A method for anti-explosion of dropping reaction
A dropping reaction and anti-explosion technology, applied in chemical instruments and methods, chemical/physical/physicochemical processes, chemical/physical processes, etc., can solve problems such as temperature and pressure rise, casualties, failure to reach the optimum temperature for reaction, etc. , to achieve the effect of preventing explosion and saving costs
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Embodiment 1
[0041] Drop 30% dilute sulfuric acid into the reaction kettle filled with sodium hydroxide, the flow rate of dilute sulfuric acid is q 1 m 3 / h, the flow rate of cooling water is q 2 m 3 / h, the water temperature at the cooling water inlet is T 1 ℃, the water temperature at the outlet is T 2 ℃, the specific heat capacity of water is 4.2×10 3 J / (Kg×℃), the density of sulfuric acid is 1220Kg / m 3 .
[0042] According to the heat energy calculation formula Q=CM(T 2 -T 1 ),
[0043] The actual heat absorbed by the cooling water is
[0044] q 吸 =4.2×10 3 J / (Kg×℃)×q 2 m 3 / h×1000Kg / m 3 ×(T 2 ℃-T 1 °C)
[0045] =4.2×10 6 ×2q 2 ×(T 2 -T 1 )J / h=4.2×10 3 ×q 2 ×(T 2 -T 1 )KJ / h
[0046]
[0047] Heat of reaction:
[0048] Thermochemical reaction equation:
[0049] h 2 SO 4 +2NaOH=2H 2 O+Na 2 SO 4 △H=-114.6KJ / MOL
[0050] The heat of reaction per hour is q 放 =(q 1 m 3 / h×1220Kg / m 3 ×114.6KJ / MOL) / 98=114.6×1.22×10 6 q 1 / 98KJ / h=1.43×10 6 q 1 KJ / h, ...
Embodiment 2
[0057]Drop water into the reaction kettle filled with quicklime, the flow rate of water is q 1 m 3 / h, the flow rate of cooling water is q 2 m 3 / h, the water temperature at the cooling water inlet is T 1 ℃, the water temperature at the outlet is T 2 ℃, the specific heat capacity of water is 4.2×10 3 J / (Kg×℃), the density of water is 1000Kg / m 3 .
[0058] According to the heat energy calculation formula Q=CM(T 2 -T 1 ),
[0059] The actual heat absorption of cooling water per hour is
[0060] q 吸 =4.2×10 3 J / (Kg×℃)×q 2 m 3 / h×1000Kg / m 3 ×(T 2 ℃-T 1 °C)
[0061] =4.2×10 6 ×q 2 ×(T 2 -T 1 )J / h=4.2×10 3 ×q 2 ×(T 2 -T 1 )KJ / h
[0062]
[0063] Heat of reaction:
[0064] Thermochemical reaction equation:
[0065] h 2 O+CaO=Ca(OH) 2 △H=-163.5KJ / MOL,
[0066] The heat of reaction per hour is q 放 =(q 1 m 3 / h×1000Kg / m 3 ×163.5KJ / MOL) / 18=1000×163.5q 1 / 18KJ / h=9.08×10 6 q 1 KJ / h
[0067]
[0068] So the heat that will be released by the unrea...
Embodiment 3
[0074] Drop water into the reactor with calcium carbide, the flow rate of water is q 1 m 3 / h, the flow rate of cooling water is q 2 m 3 / h, the water temperature at the cooling water inlet is T 1 ℃, the water temperature at the outlet is T 2 ℃, the specific heat capacity of water is 4.2×10 3 J / (Kg×℃), the density of water is 1000Kg / m 3 .
[0075] According to the heat energy calculation formula Q=CM(T 2 -T 1 ),
[0076] The actual heat absorption of cooling water per hour is
[0077] q 吸 =4.2×10 3 J / (Kg×℃)×q 2 m 3 / h×1000Kg / m 3 ×(T 2 ℃-T 1 °C)
[0078] =4.2×10 6 ×q 2 ×(T 2 -T 1 )J / h=4.2×10 3 ×q 2 ×(T 2 -T 1 )KJ / h
[0079]
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