High-generating-capacity double-glass assembly

Abstract

The invention, which relates to the technical field of the double-glass assembly, discloses a high-generating-capacity double-glass assembly comprising a double-glass assembly body, a frame heat dissipation mechanism, a support mechanism and a back reflection mechanism. The frame heat dissipation mechanism comprises a fixed frame arranged on the edge of the double-glass assembly body, and the fixed frame is made of a heat conduction material; a plurality of thermoelectric power generation sheets are adhered to the edge of the frame and are connected in series; the supporting mechanism comprises a supporting frame, and the top of the supporting frame is fixedly connected with the fixed frame. The back reflection mechanism comprises a reflection frame connected with the supporting frame, the reflection frame is located on the back face of the double-glass assembly body, the reflection frame extends out of the coverage range of the double-glass assembly body, a plurality of reflectors are arranged on the reflection frame, the reflectors are arranged to be cambered surfaces, and the reflectors are used for reflecting sunlight to the back face of the double-glass assembly body. The back power generation potential of the double-glass assembly is further developed and optimized, so that the overall power generation efficiency of the double-glass assembly is improved.

Description

Technical Field

[0001] The present invention relates to the technical field of double-glass components, and in particular to a high-power-generating double-glass component. Background Art

[0002] As a high-efficiency photovoltaic cell module, the double-glass module is uniquely designed. It consists of two sheets of glass and solar cells as a composite layer. The cells are connected in series and parallel through precise wires and finally gathered at the lead end to form a complete photovoltaic cell module. The double-glass module is called "double-glass" because both sides use glass as the packaging material, which not only enhances the weather resistance and mechanical strength of the module, but also allows the back of the module to absorb light and generate electricity.

[0003] Traditional photovoltaic modules can only generate electricity using the light received on the front side, but double-glass modules can achieve higher power generation efficiency under the same area due to their double-sided power generation characteristics. In areas with good lighting conditions, the power generation efficiency of double-glass modules is particularly significant, so they have been widely used in the photovoltaic field in recent years.

[0004] However, despite the potential of double-glass modules to generate electricity on both sides, current technology has not fully exploited this potential. Currently, the main method to improve the efficiency of double-glass modules on the back side is to set up reflective devices on their back surface. These reflective devices are usually designed as mirrors or reflective films, which are intended to reflect light that would otherwise be lost back to the cell, thereby increasing the light intensity on the back side.

[0005] However, the actual effect of this method is subject to many limitations. First, the reflective device is blocked by the double-glass component itself, and the light it can capture is relatively limited. Second, the installation position and angle of the reflective device have an important impact on the reflection effect and require precise design and adjustment. In addition, the reflective device will increase the manufacturing cost and maintenance difficulty of the component.

[0006] Therefore, although the existing technology has improved the back power generation efficiency of double-glass modules to a certain extent, there is still a lot of room for improvement. In order to fully tap the double-sided power generation potential of double-glass modules, it is necessary to find a more efficient, economical and easy-to-implement technical solution. Summary of the invention

[0007] In view of the technical problem that the back side power generation potential of double glass modules has not been fully developed, the purpose of the present invention is to further develop and optimize the back side power generation potential of double glass modules to improve their overall power generation efficiency.

[0008] To achieve the above object, the present invention provides the following technical solutions:

[0009] A high-power-generating double-glass component comprises a double-glass component body, a frame heat dissipation mechanism, a support mechanism and a back reflection mechanism;

[0010] The frame heat dissipation mechanism comprises a fixed frame arranged at the edge of the double-glass component body, and the fixed frame is made of a heat-conducting material; a plurality of thermoelectric power generation sheets are attached to the edge of the frame, and the plurality of thermoelectric power generation sheets are connected in series;

[0011] The support mechanism comprises a support frame, the top of which is fixedly connected to a fixed frame;

[0012] The back reflection mechanism includes a reflection frame connected to the support frame, the reflection frame is located on the back of the double-glass component body, the reflection frame extends out of the coverage range of the double-glass component body, and a plurality of reflectors are arranged on the reflection frame, the reflectors are set as curved surfaces, and the reflectors are used to reflect sunlight to the back of the double-glass component body.

[0013] By adopting the above scheme, when working, sunlight shines on the front side of the module; the transparent front glass allows sunlight to penetrate and shine on the solar cell; the solar cell is composed of multiple single crystal or polycrystalline silicon cells, which can absorb photons in sunlight and generate electron-hole pairs; these electron-hole pairs are separated under the action of the internal electric field of the cell to form current; the current is then collected to the lead end through wire series and parallel connection, so as to output electrical energy; and the double-sided power generation characteristics of the double-glass module are reflected on its back side; the back side is also encapsulated by a layer of glass, and due to the design of the back side reflection mechanism, the sunlight is reflected by the reflector and focused on the back side of the module; in this way, the solar cell on the back side can also absorb light and generate electricity flow; therefore, the double-glass module can use the light from the front and back to generate electricity at the same time, thereby improving the overall power generation efficiency; in addition, the design of the frame heat dissipation mechanism and the supporting mechanism further enhances the performance of the double-glass module; the frame heat dissipation mechanism utilizes a fixed frame made of thermal conductive material and a temperature difference power generation sheet to convert the temperature difference between the frame and the ambient temperature into electrical energy and reduce the operating temperature of the module; this helps to improve the power generation efficiency and reliability of the module; and the supporting mechanism provides a stable support for the module through the supporting frame to ensure its stability and safety in various environments; in summary, the double-glass module in this technical solution realizes an efficient and stable solar power generation process through the design of double-sided power generation, the application of the frame heat dissipation mechanism and the supporting mechanism.

[0014] Preferably, the heat-conducting material used for the fixed frame is copper alloy or aluminum alloy.

[0015] Preferably, mounting blocks are provided at the four corners of the bottom of the support frame, mounting holes are provided on the mounting blocks, and the four corners of the top of the support frame are fixedly connected to the fixed frame through support rods.

[0016] Preferably, the number of the back reflective mechanisms is set to two and they are respectively arranged on both sides of the double-glass component body.

[0017] Preferably, the reflection frame is configured to be U-shaped, and both ends of the reflection frame are rotatably connected to the support frame via bearings, and an angle control component is provided between the reflection frame and the support frame.

[0018] Preferably, the angle control assembly includes a fixed tube, a control ring and a movable rod, one end of the fixed tube is rotatably connected to the support frame, the other end of the fixed tube is rotatably connected to the control ring through a bearing, one end of the movable rod is rotatably connected to the support frame, the outer wall of the other end of the movable rod is provided with an external thread, the inner wall of the control ring is provided with an internal thread adapted to the external thread box, and the outer wall of the control ring is evenly provided with anti-slip ridges.

[0019] Preferably, the edge of the fixed frame is connected to a cooling fan via a connecting rod, and the cooling fan is used to take away the heat of the fixed frame and blow air toward the reflector; the series-connected temperature difference power generation sheet is electrically connected to the cooling fan.

[0020] Preferably, one side of the reflector double-glass component body is connected to the back side of the double-glass component body through a plurality of optical fibers.

[0021] The present invention has the following beneficial effects:

[0022] 1. Design of frame heat dissipation mechanism: By setting a fixed frame made of heat-conducting material on the edge of the double-glass module body and pasting multiple thermoelectric power generation sheets on the edge of the frame, this technology effectively solves the heat problem generated by the double-glass module during operation. The thermoelectric power generation sheet can convert the temperature difference between the frame and the external environment into electrical energy, which not only improves the comprehensive utilization rate of energy, but also helps to reduce the operating temperature of the module, thereby improving the power generation efficiency and reliability of the module.

[0023] 2. Application of support mechanism: The support mechanism provides a stable support for the double-glass module through the fixed connection between the support frame and the fixed frame, ensuring the stability and safety of the module in harsh environments such as wind and snow. In addition, the design of the support frame can be flexibly adjusted according to actual needs to adapt to different installation environments and angles, thereby further improving the power generation efficiency of the module.

[0024] 3. Innovation of the back reflection mechanism: The back reflection mechanism is the core innovation of this technical solution. Through multiple curved reflectors on the reflection frame, this technology can reflect the originally lost sunlight to the back of the double-glass module, thereby increasing the light intensity on the back of the module. This design makes full use of sunlight resources and significantly improves the back power generation efficiency of the double-glass module. At the same time, the reflector is set to a curved surface, which can better focus and reflect sunlight, further improving the reflection effect.

[0025] 4. In summary, this technical solution further develops and optimizes the back power generation potential of double-glass modules through the innovative design of frame heat dissipation mechanism, support mechanism and back reflection mechanism, and improves its overall power generation efficiency. At the same time, this technology also has good stability and reliability, is suitable for various environments and installation conditions, and has high application value and market prospects. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required for use in the embodiments are briefly introduced below. It should be understood that the following drawings only show certain embodiments of the present invention and therefore should not be regarded as limiting the scope. For ordinary technicians in this field, other related drawings can be obtained based on these drawings without creative work.

[0027] Figure 1 It is a front view of the first embodiment of the present invention.

[0028] Figure 2 It is a side cross-sectional view of a first embodiment of the present invention.

[0029] Figure 3 This is an angle control component according to the first embodiment of the present invention.

[0030] Figure 4 It is a front view of the second embodiment of the present invention.

[0031] In the figure: 1. Double-glass component body; 2. Fixed frame; 3. Temperature difference power generation sheet; 4. Support frame; 401. Mounting block; 402. Support rod; 501. Reflection frame; 502. Reflector; 601. Fixed tube; 602. Control ring; 603. Movable rod; 7. Cooling fan; 8. Optical fiber. DETAILED DESCRIPTION

[0032] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative work are within the scope of protection of the present invention.

[0033] The first embodiment is a high power generation double-glass component, comprising a double-glass component body 1, such as Figure 1-2As shown, it also includes a frame heat dissipation mechanism, a support mechanism and a back reflection mechanism; the frame heat dissipation mechanism includes a fixed frame 2 arranged at the edge of the double-glass component body 1, and the fixed frame 2 is made of heat-conducting material; a plurality of temperature difference power generation sheets 3 are pasted on the edge of the frame, and the plurality of temperature difference power generation sheets 3 are connected in series; the support mechanism includes a support frame 4, and the top of the support frame 4 is fixedly connected to the fixed frame 2; the back reflection mechanism includes a reflection frame 501 connected to the support frame 4, the reflection frame 501 is located on the back of the double-glass component body 1, and the reflection frame 501 extends out of the coverage range of the double-glass component body 1, and a plurality of reflectors 502 are arranged on the reflection frame 501, and the reflectors 502 are set as arc surfaces, and the reflectors 502 are used to reflect sunlight to the back of the double-glass component body 1.

[0034] like Figure 1-2 As shown, when working, sunlight shines on the front of the component; the transparent front glass allows sunlight to penetrate and shine on the solar cell; the solar cell is composed of multiple single crystal or polycrystalline silicon cells, which can absorb photons in sunlight and generate electron-hole pairs; these electron-hole pairs are separated under the action of the internal electric field of the cell to form a current; the current is then collected to the lead end through the wire series and parallel connection, so as to output electrical energy; and the double-sided power generation characteristics of the double-glass component are reflected on its back; the back is also encapsulated by a layer of glass, and due to the design of the back reflection mechanism, the sunlight is reflected by the reflector 502 and focused on the back of the component; in this way, the solar cell on the back can also absorb light and generate current; Therefore, the double-glass module can use the light from the front and back to generate electricity at the same time, thereby improving the overall power generation efficiency; in addition, the design of the frame heat dissipation mechanism and the support mechanism further enhances the performance of the double-glass module; the frame heat dissipation mechanism uses a fixed frame 2 made of thermal conductive material and a temperature difference power generation sheet 3 to convert the temperature difference between the frame and the ambient temperature into electrical energy and reduce the operating temperature of the module; this helps to improve the power generation efficiency and reliability of the module; and the support mechanism provides a stable support for the module through the support frame 4, ensuring its stability and safety in various environments; in summary, the double-glass module in this technical solution realizes an efficient and stable solar power generation process through the design of double-sided power generation, the application of the frame heat dissipation mechanism and the support mechanism.

[0035] like Figure 1-2As shown, by setting a fixed frame 2 made of heat-conducting material on the edge of the double-glass component body 1 and pasting multiple temperature difference power generation sheets 3 on the edge of the frame, this technology effectively solves the problem of heat generated by the double-glass component during operation. The temperature difference power generation sheet 3 can convert the temperature difference between the frame and the external environment into electrical energy, which not only improves the comprehensive utilization rate of energy, but also helps to reduce the working temperature of the component, thereby improving the power generation efficiency and reliability of the component. The support mechanism provides a stable support for the double-glass component through the fixed connection between the support frame 4 and the fixed frame 2, ensuring the stability and safety of the component in harsh environments such as wind and snow. In addition, the design of the support frame 4 can also be flexibly adjusted according to actual needs to adapt to different installation environments and angles, thereby further improving the power generation efficiency of the component; the back reflection mechanism is the core innovation of this technical solution. Through multiple curved reflectors 502 on the reflection frame 501, this technology can reflect the originally lost sunlight to the back of the double-glass component, thereby increasing the light intensity on the back of the component. This design makes full use of sunlight resources and significantly improves the back power generation efficiency of the double-glass component. At the same time, the reflector 502 is set to a curved surface, which can better focus and reflect sunlight, further improving the reflection effect. In summary, this technical solution further develops and optimizes the back power generation potential of the double-glass module through the innovative design of the frame heat dissipation mechanism, support mechanism and back reflection mechanism, and improves its overall power generation efficiency. At the same time, this technology also has good stability and reliability, is suitable for various environments and installation conditions, and has high application value and market prospects.

[0036] The thermally conductive material used for the fixed frame 2 is copper alloy or aluminum alloy. Both copper alloy and aluminum alloy have excellent thermal conductivity. This means that when the double-glass component generates heat during operation, the fixed frame 2 can effectively conduct the heat from the inside of the component to the external environment, thereby reducing the operating temperature of the component. The thermal expansion coefficients of copper alloy and aluminum alloy are close to those of other materials in the double-glass component, which helps to reduce thermal stress caused by temperature changes, thereby improving the reliability and durability of the component. Copper alloy and aluminum alloy not only have good thermal conductivity, but also have high strength and light weight. This allows the fixed frame 2 to provide stable support while not placing too much burden on the double-glass component.

[0037] like Figure 1-2As shown, mounting blocks 401 are provided at the four bottom corners of the support frame 4, mounting holes are provided on the mounting blocks 401, and the four top corners of the support frame 4 are fixedly connected to the fixed frame 2 through support rods 402. The mounting blocks 401 and mounting holes at the four bottom corners of the support frame 4 are designed to allow the support frame 4 to be firmly connected to the mounting surface (such as a roof, a bracket, etc.). The support frame 4 is fixed to the mounting surface by passing bolts or other fasteners through the mounting holes, thereby ensuring the stability and safety of the double-glass component. The four top corners of the support frame 4 are fixedly connected to the fixed frame 2 through support rods 402. This connection method enables the double-glass component to be evenly stressed, avoiding deformation or damage caused by uneven stress. At the same time, the design of the support rod 402 can be adjusted as needed to adapt to different installation environments and angles, further improving the stability and safety of the component.

[0038] like Figure 1 As shown, the number of back reflective mechanisms is set to two and they are respectively arranged on both sides of the double-glass component body 1. The double-glass component has the characteristic of double-sided power generation, that is, both the front and back sides can receive sunlight for power generation. The function of the back reflective mechanism is to reflect sunlight to the back of the double-glass component, increase the light intensity on the back, and thus improve the power generation efficiency on the back. There are two back reflective mechanisms, and they are respectively located on both sides of the double-glass component body 1. This symmetrical setting ensures that no matter which direction the sunlight comes from, there is always a reflective mechanism that can effectively reflect the sunlight to the back of the component. Since the reflective mechanisms extend beyond the coverage of the double-glass component body 1, they can capture sunlight in a larger range and reflect it to the back of the component, thereby improving the utilization rate of light energy.

[0039] like Figure 1 and Figure 3 As shown, the reflector 501 is set to be U-shaped, and the two ends of the reflector 501 are rotatably connected to the support frame 4 through bearings, and an angle control component is arranged between the reflector 501 and the support frame 4. The design of the U-shaped reflector 501 allows it to simultaneously reflect the sunlight on both sides to the back of the double-glass component, increasing the illumination area and illumination intensity of the back. This design can make full use of sunlight resources and improve power generation efficiency. The reflector 501 is rotatably connected to the support frame 4 through bearings, so that the reflector 501 can flexibly adjust the angle within a certain range. This design allows the angle of the reflector 501 to be adjusted according to the change of the sun's position, ensuring that the reflected light can accurately and efficiently irradiate the back of the double-glass component. The angle control component is used to accurately control the angle of the reflector 501. It can automatically adjust the angle of the reflector 501 according to the preset angle value or the sun's position information fed back by the sensor. This automated adjustment can ensure that the reflected light always remains at the optimal angle, thereby maximizing the power generation efficiency.

[0040] like Figure 3As shown, the angle control assembly includes a fixed tube 601, a control ring 602 and a movable rod 603, one end of the fixed tube 601 is rotatably connected to the support frame 4, the other end of the fixed tube 601 is rotatably connected to the control ring 602 through a bearing, one end of the movable rod 603 is rotatably connected to the support frame 4, the outer wall of the other end of the movable rod 603 is provided with an external thread, the inner wall of the control ring 602 is provided with an internal thread adapted to the external thread box, and the outer wall of the control ring 602 is uniformly provided with anti-skid convex ridges. One end is rotatably connected to the support frame 4, providing a stable support and rotation basis for the entire angle control assembly. It is rotatably connected to the fixed tube 601 through a bearing, and can rotate freely on the fixed tube 601. Its inner wall is provided with an internal thread adapted to the external thread, which is used to cooperate with the external thread of the movable rod 603 to realize the conversion from rotational motion to linear motion. One end is rotatably connected to the support frame 4, and the outer wall of the other end is provided with an external thread, which cooperates with the internal thread of the control ring 602. When the control ring 602 rotates, the movable rod 603 moves along its axis. When the control ring 602 is rotated, the movable rod 603 moves linearly in the axis due to the interaction between the internal thread of the inner wall of the control ring 602 and the external thread of the outer wall of the movable rod 603. The linear movement of the movable rod 603 drives the reflector frame 501 connected thereto to adjust the angle, thereby changing the direction of the reflected light. The anti-skid ridges uniformly arranged on the outer wall of the control ring 602 help the operator to rotate the control ring 602 more conveniently, thereby improving the convenience and accuracy of the operation.

[0041] The second embodiment, as Figure 4 As shown, the edge of the fixed frame 2 is connected to a cooling fan 7 through a connecting rod, and the cooling fan 7 is used to take away the heat of the fixed frame 2 and blow air toward the reflector; the series-connected thermoelectric generator 3 is electrically connected to the cooling fan 7; the cooling fan 7 is installed at the edge of the fixed frame 2 and connected to it through a connecting rod. When the fixed frame 2 generates heat due to sunlight or other reasons, the cooling fan 7 starts to work, generates wind flow by rotation, takes away the heat on the frame, and thus reduces the temperature of the frame. At the same time, the wind flow generated by the cooling fan 7 also blows toward the reflector, which helps to reduce the temperature of the reflector and prevents the reflector from affecting its reflection effect due to high temperature. The thermoelectric generator 3 is a device that generates electrical energy using temperature difference. In the double-glass assembly, there is a temperature difference between the fixed frame 2 and the external environment, and this temperature difference is used by the thermoelectric generator 3 to generate electrical energy. This electrical energy is then used to drive the cooling fan 7, realizing energy conversion and utilization. Multiple thermoelectric generators 3 are connected in series, which can increase the overall output voltage, thereby ensuring that the cooling fan 7 can work normally and efficiently.

[0042] The cooling fan 7 blows air on the reflector, which not only directly takes away the heat of the reflector and the fixed frame 2, but also blows away the dust on the reflector, which has a significant effect on ensuring the propagation of light. First, the accumulation of dust will seriously affect the reflection effect of the reflector. Dust particles will adhere to the surface of the reflector to form a thin shielding layer, which will hinder the propagation of light and reduce the reflection efficiency. This will not only affect the power generation efficiency of the double-glass component, but may also affect other applications that rely on the reflector for light transmission or focusing. Secondly, the wind flow generated by the cooling fan 7 can effectively blow away the dust. When the cooling fan 7 is working, the wind flow it generates will blow towards the reflector and blow away the dust attached to the surface of the reflector. In this way, the reflector can be kept clean to ensure unimpeded light propagation. Finally, through the blowing effect of the cooling fan 7, the dust on the reflector can be cleaned regularly to maintain the stability and durability of its reflection efficiency. This can not only improve the power generation efficiency of the double-glass component, but also extend the service life of the reflector and reduce maintenance costs. In summary, the blowing effect of the cooling fan 7 on the reflector can not only dissipate heat, but also blow away dust, thereby ensuring unimpeded light propagation and improving reflection efficiency, which has a significant beneficial effect.

[0043] like Figure 4 As shown, one side of the reflector double-glass component body 1 is connected to the back of the double-glass component body 1 through multiple optical fibers 8. The optical fiber 8 is a special material that can transmit light. Its core part is made of glass or plastic with a high refractive index, and its cladding is made of a material with a low refractive index. When light enters from one end of the optical fiber 8, due to the difference in refractive index, the light will be totally reflected inside the optical fiber 8, and thus transmitted along the length direction of the optical fiber 8. In the reflector double-glass component, one end of the optical fiber 8 is connected to one side of the double-glass component body 1, and the other end is connected to the back of the double-glass component. When light irradiates one side of the double-glass component, part of the light will be captured by the optical fiber 8 and transmitted to the back of the double-glass component by total reflection. By carefully designing and arranging the optical fiber 8, it can be ensured that the loss of light during transmission is as small as possible, and at the same time, the light can be evenly distributed inside the double-glass component. In this way, even if the back of the double-glass component cannot directly receive sunlight, it can obtain sufficient light irradiation through the optical fiber 8, thereby improving the power generation efficiency of the back.

[0044] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "clockwise", "counterclockwise" and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as limiting the present invention.

[0045] In the present invention, unless otherwise clearly specified and limited, the terms "installed", "connected", "connected", "fixed" and the like should be understood in a broad sense, for example, it can be connected, detachably connected, or integrated; it can be mechanically connected or electrically connected; it can be directly connected or indirectly connected through an intermediate medium, it can be the internal connection of two elements or the interaction relationship between two elements. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood according to specific circumstances.

[0046] The above are only specific embodiments of the present invention, but the technical features of the present invention are not limited thereto. Any simple changes, equivalent replacements or modifications made based on the present invention to solve basically the same technical problems and achieve basically the same technical effects are all within the scope of protection of the present invention.

Claims

1. A high power generation double-glass module, comprising a double-glass module body (1), characterized in that: It also includes a frame heat dissipation mechanism, a support mechanism, and a back reflection mechanism; The frame heat dissipation mechanism comprises a fixed frame (2) arranged at the edge of the double-glass component body (1), the fixed frame (2) being made of a heat-conducting material; a plurality of temperature difference power generation sheets (3) are attached to the edge of the frame, and the plurality of temperature difference power generation sheets (3) are connected in series; The support mechanism comprises a support frame (4), the top of the support frame (4) being fixedly connected to the fixed frame (2); The back reflection mechanism comprises a reflection frame (501) connected to a support frame (4); the reflection frame (501) is located on the back of the double-glass component body (1); the reflection frame (501) extends beyond the coverage of the double-glass component body (1); a plurality of reflection mirrors (502) are arranged on the reflection frame (501); the reflection mirrors (502) are configured as curved surfaces; and the reflection mirrors (502) are used to reflect sunlight to the back of the double-glass component body (1).

2. A high power generation double-glass module according to claim 1, characterized in that: The heat-conducting material used for the fixed frame (2) is copper alloy or aluminum alloy.

3. The high power generation double-glass module according to claim 1, characterized in that: The four corners at the bottom of the support frame (4) are provided with mounting blocks (401), and mounting holes are provided on the mounting blocks (401). The four corners at the top of the support frame (4) are fixedly connected to the fixed frame (2) via support rods (402).

4. The high power generation double-glass module according to claim 1, characterized in that: The number of the back reflective mechanisms is set to two and they are respectively arranged on both sides of the double-glass component body (1).

5. The high power generation double-glass module according to claim 1, characterized in that: The reflection frame (501) is configured to be U-shaped, and both ends of the reflection frame (501) are rotatably connected to the support frame (4) via bearings, and an angle control component is provided between the reflection frame (501) and the support frame (4).

6. A high power generation double-glass module according to claim 5, characterized in that: The angle control assembly comprises a fixed tube (601), a control ring (602) and a movable rod (603); one end of the fixed tube (601) is rotatably connected to the support frame (4); the other end of the fixed tube (601) is rotatably connected to the control ring (602) via a bearing; one end of the movable rod (603) is rotatably connected to the support frame (4); the outer wall of the other end of the movable rod (603) is provided with an external thread; the inner wall of the control ring (602) is provided with an internal thread adapted to the external thread box; and the outer wall of the control ring (602) is evenly provided with anti-slip ridges.

7. The high power generation double-glass module according to claim 1, characterized in that: The edge of the fixed frame (2) is connected to a cooling fan (7) via a connecting rod, and the cooling fan (7) is used to take away the heat of the fixed frame (2) and blow air toward the reflector; the series-connected temperature difference power generation sheet (3) is electrically connected to the cooling fan (7).

8. The high power generation double-glass module according to claim 1, characterized in that: One side of the reflector double-glass component body (1) is connected to the back side of the double-glass component body (1) via a plurality of optical fibers (8).

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