload
timestamp	Sep 21, 2021

Resource filetype	csv
Resource datatype	data table
Resource range	The electric current is in the range (100-800) A.
Resource quality	published