Square tube catalyst dynamic structure in-situ characterization device and application thereof
A technology of dynamic structures and catalysts, applied in measuring devices, material analysis using wave/particle radiation, instruments, etc., can solve the problem of in-situ characterization of catalytic reactions, difficulty in using synchrotron radiation X-rays, and inability to obtain information at large angles and other problems, to achieve the effect of high pressure and temperature resistance, wide application range and reasonable structure
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Embodiment 1
[0033]An in-situ on-line characterization device for the dynamic structure of a square tube catalyst, which includes a furnace frame 1, a water-cooled shell 2, a beryllium tube support 3, a beryllium tube 4, a right bracket 6, a right compression screw 7, a right fixed lining ring 8, and a pipe outlet 9. Right pipeline connection plate 10, right internal thread sleeve 11, sealing ring 12, left internal thread sleeve 13, left pipeline connection plate 14, inlet pipe 15, left fixed lining ring 16, left compression screw 17, left bracket 18, It is characterized in that there is a right bracket 6 and a left bracket 18 inside the water-cooling shell 2, a furnace rack 1 is located between the right bracket 6 and the left bracket 18, there is a rectangular through groove in the upper middle of the water-cooling shell 2, and a V-shaped through groove is arranged in the upper middle of the furnace rack 1. The length of the rectangular channel and the V-shaped channel are equal. There is...
Embodiment 2
[0049] Device used is the same as embodiment 1, concrete steps:
[0050] 1. The material of the sealing ring 12 is selected as polytetrafluoroethylene;
[0051] 2. Aluminum oxide film is vapor-deposited in the cavity of beryllium tube 4, and a 100-160 mesh Ni / ZnO catalyst sample is loaded into the cavity of beryllium tube 4;
[0052] 3. Assemble the sample cell to ensure a good seal, and then assemble it with the furnace rack 2 and the water-cooled shell 2 in sequence, the rectangular slot in the middle of the beryllium tube support 3, the V-shaped slot in the middle of the furnace rack 1, and the rectangular slot in the middle of the water-cooled shell 2 mutual alignment;
[0053] 4. Fix the assembled device on the optical table of the X-ray characterization line station, and align the through slot in the middle of the beryllium tube support 3 with the X-ray path;
[0054] 5. Connect the fluid inlet pipe 15 and the outlet pipe 9, and connect the sample pool to the experimen...
Embodiment 3
[0060] Device used is the same as embodiment 1, concrete steps:
[0061] 1. The material of the sealing ring 12 is selected as polytetrafluoroethylene;
[0062] 2. A boron nitride film is vapor-deposited in the inner cavity of the beryllium tube 4;
[0063] 3. Assemble the sample cell to ensure a good seal, and then assemble it with the furnace rack 2 and the water-cooled shell 2 in sequence, the rectangular slot in the middle of the beryllium tube support 3, the V-shaped slot in the middle of the furnace rack 1, and the rectangular slot in the middle of the water-cooled shell 2 mutual alignment;
[0064] 4. Fix the assembled device on the optical table of the X-ray characterization line station, and align the through slot in the middle of the beryllium tube support 3 with the X-ray path;
[0065] 5. Inject the colloidal aluminum phosphorous aluminum molecular sieve catalyst precursor sample into the inner cavity of the beryllium tube 4, the fluid enters the tube 15 and exit...
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