Sample pool for representing characteristics of normal position of dynamic catalyst structure
A technique for dynamic structure and characterization of samples, applied in material analysis using radiation diffraction, material analysis using wave/particle radiation, measuring devices, etc., to achieve the effect of simple structure and easy operation
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Embodiment 1
[0034] (1) Put the inner lining (3) and pressure pipe (1) assembly into the middle of the circular channel of the shell (4), and the upper hole of the inner lining (3) is aligned with the upper hole (14) of the shell (4) , The sector-shaped slot hole on the inner lining (3) is aligned with the sector-shaped slot hole (15) on the shell;
[0035] (2) Seal gaskets (10) are placed on both ends of the inner lining (3) and pressure pipe (1);
[0036] (3) After the sample to be tested is loaded into the sample bin (2) from the upper window (17), insert the upper window (17) into the transverse groove on the upper part of the sample bin body (20);
[0037] (4) Put the plug (11) with a blind hole into the circular channel of the housing (4), and place a septum (12) on the outside of the plug (11) to open a small diameter circular through hole. The tightening screw (13) and the plug (11) with blind holes are installed on the same side and tightened firmly;
[0038] (5) Put the sample compartme...
Embodiment 2
[0043] Example 2: Characterization of catalyst reduction activation. The sample chamber (2) is filled with a round catalyst pellet, the gasket (10) is made of flexible graphite; the pressure tube (1) is made of boron nitride ceramic, the thickness is 1mm, and the control temperature is 400°C. The pressure is 0.1MPa. The rest is the same as in Example 1.
Embodiment 3
[0044] Example 3: Characterization of the catalyst reaction. The sample chamber (2) is filled with a catalyst of 80-100 mesh, the material of the sealing gasket (10) is polyimide; the material of the pressure tube (1) is metal beryllium, and the thickness is 2 mm. The liquid reactant is passed through the fluid inlet and outlet pipe (6), and the tail liquid is discharged from the fluid inlet and outlet pipe (5). The control temperature is 50°C and the pressure is 6MPa. The rest is the same as in Example 1.
PUM
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Abstract
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