A double-effect cross flow MVR evaporation and concentration system
An evaporation concentration system and high-efficiency evaporation technology, which is applied in the field of double-effect cross-flow MVR evaporation and concentration systems, can solve the problems of low environmental and economic benefits, limited application scope, and large energy consumption.
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Embodiment approach 1
[0031] Implementation Mode 1: As attached figure 1 As shown, the feed-liquid process subsystem of the double-effect cross-flow MVR evaporation and concentration system includes raw material tank 1, feed pump 2, liquid-liquid heat exchanger 3, vapor-liquid heat exchanger 4, one-effect preheater 5, One-effect evaporator 6, one-effect circulation pump 7, one-effect discharge pump 8, one-effect two-phase separator 9, two-effect circulation pump 10, second-effect evaporator 11, second-effect two-phase separator 12, two-effect outlet The material pump 13, the raw material tank 1, the feed pump 2, the cold side of the liquid-liquid heat exchanger 3, and the cold side of the vapor-liquid heat exchanger 4 are sequentially connected in series, and the outlet of the first-effect circulation pump 7 is connected to the first-effect preheater 5 The feed liquid inlet is connected, and the cold side outlet of the vapor-liquid heat exchanger 4 is connected to the pipeline between the outlet of...
Embodiment approach 2
[0034] Implementation mode two: as attached figure 2 As shown, on the basis of Embodiment 1, the second-effect two-phase separator 12 of the feed-liquid process subsystem is replaced by a second-effect three-phase separator 19, and the second-effect evaporator 11 is replaced by a second-effect forced circulation heating body 22; The inlet of the effect circulation pump 10 is connected with the feed liquid outlet of the second effect preheater 20, the outlet of the second effect circulation pump 10 is connected with the feed liquid inlet of the second effect forced circulation heating body 22, and the outlet of the first effect discharge pump 8 is connected with the second effect preheater. On the pipeline between the feed liquid outlet of the heater 20 and the inlet of the second effect circulation pump 10, the feed liquid inlet of the second effect preheater 20 is connected with the feed liquid outlet of the second effect three-phase separator 19, and the feed liquid outlet o...
Embodiment approach 3
[0035] Implementation mode three: as attached image 3 As shown, on the basis of Embodiment 2, the one-effect evaporator 6 of the feed-liquid process subsystem is replaced by a one-effect forced circulation heating body 23, and the one-effect two-phase separator 9 is replaced by a one-effect three-phase separator 21; The feed-liquid circulation outlet of the effect three-phase separator 21 is connected to the feed-liquid inlet of the first-effect preheater 5, and the cold side outlet of the vapor-liquid heat exchanger 3 is connected to the feed-liquid circulation outlet of the first-effect three-phase separator 21 and the first-effect preheater 5. On the pipeline between the 5 feed liquid inlets of the first effect preheater, the feed liquid outlet of the first effect preheater 5 is connected with the inlet of the first effect circulation pump 7, and the outlet of the first effect circulation pump 7 is connected with the outlet of the first effect forced circulation heating bod...
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