Low-energy-consumption low-pressure oxygen-air separation device
A technology with low pressure and low energy consumption, which is applied in cold treatment separation, solidification, lighting and heating equipment, etc. It can solve the problems of small device scale, small pressurized flow rate, and small optional surface, so as to achieve high temperature and increase refrigeration amount, the effect of reducing the impact
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Embodiment 1
[0019] In this example, if figure 1 As shown, it includes main heat exchanger 1, hot end booster turbo expander 2, hot end booster turbo expander booster 3, cold end booster turbo expander 4, cold end booster turbo expander Machine booster end 5, first cooler 6, oxygen supercharger 7, pressure tower 8, subcooler 9, low pressure tower 10 and purified air pipeline 11, purified air pipeline 11 communicates with purified air first branch pipeline 12, The purified air first branch pipeline 12 communicates with the oxygen supercharger 7 through the main heat exchanger 1, and the hot-end booster turbo expander 2 communicates with the expanded low-temperature purified air pipeline 14, and the expanded low-temperature purified air pipeline 14 It communicates with the pressure tower 8 through the main heat exchanger 1, and the cold-end booster turbo expander 4 communicates with the pressure tower 8 through the cold-end expansion air pipeline 21. The low-temperature pressure oxygen pipe...
Embodiment 2
[0022] In this example, if figure 2 As shown, compared with Embodiment 1, the difference is that the first branch pipeline 12 of purified air is communicated with the first pre-expansion low-temperature purified air pipeline 13, and the first pre-expansion low-temperature purified air pipeline 13 is connected with the hot end pressurized permeable The input end of the flat expander 2 is connected, and the output end of the supercharging end 3 of the hot end supercharging turbo expander is removed, and the output end of the supercharging end 3 of the supercharging turbo expander at the cold end is communicated with the input end of the supercharging end 5 of the cold end supercharging turbo expander through the purified air supercharging pipeline 17;
[0023] The second branch pipeline 23 of the purified air is adjusted to communicate with the input ends of the supercharging end 3 of the hot end supercharging turboexpander and the supercharging end 5 of the cold end superchargi...
Embodiment 3
[0027] In this example, if image 3 Shown, compared with embodiment one and embodiment two difference is:
[0028]The output end of the supercharging end 3 of the hot-end supercharging turboexpander is communicated with the second pre-expansion low-temperature purified air pipeline 25, and the second pre-expansion low-temperature purified air pipeline 25 passes through the second cooler 24 and the main heat exchanger 1 communicates with the input end of the hot end booster turbo expander 2, eliminating the output end of the hot end booster turbo expander 3 through the purified air booster pipeline 17 and the cold end booster turbo expander The input terminal of boost terminal 5 is connected;
[0029] The output end of the supercharging end 3 of the hot-end supercharging turboexpander is connected with the hot-end supercharging air pipeline 26, and the outer side of the hot-end supercharging air pipeline 26 is provided with a third cooler 27, and the hot-end supercharging The...
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