WO2018028521A1

WO2018028521A1 - Smart thermostatic ecological curtain wall system and temperature control method

Info

Publication number: WO2018028521A1
Application number: PCT/CN2017/096087
Authority: WO
Inventors: 冯华国
Original assignee: 金粤幕墙装饰工程有限公司
Priority date: 2016-08-09
Filing date: 2017-08-04
Publication date: 2018-02-15
Also published as: CN106284772A

Abstract

A smart thermostatic ecological curtain wall system comprises an inner glass curtain wall (1), an outer glass curtain wall (2), a temperature control unit, and an independent hollow layer (3) formed between the inner glass curtain wall (1) and the outer glass curtain wall (2). The temperature control unit is connected into the hollow layer (3). Also provided is a temperature control method for the smart thermostatic ecological curtain wall system. The system implements smart temperature control, and the temperature of the hollow layer is kept at a constant value at far as possible while energy consumption is reduced.

Description

Intelligent constant temperature ecological curtain wall system and temperature control method

Technical field

The invention relates to a curtain wall system, in particular to an intelligent constant temperature ecological curtain wall system and a temperature control method.

Background technique

With the improvement of living standards, people's requirements for the comfort of office space are also constantly increasing. How to minimize the operating cost of the air conditioning system on the basis of satisfying the comfort has been a serious problem that plagues the construction industry. The survey shows that the cold source in public places is still widely used, and the centralized air conditioner is running at full capacity, resulting in a large amount of energy waste. Generally, the closer to the air conditioning vent, the lower the temperature, making people uncomfortable and easy to generate air conditioning. disease.

In addition, although the market has begun to use the traditional ventilation window as a retaining structure, it can indeed take away a certain amount of solar radiant heat through natural ventilation and passive heat dissipation, but the ventilation effect is limited by the environment and building size factors. The actual heat taken away is limited.

Chinese Patent Application No. 201410748402.X discloses a three-layer glass structure composite temperature control curtain wall and a temperature control method thereof. The inner glass curtain wall and the outer glass curtain wall have electric louver panes on the upper and lower ends of the invention. a grid tuyere assembly; an inner side interlayer heat exchange channel is formed between the inner glass curtain wall and the middle partitioned glass curtain wall; a separate outer interlayer heat exchange channel is formed between the outer glass curtain wall and the middle partitioned fault glass curtain wall; and the middle partition glass curtain wall The semiconductor thermoelectric temperature control unit is uniformly distributed on the upper; the environmental monitoring system is composed of a plurality of temperature sensors, and provides real-time temperature monitoring data of the target environment for the temperature reading module in the single-chip control module; the semiconductor thermoelectric temperature control unit is controlled by the single-chip microcomputer control module .

The patent discloses the working condition of the curtain wall in summer. When the ambient temperature is higher than 28 degrees Celsius, the outer glass damper is opened, the inner glass damper is closed, and the cooling mode is turned on. First, since the outer glass is an ordinary single-layer glass. Therefore, the heat radiation in the outer interlayer ventilation channel is strong, which will increase the temperature of the partition layer and affect the temperature of the inner interlayer air passage, so that the temperature of the inner interlayer air passage increases, and the cooling power consumption of the semiconductor increases; secondly, when starting In the cooling mode, the temperature of the inner interlayer is lower than the outdoor temperature, and the external sunlight will increase the temperature of the outer interlayer. Especially when the middle glass is a single layer of glass, the inner interlayer cold air is more easily affected by the outdoor temperature, resulting in refrigeration function. Increase.

Summary of the invention

It is an object of the present invention to provide an intelligent constant temperature ecological curtain wall system which has the advantage of being more energy efficient.

The above technical object of the present invention is achieved by the following technical solutions:

An intelligent constant temperature ecological curtain wall system comprising a split inner side glass curtain wall and an outer glass curtain wall, wherein the inner glass curtain wall and the outer glass curtain wall are independently mounted on the curtain wall structure, the inner glass curtain wall and the outer glass A hollow layer is formed between the curtain walls, the inner glass curtain wall is a single-layer glass, and the outer glass curtain wall is double-layer glass. The intelligent constant temperature ecological curtain wall system further includes a single-chip microcomputer, and the single-chip microcomputer is coupled with:

a hollow layer temperature sensor, disposed in the hollow layer, for detecting the temperature of the hollow layer and outputting a temperature signal Tm;

The temperature control unit is disposed on the curtain wall mounting structure in the hollow layer, and is controlled by the single-chip microcomputer to implement a cooling mode or a heating mode to adjust the temperature of the hollow layer to maintain the temperature of the hollow layer at the preset temperature signal Tx. The solution comprises: when the temperature of the hollow layer is detected by the hollow layer temperature sensor, and outputting the temperature signal Tm of the hollow layer, compared with the preset temperature Tx in the single chip, when the temperature Tm of the hollow layer is lower than the preset temperature Tx, the single chip microcomputer controls the temperature control unit to perform Heating until the hollow layer temperature Tm is equal to the preset temperature Tx, the heating operation is stopped, and only the airflow is exchanged;

When the temperature sensor of the hollow layer detects the temperature of the hollow layer and outputs the temperature signal Tm of the hollow layer, compared with the preset temperature Tx in the single chip microcomputer, when the temperature Tm of the hollow layer is higher than the preset temperature Tx, the single chip microcomputer controls the temperature control unit to perform cooling until the temperature is controlled. The hollow layer temperature Tm is equal to the preset temperature Tx, and the heating operation is stopped; the cycle is repeated to ensure that the temperature of the hollow layer is at the preset temperature Tx.

By adopting the above technical solution, decorating the curtain wall system around the building is equivalent to adding a layer of constant temperature insulation layer to the building, which can effectively prevent the loss of heat in the room, because the outer glass curtain wall is double-glazed in the summer. It can effectively reduce the radiation of the sun, effectively block the outdoor heat from entering the hollow layer, thereby reducing the cooling power consumption of the hollow layer, and the arrangement of the inner glass for the single-layer glass also allows the heat in the hollow layer to pass indoors. It will not pass to the outdoor to further reduce the cooling power consumption; in the winter when the outdoor temperature is low, the double-layer glass can also effectively have better insulation effect, and the greenhouse effect can be formed in the hollow layer, which can reduce the heating work. Consumption; the presence of a constant temperature insulation layer can block the influence of the outdoor temperature on the indoor temperature, so that the indoor temperature can be maintained at a certain temperature for a long time, and it is not necessary to frequently start the indoor air conditioner to achieve the energy saving effect.

Preferably, the plurality of hollow layer temperature sensors are disposed on the inner glass curtain wall and the outer glass curtain wall.

By adopting the above technical solution, the data detected by the hollow layer temperature sensor can be made more accurate.

Preferably, a mounting structure for mounting the curtain wall system to the building, the mounting structure comprising a fixing base fixed to the building, a mounting frame connecting the adjacent inner glass curtain walls, and a connection mounting frame are further included The first corner code between the mount and the mount.

By adopting the above technical solution, the curtain wall system can be more conveniently installed on a building.

Preferably, the mounting frame comprises a cross member for connection to the building, a bead for holding the glass, and an outer frame attached to the outside of the bead.

By adopting the above technical solution, this method can make the curtain wall installation more simple and convenient.

Preferably, the middle portion of the bead is connected to the beam by a bolt, and the ends of the bead are recessed toward the inner side. A card slot is formed, and the inner ends of the two sides of the outer frame protrude inwardly to form a block that cooperates with the card slot.

By adopting the above technical solution, during the process of tightening the bead by bolts, the central portion may be excessively stressed, causing the two ends to lift up to lower the sealing performance of the hollow layer, increasing the heat loss of the hollow layer to improve energy consumption; When the outer frame can be excessively stressed in the middle of the bead, the two ends of the bead are effectively prevented from rising to improve the sealing performance, thereby reducing the loss of heat of the hollow layer.

Preferably, the intelligent constant temperature ecological curtain wall system further comprises a fireproof sealing unit, and the fireproof sealing unit comprises a fireproof board sealed between the floor and the beam, and a fireproof rock wool fixed on the fireproof board.

By adopting the above technical solution, the building will use the chimney effect in the summer to reduce the temperature of the hollow layer, but in the event of a fire, the existence of the chimney effect is to aggravate the spread of fire, and the fireproof sealing unit is passed between the layers of the curtain wall. It can block the flame raft layer to achieve energy saving effect while improving safety performance.

Preferably, the inner glass curtain wall is provided with a heat insulating structure on a side close to the indoor, and the heat insulating structure comprises a heat insulating aluminum plate, an insulating rock wool, and a locking member for fixing the heat insulating rock wool on the heat insulating aluminum plate. The insulated aluminum plate is fixed to the beam by the first corner code of the L-shape.

By adopting the above technical solution, the heat insulation structure is arranged on the inner glass curtain wall to further improve the heat insulation effect of the hollow layer, and the heat insulation aluminum plate has enhanced stability by connecting the beam with the L-shaped first corner code, and the heat insulation is strengthened by the locking member. The rock wool is pressed against the thermal insulation aluminum plate to prevent the surface of the thermal insulation aluminum plate from arching.

Preferably, the locking member comprises a fixing plate fixedly connected to the surface of the heat insulating aluminum plate, a locking rod fixed at one end of the fixing plate at one end and forming a hook portion through the thermal insulation rock wool, and sleeved at the hook portion for clamping Insulation rock wool locking plate.

By adopting the above technical solution, it is more convenient to fix the thermal insulation rock wool on the thermal insulation aluminum plate by this method.

Preferably, the beam is sealed with a labyrinth between the fireproof panels.

By adopting the above technical solution, when a fire occurs in the lower layer, the temperature rise causes the beam to be deformed by thermal expansion, so that the looseness between the beam and the fireproof plate causes the gap between the two to increase the sealing effect, and the labyrinth seal is used. The form, even when the beam is deformed, can further improve the sealing between the beam and the fireproof board because of the presence of a plurality of sealing portions, improve the heat insulating performance and improve the fireproof performance.

Another object of the present invention is to provide a temperature control method which has the advantage of being more energy efficient.

The above technical object of the present invention is achieved by the following technical solutions: a temperature control method, which utilizes the above intelligent constant temperature ecological curtain wall system;

Step one, through the hollow layer temperature sensor disposed on the inner glass curtain wall, detecting the temperature of the hollow layer and feeding back the temperature signal Tm in the hollow layer to the single chip microcomputer;

Step 2: receiving the temperature signal Tm by the single chip microcomputer and comparing with the preset temperature Tx to control the temperature control unit to cool or Heating causes the temperature of the hollow layer to be maintained at a preset temperature Tx, wherein

When the temperature sensor of the hollow layer detects the temperature of the hollow layer and outputs the temperature signal Tm of the hollow layer, compared with the preset temperature Tx in the single chip microcomputer, when the temperature Tm of the hollow layer is lower than the preset temperature Tx, the single chip microcomputer controls the temperature control unit to perform heating. Until the hollow layer temperature Tm is equal to the preset temperature Tx, the heating operation is stopped, and only the airflow is exchanged;

In summary, the present invention has the following beneficial effects: the temperature-sensing intelligent constant temperature ecological curtain wall, wrapped around the building, is equivalent to wrapping a layer of insulation on the building, which can reduce the external environment to the indoor temperature. The effect can effectively prevent the loss of indoor temperature in winter, so that even if the indoor temperature can be maintained at a certain temperature for a long time, it is not necessary to start the indoor air conditioner frequently; in the summer, the presence of the thermal insulation layer can block the outdoor high temperature. The influence of indoor low temperature makes the indoor temperature maintain a certain temperature for a long time, and does not need to frequently start the indoor air conditioner to achieve the effect of energy saving; when the temperature control unit is controlled by the single chip microcomputer, the hollow layer can be made to be constant temperature and more energy-saving. The curtain wall system has also improved the fire protection unit to improve the fire safety performance while improving energy efficiency.

DRAWINGS

1 is a schematic structural view of Embodiment 1;

2 is a circuit control diagram of an embodiment;

Figure 3 is a schematic view showing the structure of the column in the first embodiment and the second embodiment;

Figure 4 is a diagram showing the connection relationship between the beam and the fireproof board in the first embodiment and the second embodiment;

Figure 5 is an enlarged view of a portion A in Figure 4;

6 is a schematic structural view showing the connection relationship between the column, the fixed seat and the first corner code in the first embodiment and the second embodiment;

7 is a schematic structural view of Embodiment 2;

FIG. 8 is a schematic view showing the structure of a hollow layer temperature sensor in the second embodiment.

In the figure, 1, the inner glass curtain wall; 11, the vent; 2, the outer glass curtain wall; 3, the hollow layer; 4, the air conditioner; 52, the hollow layer temperature sensor; 52a, the hollow layer temperature sensor; 52b, the hollow layer temperature sensor; 52c, hollow layer temperature sensor; 71, fixed seat; 721, beam; 7211, main body; 72111, first bump; 72112, stop; 7212, cover; 72121, hook; 72122, curved slot; Binder; 7221, card slot; 723, outer frame; 7231; card block; 7232, second bump; 724, second corner code; 7241, first card slot; 73, first corner code; 74, column; , fireproof repair unit; 81, fire board; 811, first recess; 812, second bump; 82, fire rock wool; 91, thermal insulation aluminum; 92, thermal insulation rock wool; 931, lock bar; 9311, hook ;932, locking plate; 933, fixed plate; 94, connecting plate; 101, first protrusion; 102, second recess; 103, stepped hole; 104, ball; 105, pressure ring; 106, spring; 107, wall.

detailed description

The invention will be further described in detail below with reference to the accompanying drawings.

Embodiment 1: An intelligent constant temperature ecological curtain wall system includes a mechanical part and a circuit part; wherein the mechanical part is as shown in FIG. 1 , and includes an inner glass curtain wall 1, an outer glass curtain wall 2, a mounting structure, and a fireproof sealing unit 8.

The inner glass curtain wall 1 and the outer glass curtain wall 2 are installed around the building through a mounting structure; wherein the inner glass curtain wall 1 is a single layer of glass and the outer glass curtain wall 2 is a double glazing, between the inner glass curtain wall 1 and the outer glass curtain wall 2 A hollow layer 3 is formed and a temperature control unit is disposed on the horizontal keel or the longitudinal keel in the hollow layer 3. In the embodiment, the temperature control unit selects the inverter air conditioner 4. The upper and lower curtain wall layers are blocked by the fireproof repair unit 8, and a hollow layer temperature sensor 52 is disposed on the inner glass curtain wall 1.

Referring to FIG. 2, the circuit part of the curtain wall system, the single-chip model is AT89C51, wherein the input end is coupled to the hollow layer temperature sensor 52, the temperature control unit, wherein the model of the hollow layer temperature sensor 52 is DS18B20, and the temperature control unit is the inverter air conditioner 4 .

The energy-saving principle of the present embodiment will be described below with reference to FIG. 1 and FIG. 2. When the building is renovated, the intelligent constant temperature ecological curtain wall system is decorated around the building, and then the cooling mode or the heating mode is realized by the control of the single-chip microcomputer. In order to adjust the temperature of the hollow layer 3 to maintain the temperature of the hollow layer 3 at a certain temperature value, it is equivalent to wrapping the building with a constant temperature insulation layer to achieve energy saving; for example, in winter, on the one hand, the greenhouse layer 3 is formed in the hollow layer 3, The power consumption of the heating is reduced; on the other hand, the presence of the insulating layer can effectively prevent the loss of the indoor temperature, so that even if the indoor temperature can be maintained at a certain temperature for a long time, it is not necessary to start the indoor air conditioner 4 frequently.

In the summer, on the one hand, the presence of a constant temperature insulation layer can block the influence of outdoor high temperature on the indoor low temperature, so that the indoor temperature can be maintained at a certain temperature for a long time, and the indoor air conditioner 4 is not frequently activated to achieve the energy saving effect; The temperature control unit cools the hollow layer 3, so that the cooling power consumption can be further reduced. The air in the hollow layer 3 is not exchanged with the air in the room, and the air volume of the entire hollow layer 3 is one tenth of the volume of the entire building. Therefore, the outdoor temperature is controlled indoorally by controlling the small amount of air in the hollow layer 3. The effect of temperature is more energy efficient.

More importantly, since the outer glass curtain wall 2 is double-glazed, the solar radiation can be effectively reduced in the summer, and the outdoor heat is effectively blocked from entering the hollow layer 3, thereby reducing the cooling power consumption of the hollow layer 3, while the inner side is The arrangement of the glass as a single layer of glass also allows the heat in the hollow layer 3 to be transferred indoors without further cooling to further reduce the cooling power consumption.

Specific instructions,

Step 1, through the hollow layer temperature sensor 52 disposed on the inner glass curtain wall 1, detecting the temperature of the hollow layer 3 and feeding back the temperature signal Tm in the hollow layer 3 to the single chip microcomputer;

Step 2: The temperature signal Tm is received by the single-chip microcomputer and the preset temperature Tx. In this embodiment, the preset temperature is 22 degrees Celsius, and the inverter is controlled to maintain the temperature of the hollow layer 3 at the preset temperature Tx.

When the hollow layer temperature sensor 52 detects the temperature of the hollow layer 33 and outputs the hollow layer temperature signal Tm, compared with the preset temperature Tx in the single chip microcomputer, when the hollow layer temperature Tm is lower than the preset temperature Tx, the single chip microcomputer controls the temperature control unit to perform Heating until the hollow layer temperature Tm is equal to the preset temperature Tx, the heating operation is stopped, and only the airflow is exchanged;

When the hollow layer temperature sensor 52 detects the temperature of the hollow layer 3 and outputs the hollow layer temperature signal Tm, compared with the preset temperature Tx in the single chip microcomputer, when the hollow layer temperature Tm is higher than the preset temperature Tx, the single chip microcomputer controls the temperature control unit to perform The cooling is continued until the hollow layer temperature Tm is equal to the preset temperature Tx, and the heating operation is stopped; the cycle is repeated to ensure that the temperature of the hollow layer is at the preset temperature Tx.

The mounting structure will be described below with reference to FIG. 1, FIG. 4 and FIG. 6. The fixing seat 71 is embedded in the building wall 107, and the column 74 is mounted on the fixing base 71 through the first corner 73, and then the beam 721 is passed through The two corner code 724 is mounted on the post 74.

The upper and lower adjacent inner glass curtain wall 1 and the outer glass curtain wall 2 are fixed by the action of the beam 721 and the bead 722; the left and right adjacent inner glass curtain wall 1 and the outer glass curtain wall 2 are realized by the action of the column 74 and the bead 722. fixed.

Referring to FIG. 4, the specific structure of the beam 721 is as follows. The beam 721 includes a main body 7211. The top of the main body 7211 is open to form an opening. The opening of the opening protrudes inwardly to form a stopper 72112. The opening is covered with a cover 7212. One side of the plate 7212 is provided with a hook 72121, and the other side is provided with an arcuate groove 72122.

The first inner side wall of the main body 7211 is provided with a first protrusion 72111 along the longitudinal direction, and the second corner 724 is provided with a first card slot 7241 which is engaged with the first protrusion 72111.

Dividing the beam 721 into two parts, all the columns 74 can be first installed on the outer wall of the building, and then the beam 721 is installed. When the beam 721 is installed, the main body 7211 is pre-fixed on the column 74, and then through the opening. The second corner code 724 is inserted into the main body 7211 such that the second corner code 724 is relatively fixed in the vertical direction by the first protrusion 72111 and the first card slot 7241, and then the second corner code 724 is fixed by bolts. On the column 74, the arcuate groove 72122 of the cover 7212 is placed in one of the stops 72112, and then engaged with the other block 72112 by the hook 72121. In this way, it is not necessary to install a column 74 and a beam 721 to improve the installation efficiency of the curtain wall.

The central portion of the main body 7211 is convexly formed to form a connecting block, and the pressing strip 722 is fixed to the connecting block by bolts. The ends of the pressing strips 722 are recessed toward the inner side to form a latching slot 7221, and the bead 722 is provided with an outer frame 723 and two outer frames 723. Side inside The end surface protrudes inwardly to form a block 7231 that cooperates with the card slot 7221.

When the bead 722 is tightened by bolts, the middle portion of the bead 722 is excessively stressed to cause the both ends to be lifted. When the two ends of the bead 722 are caught on the outer frame 723, the ends of the bead 722 can be effectively prevented from being excessively stressed in the middle of the bead 722. Lifting to improve the sealing performance, thereby reducing the loss of heat of the hollow layer 3. In addition, in order to further prevent the two ends of the bead 722 from being lifted up, a second protrusion 7232 may be disposed on the outer frame 723. When the outer frame 723 is covered on the bead 722, the second protrusion 7232 abuts against the end of the bead 722.

In order to enhance the sealing performance of the hollow layer 3, a sealing strip is provided on the end faces of the main body 7211 and the bead 722 in contact with the glass.

Referring to FIG. 4, the fireproof repair unit 8 is specifically described below. The fireproof repair unit 8 includes a fireproof board 81 that is connected to the wall 107 by one side and is sealed between the floor and the beam 721 on the other side. a fireproof rock wool 82 fixed on the fireproof board 81; a lower surface of the fireproof board 81 is provided with a first recess 811 formed by punching, and a top surface of the cover plate 7212 is provided with a first protrusion 101 matched with the first recess 811; The lower surface of the plate 81 further forms a second protrusion 812, and the upper surface of the cover plate 7212 is formed with a second recess 102 that cooperates with the second protrusion 812; this design is similar to the use of a maze between the fireproof plate 81 and the beam 721 Sealing, when a fire occurs, heat is transferred to the inside of the beam 721, so that the air inside the beam 721 is thermally expanded, so that the cover 7212 is deformed outwardly and outwardly, which makes the first protrusion 101 stronger. The second protrusion 812 is also embedded in the second recess 102 to better solve the sealing problem caused by the deformation of the cover 7212, thereby improving the fireproof performance of the curtain wall.

Referring to FIG. 4, a heat insulating structure is disposed on a side of the inner glass curtain wall 1 adjacent to the wall 107. The heat insulating structure includes an insulating aluminum plate 91 connected to the beam 721 through an L-shaped connecting plate 94, and the insulating aluminum plate 91 and the wall 107 are insulated. The thermal insulation rock wool 92 is filled between the thermal insulation rock wool 92 and the thermal insulation aluminum plate 91 is fixed by the locking member.

The locking member specifically includes a fixing plate 933 fixedly connected to the surface of the heat insulating aluminum plate 91, a locking rod 931 and a curved locking plate 932. One end of the locking rod 931 is fixed to the other end of the fixing plate 933 and passes through the thermal insulation rock wool. 92 forms a hook portion 9311.

The fire performance of the curtain wall system is further described in conjunction with FIG. 4 and FIG. 5. In order to improve the fire performance of the curtain wall, the bolt connecting the L-shaped connecting plate 94 and the beam 721 is improved, and the stepped hole 103 penetrating the entire bolt is provided in the middle of the bolt. The small diameter section of the stepped hole 103 is close to the wall 107 side, the large diameter section of the stepped hole 103 is provided with an internal thread, and a ball 104 is disposed in the stepped hole 103. The diameter of the ball 104 is larger than the diameter of the small diameter section smaller than the diameter of the large diameter section. The large diameter section of the stepped hole 103 is screwed to a pressure ring 105. A spring 106 is disposed between the ball 104 and the pressure ring 105. When the spring 106 is in a natural state or is slightly compressed, the ball 104 can block the stepped hole 103. When a fire occurs, the air in the beam 721 is thermally expanded, and the air pressure in the beam 721 is raised, and the ball 104 is pushed out to make the step The hole 103 is opened, at which time hot air flows in the direction along the stepped hole 103, so that the force at the cover 7212 can be reduced, so that the cover 7212 does not have too much deformation, thereby further improving the fire prevention. The sealing between the plate 81 and the beam 721 improves the fire resistance and the insulation performance.

Embodiment 2 Referring to FIG. 7 and FIG. 8 , an intelligent constant temperature ecological curtain wall system is different from the first embodiment in that: the hollow layer temperature sensor 52 is set to three, wherein the hollow layer temperature sensor 52 a is disposed on the inner side glass. The curtain wall 1 is near the top of the floor, the hollow layer temperature sensor 52b is disposed in the middle of the inner glass curtain wall 1 near the floor, and 52c is disposed on the inner side of the outer glass curtain wall 2 to further improve the accuracy of the detection data, thereby improving the energy saving effect.

The present invention is only an explanation of the present invention, and is not intended to limit the present invention. Those skilled in the art can make modifications without innovating the present embodiment as needed after reading the present specification, but as long as the present invention is in the right of the present invention. All requirements are protected by patent law.

Claims

An intelligent constant temperature ecological curtain wall system comprises a split inner side glass curtain wall (1) and an outer glass curtain wall (2), wherein the inner glass curtain wall (1) and the outer glass curtain wall (2) are independently installed in the curtain wall structure A hollow layer (3) is formed between the inner glass curtain wall (1) and the outer glass curtain wall (2), wherein the inner glass curtain wall (1) is a single-layer glass, and the outer glass curtain wall (2) The double-glazed glass, the intelligent constant temperature ecological curtain wall system further includes a single-chip microcomputer, and the single-chip microcomputer is coupled with:

a hollow layer temperature sensor (52), disposed in the hollow layer (3) for detecting the temperature of the hollow layer (3) and outputting a temperature signal Tm;

The temperature control unit is disposed on the curtain wall mounting structure in the hollow layer (3), and is controlled by the single-chip microcomputer to realize a cooling mode or a heating mode to adjust the temperature of the hollow layer (3) to maintain the temperature of the hollow layer (3) at Presetting the temperature signal Tx, the solution comprises: when the hollow layer temperature sensor (52) detects the temperature of the hollow layer (3), and outputs the hollow layer (3) temperature signal Tm, compared with the preset temperature Tx in the single chip, wherein When the empty layer (3) temperature Tm is lower than the preset temperature Tx, the single-chip microcomputer controls the temperature control unit to perform heating until the temperature of the hollow layer (3) is equal to the preset temperature Tx, and the heating operation is stopped, and only the airflow is exchanged;

When the hollow layer temperature sensor (52) detects the temperature of the hollow layer (3) and outputs the temperature signal Tm of the hollow layer (3), compared with the preset temperature Tx in the single chip microcomputer, when the temperature Tm of the hollow layer (3) is higher than the preset At the temperature Tx, the single-chip microcomputer controls the temperature control unit to perform cooling until the hollow layer (3) temperature Tm is equal to the preset temperature Tx, and the heating operation is stopped; the cycle is repeated to ensure that the temperature of the hollow layer (3) is at the preset temperature Tx.
The intelligent constant temperature ecological curtain wall system according to claim 1, wherein the plurality of hollow layer temperature sensors (52) are disposed on the inner glass curtain wall (1) and the outer glass curtain wall (2), respectively. .
An intelligent constant temperature ecological curtain wall system according to claim 1, further comprising: a mounting structure for mounting the curtain wall system to the building, the mounting structure comprising a fixing base fixed to the building ( 71), connecting the mounting frame between the adjacent inner glass curtain walls (1) and connecting the first corner code (73) between the mounting frame and the fixing seat (71).
An intelligent constant temperature ecological curtain wall system according to claim 3, wherein said mounting frame comprises a beam (721) for connecting to the building, a bead (722) for holding the glass, and a connection The outer frame (723) of the bead (722).
The intelligent constant temperature ecological curtain wall system according to claim 4, wherein the middle portion of the bead (722) is connected to the beam (721) by a bolt, and the ends of the bead (722) are recessed toward the inner side. The card slot (7221), the inner end of the two sides of the outer frame (723) protrudes inwardly to form a block (7231) that cooperates with the card slot (7221).
The intelligent constant temperature ecological curtain wall system according to claim 3, wherein the intelligent constant temperature ecological curtain wall system further comprises a fireproof sealing unit (8), wherein the fireproof sealing unit comprises a sealing connection between the floor and the beam ( Between 721) Fireproof board (81), fireproof rock wool (82) fixed on fireproof board (81).
The intelligent constant temperature ecological curtain wall system according to claim 3, wherein: the inner glass curtain wall (1) is provided with a heat insulating structure on a side close to the indoor, and the heat insulating structure comprises a heat insulating aluminum plate (91). Insulating rock wool (92) and a locking member (93) for fixing the thermal rock wool (92) on the thermal insulating aluminum plate (91), the insulating aluminum plate (91) passing through the L-shaped connecting plate (94) A corner code (73) is fixed to the beam (721).
The intelligent constant temperature ecological curtain wall system according to claim 7, wherein the locking member comprises a fixing plate (933) fixedly connected to the surface of the heat insulating aluminum plate (91), and one end fixed to the fixing plate (933). The other end passes through the insulating rock wool (92) to form a locking rod (931) of the hook portion (9311) and a locking plate (932) sleeved on the hook portion (9311) for clamping the insulating rock wool (92).
The intelligent constant temperature ecological curtain wall system according to claim 7, wherein the cross beam (721) and the fireproof plate (81) are sealed by a labyrinth.
A temperature control method using the intelligent constant temperature ecological curtain wall system according to any one of claims 1 to 9;

Step 1, through the hollow layer temperature sensor (52) disposed on the inner glass curtain wall (1), detecting the temperature of the hollow layer (3) and feeding back the temperature signal Tm in the hollow layer (3) to the single chip microcomputer;

Step 2: The temperature signal Tm is received by the single-chip microcomputer and compared with the preset temperature Tx to control the cooling or heating of the temperature control unit to maintain the temperature of the hollow layer (3) at a preset temperature Tx, wherein

When the hollow layer temperature sensor (52) detects the temperature of the hollow layer (3) and outputs the temperature signal Tm of the hollow layer (3), compared with the preset temperature Tx in the single chip microcomputer, when the temperature Tm of the hollow layer (3) is lower than the preset At the temperature Tx, the single-chip microcomputer controls the temperature control unit to perform heating until the temperature of the hollow layer (3) is equal to the preset temperature Tx, and the heating operation is stopped, and only the airflow is exchanged;

When the hollow layer temperature sensor (52) detects the temperature of the hollow layer (3) and outputs the temperature signal Tm of the hollow layer (3), compared with the preset temperature Tx in the single chip microcomputer, when the temperature Tm of the hollow layer (3) is higher than the preset At the temperature Tx, the single-chip microcomputer controls the temperature control unit to perform cooling until the hollow layer (3) temperature Tm is equal to the preset temperature Tx, and the heating operation is stopped; the cycle is repeated to ensure that the temperature of the hollow layer (3) is at the preset temperature Tx.