A solar-driven adjustable power-cooling combined power supply system and method
A solar energy and tunable technology, applied in the direction of using solar energy to generate mechanical power, solar thermal power generation, climate sustainability, etc., can solve the mismatch between the input and output of the cooling system and the power supply system, and affect the normal operation of the cooling and power supply. , unstable solar radiation intensity and other problems, to achieve the effect of improving power generation efficiency, reducing back pressure, and increasing power generation
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Embodiment 1
[0056] like figure 2 As shown, the structural diagram of a single power generation system includes a parabolic tank solar collector 1 (PTSC), boiler 2, heat exchanger 3, separator 4, high pressure condenser 14, first shifter 5, steam turbine 6, Three-striped 16, the first mixer 9, the first throttle valve 8, the first works pump 13, the oil pump 20; the heat transfer oil exit of the parabolic tank solar collector 1 is connected to the boiler 2, the heat transfer oil 2 of the boiler 2 The exit is connected to the parabolic solar collector 1 through the oil pump 20; the ammonia water dysfunction of the boiler 2 is connected to the separator 4, and the umuria steam outlet of the separator 4 is connected to the first substator 5, the spinner 4 of the spinner 4. The liquid exit is connected to the heat exchanger 3, and the mixture exit of the heat exchanger 3 is connected to the boiler 2. The hydroamine exit of the heat exchanger 3 is connected to the first throttle valve 8, and the fi...
Embodiment 2
[0060] like image 3 As shown, the structure of a separate refrigeration system includes a parabolic trough solar collector 1 (PTSC), boiler 2, heat exchanger 3, separator 4, high pressure condenser 14, first shifter 5, condenser 7, second Directance 11, third receiver 16, second throttle valve 10, first throttle valve 8, evaporator 12, first mixer 9, parabolic tank type solar collector 1 thermal oil exit and boiler 2 connection The heat transfer oil exit of the boiler 2 is connected to the parabolic tank solar collector 1 through the oil pump 20; the ammonia water working portions of the boiler 2 are connected to the separator 4, and the exemptic steam outlet of the separator 4 is connected to the first shifter 5. The splitter 4 is connected to the heat exchanger 3, and the mixed liquid exit of the heat exchanger 3 is connected to the boiler 2, and the hydraulic exit of the heat exchanger 3 is connected to the first throttle 8, and the first throttle The valve 8 is connected to th...
Embodiment 3
[0064] like Figure 4 As shown, the system structure of the cooling link includes a parabolic tank solar collector 1 (PTSC), boiler 2, heat exchanger 3, separator 4, high pressure condenser 14, first shifter 5, steam turbine 6 , The condenser 7, the second substator 11, the third receiver 16, the second throttle valve 10, the first throttle valve 8, the evaporator 12, the first mixer 9, the first works pump 13;
[0065] The heat transfer oil exit of the parabolic solar heat collector 1 is connected to the boiler 2, and the heat transfer oil exit of the boiler 2 is connected to the parabolic tank solar collector 1; the ammonia water works of the boiler 2 is connected to the separator 4. The essential fluid exit of the separator 4 is connected to the first rectifier 5, and the hydroamine exit of the separator 4 is connected to the heat exchanger 3, and the mixed liquid exit of the heat exchanger 3 is connected to the boiler 2, the poor of the heat exchanger 3. The ammonia-liquid outl...
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