A terminal powder real-time drying device and method
A drying device and powder technology, applied in heating devices, drying solid materials, heating to dry solid materials, etc., can solve the problems of unsatisfactory quality and cost of high-precision laser cladding, high maintenance cost of closed environment, etc. The effect of working environment requirements, reducing temperature difference, and fully absorbing
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Embodiment 1
[0029] Experimental process parameters: the pressure inside the heating tube cavity and the filter tube is 0.1MPa, and the powder feeding speed at the nozzle is 0.24cm 3 / min, cladding powder is IN718. The major diameter d1 of the external thread on the right side of the heater is 30mm, the depth d2 is 50mm, and the depth d3 of the filter element in the filter is 30cm. First, power off the coil and remove the filter element for powder feeding, take an appropriate amount of sprayed powder sample and put it into the powder moisture tester for testing; then turn on the coil, place the filter element in the filter tube, and carry out powder feeding sampling under the same process parameters, put into the powder moisture tester for testing. After inspection, the moisture content of the power-off and removal of the filter element is about 2-3%, and the moisture content of the powder after the power-on and filter element is about 0.2%, and the moisture reduction rate is as high as 9...
Embodiment 2
[0031] Experimental process parameters: laser power 1500W, pressure inside the heating tube cavity and filter tube 0.1MPa, powder feeding speed at the nozzle is 0.24cm 3 / min, scanning speed 250mm / min, cladding base material is IN718, cladding powder is IN718+30%WC. The major diameter d1 of the external thread on the right side of the heater is 30mm, the depth d2 is 50mm, and the depth d3 of the filter element in the filter is 30cm. First, power off the coil and remove the filter element to feed powder, and scan 10cm in a single channel; then power on the coil, place the filter element in the filter tube, and scan 10cm in a single channel under the same process parameters. Afterwards, the samples were cut and tested by XRD to observe the porosity. It was observed that the number of air bubbles in the cross-section of the sample obtained by turning off the coil and removing the filter element for powder feeding was 12. After the power was turned on and the filter element was a...
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