Process for converting plastic into gases, liquid fuels and waxes by cracking
a technology of liquid fuels and cracking, which is applied in the direction of fuels, hydrocarbon oil treatment products, bio-feedstocks, etc., can solve the problems of reducing the quality of organic fractions of solid waste, reducing the density of condensate, and reducing the quality of organic fractions. , to achieve the effect of high quality, reduced density of condensate, and high density
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example 1
[0066]The experiment was carried out following the general procedure described above. Experiments were carried out using 80 wt % HDPE and 20 wt % PP (pure plastic that does not contain oxygenated compounds for comparison in example 1.1 and plastic coming from a recycling plant and containing impurities such as paper, metal foil, etc. in examples 1.2 and 1.3) preheated at ca. 105° C. to remove moisture as raw materials and 20 g of an amorphous catalyst, namely SiO2. Catalyst to dry plastic mixture weight ratio was equal to 20 / 30 by wt. The results are summarized in Table 1 below.
example 2
[0067]The experiment was carried out following the general procedure described above. Experiments were carried out using 80 wt % HDPE and 20 wt % PP (coming from a recycling plant and containing impurities such as paper, metal foil, etc.) preheated at ca. 105° C. to remove moisture as raw materials and 20 g of a equilibrated Fluidized Catalytic Cracking Catalyst (ECATDC) provided by Equilibrium Catalyst Inc. Catalyst to dry plastic mixture weight ratio was equal to 20 / 30 by wt. Three mixtures of waste HDPE and PP were prepared and submitted for catalytic depolymerization (examples 2.1 and 2.2). The results are summarized in Table 1 below.
example 3
[0068]The experiment was carried out following the general procedure described above. Experiments were carried out using 80 wt % HDPE and 20 wt % PP (coming from a recycling plant and containing impurities such as paper, metal foil, etc.) preheated at ca. 105° C. to remove moisture as raw materials and 20 g of a bottom cracking additive catalyst BCA-105 provided by Johnson Matthey. Catalyst to dry plastic mixture weight ratio was equal to 20 / 30 by wt (example 3.1). The results are summarized in Table 1 below.
TABLE 1ReactionDensity of% H2OReactionTemper-timeMass produced during reaction time range (g)conden-removalExam-Sam-timeature / rangeHCOWaxessateat T pleple(min)° C.(min-min)GasesGasolineKeroseneDiesel(+C22)(+C20)H2OTOTAL[g / cm3]425° C.1.1#030.5200-425 0-30.50.140.150.110.050.020.030.480.782#125425 0-250.721.891.380.670.250.354.910.782#24042525-400.270.710.780.640.040.102.440.786#36042540-600.441.101.371.320.090.244.320.790#49042560-900.661.682.293.981.712.7810.300.8221.2#056RT-4...
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