Temperature adjustment system for sunlight greenhouses
A technology of temperature regulation system and solar greenhouse, applied in the field of solar greenhouse temperature regulation system, can solve the problems of difficulty in recovery and high energy consumption, and achieve the effects of saving operating costs, reducing heat transfer temperature and improving efficiency
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Embodiment example 1
[0038] Implementation Case 1 is the process in which the solar heat collector (1) collects solar energy and stores the heat in the underground heat storage tank (2) under sunny conditions. That is: the water in the water tank (2) is sent to the solar collector (1) by the submersible pump (3) through the water supply pipe (G1) of the water collector to be heated, and then passes through the return pipe of the collector return pipe ( G2) get back in the underground heat storage tank (2). Such circulation, the water in the underground hot water storage tank (2) is constantly heated, and heat is stored.
[0039] see figure 2 , is the second embodiment of the present invention.
[0040] The second implementation case is the same as the first implementation case in that: the system in the implementation case 1 continues to run, that is: the solar heat collector (1) continues to heat the water in the underground water storage tank (2). The difference is that greenhouses have the ...
Embodiment example 3
[0043] The structural components of implementation case 3 include: underground heat storage tank (2); secondary circulation pump (54); soil layer radiation coil (78); second electromagnetic two-way valve (25), fourth electromagnetic two-way valve Valve (27), fifth electromagnetic two-way valve (28), sixth electromagnetic two-way valve (29); second electromagnetic three-way valve (37), third electromagnetic three-way valve (38), fourth electromagnetic three-way valve Valve (39); the first ball valve (74), the second ball valve (75); the second check valve (40), the third check valve (42), the tenth check valve (76); the expansion pipe (59 ); the second filter (60); the third temperature sensor (T3), the fourth temperature sensor (T4), the fifth temperature sensor (T5), the seventh temperature sensor (A2); the first controller (K1); The first water supply pipe (G5), the third water supply pipe (G7), the fourth water supply pipe (G15), the fifth water supply pipe (G21), the soil ...
Embodiment example 4
[0047] The difference between implementation case 4 and implementation case 3 is that in implementation case 4, the thirteenth electromagnetic two-way valve (61), the sixteenth electromagnetic two-way valve (64), the seventeenth electromagnetic two-way valve ( 65), the seventh electromagnetic three-way valve (70), a circulation pump (53), the first sub-catchment (57), the first exhaust valve (72), the rear wall radiation coil (77). The access fifth water supply pipe (G21) is closed.
[0048] At this time, the hot water in the underground hot water storage tank (2) flows to the eighth electromagnetic three-way valve (71), and no longer flows through the fifth water supply pipe (G21) of the pipeline, but along the fourth water supply pipe ( G15), after being pressurized by the primary circulation pump (53), it flows into the water separator of the first sub-catchment (57) through the radiant coil water supply pipe (G13) on the rear wall, and after being diverted by the water sep...
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