A catalytic conversion method for producing low-benzene and high-octane gasoline
A technology of high-octane gasoline and a catalytic conversion method is applied in the treatment of hydrocarbon oil, petroleum industry, hydrocarbon oil treatment products, etc. Content reduction, high octane number, effect of reducing benzene content
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Embodiment 1
[0053] Example 1 illustrates the effect of making diesel feedstock A and methanol carry out coupled reaction to produce low-benzene, high-octane gasoline through the method provided by the present invention. Diesel feedstock A is FCC diesel with a distillation range of 198-335°C. See Table 2 for specific properties.
[0054] In this example, a medium-sized device with two reactors for continuous reaction-regeneration operation is used for experiments, wherein the first catalytic conversion reactor is a riser with an inner diameter of 16 mm and a height of 3800 mm. The second catalytic conversion reactor is a fluidized bed, the inner diameter of the fluidized bed is 64 mm, and the height is 300 mm, and the outlet of the riser is connected to the bottom of the fluidized bed in fluid communication.
[0055] The regenerated catalyst with a temperature of about 660°C enters the bottom of the riser of the first catalytic conversion reactor through the inclined pipe of the regenerate...
Embodiment 2
[0077] Example 2 further illustrates the effect of making diesel feedstock B and methanol undergo coupling reaction to produce low-benzene and high-octane gasoline through the method provided by the present invention. Diesel feedstock B is light distillate diesel with a distillation range of 198-245°C. The properties of diesel feedstock B are shown in Table 2.
[0078] The reaction device that adopts is with embodiment 1, and raw material, main experiment procedure are with embodiment 1, and the weight ratio of methanol and diesel oil raw material is 5:95. The main operating conditions and results are listed in Table 4.
Embodiment 3
[0082] Example 3 further illustrates the effect of making diesel feedstock A and methanol undergo coupling reaction to produce low-benzene, high-octane gasoline through the method provided by the present invention. Diesel feedstock A is FCC diesel with a distillation range of 198-335°C. The properties of diesel feedstock A are shown in Table 2.
[0083] The reaction device adopted is the same as in Example 1, the raw materials and main experimental steps are the same as in Example 1, and the weight ratio of methanol and diesel oil raw materials is 50:50. The main operating conditions and results are listed in Table 5.
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