Green building energy-saving wall

Abstract

The invention relates to the technical field of building energy conservation, in particular to a green building energy-saving wall. The wall body comprises a wall body, an equipment groove, a plectrum groove and an operation groove, the multiple heat insulation mechanisms are evenly arranged in the operation groove, each heat insulation mechanism comprises a mounting assembly, a rotating rod and a temperature control assembly, and the temperature control assemblies can adjust the heat preservation performance of the wall body through rotation; the connecting mechanism is located in the shifting piece groove, and the multiple heat insulation mechanisms can move synchronously. The transmission mechanism is connected with the connecting mechanism and controlled by the operating mechanism to provide power. Through cooperative work of multiple components, wall temperature regulation and control are achieved, the energy utilization efficiency is improved, and energy consumption is effectively reduced.

Description

Technical Field

[0001] The present application relates to the technical field of building energy conservation, and in particular to a green building energy-saving wall. Background Art

[0002] Wall energy-saving technology is an indispensable part of modern building design, aiming to improve the energy efficiency of buildings, reduce energy consumption, and reduce carbon emissions. With the improvement of global environmental awareness and technological progress, various new wall materials and structures have emerged, providing a variety of options for building energy conservation. These technologies not only help improve the quality of indoor environment, but also significantly reduce the operating costs of buildings and promote sustainable development. Globally, governments have introduced policies to encourage the application of green building materials, and companies have also increased their investment in research and development, making wall energy-saving technology one of the important development directions of the construction industry. At present, in the field of green building energy-saving walls, common solutions include using multi-layer composite walls, adding thermal insulation materials, and introducing intelligent temperature control systems to achieve energy-saving goals. For example, multi-layer composite walls are usually composed of outer protective materials, middle insulation layers, and inner decorative materials. The combination of different materials effectively blocks heat transfer; while adding thermal insulation materials is to lay a layer of high-efficiency thermal insulation materials such as polyurethane foam and rock wool inside or on the surface of the wall to enhance the thermal insulation performance of the wall; in addition, some advanced designs will also integrate solar photovoltaic panels to further optimize energy balance using renewable energy. Some designs also use air interlayers to adjust the heat transfer characteristics of the wall by controlling air flow, further improving the energy-saving effect of the wall.

[0003] With regard to the above-mentioned related technologies, the inventor believes that the existing wall energy-saving technologies generally have the problem of insufficient flexibility, especially in response to climate change, it is difficult to adjust the insulation effect in real time, thereby affecting the living comfort and increasing additional energy consumption. Especially in areas where the temperature changes frequently, this static design method is more disadvantageous and cannot meet the needs of temperature changes. Therefore, it is particularly important to develop a green building energy-saving wall that can adjust the insulation performance. Summary of the invention

[0004] In order to solve the above problems, the present application provides a green building energy-saving wall.

[0005] The present application provides a green building energy-saving wall, which adopts the following technical solutions: A green building energy-saving wall, comprising a wall, wherein an equipment slot is arranged on the wall, a paddle slot is arranged above the equipment slot, and an operation slot is also arranged in the wall; a heat insulation mechanism, wherein several groups of heat insulation mechanisms are evenly arranged in the operation slot, and the heat insulation mechanism comprises two groups of mounting components arranged in the equipment slot, the mounting components are rotatably connected to the wall, a rotating rod is arranged between the two groups of the mounting components, and a temperature control component is sleeved on the rotating rod, and the temperature control component can control the thermal insulation performance of the wall; a connecting mechanism, wherein the connecting mechanism is arranged in the paddle slot, and the connecting mechanism is used to connect the heat insulation mechanism so that several of the heat insulation mechanisms can perform the same movement in unison; a transmission mechanism, wherein the transmission mechanism is connected to the connecting mechanism and is used to control the movement of the connecting mechanism; an operating mechanism, wherein the operating mechanism is arranged in the operation slot, and the operating mechanism is used to provide power for the transmission mechanism.

[0006] By adopting the above technical scheme, the energy-saving wall of the green building can automatically adjust the thermal insulation performance of the wall in different seasons and weather conditions, effectively reduce energy consumption and improve comfort. Specifically, the temperature control component in the thermal insulation mechanism set in the equipment slot can adjust its position according to the change of external temperature, thereby changing the direction of the thermal insulation board, thereby realizing effective regulation of the indoor temperature. To control the thermal insulation efficiency, the thermal insulation board is usually outward when it is hot, reflecting sunlight to prevent indoor overheating, and rotating and adjusting when it is cold, so that the thermal insulation board points to the indoor and the solar panel is outward. While improving the indoor thermal insulation performance, the solar panel can convert sunlight into electrical energy to provide power support for the entire system, thereby increasing the indoor heat through the heating layer, further reducing energy consumption and improving comfort. In addition, the design of the connection mechanism enables multiple thermal insulation mechanisms to act synchronously to ensure that the thermal insulation performance of each part of the wall remains consistent. The transmission mechanism and the operating mechanism work together, not only realizing the manual operation mode switching, but also timely adjusting the thermal insulation state of the wall. The overall structure is compact and reasonable, easy to install and maintain, and suitable for various new or renovated green building designs.

[0007] Preferably, the mounting assembly includes a first rotating circle embedded in the wall, the first rotating circle is rotatably connected to a second rotating circle, the second rotating circle is provided with a first mounting plate and also includes a second mounting plate provided on the rotating rod, and the first mounting plate and the second mounting plate can be connected by bolts.

[0008] By adopting the above technical solution, the design of the first rotating circle and the second rotating circle in the installation assembly enables the heat insulation mechanism to rotate flexibly inside the wall, thereby realizing effective adjustment of the temperature control assembly. The bolt connection between the first mounting plate and the second mounting plate not only improves the stability of the structure, but also facilitates disassembly and maintenance, prevents damage to the rotating rod or the temperature control assembly on the rotating rod, and ensures the reliability and operability of the entire system.

[0009] Preferably, the temperature control component includes a heat insulation board made of metal material, and also includes a solar panel, which can convert sunlight into electrical energy, and the rotating rod is arranged between the heat insulation board and the solar panel.

[0010] By adopting the above technical solution, when the external ambient temperature is high, the position of the heat insulation board can be adjusted through the operating mechanism and the transmission mechanism to face the outside. In this way, the heat insulation board can effectively reflect external sunlight and other heat radiation, thereby significantly reducing the heat absorption of the wall, improving the thermal insulation performance of the wall, and reducing the increase in indoor temperature. This design not only helps to keep the room cool and comfortable, but also effectively reduces the energy consumption of the air conditioning system, achieving the purpose of energy saving and emission reduction.

[0011] On the other hand, when the outside temperature is low, the insulation board can be turned to the indoor side, so that the solar panel is exposed to the outside. At this time, the solar panel can efficiently absorb the light energy from the sun and convert it into electrical energy for use inside the building or store it for emergency use. At the same time, because the insulation board faces the interior, it can play a good role in heat reflection, reduce the loss of indoor heat to the outside, and further enhance the warmth of the room. This two-way adjustment mechanism not only improves the energy efficiency of green buildings, but also greatly improves the comfort of residents.

[0012] Preferably, the connecting mechanism includes a guide plate arranged between the paddle slot and the device slot, and also includes a connecting plate movably connected in the paddle slot, and a plurality of connecting components are arranged on the connecting plate, and the connecting components are connected to the rotating rod and correspond to the rotating rod one by one.

[0013] By adopting the above technical solution, the design of the connection mechanism enables multiple insulation mechanisms to perform the same movement synchronously, ensuring the consistency of the thermal insulation performance of the wall. The setting of the guide plate and the connection plate effectively improves the stability and reliability of the connection component, and the one-to-one correspondence design of the connection component and the rotating rod further enhances the coordination of the entire system, thereby improving the overall energy saving and thermal insulation effect of the wall.

[0014] Preferably, the transmission mechanism includes a transmission groove arranged on the guide plate, and also includes a transmission shaft vertically penetrated through the wall, and a transmission rod is connected to the transmission shaft, and the transmission rod passes through the transmission groove, one end of the transmission rod is connected to the connecting plate, and the other end of the transmission rod is connected to the transmission shaft.

[0015] By adopting the above technical solution, the design of the connection assembly makes the linkage between the connection plate and the rotating rod more stable and reliable, ensuring that multiple insulation mechanisms can move synchronously, improving the insulation performance and energy efficiency of the wall. At the same time, the setting of the guide hole effectively limits the movement path of the connecting rod, reduces mechanical failures caused by the displacement of the connecting rod, and prolongs the service life of the device.

[0016] Preferably, the transmission mechanism comprises a transmission rod connected to the connecting mechanism, and one end of the transmission rod away from the connecting mechanism is connected to a transmission shaft.

[0017] By adopting the above technical solution, the transmission mechanism design of the green building energy-saving wall can effectively transmit power and ensure the coordinated operation between the connecting mechanism and the insulation mechanism. Specifically, the design of the transmission rod enables the movement of the connecting mechanism to be accurately transmitted to the rotating rod, thereby achieving the consistent movement of multiple insulation mechanisms. In addition, the setting of the transmission shaft further enhances the stability and reliability of the entire system and ensures the synchronous operation of various components inside the wall.

[0018] Preferably, the operating mechanism includes a first bevel gear coaxially arranged on the rotating shaft, the first bevel gear is arranged in the operating slot, the first bevel gear is meshed with a second bevel gear, the second bevel gear is coaxially connected to a rotating gear, the rotating gear is connected to a driving assembly, the second bevel gear and the rotating gear are rotatably connected to a mounting shaft, and the mounting shaft is connected to the inner wall of the operating slot.

[0019] By adopting the above technical solution, the operating mechanism can effectively transmit the external driving force to the transmission mechanism, thereby controlling the action of the connecting mechanism and the thermal insulation mechanism. Specifically, the cooperation between the first bevel gear and the second bevel gear realizes the conversion of the force transmission direction, so that the drive assembly can be arranged perpendicular to the rotating shaft, thereby optimizing the spatial layout. At the same time, the connection between the rotating gear and the drive assembly ensures the stability and reliability of power transmission, ensuring that the entire system can respond quickly and perform predetermined actions when needed. In addition, the design of the mounting shaft further improves the stability of the structure and reduces the risk of mechanical failure caused by vibration or impact.

[0020] Preferably, the driving assembly includes a sliding rail arranged on the inner wall of the operating groove, the sliding rail is slidably connected with a driving plate, the driving plate is provided with an operating rod, and the driving plate is provided with a driving rack at one end close to the rotating gear, the driving rack can engage with the rotating gear, and also includes an operating hole arranged on the wall, and the operating rod passes through the operating hole.

[0021] By adopting the above technical solution, the operating mechanism of the green building energy-saving wall can effectively transmit power. Specifically, the design of the sliding rail and the drive plate enables the operating rod to move smoothly in the horizontal direction, thereby driving the drive rack to engage with the rotating gear, thereby achieving precise control of the transmission mechanism. This design not only improves the reliability and stability of the system, but also ensures that the external operating force is accurately transmitted to the internal transmission system, improving the overall energy conversion efficiency and response speed.

[0022] Preferably, it further comprises a locking mechanism, wherein the locking mechanism comprises a plurality of locking grooves arranged on the wall, and further comprises a locking rod rotatably connected to the locking mechanism, wherein the locking rod is connected with a locking block, and the locking block can be inserted into the locking groove.

[0023] By adopting the above technical solution, the setting of the locking mechanism enables the thermal insulation component to maintain a stable direction and position during operation. When the thermal insulation mechanism needs to be fixed, the operating rod can be pushed manually or mechanically to drive the locking rod to rotate and insert the locking block on it into the locking groove on the wall, thereby effectively locking the thermal insulation mechanism to prevent it from being offset or loosened due to external factors. This not only improves the stability of the entire wall system, but also ensures the consistency and reliability of the thermal insulation effect.

[0024] Preferably, an electric heating layer is provided on a side of the wall away from the equipment slot.

[0025] By adopting the above technical solutions, solar panels can convert sunlight into electrical energy for use by various components in the wall, thereby reducing dependence on external power sources and improving the self-sufficiency of the system. At the same time, in cold weather conditions, the electric heating layer can use this part of the converted electrical energy for heating, further improving the comfort and energy utilization rate inside the building.

[0026] In summary, the present application includes at least one of the following beneficial technical effects: 1. Through the cooperation of temperature control components and thermal insulation mechanisms, the thermal insulation performance of the wall can be adjusted according to the changes in indoor and outdoor temperatures, effectively solving the problem that existing fixed thermal insulation materials cannot be flexibly adjusted according to temperature changes. This not only improves living comfort, but also reduces the additional energy consumption caused by temperature fluctuations, further improving the energy efficiency of the building.

[0027] 2. The design of the connection mechanism and transmission mechanism enables multiple insulation mechanisms to operate synchronously, ensuring uniform insulation performance of the entire wall. This design not only enhances the reliability and stability of the system, but also avoids imbalance caused by temperature differences in local areas, thereby extending the service life of the wall.

[0028] 3. The integration of solar panels not only provides auxiliary power for the wall, but also converts solar energy into electrical energy for storage for use by other equipment, further reducing the overall energy consumption of the building. At the same time, this design is in line with the development trend of green buildings, helps reduce carbon emissions, promotes sustainable development, and can drive the built-in heating layer through solar energy to increase indoor temperature, improve wall insulation performance, and improve energy utilization. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 It is a schematic diagram of the structure of an embodiment of the present application; Figure 2 is a schematic cross-sectional structure diagram of an embodiment of the present application; Figure 3 yes Figure 2 The enlarged view of point B; Figure 4 yes Figure 2 A magnified image of point A; Figure 5 is a schematic diagram of a locking mechanism in an embodiment of the present application; Figure 6 It is a partial structural diagram of an embodiment of the present application.

[0030] Description of the accompanying drawings: 1. wall; 101. equipment slot; 102. paddle slot; 103. operation slot; 104. electric heating layer; 2. thermal insulation mechanism; 201. mounting assembly; 2011. first rotating circle; 2012. second rotating circle; 2013. first mounting plate; 2014. second mounting plate; 202. rotating rod; 203. temperature control assembly; 2031. thermal insulation board; 2032. solar panel; 3. connecting mechanism; 301. guide plate; 302. connecting plate; 303. connecting assembly; 3031. guide hole; 3032. second rotating circle; 2014. second mounting plate; 202. rotating rod; 203. temperature control assembly; 2031. thermal insulation board; 2032. solar panel; 3. connecting mechanism; 301. guide plate; 302. connecting plate; 303. connecting assembly; 3031. guide hole; 3032. second rotating circle; 2013. first mounting plate ... A connecting rod; 3033, a second connecting rod; 3034, a third connecting rod; 4, a transmission mechanism; 401, a transmission rod; 402, a transmission shaft; 403, a transmission groove; 5, an operating mechanism; 501, a first bevel gear; 502, a second bevel gear; 503, a rotating gear; 504, a driving assembly; 5041, a sliding rail; 5042, a driving plate; 5043, an operating rod; 5044, a driving rack; 5045, an operating hole; 505, a mounting shaft; 6, a locking mechanism; 601, a locking groove; 602, a locking rod; 603, a locking block. DETAILED DESCRIPTION

[0031] The following is combined with Figure 1-6 This application is described in further detail.

[0032] The present application embodiment discloses a green building energy-saving wall. Figure 1 as well as Figure 2 A green building energy-saving wall, specifically, includes a wall 1, a device slot 101 is arranged on the wall 1, a paddle slot 102 is arranged above the device slot 101, and an operation slot 103 is also arranged in the wall 1; an insulation mechanism 2, several groups of insulation mechanisms 2 are evenly arranged in the operation slot 103, the insulation mechanism 2 includes two groups of mounting components 201 arranged in the device slot 101, a rotating rod 202 is arranged between the two groups of mounting components 201, a temperature control component 203 is sleeved on the rotating rod 202, and the temperature control component 203 can rotate with the rotating rod 202, thereby controlling the thermal insulation performance of the wall 1; a connecting mechanism 3 is used to connect the insulation mechanism 2, so that several insulation mechanisms 2 can perform the same movement in unison; a transmission mechanism 4 is used to control the connection mechanism 3 to move; an operating mechanism 5, the operating mechanism 5 is arranged in the operation slot 103, and the operating mechanism 5 is used to provide power for the transmission mechanism 4.

[0033] During specific use, according to the existing temperature and needs, first use the operating mechanism 5 manually to move the operating mechanism 5, thereby driving the driving rack 5044 on the operating mechanism 5 to perform linear displacement, and then driving the rotating gear 503 gear position installation shaft 505 to rotate. When the rotating gear 503 rotates, it drives the second bevel gear 502 connected to the rotating gear 503 to rotate at the same time, and the second bevel gear 502 further drives the first bevel gear 501 to rotate, and further causes the transmission component to move, and then causes the connecting mechanism 3 to move, thereby adjusting the heat insulation mechanism 2, so that the temperature control component 203 can rotate with the rotating rod 202, and then control and adjust the thermal insulation performance of the wall 1. Through the cooperation of the temperature control component 203 and the heat insulation mechanism 2, the thermal insulation performance of the wall 1 can be adjusted according to the changes in indoor and outdoor temperatures, which effectively solves the problem that the existing fixed thermal insulation materials cannot be flexibly adjusted according to changes in air temperature. This not only improves living comfort, but also reduces additional energy consumption caused by temperature fluctuations, further improving the energy efficiency of the building. At the same time, the integration of solar panels 2032 not only provides an auxiliary power source for the wall 1, but also can convert solar energy into electrical energy and store it for use by other equipment, further reducing the overall energy consumption of the building. This design is in line with the development trend of green buildings, helps to reduce carbon emissions and promote sustainable development.

[0034] Reference Figure 1 , Figure 2 , Figure 3 as well as Figure 6Specifically, several groups of heat insulation mechanisms 2 are evenly arranged in the operation groove 103. The heat insulation mechanism 2 includes two groups of installation components 201 arranged in the equipment groove 101. The installation components 201 are rotatably connected to the wall 1. The installation components 201 include a first rotating circle 2011 buried in the wall 1, and the first rotating circle 2011 is rotatably connected to the second rotating circle 2012. The second rotating circle 2012 is provided with a first installation disk 2013, and also includes a second installation disk 2014 arranged on the rotating rod 202. The first installation disk 2013 and the second installation disk 2014 can be connected by bolts. A rotating rod 202 is arranged between the two groups of installation components 201, and a temperature control component 203 is sleeved on the rotating rod 202. The temperature control component 203 includes a heat insulation board 2031, which is made of metal material, and also includes a solar panel 2032. The solar panel 2032 can convert sunlight into electrical energy. The rotating rod 202 is arranged between the heat insulation board 2031 and the solar panel 2032. The heat insulation board 2031 can be an aluminum alloy plate with a relatively smooth surface, or a copper alloy plate; the solar panel 2032 can be a monocrystalline silicon panel or a polycrystalline silicon panel.

[0035] When the heat insulation mechanism 2 is working, it needs to be installed first. When the wall 1 is built, the installation component 201 is buried in the wall 1, and then the rotating rod 202 is connected to the installation component 201 through the first installation plate 2013 and the second installation plate 2014. The first connecting plate and the second connecting plate can be connected by bolts. Then, the heat insulation board 2031 and the solar panel 2032 are installed on the rotating rod 202 from both sides. As an embodiment not shown, the heat insulation board 2031 and the solar panel 2032 can be connected by bolts or snaps; then the installation is completed. This installation method not only improves the stability of the structure, but also facilitates disassembly and maintenance, prevents damage to the rotating rod 202 or the temperature control component 203 on the rotating rod 202, and ensures the reliability and operability of the entire system. As an embodiment not shown, an energy storage battery can be set in the wall 1 to store the electricity generated by solar energy.

[0036] After installation, it can be roughly divided into three working states. In the first working state, when the outside temperature is high and the indoor temperature is desired to be maintained, the heat insulation board 2031 is turned outward by rotating the rod 202. The heat insulation board 2031 can effectively reflect external sunlight and other heat radiation, thereby significantly reducing the heat absorption of the wall 1, improving the thermal insulation performance of the wall 1, and reducing the increase in indoor temperature. The second working state is when the outside temperature is low, especially when there is a heating device in the house, by rotating the rod 202 to make the heat insulation board 2031 face inward, and the solar panel 2032 faces outward. At this time, the solar panel 2032 can efficiently absorb the light energy from the sun and convert it into electrical energy for use inside the building or store it for emergency use. At the same time, because the heat insulation board 2031 faces indoors, it can play a good heat reflection role, reduce the loss of indoor heat to the outside, and further enhance the warming effect of the room.

[0037] In the third working state, when the outside temperature is more suitable, the temperature control component 203 is rotated to the side by rotating the rod 202, so that the outside temperature can be used to the maximum extent to adjust the indoor temperature to a suitable temperature. During the working process, when the heat preservation effect needs to be increased, the rotating rod 202 can be rotated manually or electrically to adjust the three working modes.

[0038] Reference Figure 1 , Figure 3 as well as Figure 6 Specifically, the connecting mechanism 3 includes a guide plate 301 arranged between the paddle slot 102 and the device slot 101, and also includes a connecting plate 302 movably connected in the paddle slot 102, a plurality of connecting components 303 are arranged on the connecting plate 302, the connecting components 303 are connected to the rotating rod 202, and correspond to the rotating rod 202 one by one. A group of corresponding connecting components 303 is arranged for each rotating rod 202, and the connecting component 303 includes a guide hole 3031 arranged on the guide plate 301, and also includes a first connecting rod 3032 connected to the connecting plate 302, the first connecting rod 3032 is connected to the second connecting rod 3033, the second connecting rod 3033 passes through the guide hole 3031, and the end of the second connecting rod 3033 away from the guide plate 301 is connected to the third connecting rod 3034, and the third connecting rod 3034 is connected to the rotating rod 202. The shape of the guide hole 3031 is similar to the movement trajectory of the second connecting rod 3033 , and can guide the second connecting rod 3033 .

[0039] During specific operation, the transmission mechanism 4 will drive the connecting mechanism 3 to move, so that the connecting plate 302 rotates and then drives the first connecting rod 3032, and then drives the second connecting rod 3033. Through the transmission of the third connecting rod 3034, the rotating rod 202 is finally pushed to rotate, thereby realizing the synchronous movement of multiple insulation mechanisms 2, and then adjusting the direction of the temperature control component 203, and adjusting the insulation performance of the wall 1.

[0040] Reference Figure 2 , Figure 4 as well as Figure 6The transmission mechanism 4 includes a transmission groove 403 arranged on the guide plate 301, and also includes a transmission shaft 402 vertically penetrated in the wall 1, and a transmission rod 401 is connected to the transmission shaft 402, and the transmission rod 401 passes through the transmission groove 403. One end of the transmission rod 401 is connected to the connecting plate 302, and the other end of the transmission rod 401 is connected to the transmission shaft 402.

[0041] During specific operation, the transmission shaft 402 is rotated through the operating mechanism 5, which in turn drives the transmission rod 401 to rotate. The transmission rod 401 rotates with the connecting plate 302. When the connecting plate 302 rotates, it drives several first connecting rods 3032 to rotate, and then drives several rotating rods 202 to rotate synchronously, so that multiple insulation mechanisms 2 can operate synchronously.

[0042] Reference Figure 4 as well as Figure 5 Specifically, the operating mechanism 5 includes a first bevel gear 501, a second bevel gear 502, a rotating gear 503 and a driving assembly 504. The first bevel gear 501 is coaxially arranged on the transmission shaft 402 and is located in the operating slot 103. The second bevel gear 502 is meshed with the first bevel gear 501 and is coaxially connected with the rotating gear 503. The rotating gear 503 is connected with the driving assembly 504, and the driving assembly 504 includes a sliding rail 5041, a driving plate 5042, an operating rod 5043 and a driving rack 5044. The sliding rail 5041 is fixed on the inner wall of the operating slot 103, the driving plate 5042 is slidably connected thereon, and the operating rod 5043 is arranged on the driving plate 5042 and extends through an operating hole 5045 on the wall 1. The driving rack 5044 is arranged at one end of the driving plate 5042 close to the rotating gear 503, meshed with the rotating gear 503, to ensure the accurate positioning of the operating mechanism 5. For example, the sliding rail 5041 can be a stainless steel rail or an aluminum alloy rail; the driving plate 5042 can be a plastic plate or a metal plate.

[0043] During specific operation, the operating lever 5043 is manually or electrically operated to drive the rack 5044 to drive the rotating gear 503 to rotate, thereby driving the first bevel gear 501 and the second bevel gear 502 to be linked, and finally the power is transmitted to the connecting mechanism 3 through the transmission shaft 402 and the transmission rod 401. During specific operation, the operating lever 5043 is manually or electrically operated to drive the rack 5044 to drive the rotating gear 503 to rotate, thereby driving the first bevel gear 501 and the second bevel gear 502 to be linked, and finally the power is transmitted to the connecting mechanism 3 through the transmission shaft 402 and the transmission rod 401.

[0044] The design of the connection mechanism 3 and the transmission mechanism 4 enables the multiple heat insulation mechanisms 2 to operate synchronously, ensuring uniform insulation performance of the entire wall 1. This design not only enhances the reliability and stability of the system, but also avoids the imbalance caused by temperature differences in local areas, thereby extending the service life of the wall 1.

[0045] Reference Figure 5 Specifically, it also includes a locking mechanism 6, the locking mechanism 6 has a plurality of locking grooves 601 arranged on the wall 1, and also includes a locking rod 602 rotatably connected to the locking mechanism 6, the locking rod 602 is connected to a locking block 603, and the locking block 603 can be inserted into the locking groove 601 In specific operation, when the heat insulation mechanism 2 needs to be fixed, the operating rod 5043 can be pushed manually or mechanically to drive the locking rod 602 to rotate and insert the locking block 603 on the locking groove 601 on the wall 1, thereby effectively locking the heat insulation mechanism 2 to prevent it from being offset or loosened due to external factors. This not only improves the stability of the entire wall 1 system, but also ensures the consistency and reliability of the heat insulation effect.

[0046] Reference Figure 1 Specifically, an electric heating layer 104 is provided on the side of the wall 1 away from the equipment slot 101 .

[0047] During specific operation, the electricity obtained through the solar panel 2032 can directly act on the electric heating layer 104 to better adjust the temperature difference between the inside and the outside.

[0048] The implementation principle of a green building energy-saving wall in an embodiment of the present application is: the operating rod 5043 is controlled manually or electrically to drive the rack 5044 to drive the rotating gear 503 to rotate, thereby driving the first bevel gear 501 and the second bevel gear 502 to be linked, and finally the power is transmitted to the connecting mechanism 3 through the transmission shaft 402 and the transmission rod 401. The connecting mechanism 3 drives all the insulation mechanisms 2 to move synchronously through the connecting assembly 303. The insulation board 2031 rotates with the rotating rod 202 to change its relative position with the wall 1, thereby adjusting the thermal insulation performance of the wall 1. The solar panel 2032 collects sunlight and converts it into electrical energy to provide auxiliary power for the entire system. The locking mechanism 6 ensures that after the operation is completed, the operating mechanism 5 can be stably locked in the required position to ensure the working stability of the system.

[0049] The above are all preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. A green building energy-saving wall, characterized by: include A wall (1), wherein a device slot (101) is arranged on the wall (1), a paddle slot (102) is arranged above the device slot (101), and an operation slot (103) is also arranged inside the wall (1); A heat insulation mechanism (2), wherein a plurality of groups of heat insulation mechanisms (2) are evenly arranged in the operating slot (103), the heat insulation mechanism (2) comprising two groups of mounting components (201) arranged in the equipment slot (101), the mounting components (201) being rotatably connected to the wall (1), a rotating rod (202) being arranged between the two groups of mounting components (201), a temperature control component (203) being sleeved on the rotating rod (202), and the rotating rod (202) being used to drive the temperature control component (203) to rotate, thereby adjusting the heat preservation performance; A connecting mechanism (3), the connecting mechanism (3) being arranged in the paddle slot (102), the connecting mechanism (3) being used to connect the heat insulation mechanism (2) so that a plurality of the heat insulation mechanisms (2) can move synchronously; a transmission mechanism (4), the transmission mechanism (4) being connected to the connecting mechanism (3) and being used to control the connecting mechanism (3) to move; An operating mechanism (5), wherein the operating mechanism (5) is arranged in the operating slot (103), and the operating mechanism (5) is used to provide power for the transmission mechanism (4).

2. A green building energy-saving wall according to claim 1, characterized in that: The mounting assembly (201) comprises a first rotating circle (2011) arranged in the wall (1), the first rotating circle (2011) being rotatably connected to a second rotating circle (2012), the second rotating circle (2012) being provided with a first mounting plate (2013), and further comprises a second mounting plate (2014) arranged on the rotating rod (202), the first mounting plate (2013) and the second mounting plate (2014) being connectable via bolts.

3. The green building energy-saving wall according to claim 1, characterized in that: The temperature control component (203) comprises a heat insulation board (2031), wherein the heat insulation board (2031) is made of a metal material, and further comprises a solar panel (2032), wherein the solar panel (2032) is capable of converting sunlight into electrical energy, and the rotating rod (202) is arranged between the heat insulation board (2031) and the solar panel (2032).

4. The green building energy-saving wall according to claim 1, characterized in that: The connecting mechanism (3) comprises a guide plate (301) arranged between the paddle slot (102) and the device slot (101), and also comprises a connecting plate (302) movably connected in the paddle slot (102), and a plurality of connecting components (303) are arranged on the connecting plate (302), and each of the connecting components (303) is connected to one of the rotating rods (202).

5. The green building energy-saving wall according to claim 4, characterized in that: The connecting assembly (303) includes a guide hole (3031) arranged on the guide plate (301), and also includes a first connecting rod (3032) connected to the connecting plate (302), the first connecting rod (3032) is connected to a second connecting rod (3033), the second connecting rod (3033) passes through the guide hole (3031), and the end of the second connecting rod (3033) away from the guide plate (301) is connected to a third connecting rod (3034), and the third connecting rod (3034) is connected to the rotating rod (202).

6. The green building energy-saving wall according to claim 5, characterized in that: The transmission mechanism (4) comprises a transmission groove (403) arranged on the guide plate (301), and also comprises a transmission shaft (402) vertically penetrated in the wall (1), the transmission shaft (402) is connected to a transmission rod (401), the transmission rod (401) passes through the transmission groove (403), one end of the transmission rod (401) is connected to the connecting plate (302), and the other end of the transmission rod (401) is connected to the transmission shaft (402).

7. A green building energy-saving wall according to claim 6, characterized in that: The operating mechanism (5) comprises a first bevel gear (501) coaxially arranged on the transmission shaft (402); the first bevel gear (501) is arranged in the operating slot (103); a second bevel gear (502) is meshed with the first bevel gear (501); the second bevel gear (502) is coaxially connected to a rotating gear (503); the rotating gear (503) is connected to a driving assembly (504); the second bevel gear (502) and the rotating gear (503) are rotatably connected to a mounting shaft (505); and the mounting shaft (505) is connected to the inner wall of the operating slot (103).

8. The green building energy-saving wall according to claim 7, characterized in that: The driving assembly (504) comprises a sliding rail (5041) arranged on the inner wall of the operating groove (103), a driving plate (5042) being slidably connected to the sliding rail (5041), an operating rod (5043) being arranged on the driving plate (5042), a driving rack (5044) being arranged at one end of the driving plate (5042) close to the rotating gear (503), the driving rack (5044) being meshed with the rotating gear (503), and an operating hole (5045) being arranged on the wall (1), the operating rod (5043) passing through the operating hole (5045).

9. The green building energy-saving wall according to claim 8, characterized in that: The invention also comprises a locking mechanism (6), wherein the locking mechanism (6) comprises a plurality of locking grooves (601) arranged on the wall (1), and a locking rod (602) rotatably connected to the locking mechanism (6), wherein a locking block (603) is connected to the locking rod (602), and the locking block (603) can be inserted into the locking grooves (601).

10. The green building energy-saving wall according to claim 8, characterized in that: An electric heating layer (104) is provided on the side of the wall (1) away from the equipment slot (101).

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