Method for composing resin catalytizion filling bed filler and filler composed thereof
A packing and packed bed technology, applied in chemical instruments and methods, chemical/physical/physicochemical processes, chemical/physical processes, etc., can solve problems such as poor efficiency of packed beds
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example 1
[0050] 6.3 g of dry Amberlyst 15 The resin is loaded into a graduated glass cylinder 10 (FIG. 3). The particles 11 are substantially spherical with an average size of 0.7 mm. The catalytic bed 12 of dry resin has a volume of 11 cm 3 . The resin was then swelled by exposure to methanol. Catalytic bed 12 (Fig. 4) reaches a volume of 17 cm after expansion 3 , which is equivalent to an expansion coefficient of 1.54, which is equal to 1.55 according to literature (T.Ppken et al.; Ind. Eng. Chem. Res. Journal, 2000, No. 39(7), p. 2607).
example 2
[0052] 4.07 grams of dry Resindion CFS / MB resin was loaded into a graduated glass cylinder 10 (Fig. 5). The particles 11 are substantially spherical with an average size of 0.7 mm. There is a catalyst bed 12 of dry resin whose volume is 5 cm 3 . The resin was then swelled by exposure to methanol. Catalytic bed 12 (Fig. 6) reaches a volume of 12 cm after expansion 3 , which is equivalent to an expansion coefficient of 2.4.
example 3
[0054] A spring 1 of the type shown in Figure 1 and a mixture 5 of the dry exchange resin Resindion CFS / MB having the highest expansion coefficient were placed in the same graduated cylinder 10 used in Examples 1 and 2 (Figure 7) .
[0055] 5 grams of resin plus 9 grams of spring 1, the volume after filling is 12.6cm 3 . After contact with methanol, bed 12 expands (Fig. 8) by about 5%, which equates to a final volume of 13.1 cm 3 .
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