An air-conditioning type hollow built-in louver glass and an air-conditioning system

Abstract

The present invention relates to an air-conditioning type hollow built-in louver glass and an air-conditioning system, which include a heat insulation module and a temperature regulation module. The heat insulation module includes a first tempered glass, and the first tempered glass is connected to a second tempered glass through a heat insulation component; the temperature regulation module includes a third tempered glass, and the third tempered glass is connected to the second tempered glass through an exchange component. The exchange component includes a spacer bar, and a first circulation cavity and a second circulation cavity are arranged in the spacer bar. The gas in the second circulation cavity is pumped into the first circulation cavity through an intake pipe component by an outlet pipe component, and a replacement cavity is installed on one side of the first circulation cavity close to the intake pipe component. A refrigerating sheet is arranged between the replacement cavity and the first circulation cavity. The present invention can timely take away the heat or cold air of the hollow built-in louver glass, reduce or increase the temperature of the hollow built-in louver glass and the indoor environment, improve the comfort of the human body, reduce the energy consumption of the air conditioner, further save energy, and conform to the concept of energy conservation and emission reduction.

Description

Technical Field

[0001] The invention relates to the technical field of glass products, and in particular to an air-conditioning type hollow built-in louvered glass and an air-conditioning system. Background Art

[0002] Hollow built-in louver glass, as the name implies, is a sunshade louver embedded inside the original hollow glass to form a sunshade and glass integrated product. By changing the angle and position of the louver inside the glass, it is convenient to adjust the amount of sunlight shining into the room, so some people have given this type of emerging product a nice and vivid name "sun switch". Hollow built-in louver glass has the performance of heat insulation, sound insulation and heat preservation of ordinary hollow glass, and the sunshade function is increased due to the integration of sunshade louvers, which truly becomes a perfect product suitable for sunshade and heat insulation in summer and lighting and heat preservation in winter. It is precisely because of its many advantages that it has gradually become popular in China in recent years. Now the new buildings basically can no longer see the previous roller blinds, and this new energy-saving sunshade product has been replaced. Hollow built-in louver glass is a new type of energy-saving glass that has rapidly emerged in recent years and is widely used in residential, public construction and other projects.

[0003] With its wide application, some shortcomings of hollow built-in louver glass itself have also been exposed, especially when shading in summer, that is, when the outside temperature is high, the louver is lowered and blocks the solar radiation at the louver position. Although most of it is reflected back to nature, some of it is absorbed by the louver. At this time, the temperature of the glass cavity with louver will increase significantly, and it will feel that the glass is particularly hot indoors. In addition, the window frame where the glass is installed will also be very hot due to the sunlight. This heat will also be transferred to the room through the edge of the glass in contact with it, and the indoor temperature will rise accordingly, which will affect the human comfort. At the same time, the indoor temperature will increase, which will increase the use of air conditioning, cause energy waste, affect the energy-saving effect of this product, and is not in line with the concept of energy conservation and emission reduction. If it is a hot summer and cold winter area, in winter, when the outside temperature is low, the blinds are retracted, and the sun shines directly into the room for heating. However, at the place where the glass edge contacts the door and window profiles, the outside will be very cold because the door and window profiles are mostly made of aluminum alloy. This cold will be transmitted to the room through the glass edge in direct contact with it, which is the role of cold bridge. The indoor temperature will drop accordingly, which will affect the human body's comfort. At the same time, the indoor temperature will drop, and the use of air conditioning will increase, resulting in energy waste, affecting the energy-saving effect of this product, which is not in line with the concept of energy conservation and emission reduction. This will affect the thermal insulation performance of the glass. Summary of the invention

[0004] To this end, the technical problem to be solved by the present invention is to overcome the defect that in the prior art, when the external temperature is relatively high or low, the glass and its aluminum alloy frame parts absorb more heat or cold, resulting in an increase or decrease in the overall glass temperature, which in turn affects the indoor temperature. If the indoor temperature is too high or too low, it will affect the comfort of the human body, and an increase or decrease in the indoor temperature will increase the use of air conditioners, causing energy waste.

[0005] To solve the above technical problems, the present invention provides an air-conditioning type hollow built-in louver glass, including

[0006] a heat insulation module, the heat insulation module includes a first tempered glass, a second tempered glass and a heat insulation component, and the first tempered glass is connected to the second tempered glass through the heat insulation component;

[0007] a temperature adjustment module, the temperature adjustment module includes a third tempered glass and an exchange component, the third tempered glass is connected to the second tempered glass through the exchange component, the exchange component includes a spacer installed between the second tempered glass and the third tempered glass, a first circulation cavity and a second circulation cavity are arranged in the spacer, an air inlet pipe is connected to the first circulation cavity, an air outlet pipe is connected to the second circulation cavity, the gas in the second circulation cavity is pumped into the first circulation cavity through the air inlet pipe by the air outlet pipe, a replacement cavity is installed on one side of the first circulation cavity close to the air inlet pipe, and a refrigeration sheet is arranged between the replacement cavity and the first circulation cavity.

[0008] In an embodiment of the present invention, installation fittings are installed at the corners of the first circulation cavity and the second circulation cavity, the first circulation cavity is connected to the second circulation cavity through a stop block, and the stop block is located between the air inlet pipe and the air outlet pipe.

[0009] In an embodiment of the present invention, the space formed by the second tempered glass, the third tempered glass and the exchange component forms a second chamber, a support frame is installed in the second chamber, and a louver curtain is hung on the support frame.

[0010] In an embodiment of the present invention, the spacer further includes a drying cavity for placing desiccant, the drying cavity is close to the second chamber, and a sealant is arranged outside the first circulation cavity and the second circulation cavity to seal and connect the second tempered glass and the third tempered glass.

[0011] In an embodiment of the present invention, both sides of the refrigeration sheet are connected to the replacement cavity and the first circulation cavity by gluing.

[0012] In an embodiment of the present invention, the space formed by the first tempered glass, the second tempered glass and the heat insulation component forms a first chamber, and an inert gas is filled in the first chamber.

[0013] In one embodiment of the present invention, the heat insulation component includes a heat insulation spacer installed between the first tempered glass and the second tempered glass. A desiccant is provided inside the heat insulation spacer. One side of the heat insulation spacer away from the first chamber is coated with sealant. A warm edge strip is installed on one side of the first tempered glass close to the second tempered glass.

[0014] An air conditioning system includes the air-conditioning type hollow built-in louver glass as described in any one of the above embodiments, and further includes a first air pump and a second air pump. The air inlet of the first air pump is connected to the second circulation chamber through an outlet pipe component, and the air outlet of the first air pump is connected to the first circulation chamber through an inlet pipe component. The second air pump is connected to the replacement chamber. The first air pump, the second air pump and the cooling fins of the air-conditioning type hollow built-in louver glass are connected to a solar panel through a control switch.

[0015] In one embodiment of the present invention, the control switch includes a first gear position, a second gear position and a third gear position;

[0016] When the control switch is in the first gear position, the cooling fins are connected in the forward direction for a cooling function. The cooling fins displace the heat in the first circulation chamber to the outside through the replacement chamber and the second air pump;

[0017] When the control switch is in the second gear position, the cooling fins are connected in the reverse direction for a heating function. The cooling fins displace the cold air in the first circulation chamber to the outside through the replacement chamber and the second air pump;

[0018] When the control switch is in the third gear position, the cooling fins, the first air pump and the second air pump are disconnected.

[0019] In one embodiment of the present invention, the first tempered glass of the air-conditioning type hollow built-in louver glass is installed closer to the indoor side, and the third tempered glass of the air-conditioning type hollow built-in louver glass is installed closer to the outdoor side. The solar panel, the first air pump and the second air pump are all installed on the third tempered glass, and the control switch is installed indoors.

[0020] The above technical solutions of the present invention have the following advantages compared with the prior art:

[0021] The air-conditioning type hollow built-in louver glass and air-conditioning system according to the present invention. The hollow built-in louver glass adopts a three-glass two-chamber structure. The heat insulation module is arranged on the side close to the interior. The first tempered glass, the second tempered glass and the heat insulation component can reduce the transfer of external heat or cold air. The temperature regulation module is arranged on the side close to the exterior. Among them, the intake pipe is communicated with the first circulation chamber, and the exhaust pipe is communicated with the second circulation chamber. The heat or cold air in the second circulation chamber can pass through the exhaust pipe and then enter the first circulation chamber through the intake pipe to realize the circulation of heat or cold air. A replacement chamber is also arranged on the outside of the first circulation chamber. A refrigeration sheet is arranged between the replacement chamber and the first circulation chamber. By connecting the refrigeration sheet in the forward or reverse direction, the heat or cold air in the first circulation chamber can be exchanged into the replacement chamber. The replacement chamber exchanges air with the outside air to realize the refrigeration or heating of the hollow built-in louver glass, making the indoor temperature match the comfort level of the human body, reducing the energy consumption of the air conditioner, further saving energy, and conforming to the concept of energy conservation and emission reduction.

[0022] When the external temperature is relatively high, the control switch connected to the refrigeration sheet is in the forward connection, and the function of the refrigeration sheet is refrigeration. The first circulation chamber and the second circulation chamber in the spacer between the third tempered glass and the second tempered glass will absorb more heat. The heat in the second circulation chamber is pumped into the first circulation chamber by the first air pump, so that a heat circulation is formed among the second circulation chamber, the first air pump and the first circulation chamber. The heat in the first circulation chamber is transferred to the replacement chamber through the refrigeration sheet. The second air pump extracts outdoor air, introduces the outdoor air into the replacement chamber, and discharges the heat in the replacement chamber, thereby realizing the cooling of the temperature regulation module, that is, the temperature between the second tempered glass and the third tempered glass drops significantly. Furthermore, the temperature of the first tempered glass close to the interior also drops significantly, that is, the heat of the entire hollow built-in louver glass is taken away in time, so that the temperature of the hollow built-in louver glass and the indoor temperature drop significantly, improving the comfort level of the human body and reducing the energy consumption of the air conditioner.

[0023] When the external temperature is relatively low, the control switch connected to the thermoelectric cooler is reversely connected, and the function of the thermoelectric cooler is to heat. The first circulation cavity and the second circulation cavity in the spacer between the third tempered glass and the second tempered glass will absorb more cold air. The cold air in the second circulation cavity is pumped into the first circulation cavity by the first air pump, so that a cold air circulation is formed among the second circulation cavity, the first air pump and the first circulation cavity. The cold air in the first circulation cavity is transferred to the replacement cavity through the thermoelectric cooler. The second air pump extracts outdoor air, introduces the outdoor air into the replacement cavity, and discharges the cold air in the replacement cavity, thereby realizing the temperature increase of the temperature adjustment module, that is, the temperature between the second tempered glass and the third tempered glass increases, and then the temperature of the first tempered glass close to the indoor also increases accordingly, that is, the cold air of the entire hollow built-in louver glass is taken away in time, so that the temperature of the hollow built-in louver glass and the indoor increases, improving the comfort of the human body, reducing the energy consumption of the air conditioner, and improving the heat preservation performance of the glass. At the same time, the thermoelectric cooler, the first air pump and the second air pump are all connected to the solar panel, and the solar panel is used to provide electric energy, further saving energy, which conforms to the concept of energy conservation and emission reduction. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] In order to make the content of the present invention easier to be clearly understood, the present invention will be further described in detail below according to the specific embodiments of the present invention in conjunction with the drawings.

[0025] Figure 1 is a schematic structural diagram of the air-conditioning type hollow built-in louver glass of the present invention;

[0026] Figure 2 is Figure 1 a partial cross-sectional view of the air-conditioning type hollow built-in louver glass of the present invention;

[0027] Figure 3 is a schematic connection diagram of the air-conditioning system of the present invention;

[0028] Description of the reference numerals in the drawings: 1. Heat insulation module; 11. First tempered glass; 12. Second tempered glass; 13. Heat insulation component; 131. Heat insulation spacer; 132. First chamber; 2. Temperature adjustment module; 21. Third tempered glass; 3. Exchange component; 31. Spacer; 311. First circulation cavity; 312. Second circulation cavity; 313. Block; 314. Desiccant; 315. Sealant; 32. Inlet pipe fitting; 33. Outlet pipe fitting; 34. Thermoelectric cooler; 35. Replacement cavity; 36. First air pump; 37. Second air pump; 38. Second chamber; 381. Support frame; 382. Louver curtain; 4. Solar panel; 5. Control switch. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0029] The present invention will be further described below in conjunction with the accompanying drawings and specific embodiments, so that those skilled in the art can better understand the present invention and be able to implement it, but the embodiments cited are not intended to limit the present invention.

[0030] Embodiment 1

[0031] Please refer to Figure 1 and Figure 2 As shown, the present invention provides an air-conditioning type hollow built-in louver glass, which includes a heat insulation module 1 and a temperature regulation module 2. The heat insulation module 1 includes a first tempered glass 11, a second tempered glass 12 and a heat insulation component 13. The first tempered glass 11 is connected to the second tempered glass 12 through the heat insulation component 13; the temperature regulation module 2 includes a third tempered glass 21 and an exchange component 3. The third tempered glass 21 is connected to the second tempered glass 12 through the exchange component 3. The exchange component 3 includes a spacer 31 installed between the second tempered glass 12 and the third tempered glass 21. A first circulation cavity 311 and a second circulation cavity 312 are arranged in the spacer 31. The first circulation cavity 311 is connected to an air inlet pipe 32, and the second circulation cavity 312 is connected to an air outlet pipe 33. The gas in the second circulation cavity 312 is pumped into the first circulation cavity 311 through the air inlet pipe 32 through the air outlet pipe 33. A replacement cavity 35 is installed on one side of the first circulation cavity 311 close to the air inlet pipe 32, and a refrigeration sheet 34 is arranged between the replacement cavity 35 and the first circulation cavity 311.

[0032] This hollow built-in louver glass adopts a three-glass two-cavity structure. The heat insulation module 1 is arranged on the side close to the interior. The first tempered glass 11, the second tempered glass 12 and the heat insulation component 13 can reduce the transfer of external heat or cold air. The temperature regulation module 2 is arranged on the side close to the exterior. Among them, the air inlet pipe 32 is communicated with the first circulation cavity 311, and the air outlet pipe 33 is communicated with the second circulation cavity 312. The heat or cold air in the second circulation cavity 312 can pass through the air outlet pipe 33 and then enter the first circulation cavity 311 through the air inlet pipe 32 to realize the circulation of heat or cold air. A replacement cavity 35 is also arranged outside the first circulation cavity 311, and a refrigeration sheet 34 is arranged between the replacement cavity 35 and the first circulation cavity 311. By connecting the refrigeration sheet 34 in the forward or reverse direction, the heat or cold air in the first circulation cavity 311 can be exchanged into the replacement cavity 35, and the replacement cavity 35 exchanges with the outside air to realize the refrigeration or heating of this hollow built-in louver glass, so that the indoor temperature matches the comfort of the human body, reduces the energy consumption of the air conditioner, further saves energy, and conforms to the concept of energy conservation and emission reduction.

[0033] Specifically, installation fittings are installed at the corners of the first circulation chamber 311 and the second circulation chamber 312, which can enable the heat or cold air in the first circulation chamber 311 and the second circulation chamber 312 to circulate smoothly. Preferably, the material of the installation fittings is plastic, and the fittings conform to the shapes of the first circulation chamber 311 and the second circulation chamber 312. In addition, the first circulation chamber 311 is connected to the second circulation chamber 312 through a stop block 313. Heat or cold air is blocked between the first circulation chamber 311 near the intake pipe fitting 32 and the second circulation chamber 312 near the outlet pipe fitting 33 by the stop block 313. The stop block 313 enables heat or cold air to form a circulation among the second circulation chamber 312, the outlet pipe fitting 33, the intake pipe fitting 32, and the first circulation chamber 311, facilitating the transfer of heat or cold air in the second circulation chamber 312 to the first circulation chamber 311, and then transferring the heat or cold air to the replacement chamber 35 through the refrigeration sheet 34.

[0034] In this embodiment, the space enclosed by the second toughened glass 12, the third toughened glass 21, and the replacement assembly forms a second chamber 38. A support frame 381 is installed in the second chamber 38, and a louver curtain 382 is hung on the support frame 381. When the outside temperature is relatively high, the part near the outside can block the energy of the sun through the louver curtain 382, and this energy can also take away the heat through the first circulation chamber 311, realizing the cooling of the hollow built-in louver glass, thereby reducing the indoor temperature and meeting the comfort of the human body.

[0035] Furthermore, the spacer 31 further includes a drying chamber for placing a desiccant 314. The drying chamber is close to the second chamber 38. The desiccant 314 can adsorb the moisture in the second chamber 38. Sealing glue 315 is provided outside the first circulation chamber 311 and the second circulation chamber 312 to seal and connect the second toughened glass 12 and the third toughened glass 21, making the temperature control module 2 in a sealed state and ensuring that the temperature control module 2 and the inside of the second chamber 38 are different from each other, guaranteeing the sealing performance of the hollow built-in louver glass.

[0036] Specifically, both sides of the refrigeration sheet 34 are connected to the replacement chamber 35 and the first circulation chamber 311 by gluing. First, the first circulation chamber 311, the second circulation chamber 312 are bonded to the second toughened glass 12 and the third toughened glass 21 through the sealing glue 315, then the refrigeration sheet 34 is bonded with glue, and finally the replacement chamber 35 is bonded above the refrigeration sheet 34 with glue. After ensuring the sealing performance of the hollow built-in louver glass, the refrigeration sheet 34 and the replacement chamber 35 are installed.

[0037] In this embodiment, the space enclosed by the first toughened glass 11, the second toughened glass 12, and the heat insulation assembly 13 forms a first chamber 132. The first chamber 132 is filled with an inert gas. The heat insulation assembly 13 and the inert gas can be used to reduce the transfer of heat or cold air, making the indoor environment further conform to the comfort of the human body.

[0038] Specifically, the heat insulation component 13 includes a heat insulation spacer 131 installed between the first tempered glass 11 and the second tempered glass 12. A desiccant 314 is provided inside the heat insulation spacer 131, and a sealant 315 is coated on the side of the heat insulation spacer 131 away from the first chamber 132. The desiccant 314 can be used to absorb moisture in the first chamber 132. Preferably, the heat insulation spacer 131 is a polymer spacer, which can avoid absorbing heat or cold air.

[0039] Furthermore, a warm edge strip is installed on the side of the first tempered glass 11 close to the second tempered glass 12. The warm edge strip has a specific low thermal conductivity and is not easy to transfer the heat or cold air in the room to the outside, and the first tempered glass 11 can be made of high-transmittance Low-e tempered glass.

[0040] Embodiment 2

[0041] Please refer to Figure 3 As shown, the present invention also provides an air conditioning system, which includes an air-conditioning type hollow built-in louver glass, and also includes a first air pump 36 and a second air pump 37. The air inlet of the first air pump 36 is connected to the second circulation chamber 312 through an air outlet pipe member 33, and the air outlet of the first air pump 36 is connected to the first circulation chamber 311 through an air inlet pipe member 32. The first air pump 36, the second air pump 37 and the refrigerating sheet 34 of the air-conditioning type hollow built-in louver glass are connected to a solar panel 4 through a control switch 5.

[0042] When the outside temperature is relatively high, the control switch 5 connected to the refrigerating sheet 34 is in the positive connection, and the function of the refrigerating sheet 34 is refrigeration. The first circulation chamber 311 and the second circulation chamber 312 in the spacer 31 between the third tempered glass 21 and the second tempered glass 12 will absorb more heat. The heat in the second circulation chamber 312 is extracted into the first circulation chamber 311 through the first air pump 36, so that a heat cycle is formed among the second circulation chamber 312, the first air pump 36 and the first circulation chamber 311. The heat in the first circulation chamber 311 is transferred to the replacement chamber 35 through the refrigerating sheet 34. The second air pump 37 extracts outdoor air, introduces the outdoor air into the replacement chamber 35, and discharges the heat in the replacement chamber 35, thereby realizing the cooling of the temperature control module 2, that is, the temperature between the second tempered glass 12 and the third tempered glass 21 is greatly reduced, and then the temperature of the first tempered glass close to the room is also greatly reduced, that is, the heat of the entire hollow built-in louver glass is taken away in time, so that the temperature of the hollow built-in louver glass and the room is greatly reduced, improving the comfort of the human body and reducing the energy consumption of the air conditioner.

[0043] When the external temperature is relatively low, the control switch 5 connected to the thermoelectric cooler 34 is reversely connected, and the function of the thermoelectric cooler 34 is to heat. The first circulation cavity 311 and the second circulation cavity 312 in the spacer 31 between the third tempered glass 21 and the second tempered glass 12 will absorb more cold air. The cold air in the second circulation cavity 312 is pumped into the first circulation cavity 311 by the first air pump 36, so that a cold air circulation is formed among the second circulation cavity 312, the first air pump 36 and the first circulation cavity 311. The cold air in the first circulation cavity 311 is transferred to the replacement cavity 35 through the thermoelectric cooler 34. The second air pump 37 extracts outdoor air, introduces the outdoor air into the replacement cavity 35, and discharges the cold air in the replacement cavity 35, thereby realizing the temperature rise of the temperature control module 2, that is, the temperature between the second tempered glass 12 and the third tempered glass 21 rises, and then the temperature of the first tempered glass closer to the indoor also rises accordingly, that is, the cold air of the entire hollow built-in louver glass is taken away in time, so that the temperature of the hollow built-in louver glass and the indoor temperature rise, improving the comfort of the human body and reducing the energy consumption of the air conditioner. At the same time, the thermoelectric cooler 34, the first air pump 36 and the second air pump 37 are all connected to the solar panel 4, and the solar panel 4 is used to provide electric energy, further saving energy and conforming to the concept of energy conservation and emission reduction.

[0044] Further, the control switch 5 includes a first gear, a second gear and a third gear; when the control switch 5 is in the first gear, the thermoelectric cooler 34 is directly connected, that is, the thermoelectric cooler 34 functions as refrigeration, and the thermoelectric cooler 34 can replace the heat in the first circulation cavity 311 to the outside through the replacement cavity 35 and the second air pump 37; when the control switch 5 is in the second gear, the thermoelectric cooler 34 is reversely connected, that is, the thermoelectric cooler 34 functions as heating, and the thermoelectric cooler 34 replaces the cold air in the first circulation cavity 311 to the outside through the replacement cavity 35 and the second air pump 37; when the control switch 5 is in the third gear, the thermoelectric cooler 34, the first air pump 36 and the second air pump 37 are disconnected, that is, when refrigeration and heating are not required, the system can be turned off through the control switch 5, which is convenient to operate. The system can realize the function switching of the thermoelectric cooler 34 through the control switch 5. The thermoelectric cooler 34 takes away the heat or cold air in the first circulation cavity 311, and realizes the cooling and heating of the hollow built-in louver glass through the replacement cavity 35 and the second air pump 37, so that the indoor temperature meets the comfort of the human body.

[0045] Specifically, when installing the system, the first tempered glass 11 is installed near the indoor side, the third tempered glass 21 is installed near the outdoor side, the solar panel 4, the first air pump 36 and the second air pump 37 are all installed on the third tempered glass 21, and the control switch 5 is installed indoors. When refrigeration is not required or when the indoor temperature matches the comfort level of the human body, the system can be turned off by adjusting the control switch 5, so that the circulation is closed, which is convenient to operate. Further, the greater the intensity of the external sunlight, the greater the refrigeration power, the greater the power of the first air pump 36 and the second air pump 37, the more heat is removed, and the better the refrigeration effect. Moreover, under the condition of meeting the human body comfort level, solar energy is fully utilized to reduce energy waste.

[0046] Obviously, the above embodiments are merely examples given for clear illustration and are not limitations on the implementation manners. For those of ordinary skill in the art, other different forms of changes or variations can be made based on the above description. It is not necessary and impossible to enumerate all the implementation manners here. And the obvious changes or variations derived therefrom still fall within the protection scope of the present invention.

Claims

1. A hollow built-in louver glass of air conditioner type, characterized in that: including a heat insulation module, the heat insulation module includes a first tempered glass, a second tempered glass and a heat insulation component, and the first tempered glass is connected to the second tempered glass through the heat insulation component; a temperature regulation module, the temperature regulation module includes a third tempered glass and an exchange component, the third tempered glass is connected to the second tempered glass through the exchange component, the exchange component includes a spacer installed between the second tempered glass and the third tempered glass, a first circulation cavity and a second circulation cavity are arranged in the spacer, an air inlet pipe is connected to the first circulation cavity, an air outlet pipe is connected to the second circulation cavity, the gas in the second circulation cavity is pumped into the first circulation cavity through the air inlet pipe by the air outlet pipe, a replacement cavity is installed on one side of the first circulation cavity close to the air inlet pipe, and a refrigeration chip is arranged between the replacement cavity and the first circulation cavity; the space formed by the first tempered glass, the second tempered glass and the heat insulation component forms a first chamber, and an inert gas is filled in the first chamber; the space formed by the second tempered glass, the third tempered glass and the exchange component forms a second chamber, a support frame is installed in the second chamber, and a louver curtain is hung on the support frame; installation fittings are installed at the corners of the first circulation cavity and the second circulation cavity, the first circulation cavity is connected to the second circulation cavity through a stop block, and the stop block is located between the air inlet pipe and the air outlet pipe.

2. The air-conditioning type hollow built-in louver glass according to claim 1, characterized in that: the spacer further includes a drying cavity for placing a desiccant, the drying cavity is close to the second chamber, and a sealant is arranged outside the first circulation cavity and the second circulation cavity to seal and connect the second tempered glass and the third tempered glass.

3. The air-conditioning type hollow built-in louver glass according to claim 1, characterized in that: both sides of the refrigeration chip are connected to the replacement cavity and the first circulation cavity through glue.

4. The air-conditioning type hollow built-in louver glass according to claim 3, characterized in that: the heat insulation component includes a heat insulation spacer installed between the first tempered glass and the second tempered glass, a desiccant is arranged in the heat insulation spacer, a sealant is coated on the side of the heat insulation spacer away from the first chamber, and a warm edge strip is installed on the side of the first tempered glass close to the second tempered glass.

5. An air conditioning system, characterized in that: including the air-conditioning type hollow built-in louver glass according to any one of claims 1-4, further including a first air pump and a second air pump, the air inlet of the first air pump is communicated with the second circulation cavity through an air outlet pipe, the air outlet of the first air pump is communicated with the first circulation cavity through an air inlet pipe, the second air pump is connected to the replacement cavity, and the first air pump, the second air pump and the refrigeration chip of the air-conditioning type hollow built-in louver glass are connected to a solar panel through a control switch.

6. The air conditioning system according to claim 5, characterized in that: the control switch includes a first gear, a second gear and a third gear; when the control switch is in the first gear, the refrigeration chip is connected in the forward direction for refrigeration, and the refrigeration chip replaces the heat in the first circulation cavity to the outside through the replacement cavity and the second air pump; when the control switch is in the second gear, the refrigeration chip is connected in the reverse direction for heating, and the refrigeration chip replaces the cold air in the first circulation cavity to the outside through the replacement cavity and the second air pump; when the control switch is in the third gear, the refrigeration chip, the first air pump and the second air pump are disconnected.

7. The air-conditioning system according to claim 5, characterized in that: The first tempered glass of the air-conditioning type hollow built-in louver glass is installed near the indoor side, the third tempered glass of the air-conditioning type hollow built-in louver glass is installed near the outdoor side, the solar panel, the first air pump and the second air pump are all installed on the third tempered glass, and the control switch is installed indoors.

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