Heat-insulation sound-insulation energy-saving glass curtain wall structure

Abstract

The invention relates to the technical field of curtain walls, and discloses a heat-preservation, heat-insulation, sound-insulation and energy-saving glass curtain wall structure which comprises a frame body, an outer positioning frame, an inner positioning frame, a buffering stability maintaining mechanism, outer-layer glass, inner-layer glass and a heat-insulation air bag, and a mounting groove is formed in the inner wall of the frame body in the thickness direction; the outer positioning frame and the inner positioning frame are fixedly arranged in the mounting grooves respectively; the buffering and stability maintaining mechanism comprises a plurality of buffering and stability maintaining belts, each buffering and stability maintaining belt comprises a plurality of hinged sliding seats, a plurality of bearing heads and a plurality of supporting rods, any two hinged sliding seats can be close to or far away from each other, one bearing head is arranged between every two adjacent hinged sliding seats, and the two hinged sliding seats are hinged to the corresponding bearing heads through the supporting rods respectively; the outer-layer glass and the inner-layer glass are arranged in the mounting cavity; and the heat insulation air bag is clamped between the outer-layer glass and the inner-layer glass. The problems that in the installation process of a glass curtain wall, when multiple layers of glass are movably connected with a frame body, inclination is prone to occurring, and glass corners are collided and extruded to be broken when an air bag is inflated are solved.

Description

Technical Field

[0001] The invention relates to the technical field of glass curtain walls, and in particular to a thermal insulation, sound insulation and energy-saving glass curtain wall structure. Background Art

[0002] Glass curtain walls are often widely used in hotel building design. It is a facade structure composed of glass panels, which is usually used to replace traditional masonry or concrete exterior walls. The application of glass curtain walls in hotel buildings can not only enhance the modern appearance, but also improve the indoor lighting and vision, enhance comfort and safety. With the advancement of technology, the functionality and aesthetics of glass curtain walls have also been further developed, and more and more high-end hotels tend to adopt this design.

[0003] The advantages of glass curtain walls in hotel building design mainly include the following aspects: (1) Glass curtain walls can make the hotel facade look more modern and high-end, enhancing the visual appeal of the hotel. Through glass curtain walls, hotel buildings can present a simple and smooth design style, making them more harmoniously integrated with the surrounding environment and urban landscape. Large areas of glass windows can also show the interior space and landscape of the hotel, enhancing its transparency and sense of openness; (2) Glass curtain walls allow a large amount of natural light to enter the hotel through the walls, thereby greatly improving the lighting effect inside the hotel and creating a brighter and more comfortable environment. This not only saves energy and reduces the need for artificial lighting, but also makes guest rooms and public areas more attractive and improves the stay experience; (3) Glass curtain walls allow guest rooms, restaurants, conference rooms and other areas to enjoy a better view. Hotel guests can overlook the city or natural landscape from high floors, which improves their stay experience and satisfaction; (4) Modern glass curtain wall technology can achieve excellent insulation effect by selecting high-efficiency low-e glass or double-layer glass (laminated glass), helping to maintain indoor temperature and reduce the energy consumption of equipment such as air conditioners, thereby improving the hotel's energy efficiency and reducing operating costs; (5) High-quality glass curtain walls also have certain advantages in sound insulation, especially for hotels located in noisy urban environments, which can effectively reduce the interference of external noise and provide guests with a quiet living environment; (6) Modern glass curtain walls use explosion-proof, anti-collision and fire-proof technologies to increase the safety of buildings. In addition, the structural design of the curtain wall can meet safety requirements such as wind pressure resistance to ensure the stability of the building.

[0004] Existing glass curtain walls used in hotel building design generally adopt a double-layer or multi-layer glass design, and air bags are arranged between the glasses to improve the thermal insulation, heat insulation and sound insulation effects under the premise of supporting the glass. However, there are the following problems during assembly: the glass cannot be rigidly connected to the frame, which may easily cause damage to the glass when the air bag is inflated. If the glass is installed in the frame by a movable connection, it may easily cause the glass to tilt, especially during the inflation process of the air bag, resulting in loose contact between the corners of the glass and the frame, and even causing the corners of the glass to be bumped, squeezed and broken. Summary of the invention

[0005] The purpose of the present invention is to provide a heat-insulating, sound-insulating and energy-saving glass curtain wall structure to solve the problem that during the installation of the glass curtain wall, multiple layers of glass are easily tilted when they are movably connected to the frame, resulting in the glass corners being bumped, squeezed and broken when the airbag is inflated.

[0006] The present invention is achieved through the following technical solutions:

[0007] A heat-insulating, sound-insulating and energy-saving glass curtain wall structure, comprising: a frame body, an inner wall of the frame body having an installation groove opened along the thickness direction; an outer positioning frame and an inner positioning frame, the outer positioning frame is parallel to the inner positioning frame and is arranged at intervals, the outer positioning frame and the inner positioning frame are respectively embedded in the installation grooves, and are fixedly connected to the frame body to form an installation cavity between the outer positioning frame and the inner positioning frame; a buffering and stabilizing mechanism, the buffering and stabilizing mechanism comprises a plurality of buffering and stabilizing belts, the buffering and stabilizing belts comprise a plurality of articulated slides, a plurality of bearing heads and a plurality of support rods, all of the articulated slides included in each of the buffering and stabilizing belts are linearly spaced, and are respectively slidably arranged with the outer positioning frame toward one side of the inner positioning frame, or with the inner positioning frame toward one side of the outer positioning frame. , so that any two of the articulated slides included in each of the buffer stabilization belts can approach or move away from each other, the two articulated slides located at the ends of each of the buffer stabilization belts are fixedly connected to the outer positioning frame or the inner positioning frame, and a bearing head is provided between two adjacent articulated slides, and the two articulated slides are respectively hinged to the corresponding bearing head through a support rod; outer glass and inner glass, the outer glass is parallel to the inner glass and is arranged at intervals in the installation cavity, and respectively slides with the cavity wall of the installation cavity; thermal insulation airbag, the thermal insulation airbag is clamped between the outer glass and the inner glass, and when the thermal insulation airbag is inflated, the outer glass and the inner glass can respectively approach and squeeze the bearing head.

[0008] Optionally, the frame is a rectangular frame, which is formed by splicing a top beam, a bottom beam and two side beams. The top beam is detachably connected to the two side beams. When the top beam is separated from the side beams, the top of the installation groove is open; two slots are opened in the groove wall of the installation groove along the thickness direction, and the two slots respectively match the thickness and height of the outer positioning frame and the inner positioning frame. The outer positioning frame and the inner positioning frame are respectively detachably inserted into the corresponding slots. When the top beam is connected to the side beams, the top of the installation groove and the top of the slots are both closed.

[0009] Optionally, both the outer positioning frame and the inner positioning frame are rectangular frames; a T-shaped sliding groove is respectively opened along the four sides of the outer positioning frame and the inner positioning frame, and both ends of the sliding groove penetrate through the outer positioning frame or the inner positioning frame; the bottom of the articulated sliding seat is set to be corresponding T-shaped, so that the articulated sliding seat can slide into the end of the T-shaped sliding groove to form a buffer and stability belt in each T-shaped sliding groove, and the two articulated sliding seats at the end of the buffer and stability belt are respectively fixedly connected to the bottom of the T-shaped sliding groove by bolts.

[0010] Optionally, the side of the bearing head away from the articulated sliding seat is a bearing surface, and the bearing surface is an arc surface; a return torsion spring is provided at the hinge joint between the bearing head and the support rod. When the return torsion spring is in a natural state, the bearing surface is symmetrically arranged with respect to the median line of the corresponding two support rods; the return torsion spring is connected with a limiting part, and the limiting part is in a U shape and is clamped between the corresponding two support rods of the corresponding bearing head.

[0011] Optionally, a rubber sealing sleeve is sleeved outside the buffer and stability belt. The rubber sealing sleeve includes a flat contact plate and two corrugated side plates. When the outer layer of glass or the inner layer of glass is attached and presses the contact plate, the side plates are folded and compressed along the corrugated line, and the inner wall of the contact plate contacts and presses the corresponding bearing head.

[0012] Optionally, a plurality of balls are rollably arranged on the cavity wall of the installation cavity, and all the balls are arranged in an array; an elastic buffer layer is laid on the edges of the outer layer of glass and the inner layer of glass, and the elastic buffer layer is used for contacting the balls.

[0013] Optionally, a pair of positioning plates are arranged in parallel on the opposite sides of the heat insulation airbag. The positioning plates are connected to the heat insulation airbag through a plurality of air pipes; an air inflation port is opened at the top of the positioning plate and is provided with an air inflation plug. The inner end of the air inflation port is communicated with all the air pipes through an air passage, so that the air inflation port is communicated with the heat insulation airbag; magnets are arranged on the outer surface of the positioning plate, so that the outer surface of the positioning plate can be magnetically attracted to the cavity wall of the installation cavity.

[0014] Optionally, it also includes a windshield, which is arranged on the outside of the outer layer of glass; a buffer frame is mounted on the edge of the windshield, and a plurality of adjustment rods are hinged on the outer wall of the buffer frame, and an adjustment slider is hinged on the end of the adjustment rod away from the buffer frame, and the adjustment slider is slidably connected to the groove wall of the installation groove and is provided with a reset spring; when the reset spring is in a natural state, the windshield is arranged parallel to the outer layer of glass, and an adjustment gap is reserved between the buffer frame and the groove wall of the installation groove.

[0015] Optionally, the adjustment rod is horizontally arranged, and both ends of the adjustment rod are respectively hinged to the buffer frame and the adjustment slider, and the hinge axis is vertically arranged; the sliding direction of the adjustment slider extends horizontally and is perpendicular to the outer glass.

[0016] Optionally, a buffer airbag is sandwiched between the outer glass and the windshield.

[0017] Compared with the prior art, the present invention has the following advantages and beneficial effects:

[0018] The present invention provides a heat-insulating, heat-insulating, sound-insulating and energy-saving glass curtain wall structure. A frame is provided and an installation groove is provided on the inner wall thereof to provide a structural foundation for the installation of the glass curtain wall. An outer layer of glass, an inner layer of glass and an insulation airbag are provided to form a double-layer glass sandwiched airbag structure to ensure the heat-insulating, heat-insulating and sound-insulating performance of the glass curtain wall. On this basis, an outer positioning frame and an inner positioning frame are provided so that the two are respectively embedded in the installation groove of the frame and fixedly connected to the groove wall of the installation groove, so that the outer layer of glass and the inner layer of glass that are movably connected are respectively limited in distance to avoid an excessive distance between the two. By setting a buffer stabilization mechanism, the buffer stabilization mechanism includes a plurality of buffer stabilization belts, and the buffer stabilization belts include a plurality of articulated slides, a plurality of bearing heads and a plurality of support rods, so that all articulated slides included in the buffer stabilization belts are linearly spaced, and the articulated slides and the outer positioning frame are slid toward one side of the inner positioning frame, or the inner positioning frame is slid toward one side of the outer positioning frame, so that any two articulated slides included in each buffer stabilization belt can approach or move away from each other, and the two articulated slides at the ends are fixedly arranged, a bearing head is arranged between two adjacent articulated slides, and the two articulated slides (30) are respectively connected by a The support rod is hinged with the corresponding bearing head. When the heat-insulating airbag is inflated, it gradually expands and squeezes the outer glass and the inner glass away from each other. The outer glass and the inner glass gradually approach the outer positioning frame and the inner positioning frame respectively, and contact and squeeze the corresponding bearing heads. The squeezed bearing heads move toward the articulated slide, thereby squeezing the support rod to force it to rotate, thereby squeezing the articulated slide to gradually slide. During the process, each bearing head on the corresponding side contacts and squeezes the surface of the outer glass or the inner glass in turn, until all the bearing heads on the same side are in the same horizontal plane, the articulated slide will no longer slide, and all the articulated slides are In the equidistant state, during this process, even if the outer glass or the inner glass has been tilted, it will gradually return to the original state as it contacts with different bearing heads, and finally be adjusted to a vertical state. In the process, the buffer and stabilization mechanism can provide sufficient buffering to avoid the outer glass or the inner glass from being broken due to hard contact. Through the mutual cooperation of the above-mentioned characteristics, the thermal insulation, sound insulation and energy-saving glass curtain wall structure can effectively solve the problem that during the installation of the glass curtain wall, the multiple layers of glass are easily tilted when they are movably connected to the frame, resulting in the glass corners being bumped, squeezed and broken when the airbag is inflated. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The drawings described herein are used to provide a further understanding of the embodiments of the present invention, constitute a part of this application, and do not constitute a limitation of the embodiments of the present invention. In the drawings:

[0020] Figure 1 A schematic diagram of a heat-insulating, sound-insulating and energy-saving glass curtain wall structure provided by an embodiment of the present invention;

[0021] Figure 2A schematic diagram of a heat-insulating, sound-insulating and energy-saving glass curtain wall structure provided by an embodiment of the present invention after removing the outer layer of glass, the inner layer of glass and the heat-insulating airbag;

[0022] Figure 3 A partially enlarged schematic diagram of a buffer stabilization mechanism of a thermal insulation, sound insulation, and energy-saving glass curtain wall structure provided by an embodiment of the present invention;

[0023] Figure 4 A partially enlarged schematic diagram of a thermal insulation, sound insulation and energy-saving glass curtain wall structure provided by an embodiment of the present invention when a rubber sealing sleeve is provided;

[0024] Figure 5 A partially enlarged schematic diagram of the installation cavity of the heat-insulating, sound-insulating and energy-saving glass curtain wall structure provided by an embodiment of the present invention;

[0025] Figure 6 A partially enlarged schematic diagram of the edge of a windshield of a thermal insulation, sound insulation and energy-saving glass curtain wall structure provided by an embodiment of the present invention;

[0026] Figure 7 A partially enlarged schematic diagram of a positioning plate of an insulating airbag of a thermal insulation, sound insulation and energy-saving glass curtain wall structure provided in an embodiment of the present invention.

[0027] Marks and corresponding parts names in the attached drawings:

[0028] 10-frame; 11-mounting slot; 111-slot; 12-ball; 20-external positioning frame; 21-inner positioning frame; 30-articulated slide; 31-bearing head; 32-support rod; 33-reset torsion spring; 331-limiting part; 34-rubber sealing sleeve; 341-contact plate; 342-side plate; 40-outer glass; 41-inner glass; 42-elastic buffer layer; 50-insulating airbag; 51-positioning plate; 511-inflatable plug; 52-air pipe; 60-windshield; 61-buffer frame; 62-adjustment rod; 63-adjustment slider; 64-reset spring; 65-buffer airbag. DETAILED DESCRIPTION

[0029] In order to make the objectives, technical solutions and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with embodiments and drawings. The exemplary embodiments of the present invention and their description are only used to explain the present invention and are not intended to limit the present invention.

[0030] Please refer to Figures 1 to 7, an embodiment of the present invention provides a heat-insulating, sound-insulating and energy-saving glass curtain wall structure, comprising: a frame body 10, the inner wall of the frame body 10 is provided with a mounting groove 11 along the thickness direction; a second one comprises an outer positioning frame 20 and an inner positioning frame 21, the outer positioning frame 20 is parallel to the inner positioning frame 21 and is arranged at intervals, the outer positioning frame 20 and the inner positioning frame 21 are respectively embedded in the mounting groove 11, and are fixedly connected to the frame body 10 to form a mounting cavity between the outer positioning frame 20 and the inner positioning frame 21; a third one comprises a buffering and stabilizing mechanism, the buffering and stabilizing mechanism comprises a plurality of buffering and stabilizing belts, the buffering and stabilizing belts comprise a plurality of articulated slides 30, a plurality of bearing heads 31 and a plurality of support rods 32, all of the articulated slides 30 included in each of the buffering and stabilizing belts are linearly spaced, and are respectively connected to one side of the outer positioning frame 20 facing the inner positioning frame 21, or one side of the inner positioning frame 21 facing the outer positioning frame 20 The side sliding is arranged so that any two of the articulated slides 30 included in each of the buffer stabilization belts can approach or move away from each other, and the two articulated slides 30 located at the ends of each of the buffer stabilization belts are fixedly connected to the outer positioning frame 20 or the inner positioning frame 21, and a bearing head 31 is provided between two adjacent articulated slides 30, and the two articulated slides 30 are respectively hinged with the corresponding bearing head 31 through a support rod 32; the fourth includes an outer layer of glass 40 and an inner layer of glass 41, and the outer layer of glass 40 and the inner layer of glass 41 are parallel and spaced apart in the installation cavity, and respectively slide with the cavity wall of the installation cavity; the fifth includes an insulating airbag 50, and the insulating airbag 50 is sandwiched between the outer layer of glass 40 and the inner layer of glass 41. When the insulating airbag 50 is inflated, the outer layer of glass 40 and the inner layer of glass 41 can respectively approach and squeeze the bearing head 31.

[0031] The heat-insulating, heat-insulating, sound-insulating and energy-saving glass curtain wall structure provided in the present embodiment provides a structural foundation for the installation of the glass curtain wall by providing a frame body 10 and providing a mounting groove 11 on the inner wall thereof, and forms a double-layer glass sandwiched with an airbag structure by providing an outer layer of glass 40, an inner layer of glass 41 and a heat-insulating airbag 50 to ensure the heat-insulating, heat-insulating and sound-insulating performance of the glass curtain wall; on this basis, an outer positioning frame 20 and an inner positioning frame 21 are provided, so that the two are respectively embedded in the mounting groove 11 of the frame body 10 and fixedly connected to the groove wall of the mounting groove 11, so as to limit the distance between the outer layer of glass 40 and the inner layer of glass 41 that are movably connected, so as to avoid an excessive distance between the two; A buffer stabilization mechanism is provided, which includes a plurality of buffer stabilization belts, and the buffer stabilization belts include a plurality of articulated slides 30, a plurality of bearing heads 31 and a plurality of support rods 32, so that all articulated slides 30 included in the buffer stabilization belts are linearly spaced, and the articulated slides 30 and the outer positioning frame 20 are slidably arranged toward one side of the inner positioning frame 21, or the inner positioning frame 21 is slidably arranged toward one side of the outer positioning frame 20, so that any two articulated slides 30 included in each buffer stabilization belt can approach or move away from each other, and the two articulated slides 30 located at the ends are fixedly arranged, and a bearing head 31 is arranged between two adjacent articulated slides 30, and the two articulated slides 30 (30) are respectively connected by a The support rod 32 is hinged with the corresponding bearing head 31. When the heat-insulating airbag 50 is inflated, it gradually expands and squeezes the outer glass 40 and the inner glass 41 away from each other. The outer glass 40 and the inner glass 41 gradually approach the outer positioning frame 20 and the inner positioning frame 21, respectively, and contact and squeeze the corresponding bearing head 31. The squeezed bearing head 31 moves toward the articulated slide 30, thereby squeezing the support rod 32 to force it to rotate, thereby squeezing the articulated slide 30 to gradually slide. During the process, each bearing head 31 on the corresponding side contacts and squeezes the surface of the outer glass 40 or the inner glass 41 in turn, until all the bearing heads 31 on the same side are in the same horizontal plane, and then the articulated slide 30 is No longer slides, and all the articulated slide seats 30 are in an equidistant state. During this process, even if the outer glass 40 or the inner glass 41 has been tilted, it will gradually return to the original state as it contacts with different bearing heads 31, and finally be adjusted to a vertical state. During this process, the buffering and stabilizing mechanism can provide sufficient buffering to avoid the outer glass 40 or the inner glass 41 from being broken due to hard contact. Through the mutual cooperation of the above-mentioned features, the thermal insulation, sound insulation and energy-saving glass curtain wall structure can effectively solve the problem that during the installation of the glass curtain wall, the multiple layers of glass are easily tilted when they are movably connected to the frame 10, resulting in the problem that the glass corners are bumped, squeezed and broken when the airbag is inflated.

[0032] To further explain the specific structure of the frame 10, the frame 10 is a rectangular frame, which is formed by splicing a top beam, a bottom beam and two side beams. The top beam is detachably connected to the two side beams. When the top beam is separated from the side beams, the top of the installation groove 11 is open; two slots 111 are formed in the groove wall of the installation groove 11 along the thickness direction, and the two slots 111 respectively match the thickness and height of the outer positioning frame 20 and the inner positioning frame 21. The outer positioning frame 20 and the inner positioning frame 21 are respectively detachably inserted into the corresponding slots 111. When the top beam is connected to the side beams, the top of the installation groove 11 and the top of the slots 111 are both closed.

[0033] Through the above settings, it is convenient to insert the outer positioning frame 20 and the inner positioning frame 21, and it is also convenient to set the outer layer glass 40, the inner layer glass 41 and the heat insulation airbag 50.

[0034] To further explain the specific structure of the sliding connection between the articulated slide 30 and the outer positioning frame 20 and the inner positioning frame 21, both the outer positioning frame 20 and the inner positioning frame 21 are rectangular frames; a T-shaped chute is respectively formed along the four sides of the outer positioning frame 20 and the inner positioning frame 21, and both ends of the chute penetrate through the outer positioning frame 20 or the inner positioning frame 21; the bottom of the articulated slide 30 is set to be corresponding T-shaped, so that the articulated slide 30 can slide into the T-shaped chute from the end, and a buffer and stability belt is formed in each T-shaped chute. The two articulated slides 30 at the end of the buffer and stability belt are respectively fixedly connected to the bottom of the T-shaped chute by bolts.

[0035] To facilitate fine adjustment of the angle when the bearing head 31 contacts the outer layer glass 40 or the inner layer glass 41, the side of the bearing head 31 away from the articulated slide 30 is a bearing surface, and the bearing surface is an arc surface; a return torsion spring 33 is provided at the hinge joint between the bearing head 31 and the support rod 32. When the return torsion spring 33 is in a natural state, the bearing surface is symmetrically arranged with respect to the median line of the corresponding two support rods 32; the return torsion spring 33 is connected with a limiting part 331, and the limiting part 331 is in a shape of a capital C, and the limiting part 331 is clamped between the corresponding two support rods 32 of the bearing head 31.

[0036] By setting a reset torsion spring 33, the supporting head 31 is in middle contact with the outer glass 40 or the inner glass 41 in a vertical state by default. When the outer glass 40 or the inner glass 41 is slightly tilted, the edge or the offset center of the supporting surface of the supporting head 31 contacts the outer glass 40 or the inner glass 41. During the process, when the outer glass 40 or the inner glass 41 adjusts its angle, the supporting head 31 can be rotated to a certain extent to adaptively match the outer glass 40 or the inner glass 41 that is undergoing angle adjustment; by setting a limiting portion 331, the rotation angle of the supporting head 31 is limited to prevent its rotation greater than 90° from causing support failure or fracture at the hinge. During the rotation, the limiting portion 331 rotates together with the supporting head 31 until the limiting portion 331 abuts against any corresponding support rod 32 and cannot continue to rotate.

[0037] In order to improve the sealing performance at the edges of the outer layer of glass 40 and the inner layer of glass 41, the buffer stabilizing belt outer cover is provided with a rubber sealing sleeve 34, and the rubber sealing sleeve 34 includes a flat contact plate 341 and two corrugated side plates 342. When the outer layer of glass 40 or the inner layer of glass 41 is attached to and squeezed against the contact plate 341, the side plate 342 is folded and compressed along the corrugated line, and the inner wall of the contact plate 341 contacts and squeezes the corresponding supporting head 31.

[0038] By setting the rubber sealing sleeve 34, on the one hand, the outer glass 40 and the inner glass 41 are in soft contact with the contact plate 341 before they are in hard contact with the supporting head 31, so as to perform elastic buffering, and the gradually squeezed rubber sealing sleeve 34 is used to implement the sealing performance at the edges of the outer glass 40 and the inner glass 41.

[0039] In order to facilitate the sliding adjustment of the outer glass 40 and the inner glass 41 and avoid breakage caused by hard contact with the ball 12, a plurality of balls 12 are rollingly arranged on the wall of the mounting cavity, and all the balls 12 are arranged in an array; the edges of the outer glass 40 and the inner glass 41 are paved with an elastic buffer layer 42, and the elastic buffer layer 42 is used to contact the ball 12.

[0040] In order to preliminarily fix the setting position of the insulation airbag 50 and to limit its contraction in the direction parallel to the outer glass 40, a pair of positioning plates 51 are provided in parallel on the opposite sides of the insulation airbag 50, and the positioning plates 51 are connected to the insulation airbag 50 through multiple air pipes 52; an inflation port is opened on the top of the positioning plate 51 and an inflation plug 511 is installed, and the inner end of the inflation port is connected with all the air pipes 52 through an airway, so that the inflation port is connected with the insulation airbag 50; a magnet is provided on the outer surface of the positioning plate 51, so that the outer surface of the positioning plate 51 can be magnetically attracted to the wall of the installation cavity.

[0041] Through the above-mentioned arrangement, the magnetic attraction between the positioning plate 51 and the cavity wall of the installation cavity is utilized for fixing and limiting. Then, when inflating, the heat insulating airbag 50 cannot shrink in a direction parallel to the outer glass 40 due to the magnetic attraction of the positioning plate 51, thereby ensuring that it can be fully spread out and filled between the outer glass 40 and the inner glass 41; by providing a plurality of air supply pipes 52, the heat insulating airbag 50 is inflated at different positions and heights at the same time, so as to ensure the uniformity of the expansion of the heat insulating airbag 50 in all directions as much as possible, thereby minimizing the probability and degree of tilting of the outer glass 40 or the inner glass 41.

[0042] In order to further improve the windproof performance, the above-mentioned thermal insulation, sound insulation and energy-saving glass curtain wall structure also includes a windproof glass 60, which is arranged on the outside of the outer layer of glass 40; the edge of the windproof glass 60 is provided with a buffer frame 61, and the outer wall of the buffer frame 61 is hinged with multiple adjustment rods 62, and the end of the adjustment rod 62 away from the buffer frame 61 is hinged with an adjustment slider 63, and the adjustment slider 63 is slidably connected to the groove wall of the installation groove 11, and is provided with a reset spring 64; when the reset spring 64 is in a natural state, the windproof glass 60 and the outer layer of glass 40 are arranged in parallel and spaced apart, and an adjustment gap is reserved between the buffer frame 61 and the groove wall of the installation groove 11.

[0043] Through the above arrangement, when the wind is strong, the air pressure and airflow exert pressure and cooperate on the windshield 60. The windshield 60 can move and swing to a certain extent under the action of the hinged adjustment rod 62, the adjustment slider 63 and the return spring 64, thereby removing the wind force to implement windproof operation.

[0044] In order to prevent the windshield 60 from moving vertically and colliding with the frame 10 to cause it to break, the adjustment rod 62 is arranged horizontally, and the two ends of the adjustment rod 62 are respectively hinged to the buffer frame 61 and the adjustment slider 63, and the hinge axis is arranged vertically; the sliding direction of the adjustment slider 63 extends horizontally and is perpendicular to the outer glass 40.

[0045] Through the above arrangement, the windshield 60 can only move in the horizontal direction.

[0046] In order to provide further elastic support for the windshield 60 , a buffer airbag 65 is sandwiched between the outer glass 40 and the windshield 60 .

[0047] The specific implementation methods described above further illustrate the objectives, technical solutions and beneficial effects of the present invention in detail. It should be understood that the above description is only a specific implementation method of the present invention and is not intended to limit the scope of protection of the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A heat-insulating, sound-insulating and energy-saving glass curtain wall structure, characterized in that: include: A frame (10), wherein the inner wall of the frame (10) is provided with a mounting groove (11) along the thickness direction; An outer positioning frame (20) and an inner positioning frame (21), wherein the outer positioning frame (20) and the inner positioning frame (21) are parallel and spaced apart from each other, and the outer positioning frame (20) and the inner positioning frame (21) are respectively embedded in the mounting groove (11) and fixedly connected to the frame body (10) to form a mounting cavity between the outer positioning frame (20) and the inner positioning frame (21); A buffering and stabilizing mechanism, the buffering and stabilizing mechanism comprising a plurality of buffering and stabilizing belts, the buffering and stabilizing belts comprising a plurality of articulated slides (30), a plurality of bearing heads (31) and a plurality of supporting rods (32), all of the articulated slides (30) included in each of the buffering and stabilizing belts being linearly spaced and respectively slidably arranged with the outer positioning frame (20) on one side facing the inner positioning frame (21), or with the inner positioning frame (21) on one side facing the outer positioning frame (20), so that any two of the articulated slides (30) included in each of the buffering and stabilizing belts can approach or move away from each other, the two articulated slides (30) located at the ends of each of the buffering and stabilizing belts being fixedly connected to the outer positioning frame (20) or the inner positioning frame (21), a bearing head (31) being provided between two adjacent articulated slides (30), and the two articulated slides (30) being axially hinged with the corresponding bearing heads (31) respectively through one of the supporting rods (32); An outer layer of glass (40) and an inner layer of glass (41), wherein the outer layer of glass (40) and the inner layer of glass (41) are arranged in parallel and at intervals in the installation cavity, and are respectively slidably matched with the cavity wall of the installation cavity; A heat-insulating airbag (50) is sandwiched between the outer layer of glass (40) and the inner layer of glass (41); when the heat-insulating airbag (50) is inflated, the outer layer of glass (40) and the inner layer of glass (41) can respectively approach and squeeze the supporting head (31).

2. The heat-insulating, sound-insulating and energy-saving glass curtain wall structure according to claim 1 is characterized in that: The frame (10) is a rectangular frame, and is formed by splicing a top beam, a bottom beam, and two side beams. The top beam is detachably connected to the two side beams, and when the top beam is separated from the side beams, the top of the installation slot (11) is open; The groove wall of the installation groove (11) is provided with two slots (111) along the thickness direction, and the two slots (111) respectively match the thickness and height of the outer positioning frame (20) and the inner positioning frame (21); the outer positioning frame (20) and the inner positioning frame (21) are respectively disassembled and inserted into the corresponding slots (111); when the top beam is connected to the side beam, the top of the installation groove (11) and the top of the slots (111) are both closed.

3. The heat-insulating, sound-insulating and energy-saving glass curtain wall structure according to claim 2 is characterized in that: The outer positioning frame (20) and the inner positioning frame (21) are both rectangular frames; The outer positioning frame (20) and the inner positioning frame (21) are each provided with a T-shaped sliding groove along the directions of the four sides, and both ends of the sliding groove penetrate through the outer positioning frame (20) or the inner positioning frame (21); The bottom of the articulated sliding seat (30) is correspondingly T-shaped, so that the articulated sliding seat (30) can slide into from the end of the T-shaped sliding groove, and a buffer and stability belt is formed in each T-shaped sliding groove. The two articulated sliding seats (30) at the end of the buffer and stability belt are respectively fixedly connected with the bottom of the T-shaped sliding groove by bolts.

4. The heat-insulating, sound-insulating and energy-saving glass curtain wall structure according to claim 3 is characterized in that: One side of the bearing head (31) away from the articulated sliding seat (30) is a bearing surface, and the bearing surface is an arc surface; A return torsion spring (33) is provided at the hinge joint of the bearing head (31) and the support rod (32). When the return torsion spring (33) is in a natural state, the bearing surface is symmetrically arranged with respect to the median line of the corresponding two support rods (32); The return torsion spring (33) is connected with a limiting part (331). The limiting part (331) is in a U shape, and the limiting part (331) is clamped between the corresponding two support rods (32) of the corresponding bearing head (31).

5. The heat-insulating, sound-insulating and energy-saving glass curtain wall structure according to claim 4 is characterized in that: A rubber sealing sleeve (34) is sleeved outside the buffer and stability belt. The rubber sealing sleeve (34) includes a flat contact plate (341) and two corrugated side plates (342). When the outer layer glass (40) or the inner layer glass (41) is attached and presses the contact plate (341), the side plates (342) are folded and compressed along the corrugated line, and the inner wall of the contact plate (341) contacts and presses the corresponding bearing head (31).

6. The heat-insulating, sound-insulating and energy-saving glass curtain wall structure according to any one of claims 1 to 5, characterized in that: A plurality of balls (12) are arranged in a rolling manner on the cavity wall of the installation cavity, and all the balls (12) are arranged in an array; Elastic buffer layers (42) are laid at the edges of the outer layer glass (40) and the inner layer glass (41), and the elastic buffer layers (42) are used to contact the balls (12).

7. The heat-insulating, sound-insulating and energy-saving glass curtain wall structure according to claim 6 is characterized in that: A pair of positioning plates (51) are arranged in parallel on opposite sides of the heat insulation airbag (50), and the positioning plates (51) are connected to the heat insulation airbag (50) through a plurality of air pipes (52); An air inlet is opened at the top of the positioning plate (51) and is provided with an air filling plug (511). The inner end of the air inlet is communicated with all the air pipes (52) through an air passage, so that the air inlet is communicated with the heat insulation airbag (50); Magnets are arranged on the outer surface of the positioning plate (51), so that the outer surface of the positioning plate (51) can be magnetically attracted to the cavity wall of the installation cavity.

8. The heat-insulating, sound-insulating and energy-saving glass curtain wall structure according to claim 7 is characterized in that: It further includes a windproof glass (60), and the windproof glass (60) is arranged outside the outer layer glass (40); A buffer frame (61) is sleeved at the edge of the windproof glass (60). A plurality of adjusting rods (62) are hinged to the outer wall of the buffer frame (61). One end of the adjusting rod (62) away from the buffer frame (61) is hinged with an adjusting slider (63). The adjusting slider (63) is slidably connected to the cavity wall of the installation groove (11) and is provided with a return spring (64); When the return spring (64) is in a natural state, the windshield (60) and the outer glass (40) are arranged in parallel and spaced apart, and an adjustment gap is reserved between the buffer frame (61) and the groove wall of the installation groove (11).

9. The heat-insulating, sound-insulating and energy-saving glass curtain wall structure according to claim 8 is characterized in that: The adjusting rod (62) is arranged horizontally, and the two ends of the adjusting rod (62) are respectively hinged with the buffer frame (61) and the adjusting slider (63), and the hinge axis is arranged vertically; The sliding direction of the adjusting slider (63) extends horizontally and is perpendicular to the outer layer of glass (40).

10. The heat-insulating, sound-insulating and energy-saving glass curtain wall structure according to claim 9, characterized in that: A buffer air bag (65) is sandwiched between the outer layer of glass (40) and the windshield glass (60).

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