Device and method suitable for detecting cavitation resistance of surface material of flow passage component of hydraulic machinery
A technology of surface material and overcurrent components, applied in the field of surface strengthening and remanufacturing coating inspection, can solve the problems of consistent horn, high construction cost, inability to carry out cavitation, etc., to reduce cost increase, reduce material waste, Effects of rich conditions
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Embodiment 1
[0056] (1) Prepare coating samples by arc spraying, plasma spraying, supersonic flame spraying, explosive spraying, cold spraying, laser cladding and other thermal spraying techniques.
[0057] (2) Cut the prepared thermal spray coating sample into Thickness 4±0.1mm sample. Weigh 5 times to find the average value. Measure the porosity 5 times and calculate the average value. Measuring optical profile topography
[0058] (3) The coated side faces upwards and placed flat in the groove of the sample stage.
[0059] (4) Set cavitation frequency: working 2S, intermittent 2S, power 2KW, time 10h.
[0060] (5) Wash and weigh, and weigh 5 times to obtain the average value. Measure the porosity 5 times and calculate the average value. Measuring optical profile topography.
[0061] (6) Calculate the coating mass loss rate and coating porosity difference. Contrast contour shape changes.
[0062] (7) The surface morphology of the sample after erosion was measured by SEM, and the...
Embodiment 2
[0064] (1) Prepare coating samples by arc spraying, plasma spraying, supersonic flame spraying, explosive spraying, cold spraying, laser cladding and other thermal spraying techniques.
[0065] (2) Cut the prepared thermal spray coating sample into Thickness 4±0.1mm sample. Weigh 5 times to find the average value. Measure the porosity 5 times and calculate the average value. Measuring optical profile topography
[0066] (3) The coated side faces upwards and placed flat in the groove of the sample stage.
[0067] (4) Set cavitation frequency: working 1S, intermittent 1S, power 2KW, time 10h.
[0068] (5) Wash and weigh, and weigh 5 times to obtain the average value. Measure the porosity 5 times and calculate the average value. Measuring optical profile topography.
[0069] (6) Calculate the coating mass loss rate and coating porosity difference. Contrast contour shape changes.
[0070] (7) The surface morphology of the sample after cavitation was measured by SEM, and ...
Embodiment 3
[0072] (1) Prepare coating samples by arc spraying, plasma spraying, supersonic flame spraying, explosive spraying, cold spraying, laser cladding and other thermal spraying techniques.
[0073] (2) Cut the prepared thermal spray coating sample into Thickness 4±0.1mm sample. Weigh 5 times to find the average value. Measure the porosity 5 times and calculate the average value. Measuring optical profile topography
[0074] (3) The coated side faces upwards and placed flat in the groove of the sample stage.
[0075] (4) Set cavitation frequency: working 2S, intermittent 2S, power 3KW, time 20h.
[0076] (5) Wash and weigh, and weigh 5 times to obtain the average value. Measure the porosity 5 times and calculate the average value. Measuring optical profile topography.
[0077] (6) Calculate the coating mass loss rate and coating porosity difference. Contrast contour shape changes.
[0078] (7) Measure the surface morphology of the sample after cavitation by SEM, and obtai...
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