Method for prepn. of catalytic emulsion
An emulsion and solution technology, applied in catalyst activation/preparation, chemical instruments and methods, catalytic cracking, etc., can solve problems such as low conversion rate and large coke percentage
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Embodiment 1
[0067] This example illustrates the advantages of the method of the present invention compared to conventional viscosity reduction methods. The starting materials of Table 1 (acid number 25 mg KOH / g) were used to prepare the catalytic emulsion of the present invention using potassium and nickel. The catalytic emulsion was prepared by first mixing the feed steam with a 40% wt KOH solution and then mixing it with a nickel acetate solution with a K:Ni weight ratio of 4:1. The catalytic emulsion was mixed with the raw materials so that the potassium was 1000 ppm and the nickel acetate was 250 ppm based on the raw materials, and the reaction mixture was placed under steam reforming conditions, including: a temperature of 430° C., LHSV=2h -1, 8% wt steam based on feed (method 1). The emulsion and feed were processed in a cracker with a volume of 1.2 liters. The feed rate was 2400 g / h, while the rate of the catalytic emulsion was 113 g / h.
[0068] Visbreaking was carried out under...
Embodiment 2
[0081] In this example, under more severe steam reforming conditions, a raffinate feedstock composition as shown in Table 3 was used to implement the steam reforming process of the present invention.
[0082] table 3
[0083] Raw Product Conversion 500°C+ (%wt) -- 65.00API (%wt) 5.50 13.00Sulfur (%wt) 3.50 2.86Carbon (%wt) 84.44 84.54Hydrogen (%wt) 10.19 10.80Ni (ppm) 106.00 60.00Nitrogen ( %wt) 0.50 0.40 Vanadium (ppm) 467.00 100.00 Asphaltenes (%wt) 12.37 8.00 Conradson Carbon Residues (%wt) 17.69 10.00 Solids (%wt) 0.17 8.50 Viscosity 210°F (Cst) 3805.67 344.90 Distillation
[0084] %wt API %wt APIIBP-200℃ 0.00 0.00 6.00 50.00200-350℃ 0.00 0.00 19.00 27.00350-500℃ 17.00 18.50 36.00 12.00 >500℃ 83.00 3.00 29.00 2.50
[0085] The feedstock was treated with the catalytic emulsion as prepared in Example 1 in the same proportions as set forth above.
[0086] As shown in the table, the process of the present invention provides excel...
Embodiment 3
[0089] This example illustrates the comparative differences between the method of the present invention and conventional viscosity reduction methods in the production of synthetic crude oil. Table 4 lists the compositions of the feedstocks provided.
[0090] Table 4
[0091] API (%wt) 9.40
[0092] Sulfur (%wt) 3.60
[0093] Carbon (%wt) 82.12
[0094] Hydrogen (%wt) 10.75
[0095] Nickel (ppm) 86.00
[0096] Nitrogen (%wt) 0.53
[0097] Vanadium (ppm) 403.00
[0098] Asphaltene (%wt) 8.93
[0099] Conradson carbon residue (%wt) 12.66
[0100] Ash (%wt) (%wt) 0.09
[0101] Viscosity 104°F (cst) 14172.00
[0102] 212°F (cst) 149.90 Distilled
[0103] %wt APIIBP-200℃ 1.09 38.60200-350℃ 15.56 25.00350-500℃ 26.75 12.68 >500℃ 56.60 3.00
[0104] The feedstock was treated with the catalytic emulsion and steam reforming method of t...
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