Outer wall heat exchange assembly mounting structure for glass curtain wall

Abstract

The invention provides an outer wall heat exchange assembly mounting structure for a glass curtain wall. The outer wall heat exchange assembly mounting structure comprises an outer wall fixing structure, a first mounting assembly and a heat exchange assembly arranged on the outer side of the glass curtain wall. The first installation assembly is installed on the outer wall fixing structure and connected with the glass curtain wall, and a protruding installation part is formed on the outer side of the first installation assembly. The heat exchange assembly comprises a second installation assembly, a connecting rod and a heat preservation material, one end of the connecting rod is connected with the installation part, and the other end is connected with the second installation assembly. A second mounting cavity is formed in the second mounting assembly, a limiting step is arranged at the bottom of the cavity, the thermal insulation material is arranged in the cavity and supported and limited by the limiting step, and a water supply pipe and a water return pipe are embedded in the thermal insulation material; according to the structure, the bearing path is clear, assembly and maintenance are convenient and fast, the installation stability and vibration resistance reliability of the outer side heat exchange module can be improved, the heat insulation effect is enhanced, and the risks of a heat bridge and dew formation and freezing are reduced.

Description

Technical Field

[0001] This invention relates to the field of glass curtain wall technology, and more specifically, to an installation structure for an external wall heat exchange component for a glass curtain wall. Background Technology

[0002] As an important component of building envelope, glass curtain walls typically consist of curtain wall framing, connectors, and glass panels, which are fixed to the main exterior wall or curtain wall frame via supports, hangers, or profile structures. With increasing demands for building energy conservation and multifunctional exterior walls, the integration of heat exchange pipes or units on the exterior of glass curtain walls is becoming more prevalent, aiming to achieve energy exchange, heat recovery, or integration with the building's heating and cooling systems.

[0003] However, the existing installation method of placing heat exchange units on the outside of glass curtain walls still has many engineering problems, mainly reflected in:

[0004] On the one hand, the load-bearing path of the outer heat exchange unit is unclear or relies on the local stress of the glass / profile, which makes the outer module prone to swinging, loosening or connection failure under wind load, vibration and temperature cycle, and may transfer adverse loads to the glass connection interface, causing stress concentration risk.

[0005] On the other hand, the outer mounting cavity lacks a clear support and limiting structure for the insulation components or piping modules. The common practice is to simply tighten or locally fasten them, which causes the insulation components to shift, warp or fall off under long-term vibration and thermal expansion and contraction conditions. This results in poor assembly consistency and inconvenient maintenance and replacement.

[0006] Therefore, it is necessary to provide a simple and highly vibration-resistant installation structure for exterior wall heat exchange components in glass curtain walls. Summary of the Invention

[0007] In view of this, in order to solve the above problems, the present invention proposes a simple and highly vibration-resistant installation structure for an external wall heat exchange component of a glass curtain wall.

[0008] An installation structure for an exterior wall heat exchange component for a glass curtain wall includes:

[0009] External wall fixed structure;

[0010] A first mounting component is configured to be mounted on the external wall fixing structure and connected to the glass curtain wall, the first mounting component having a mounting portion protruding toward the outside of the glass curtain wall;

[0011] A heat exchange component is disposed on the outside of the glass curtain wall, and the heat exchange component includes a second mounting component, a connecting rod, and insulation material;

[0012] The second mounting component forms a second mounting chamber, and a limiting step is provided at the bottom of the second mounting chamber; the thermal insulation material is disposed in the second mounting chamber and is supported and limited by the limiting step.

[0013] One end of the connecting rod is connected to the mounting part, and the other end of the connecting rod is connected to the second mounting component;

[0014] The second mounting chamber is provided with a clamping device corresponding to the connecting rod, which is used to assist in clamping and fixing the insulation material;

[0015] The insulation material is embedded with a water supply pipe and a water return pipe.

[0016] The external wall fixing structure provides an installation reference and load-bearing path for the external heat exchange module. Specifically, the external wall fixing structure can be an external wall structural column, wall embedded part, or curtain wall keel, etc. The first installation component forms an installation part on the outdoor side. The connecting rod suspends / fixes the second installation component on the installation part. The insulation material is placed in the second installation cavity and supported by the limiting step. The clamps in the second installation cavity assist in locking the insulation material. The function is to form a closed structural loop of "installation part - connecting rod - cavity - limiting step - insulation material - clamps", so that the external heat exchange unit is reliably installed, can be disassembled and maintained, and ensures that the insulation material and pipeline are stably positioned in the external cavity.

[0017] Furthermore, the clip has an arrow-shaped clamping part facing the insulation material. The arrow-shaped clamping part is a wedge-shaped or V-shaped structure, used to apply a clamping force to the insulation material in the direction of the limiting step during assembly. The arrow-shaped clamping part is used to form a self-guiding clamping interface.

[0018] Specifically, the clamping element can be composed of an integrally molded clamping body, with a wedge-shaped / arrowhead-shaped tip at its lower end facing the insulation material. The clamping element can be installed in the second mounting chamber through a fastening structure (such as screws, buckles, or limiting grooves) corresponding to the connecting rod, so that the arrowhead-shaped tip presses against the upper surface of the insulation material or the preset notch and presses downward, so that the insulation material fits against the limiting step. The function is to achieve automatic centering and gradual pressure increase by using the wedge-shaped / arrowhead-shaped structure, improve clamping reliability, suppress the loosening and movement of the insulation material under wind vibration / thermal expansion and contraction conditions, and facilitate quick assembly, disassembly and maintenance.

[0019] In some embodiments, the external wall fixing structure is a base, a first mounting chamber is formed inside the base, the first mounting component is fixed inside the first mounting chamber by a second connecting bolt, and the first mounting component and the first mounting chamber form a limiting fit.

[0020] The first mounting chamber is used to position and limit the first mounting component; specifically, a guide surface is provided in the first mounting chamber, the shape of the first mounting component is attached to the guide surface and axially locked by the second connecting bolt; the function is to limit the lateral movement or rotation of the first mounting component, improve the assembly accuracy and vibration resistance, and provide a reliable reference for the mounting part and the connecting rod.

[0021] In some embodiments, a first rubber pad is further provided between the first mounting component and the inner wall of the first mounting chamber.

[0022] The first rubber pad is used to form an elastic pre-tightening and vibration isolation interface; specifically, the first rubber pad can be an annular washer or a sheet gasket, the material of the first rubber pad is EPDM or silicone rubber, it is sandwiched between the first mounting component and the inner wall of the first mounting cavity and compressed when the bolt is pre-tightened; its function is to reduce vibration and noise, buffer micro-displacement and weaken the heat transfer of rigid thermal bridge, and improve the connection durability.

[0023] In some embodiments, a second rubber pad is also provided at the connection interface between the glass curtain wall and the first mounting component.

[0024] The second rubber pad is used to increase friction and provide elastic isolation at the fixed interface of the glass curtain wall. Specifically, the second rubber pad can be set as a strip / sheet friction pad along the stress edge of the glass, and can be provided with anti-slip texture or micro-protrusions. Its function is to increase the friction between the glass and the connector, prevent slippage, disperse local stress and reduce the risk of breakage caused by rigid contact, while suppressing thermal bridging.

[0025] In some embodiments, the second mounting component is fixed to the first mounting component by a third connecting bolt, which passes through the second mounting component and is located on both sides of the connection area between the glass curtain wall and the first mounting component.

[0026] The third connecting bolt is used to position and support the second mounting component on the outside. Specifically, the third connecting bolt can be arranged symmetrically in pairs and pass through the second mounting component before being locked to the first mounting component. Its function is to make the second mounting component bear the force evenly and stably form the second mounting chamber, reduce the risk of eccentric deformation and loosening, and thus ensure the stable operation of the insulation material and pipeline inside the chamber.

[0027] In some embodiments, a third rubber pad is provided at the connection between the connecting rod and the mounting portion and / or at the connection between the connecting rod and the second mounting assembly.

[0028] The third rubber pad is used for heat insulation, vibration isolation, friction enhancement, and anti-loosening at both ends of the connecting rod. Specifically, the third rubber pad can be clamped on the force-bearing contact surface of the "connecting rod - mounting part" and / or the "connecting rod - second mounting component connecting seat / upper structure". Its function is to reduce the vibration noise and thermal bridge heat transfer transmitted by the connecting rod, improve the friction locking ability of the connection interface, and enhance the reliability of wind vibration resistance.

[0029] In some embodiments, the second mounting assembly has a connecting seat on its upper part, and the other end of the connecting rod is detachably connected to the connecting seat.

[0030] The connecting seat is used to bear the load of the connecting rod and provide a detachable interface; specifically, the connecting seat can be a U-shaped connecting groove, an ear plate hole seat, a dovetail groove seat or a through hole seat, and the end of the connecting rod is engaged with the connecting seat by means of thread / pin / clamp; its function is to improve the connection stability between the connecting rod and the second mounting component, and at the same time facilitate the disassembly, maintenance and quick replacement of the outer heat exchange module.

[0031] In some embodiments, the insulation material is polyurethane insulation material.

[0032] The polyurethane insulation material serves as the main insulation component of the heat exchange assembly. Specifically, the insulation material can be a closed-cell polyurethane foam molded part or a processed insulation board part, and it matches the contour of the second installation cavity. Its function is to reduce ineffective heat dissipation of the supply and return water pipes, suppress the risk of condensation / icing, reduce thermal bridge heat transfer, and improve the system's energy efficiency and reliability.

[0033] In some embodiments, the insulation material has grooves for embedding the water supply pipe and the return pipe, so that the water supply pipe and the return pipe are at least partially covered; and the contact surfaces of the insulation material with the water supply pipe and the return pipe are provided with a reflective coating.

[0034] The pipe groove is used for pipe positioning and covering fixation, and the reflective coating is used to enhance the reflection effect. Specifically, the pipe groove can be a U-shaped groove / semi-circular groove, so that the supply and return water pipes are partially embedded in the insulation material. The reflective coating can be an aluminum foil reflective layer, an aluminized film, or a high-reflective coating and is applied to the contact surface between the insulation material and the pipe. Its function is to improve the stability of pipe installation and reduce the risk of thermal bridging and condensation, while enhancing the reflective effect in the cavity to improve the landscape lighting performance and reduce radiative heat loss.

[0035] In some embodiments, within the cross-section of the end face perpendicular to the axis of the water supply pipe and the axis of the return pipe, the normal line of the outermost surface of the insulation material away from the connecting rod is defined as the reference line. Then, the first arrangement angle β between the center of the water supply pipe and the reference line is 130° to 170°, and the second arrangement angle α between the center of the return pipe and the reference line is 130° to 170°. The first arrangement angle β and / or the second arrangement angle α are preferably 150°. The purpose of this is to balance the interference margin between pipes, the arrangement stability and the heat exchange coverage area under the condition of limited cavity space, improve the assembly consistency and optimize the heat exchange effect.

[0036] The beneficial effects of this invention are as follows: This invention proposes an installation structure for an external wall heat exchange component in a glass curtain wall, including an external wall fixing structure, a first installation component, a connecting rod, a second installation component, insulation material, and fasteners. The first installation component forms an outwardly protruding installation part, and the connecting rod fixes the second installation component to the installation part, making the load-bearing path of the external heat exchange module clear and the installation stable. A second installation chamber is formed inside the second installation component, and a limiting step is provided at the bottom of the chamber. The insulation material is placed in the chamber and supported and limited by the limiting step, reducing the risk of movement and falling off. Fasteners corresponding to the connecting rod are provided inside the chamber to assist in clamping and fixing the insulation material, improving assembly consistency and vibration resistance reliability. The water supply pipe and return pipe are embedded in the insulation material, improving insulation continuity and reducing the risk of thermal bridging and condensation / icing. The structure is stable and reliable, and assembly and maintenance are convenient, effectively improving the insulation effect and service life. Attached Figure Description

[0037] Figure 1 This is a cross-sectional view of the installation structure of the external wall heat exchange component for glass curtain walls according to the present invention.

[0038] Figure 2 This is a partially enlarged cross-sectional view of the installation structure of the external wall heat exchange component for glass curtain walls according to the present invention.

[0039] Figure 3 This is a partially enlarged cross-sectional view of the installation structure of the external wall heat exchange component for glass curtain walls according to the present invention.

[0040] Figure 4 This is an exploded view of the first mounting component and the connection of the heat exchange component in the installation structure of the external wall heat exchange component for glass curtain walls according to the present invention.

[0041] Explanation of main component symbols

[0042] External wall fixing structure 10; first installation chamber 101; guide surface 1011; second connecting bolt 102; first rubber pad 103;

[0043] First mounting component 20; Mounting section 201;

[0044] Glass curtain wall 30;

[0045] Heat exchange component 40; second mounting component 401; second mounting chamber 4011; limiting step 4012; connecting seat 4013; connecting rod 402; insulation material 403; pipe groove 4031; third connecting bolt 404;

[0046] 50; Arrow-shaped clamping part 501;

[0047] Second rubber pad 60;

[0048] Water supply pipe 70; return water pipe 71; reflective coating 73;

[0049] The third rubber pad is 80.

[0050] The following detailed description, in conjunction with the accompanying drawings, will further illustrate the present invention. Detailed Implementation Example 1:

[0051] like Figure 1-4 As shown, an installation structure for an exterior wall heat exchange component for a glass curtain wall includes:

[0052] External wall fixed structure 10;

[0053] The first mounting component 20 is configured to be mounted on the external wall fixing structure 10 and connected to the glass curtain wall 30. The first mounting component 20 has a mounting portion 201 protruding outward toward the glass curtain wall 30.

[0054] The heat exchange component 40 is disposed on the outside of the glass curtain wall 30. The heat exchange component 40 includes a second mounting component 401, a connecting rod 402, and insulation material 403.

[0055] The second mounting component 401 forms a second mounting chamber 4011 inside, and a limiting step 4012 is provided at the bottom of the second mounting chamber 4011; the thermal insulation material 403 is disposed in the second mounting chamber 4011 and is supported and limited by the limiting step 4012;

[0056] One end of the connecting rod 402 is connected to the mounting part 201, and the other end of the connecting rod 402 is connected to the second mounting component 401;

[0057] The second installation chamber 4011 is provided with a clamp 50 corresponding to the connecting rod 402. The clamp 50 is used to assist in clamping and fixing the insulation material 403.

[0058] The insulation material 403 has an embedded water supply pipe 70 and a return water pipe 71.

[0059] The external wall fixing structure 10 provides an installation reference and load-bearing path for the external heat exchange module. Specifically, the external wall fixing structure 10 can be an external wall structural column, wall embedded part, or curtain wall keel, etc. The first installation component 20 forms an installation part 201 on the outdoor side. The connecting rod 402 suspends / fixes the second installation component 401 on the installation part 201. The insulation material 403 is placed in the second installation chamber 4011 and supported by the limiting step 4012. The clamp 50 assists in locking the insulation material 403 in the second installation chamber 4011. Its function is to form a structural closed loop of "installation part 201 - connecting rod 402 - chamber - limiting step 4012 - insulation material 403 - clamp 50", so that the external heat exchange unit can be reliably installed, disassembled and maintained, and the insulation material 403 and pipeline are stably positioned in the external cavity.

[0060] Furthermore, the clip 50 has an arrow-shaped clamping part 501 facing the insulation material 403. The arrow-shaped clamping part 501 has a wedge-shaped or V-shaped structure and is used to apply a clamping force to the insulation material 403 in the direction of the limiting step 4012 during assembly. The arrow-shaped clamping part 501 is used to form a self-guiding clamping interface.

[0061] Specifically, the clamping element 50 can be composed of an integrally formed clamping body, with a wedge-shaped / arrowhead-shaped tip at its lower end facing the insulation material 403. The clamping element 50 can be installed in the second mounting chamber 4011 through a fastening structure (such as screws, buckles, or limiting grooves) corresponding to the connecting rod 402, so that the arrowhead-shaped tip presses against the upper surface or the preset notch of the insulation material 403 and presses it downward, so that the insulation material 403 fits against the limiting step 4012. The function is to achieve automatic centering and gradual pressure increase by using the wedge-shaped / arrowhead-shaped structure, improve the clamping reliability, suppress the loosening and movement of the insulation material 403 under wind vibration / thermal expansion and contraction conditions, and facilitate quick assembly and disassembly maintenance.

[0062] In some embodiments, the external wall fixing structure 10 is a base, and a first mounting chamber 101 is formed inside the base. The first mounting component 20 is fixed inside the first mounting chamber 101 by a second connecting bolt 102, and the first mounting component 20 and the first mounting chamber 101 form a limiting fit.

[0063] The first mounting chamber 101 is used to position and limit the first mounting component 20. Specifically, a guide surface 1011 is provided in the first mounting chamber 101, and the shape of the first mounting component 20 is attached to the guide surface 1011 and axially locked by the second connecting bolt 102. The function is to limit the lateral movement or rotation of the first mounting component 20, improve the assembly accuracy and vibration resistance, and provide a reliable reference for the mounting part 201 and the connecting rod 402.

[0064] In some embodiments, a first rubber pad 103 is further provided between the first mounting component 20 and the inner wall of the first mounting chamber 101.

[0065] The first rubber pad 103 is used to form an elastic pre-tightening and vibration isolation interface. Specifically, the first rubber pad 103 can be an annular washer or a sheet gasket. The material of the first rubber pad 103 is EPDM or silicone rubber. It is sandwiched between the first mounting component 20 and the inner wall of the first mounting chamber 101 and compressed when the bolt is pre-tightened. Its function is to reduce vibration and noise, buffer micro-displacement and weaken the heat transfer of rigid thermal bridges, and improve the connection durability.

[0066] In some embodiments, a second rubber pad 60 is also provided at the connection interface between the glass curtain wall 30 and the first mounting component 20.

[0067] The second rubber pad 60 is used to increase friction and provide elastic isolation at the fixed interface of the glass curtain wall 30. Specifically, the second rubber pad 60 can be set as a strip / sheet friction pad along the force-bearing edge of the glass, and can be provided with anti-slip texture or micro-protrusions. Its function is to increase the friction between the glass and the connector, prevent slippage, disperse local stress and reduce the risk of breakage caused by rigid contact, while suppressing thermal bridging.

[0068] In some embodiments, the second mounting assembly 401 is fixed to the first mounting assembly 20 by a third connecting bolt 404, which passes through the second mounting assembly 401 and is located on both sides of the connection area between the glass curtain wall 30 and the first mounting assembly 20.

[0069] The third connecting bolt 404 is used to position and support the second mounting component 401 on the outside. Specifically, the third connecting bolt 404 can be arranged symmetrically in pairs and pass through the second mounting component 401 before being locked with the first mounting component 20. Its function is to make the second mounting component 401 bear force evenly and stably form the second mounting chamber 4011, reduce the risk of eccentric deformation and loosening, and thus ensure the stable operation of the insulation material 403 and pipeline inside the chamber.

[0070] In some embodiments, a third rubber pad 80 is provided at the connection between the connecting rod 402 and the mounting part 201 and / or at the connection between the connecting rod 402 and the second mounting assembly 401.

[0071] The third rubber pad 80 is used for heat insulation, vibration isolation, friction enhancement, and anti-loosening at both ends of the connecting rod 402. Specifically, the third rubber pad 80 can be clamped on the force-bearing contact surface of the "connecting rod 402 - mounting part 201" and / or the "connecting rod 402 - second mounting component 401 connecting seat 4013 / upper structure". Its function is to reduce the vibration noise and thermal bridge heat transfer transmitted by the connecting rod 402, improve the friction locking ability of the connection interface, and enhance the reliability of wind vibration resistance.

[0072] In some embodiments, the second mounting assembly 401 has a connecting seat 4013 on its upper part, and the other end of the connecting rod 402 is detachably connected to the connecting seat 4013.

[0073] The connecting seat 4013 is used to bear the load of the connecting rod 402 and provide a detachable interface. Specifically, the connecting seat 4013 can be a U-shaped connecting groove, an ear plate hole seat, a dovetail groove seat, or a through hole seat. The end of the connecting rod 402 is engaged with the connecting seat 4013 by means of thread / pin / clamp. Its function is to improve the connection stability between the connecting rod 402 and the second mounting component 401, and at the same time facilitate the disassembly, maintenance, and quick replacement of the external heat exchange module.

[0074] In some embodiments, the insulation material 403 is polyurethane insulation material 403.

[0075] Among them, polyurethane insulation material 403 serves as the main insulation component of heat exchange component 40; specifically, insulation material 403 can be a closed-cell polyurethane foam molded part or a processed insulation board part, and matches the inner contour of the second installation chamber 4011; its function is to reduce ineffective heat dissipation of supply and return water pipes 71, suppress the risk of condensation / icing, reduce thermal bridge heat transfer, and improve system energy efficiency and reliability.

[0076] In some embodiments, the insulation material 403 has a groove 4031 for embedding the water supply pipe 70 and the return pipe 71, so that the water supply pipe 70 and the return pipe 71 are at least partially covered; and the contact surface between the insulation material 403 and the water supply pipe 70 and the return pipe 71 is provided with a reflective coating 73.

[0077] The pipe groove 4031 is used for pipe positioning and covering fixation, and the reflective coating 73 is used to enhance the reflection effect. Specifically, the pipe groove 4031 can be a U-shaped groove / semi-circular groove, so that the supply and return water pipes 71 are partially embedded in the insulation material 403. The reflective coating 73 can be an aluminum foil reflective layer, an aluminized film, or a high-reflective coating and is applied to the contact surface between the insulation material 403 and the pipe. Its function is to improve the stability of pipe installation and reduce the risk of thermal bridging and condensation, while enhancing the reflective effect in the cavity to improve the landscape lighting performance and reduce radiative heat loss.

[0078] In some embodiments, within the end face section perpendicular to the axis of the water supply pipe 70 and the axis of the return pipe 71, the normal line of the outermost surface of the insulation material 403 away from the connecting rod 402 is defined as the reference line. Then, the first arrangement angle β between the center of the water supply pipe 70 and the reference line is 130° to 170°, and the second arrangement angle α between the center of the return pipe 71 and the reference line is 130° to 170°. The first arrangement angle β and / or the second arrangement angle α are preferably 150°. The purpose of this is to balance the interference margin between pipes, the arrangement stability and the heat exchange coverage area under the condition of limited cavity space, improve the assembly consistency and optimize the heat exchange effect.

[0079] The embodiments described above are merely illustrative of several implementations of the present invention, and while the descriptions are specific and detailed, they should not be construed as limiting the scope of the present invention. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of the present invention, and these modifications and improvements all fall within the scope of protection of the present invention. Therefore, the scope of protection of this patent should be determined by the appended claims.

Claims

1. An installation structure for an external wall heat exchange component in a glass curtain wall, characterized in that, include: External wall fixed structure; A first mounting component is configured to be mounted on the external wall fixing structure and connected to the glass curtain wall, the first mounting component having a mounting portion protruding toward the outside of the glass curtain wall; A heat exchange component is disposed on the outside of the glass curtain wall, and the heat exchange component includes a second mounting component, a connecting rod, and insulation material; The second mounting component forms a second mounting chamber, and a limiting step is provided at the bottom of the second mounting chamber; the thermal insulation material is disposed in the second mounting chamber and is supported and limited by the limiting step. One end of the connecting rod is connected to the mounting part, and the other end of the connecting rod is connected to the second mounting component; The second mounting chamber is provided with a clamping device corresponding to the connecting rod, which is used to assist in clamping and fixing the insulation material; The insulation material is embedded with a water supply pipe and a water return pipe.

2. The installation structure for external wall heat exchange components for glass curtain walls as described in claim 1, characterized in that, The external wall fixing structure is a base, and a first installation chamber is formed inside the base. The first installation component is fixed inside the first installation chamber by a second connecting bolt, and the first installation component and the first installation chamber form a limiting fit.

3. The installation structure for external wall heat exchange components for glass curtain walls as described in claim 2, characterized in that, A first rubber pad is also provided between the first mounting component and the inner wall of the first mounting chamber.

4. The installation structure for exterior wall heat exchange components for glass curtain walls as described in claim 1, characterized in that, A second rubber pad is also provided at the connection interface between the glass curtain wall and the first installation component.

5. The installation structure for exterior wall heat exchange components for glass curtain walls as described in claim 1, characterized in that, The second mounting component is fixed to the first mounting component by a third connecting bolt, which passes through the second mounting component and is located on both sides of the connection area between the glass curtain wall and the first mounting component.

6. The installation structure for exterior wall heat exchange components for glass curtain walls as described in claim 1, characterized in that, A third rubber pad is provided at the connection between the connecting rod and the mounting part and / or at the connection between the connecting rod and the second mounting component.

7. The installation structure for exterior wall heat exchange components for glass curtain walls as described in claim 1, characterized in that, The second mounting assembly has a connecting seat on its upper part, and the other end of the connecting rod is detachably connected to the connecting seat.

8. The installation structure for exterior wall heat exchange components for glass curtain walls as described in claim 1, characterized in that, The insulation material is polyurethane insulation material.

9. The installation structure for exterior wall heat exchange components for glass curtain walls as described in claim 1, characterized in that, The insulation material has grooves for embedding the water supply pipe and the return pipe, so that the water supply pipe and the return pipe are at least partially covered; and the contact surface between the insulation material and the water supply pipe and the return pipe is provided with a reflective coating.

10. The installation structure for exterior wall heat exchange components for glass curtain walls as described in claim 1, characterized in that, Within the cross-section of the end face perpendicular to the axis of the water supply pipe and the axis of the return pipe, the normal line of the outermost surface of the insulation material away from the connecting rod is defined as the baseline. Then, the first arrangement angle β between the center of the water supply pipe and the baseline is 130° to 170°, and the second arrangement angle α between the center of the return pipe and the baseline is 130° to 170°.

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