Glass curtain wall performance detection device

Abstract

The invention relates to the technical field of glass curtain wall detection, in particular to a glass curtain wall performance detection device which comprises a carrier plate, a movable plate is slidably connected to the top of the carrier plate, square pipes are fixedly connected to two corners of the outer side of the movable plate, and a sealing plate is fixedly connected between the two square pipes. The sealing plate is movably clamped with the metal frame, a supporting cylinder is fixed to the outer side of the sealing plate, and a pressure applying detection piece is slidably clamped to the outer side of the supporting cylinder. According to the invention, the glass plate and the metal frame can be sealed in a space through the sealing plate, the supporting cylinder and the plurality of cylinder shells, and whether the curtain wall deforms and cracks after being subjected to air pressure is detected by pumping high-pressure air into the space, so that the anti-extrusion performance of the curtain wall is evaluated, and the pressure stabilizing state of air pressure in the space within a period of time is observed; and the air tightness performance of the curtain wall can be evaluated conveniently, so that various different performance detection items of the curtain wall can be combined and implemented by using one detection device.

Description

Technical Field

[0001] The present invention relates to the technical field of glass curtain wall detection, and specifically relates to a glass curtain wall performance detection device. Background Art

[0002] A glass curtain wall is a building structure that uses glass as the exterior facade on a large scale, composed of a metal frame and glass panels. In order to ensure the safety and durability of the glass curtain wall, performance tests such as wind resistance and extrusion resistance tests, airtightness tests, and water tightness tests are generally required for the glass curtain wall. For example, the wind pressure resistance test can detect the deformation and damage of the glass curtain wall under the action of wind pressure, the airtightness test can evaluate the sealing performance of the glass curtain wall in air flow, and the water tightness test can verify the waterproof effect of the glass curtain wall in a rain environment;

[0003] At present, most glass curtain wall performance detection devices mainly detect the curtain wall by placing it on the detection device on the premise that the curtain wall is not installed, and it is very difficult to perform on-site curtain wall performance detection on the outside of the installed and completed glass curtain wall. Moreover, most glass curtain wall performance detection devices are also limited to single performance detection and cannot combine multiple different performance detection items for implementation. Single performance detection of the glass curtain wall is not conducive to ensuring the accuracy of the overall detection result of the curtain wall performance. Summary of the Invention

[0004] The purpose of the present invention is to provide a glass curtain wall performance detection device to solve the problems proposed in the above background art.

[0005] To achieve the above purpose, the present invention provides the following technical solutions:

[0006] A glass curtain wall performance detection device includes:

[0007] A carrier plate, fixed inside an external hanging basket. A movable plate is slidably connected to the top of the carrier plate, and two square tubes are fixed to the outside of the movable plate;

[0008] A sealing plate, fixed to the two square tubes. The sealing plate can be hermetically clamped to the outside of the glass panel, and a support cylinder is fixed to one side of the sealing plate;

[0009] A pressure application and detection member, slidably clamped to the support cylinder. The pressure application and detection member evaluates the performance differences of anti-extrusion in different regions of the glass panel by applying pressure to different regions of the glass panel for detection. The pressure application and detection member includes a first barrel shell, a second barrel shell, a third barrel shell, a fourth barrel shell, and a fifth barrel shell that are slidably clamped to each other. One end of the fifth barrel shell is connected and fixed to a three-way pipe;

[0010] The first lead screw and the second lead screw are both rotatably connected to the sealing plate. Threaded connection blocks one and two are respectively screwed onto the outer sides of the first lead screw and the second lead screw. Threaded connection block one and threaded connection block two are used to cooperate to drive the cylinder shells at different positions to move.

[0011] Furthermore: Two water delivery pipes are fixedly connected and communicated to the outer side of the support cylinder. A limiting shaft is fixed between the support cylinder and the movable plate.

[0012] Furthermore: Two motors are fixed to the outer side of the movable plate. The two motors are respectively used to drive the first lead screw and the second lead screw to rotate.

[0013] Furthermore: A notch is formed through the lower part of the movable plate. Two oil cylinders capable of driving the movable plate to move are fixed to the inner side of the carrier plate.

[0014] Furthermore: Two square rods are fixed to the inner side of the carrier plate. One end of the square rod passing through the movable plate is slidably inserted into the corresponding square tube.

[0015] Furthermore: The first cylinder shell is slidably clamped to the support cylinder. The second cylinder shell is slidably clamped to the first cylinder shell. The third cylinder shell is slidably clamped to the second cylinder shell. The fourth cylinder shell is slidably clamped to the third cylinder shell. The fifth cylinder shell is slidably clamped to the fourth cylinder shell.

[0016] Furthermore: A pressure sensor is installed and fixed inside the fifth cylinder shell. A first limiting ring is fixed to one end of each of the multiple cylinder shells. A second limiting ring is fixed to the other end of each of the multiple cylinder shells.

[0017] Furthermore: A plurality of sealing strips and sealing blocks are fixed to the inner side of the sealing plate. The sealing blocks are arranged between adjacent sealing strips.

[0018] Furthermore: A protection mechanism is arranged on the inner side of the sealing plate. The protection mechanism is used to temporarily repair the inferior glass plate that cracks during the detection process. The protection mechanism includes:

[0019] Support seats, two in number, are both detachably installed and fixed to the sealing plate by bolts;

[0020] A rubber roller is detachably rotatably connected between the two support seats. A tape is wound around the outer side of the rubber roller;

[0021] A limiting roller is rotatably connected between the two support seats.

[0022] Furthermore: A clamping plate is fixed to one end of the tape. A fishing line rope is fixed to the outer side of the clamping plate. The fishing line rope penetrates through the sealing plate.

[0023] Compared with the prior art, the beneficial effects of the present invention are:

[0024] 1. By installing and fixing the detection device of the present application on an external hanging basket, and driving the hanging basket and the detection device to the outside of the glass curtain wall to be detected with the help of an external aerial work vehicle, it is convenient to perform performance detection on the glass curtain wall after installation or use for a period of time outdoors. The detection items include anti-extrusion performance detection, airtightness detection, and watertightness detection. Through multiple performance detections, the performance quality of the glass curtain wall can be evaluated more accurately.

[0025] 2. By clamping the sealing plate to the outside of the glass curtain wall, making the glass plate and the metal frame around it inside the sealing plate, connecting the pipeline for pumping air from the outside to the three-way pipe, and continuously increasing the air pressure in the space enclosed by multiple cylindrical shells, support cylinders, and the sealing plate, it realizes using air pressure to simulate the extrusion force exerted by wind pressure on the glass plate. By observing indoors whether the glass plate deforms and cracks after being pressed, and whether the glass plate separates from the metal frame, the overall wind resistance and anti-extrusion performance of the glass curtain wall can be evaluated.

[0026] By slidably clamping multiple cylindrical shells (including cylindrical shell one, cylindrical shell two, cylindrical shell three, cylindrical shell four, and cylindrical shell five) on the outside of the support cylinder, when the screw rod two rotates, it drives the transmission block two to move the cylindrical shell one into the support cylinder, making the inner open end of the cylindrical shell two abut against the outside of the glass plate. At this time, the air pressure inside multiple cylindrical shells will act on the area enclosed by the cylindrical shell five on the glass plate surface. Similarly, moving the open end of the cylindrical shell two to abut against the glass plate will make the air pressure act on the area enclosed by the cylindrical shell two on the glass plate surface, and so on. The cylindrical shells at different positions move towards the glass plate in sequence, enabling the air pressure to act on different areas of the glass plate surface, thereby realizing local anti-extrusion performance detection on different areas of the glass plate surface in sequence, facilitating understanding the anti-extrusion performance differences of different areas of the glass plate, and improving the accuracy of the anti-extrusion performance detection results of the curtain wall glass plate.

[0027] 3. During the process of using multiple cylindrical shells to hold air to detect the anti-extrusion strength of the glass plate, when the screw rod one rotates, the transmission block one can drive the cylindrical shell five to move towards the support cylinder with the help of the three-way pipe. As the cylindrical shell five gradually moves into the cylindrical shell four, the space between multiple cylindrical shells decreases, realizing increasing the pressure applied to the glass. After the cylindrical shell five moves into the cylindrical shell four, the cylindrical shell five can also drive the cylindrical shell four to move into the cylindrical shell three, realizing further increasing the pressure applied to the glass. And so on, the cylindrical shell five can drive the cylindrical shell four, cylindrical shell three, cylindrical shell two, and cylindrical shell one to move towards the support cylinder in sequence, to flexibly adjust the size of the air pressure applied to the glass, facilitating the anti-extrusion performance detection of the curtain wall under different working condition pressures.

[0028] 4. By moving the first cylinder shell into the support cylinder, the open end of the first cylinder shell abuts against the glass plate. At this time, the glass plate and the metal frame around it are sealed in the watertight detection space enclosed by the support cylinder, the sealing plate and the first cylinder shell. Open the valve of the water delivery pipe at the top of the support cylinder, so that the pipe for pumping water from the outside delivers water to this water delivery pipe, filling the inside of the watertight detection space with water and increasing the water pressure. Evaluate the watertight performance of the glass curtain wall by observing whether there is water leakage at the caulking position where the glass plate is installed with the metal frame indoors.

[0029] 5. During the process of delivering high-pressure air into the internal spaces of multiple cylinder shells to detect the anti-extrusion performance of the glass plate, a candle can be lit at the connection position between the glass plate and the metal frame indoors. By observing whether the flame flickers, visually judge whether the airtightness of the curtain wall is qualified. Or after pumping a certain air pressure between multiple cylinder shells and then stopping the air supply, monitor the steady-state air pressure between multiple cylinder shells for a period of time through the pressure sensor inside the fifth cylinder shell. If the air pressure gradually decreases, it indicates that the airtightness of the glass curtain wall is poor. If the air pressure remains unchanged or fluctuates within a reasonable range, it indicates that the airtightness of the glass curtain wall is good. Thus, while detecting the anti-extrusion performance of the curtain wall, the airtightness of the curtain wall can also be detected, and the first cylinder shell and the support cylinder can also cooperate to detect the watertightness of the curtain wall. By combining and implementing multiple glass curtain wall performance detection items, to a certain extent, ensure the accuracy of the overall detection results of the curtain wall performance.

[0030] 6. By installing a fixed rubber roller on the inner side of the sealing plate, when detecting the anti-extrusion performance of the glass plate of the curtain wall, if cracks are observed on the glass plate, the fishing line rope can be pulled by hand to pull out the tape on the rubber roller and arrange it outside the glass plate. Then move multiple cylinder shells into the support cylinder, and the open ends of multiple cylinder shells cooperate with the mesh plate to press the tape against the glass plate, realizing pasting the tape on the outside of the cracked glass plate to prevent the glass plate from breaking after removing the sealing plate of the detection device, and realizing temporary repair of the damaged glass plate, which is beneficial to improving the safety of the glass curtain wall performance detection.

[0031] 7. By unfolding multiple cylinder shells, and then connecting the external air extraction device to the three-way pipe to continuously suck the air between multiple cylinder shells, making the space between multiple cylinder shells in a negative pressure state, and then making the outside of the glass plate of the curtain wall in a negative pressure state. Evaluate the anti-extrusion strength on the indoor side of the curtain wall glass plate by observing whether the glass deforms and cracks towards the outside of the room. Of course, the open ends of the cylinder shells at different positions can also be separately abutted against the glass surface, and then the outside surface of the glass is made in a negative pressure state to realize the detection of the anti-extrusion strength performance of different areas on the indoor side of the glass plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] Figure 1 is the overall structural schematic diagram of the present invention, the external hanging basket and the glass curtain wall;

[0033] Figure 2It is a schematic diagram of the overall structure of the present invention and the external glass curtain wall;

[0034] Figure 3 It is a schematic diagram of the overall structure of the present invention;

[0035] Figure 4 It is a schematic diagram of the overall external structure of the sealing plate in the present invention;

[0036] Figure 5 It is a schematic diagram of the structure of the pressure - applying detection member in the contracted state in the present invention;

[0037] Figure 6 It is a schematic diagram of the sealing plate and the protection mechanism in the present invention;

[0038] Figure 7 It is a cross - sectional view of the pressure - applying detection member in the present invention;

[0039] Figure 8 It is a simplified diagram of the structure for dividing the glass plate into multiple detection areas in the present invention.

[0040] In the figure: 100, carrier plate; 110, movable plate; 111, square tube; 112, motor; 120, oil cylinder; 130, square rod; 200, sealing plate; 210, support cylinder; 211, water delivery pipe; 212, limit shaft; 220, sealing strip; 230, sealing block; 300, pressure - applying detection member; 310, first cylinder shell; 320, second cylinder shell; 330, third cylinder shell; 340, fourth cylinder shell; 350, fifth cylinder shell; 351, pressure sensor; 360, three - way pipe; 370, first limit ring; 380, second limit ring; 390, mesh plate; 400, first lead screw; 410, first transmission block; 500, second lead screw; 510, second transmission block; 600, protection mechanism; 610, support seat; 620, rubber roller; 630, adhesive tape; 631, fishing line rope; 640, limit roller. Detailed implementation manners

[0041] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0042] Embodiment 1, please refer to Figure 1 - Figure 8, in the embodiment of the present invention, a glass curtain wall performance detection device includes a carrier plate 100 fixedly installed on an external hanging basket. A movable plate 110 is slidably connected to the top of the carrier plate 100. Square tubes 111 are fixedly connected to two corners on the outer side of the movable plate 110. A sealing plate 200 is fixedly connected between the two square tubes 111. The sealing plate 200 is movably clamped with a metal frame. A support cylinder 210 is fixed to the outer side of the sealing plate 200. A pressure application detection member 300 is slidably clamped to the outer side of the support cylinder 210. The pressure application detection member 300 includes a cylinder shell one 310, a cylinder shell two 320, a cylinder shell three 330, a cylinder shell four 340, and a cylinder shell five 350 that are slidably clamped with each other. The cylinder shell one 310 is movably clamped with the support cylinder 210. A tee pipe 360 is fixedly connected to one end of the cylinder shell five 350. A lead screw one 400 and a lead screw two 500 are rotatably connected to the outer side of the sealing plate 200. A transmission block one 410 and a transmission block two 510 are respectively screwed onto the outer sides of the lead screw one 400 and the lead screw two 500. The transmission block one 410 is fixedly connected to the tee pipe 360. The transmission block one 410 drives the tee pipe 360 to move, so that the cylinder shell five 350 drives the remaining cylinder shells to move positions, achieving the effect of regulating the air pressure applied by the pressure application detection member 300 to the glass plate. The transmission block two 510 can drive the cylinder shells at different positions to abut against the outer side of the glass plate, facilitating the detection of the anti-extrusion performance of different areas of the glass plate.

[0043] Specifically, by installing and fixing the detection device on the hanging basket, the aerial work platform can directly transfer the hanging basket and the detection device to the outdoor side of the curtain wall, facilitating the detection device to detect the performance of the curtain wall after installation or use for a period of time. By arranging the sealing plate 200 on the outer side of the curtain wall to be detected, the support cylinder 210 is fixed to the outer side of the sealing plate 200, and a plurality of cylinder shells are slidably clamped to the outer side of the support cylinder 210. The sealing plate 200, the support cylinder 210, and the plurality of cylinder shells can seal the glass plate and the metal frame around it in a space. By pumping high-pressure air into this space to detect whether the curtain wall deforms and cracks under air pressure, and then evaluating the anti-extrusion performance of the curtain wall. Stop supplying air to this space and observe the pressure stabilization state of the air pressure inside the space for a period of time, facilitating the evaluation of the airtightness performance of the curtain wall. By injecting water into the space between the support cylinder 210, the cylinder shell one 310, and the sealing plate 200 and increasing the water pressure, observing whether water seeps around the glass plate on the indoor side of the curtain wall to evaluate the watertightness performance of the curtain wall, thus realizing the combined implementation of multiple different performance detection items of the curtain wall using one detection device, which is beneficial to improving the accuracy of the glass curtain wall performance detection results.

[0044] Such as Figure 4As shown, in this embodiment, the top and bottom of the outer side of the support cylinder 210 are connected and fixed with two water pipes 211, and valves are installed and fixed on the outer side of the water pipes 211. When the anti-extrusion performance test is performed by transporting high-pressure space to the inside of the support cylinder 210, the valves on the two water pipes 211 need to be closed to prevent the support cylinder 210 from deflation.

[0045] In this embodiment, combined with Figure 7 When the opening of the cylinder shell 310 moves to abut the surface of the glass plate to perform a water tightness test on the curtain wall, the valve of the water pipe 211 at the bottom of the support cylinder 210 is closed, and the valve of the top water pipe 211 is opened to connect the pipeline for pumping water from the outside to it. After the water tightness test is completed, the valve of the bottom water pipe 211 can be opened to facilitate the discharge of water between the support cylinder 210 and the cylinder shell 310.

[0046] like Figure 2 and Figure 4 As shown, in this embodiment, a limiting shaft 212 is fixed between the support cylinder 210 and the movable plate 110. The motor 112 drives the screw rod 2 500 to rotate forward, which will cause the transmission block 2 510 to rotate toward the limiting shaft 212 first. When the transmission block 2 510 is in contact with the limiting shaft 212, as the screw rod 2 500 continues to rotate forward, the transmission block 2 510 can move along the limiting shaft 212 toward the tee pipe 360, making it convenient to move the transmission block 2 510 to the outer position of the cylinder shell corresponding to different positions.

[0047] In this embodiment, when it is necessary to move a cylinder shell at a certain position to the inside of an adjacent cylinder shell at a later stage, for example, when it is necessary to move cylinder shell 1 310 to the inside of support cylinder 210, transmission block 2 510 is moved to the outside of cylinder shell 1 310 along limit shaft 212 in advance, and then motor 2 112 drives screw rod 2 500 to rotate in the opposite direction, so that transmission block 2 510 first rotates along screw rod 2 500 and sticks to the outside of cylinder shell 1 310, and as screw rod 2 500 continues to rotate in the opposite direction, transmission block 2 510 can move cylinder shell 1 310 toward support cylinder 210, thereby moving transmission block 2 510 to the outside of cylinder shells at different positions, and then moving cylinder shells at different positions toward support cylinder 210, thereby pushing cylinder shells at different positions to abutment against the glass plate, and dividing the outside of the glass plate into multiple different detection areas.

[0048] In this embodiment, combined with Figure 7 and Figure 8, after the second limiting ring 380 of the first barrel shell 310 abuts against the surface of the glass plate, the watertightness detection area of the glass plate is the area between the first barrel shell 310 and the metal frame. Water can be injected into this area to detect the watertightness between the periphery of the glass plate and the metal frame. At this time, the anti-extrusion detection area inside the first barrel shell 310 includes areas two, three, four, five, and six. When the second limiting ring 380 of the second barrel shell 320 abuts against the surface of the glass plate, the anti-extrusion detection area becomes areas three, four, five, and six. When the second limiting ring 380 of the third barrel shell 330 abuts against the surface of the glass plate, the anti-extrusion detection area becomes areas four, five, and six. When the second limiting ring 380 of the fourth barrel shell 340 abuts against the surface of the glass plate, the anti-extrusion detection area becomes areas five and six. When the second limiting ring 380 of the fifth barrel shell 350 abuts against the surface of the glass plate, the anti-extrusion detection area becomes area six. This realizes gradually reducing the anti-extrusion range from the outside to the middle of the glass plate, achieving the anti-extrusion performance detection from the whole to the local.

[0049] As Figure 7 shown, in this embodiment, a pressure sensor 351 is fixedly installed inside the fifth barrel shell 350. The prior art component pressure sensor 351 can monitor the air pressure between multiple barrel shells in real time, facilitating applying an appropriate air pressure to the outside of the glass plate of the curtain wall. The first barrel shell 310 is slidably and snap-connected to the support barrel 210, the second barrel shell 320 is slidably and snap-connected to the first barrel shell 310, the third barrel shell 330 is slidably and snap-connected to the second barrel shell 320, the fourth barrel shell 340 is slidably and snap-connected to the third barrel shell 330, and the fifth barrel shell 350 is slidably and snap-connected to the fourth barrel shell 340.

[0050] In this embodiment, a first limiting ring 370 is fixed at one end of each of the multiple barrel shells, and a second limiting ring 380 is fixed at the other end of each of the multiple barrel shells. The first limiting rings 370 and the second limiting rings 380 on different barrel shells are of different sizes, and the sizes of the first limiting rings 370 and the second limiting rings 380 are adapted to the sizes of the barrel shells. The first limiting rings 370 and the second limiting rings 380 can prevent the barrel shells at different positions from separating from each other, and can also prevent the first barrel shell 310 from separating from the support barrel 210.

[0051] In this embodiment, a rubber sleeve is sleeved and fixed on the outside of the second limiting ring 380, which can improve the sealing performance after the open end of the barrel shell abuts against the glass plate. Sealing rings are embedded and fixed in the middle circular holes of the support barrel 210 and the multiple barrel shells. The sealing rings can improve the sealing performance between adjacent barrel shells and between the first barrel shell 310 and the support barrel 210.

[0052] In this embodiment, the barrel shell can be made of transparent plastic material, so that during the process of detecting the performance of the curtain wall, it is possible to observe the changes of the curtain wall not only from the indoor side but also from the outdoor side. Specifically, the transparent plastic can be polycarbonate with relatively high strength, or other materials can also be selected. The specific material selection will not be elaborated in detail.

[0053] As Figure 2 , Figure 3 and Figure 4 shown, in this embodiment, motors 112 are fixed at both corners on the outer side of the movable plate 110. The two motors 112 are respectively used to drive the first lead screw 400 and the second lead screw 500 to rotate. When it is necessary to move the fifth cylinder shell 350 towards the support cylinder 210, the motor 112 can be made to drive the first lead screw 400 to rotate. The first transmission block 410 threadedly engaged with the first lead screw 400 drives the tee pipe 360 to move towards the support cylinder 210, and when the fifth cylinder shell 350 moves towards the support cylinder 210, the fifth cylinder shell 350 moves towards the support cylinder 210. After the fifth cylinder shell 350 moves into the fourth cylinder shell 340, the first limiting ring 370 on the fifth cylinder shell 350 will drive the fourth cylinder shell 340 to move towards the support cylinder 210 synchronously with the fifth cylinder shell 350. Similarly, the first limiting rings 370 on different cylinder shells all drive the adjacent cylinder shells to move towards the support cylinder 210, so as to realize the adjustment of the positions of multiple cylinder shells.

[0054] In this embodiment, specifically referring to Figure 4 , when the second transmission block 510 needs to drive a certain position cylinder shell (such as the first cylinder shell 310) to move towards the support cylinder 210, the first transmission block 410 needs to synchronously drive the fifth cylinder shell 350 to move the same distance, so as to meet the overall position movement of multiple cylinder shells. A valve is installed at one end of the tee pipe 360. Opening the valve can discharge the high-pressure air between multiple cylinder shells. The lower pipe orifice of the tee pipe 360 can be connected to the pipeline for pumping air to the outside through a hose. The hose is convenient for meeting the synchronous movement of the position of the tee pipe 360 without affecting the air supply to the tee pipe 360.

[0055] As Figure 2 and Figure 3 shown, in this embodiment, a notch is formed through the lower part of the movable plate 110. The notch facilitates the tee pipe 360 to pass through the movable plate 110 during the movement of multiple cylinder shells. Two oil cylinders 120 capable of driving the movable plate 110 to move are fixed on the inner side of the carrier plate 100, and the oil cylinder 120 is a manual oil cylinder 120.

[0056] In this embodiment, the outer shape of the carrier plate 100 is an L-shaped plate, and a sliding groove for the movable plate 110 to slide is formed on the surface of the carrier plate 100. When it is necessary to press the sealing plate 200 on the detection device against the outer side of the curtain wall, the output end of the oil cylinder 120 can be made to drive the movable plate 110 to drive the entire detection device to move towards the outside of the curtain wall, which is convenient for the sealing plate 200 to be clamped and installed with the curtain wall. The height of the detection device can be adjusted by adjusting the position of the hanging basket of the aerial work platform in the outside world. The aerial work platform and the hanging basket are prior arts, and the specific working principle will not be elaborated.

[0057] As Figure 2As shown, in this embodiment, square rods 130 are fixedly arranged at two corners inside the carrier plate 100. One end of the square rod 130 passes through the movable plate 110 and is slidably inserted into the corresponding square tube 111, so that the movable plate 110 can stably move the position of the detection device body on the carrier plate 100.

[0058] As Figure 2 and Figure 6 shown, in this embodiment, sealing strips 220 are fixedly arranged on the inner four edges of the sealing plate 200, and sealing blocks 230 are fixedly arranged at the four corners inside the sealing plate 200. The sealing blocks 230 are arranged between two adjacent sealing strips 220. Rubber sleeves are sleeved and fixed outside the sealing blocks 230 and the sealing strips 220, and the rubber sleeves can improve the tightness and sealing performance of the clamping connection between the sealing blocks 230 and the sealing strips 220 with the metal frame.

[0059] Embodiment 2, on the basis of Embodiment 1, is used to temporarily repair the cracked inferior curtain wall glass plate during the detection process.

[0060] As Figure 5 shown, in this embodiment, a protection mechanism 600 is arranged inside the sealing plate 200. The protection mechanism 600 includes two support seats 610. The support seats 610 are detachably installed and fixed to the sealing plate 200 by bolts. A rubber roller 620 is detachably and rotatably installed between the two support seats 610. A tape 630 is wound around the outer side of the rubber roller 620. One end of the tape 630 is detachably fixed with a clamping plate, and a fishing line rope 631 is fixed on the clamping plate.

[0061] Specifically, during the anti-extrusion performance detection process, the rubber roller 620 can be fixedly installed inside the sealing plate 200. When the sealing plate 200 is closed to the outer side of the glass plate, the rubber roller 620 is located on the outer side of the glass plate. If the glass cracks during the detection process, the exposed end of the fishing line rope 631 can be pulled to make the clamping plate pull the tape 630 out of the rubber roller 620, and then move to the inside of the support cylinder 210 through a plurality of cylinder shells, so as to press the tape 630 onto the glass plate surface by using the open end of the cylinder shell, which is convenient for repairing the cracked inferior curtain wall glass plate during the detection process.

[0062] In this embodiment, the support seat 610 is specifically fixed to the sealing plate 200 by bolts. One end of the bolt passes through the sealing plate 200 and a nut is screwed on the end of the bolt passing through the sealing plate 200. After the tape 630 is adhered to the outer side of the glass plate, the nut can be disassembled to separate the protection mechanism 600 from the sealing plate 200, which helps prevent the tape 630 from being disassembled and moved together with the sealing plate 200.

[0063] In this embodiment, in combination with Figure 3 and Figure 6, a mesh plate 390 is fixed to the inner sides of the first cylindrical shell 310, the second cylindrical shell 320, and the third cylindrical shell 330. The mesh plate 390 is flush with the corresponding position of the second limiting ring 380. When multiple cylindrical shells are stored inside the support cylinder 210, the multiple mesh plates 390 can abut against the back surface of the adhesive tape 630, facilitating the tight adhesion of the adhesive tape 630 to the surface of the glass plate. The mesh plate 390 is set in a mesh pattern to facilitate the passage of air through the mesh plate 390.

[0064] In this embodiment, in combination with Figure 6 , a limiting roller 640 is rotatably connected between the two support seats 610. The limiting roller 640 pushes the movable end of the adhesive tape 630 towards the position close to the glass plate, keeping the pulled adhesive tape 630 at a relatively close distance from the glass plate, facilitating the subsequent easy adhesion of the adhesive tape 630 to the outside of the glass plate.

[0065] For those skilled in the art, it is obvious that the present invention is not limited to the details of the above exemplary embodiments, and without departing from the spirit or basic characteristics of the present invention, the present invention can be implemented in other specific forms. Therefore, from any point of view, the embodiments should be regarded as exemplary and non-restrictive. The scope of the present invention is defined by the appended claims rather than the above description. Therefore, all changes falling within the meaning and scope of the equivalent elements of the claims are intended to be included in the present invention. Any reference signs in the claims should not be regarded as limiting the claims involved.

[0066] In addition, it should be understood that although this specification is described according to embodiments, not every embodiment only contains an independent technical solution. This narrative way of the specification is only for clarity. Those skilled in the art should regard the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A performance detection device for a glass curtain wall, characterized in that, Including: A carrier board (100), fixed inside an external hanging basket. A movable board (110) is slidably connected to the top of the carrier board (100), and two square tubes (111) are fixed to the outside of the movable board (110); A sealing board (200), fixed to the two square tubes (111). The sealing board (200) can be hermetically clamped to the outside of the glass plate. A support cylinder (210) is fixed to one side of the sealing board (200); A pressure - applying and detecting member (300), slidably clamped to the support cylinder (210). The pressure - applying and detecting member (300) evaluates the performance differences of the anti - extrusion of different regions of the glass plate by applying pressure and detecting to different regions of the glass plate respectively. The pressure - applying and detecting member (300) includes a first cylinder shell (310), a second cylinder shell (320), a third cylinder shell (330), a fourth cylinder shell (340) and a fifth cylinder shell (350) that are slidably clamped to each other. A tee - shaped pipe (360) is fixedly connected and communicated at one end of the fifth cylinder shell (350); A first lead screw (400) and a second lead screw (500), both rotatably connected to the sealing board (200). A first transmission block (410) and a second transmission block (510) are respectively screwed to the outside of the first lead screw (400) and the second lead screw (500). The first transmission block (410) and the second transmission block (510) are used to cooperate to drive the cylinder shells at different positions to move; 2. The glass curtain wall performance detection device according to claim 1, characterized in that, Two water pipes (211) are fixedly connected and communicated to the outside of the support cylinder (210). A limiting shaft (212) is fixed between the support cylinder (210) and the movable board (110); 3. The glass curtain wall performance detection device according to claim 1, characterized in that, Two motors (112) are fixed to the outside of the movable board (110). The two motors (112) are respectively used to drive the first lead screw (400) and the second lead screw (500) to rotate; 4. The glass curtain wall performance testing device according to claim 1, characterized in that, A notch is formed through the lower part of the movable board (110). Two oil cylinders (120) capable of driving the movable board (110) to move are fixed to the inside of the carrier board (100); 5. The glass curtain wall performance detection device according to claim 4, wherein, Two square rods (130) are fixed to the inside of the carrier board (100). One end of the square rod (130) passing through the movable board (110) is slidably inserted into the corresponding square tube (111); 6. The glass curtain wall performance detection device according to claim 1, characterized in that The first cylinder shell (310) is slidably clamped to the support cylinder (210), the second cylinder shell (320) is slidably clamped to the first cylinder shell (310), the third cylinder shell (330) is slidably clamped to the second cylinder shell (320), the fourth cylinder shell (340) is slidably clamped to the third cylinder shell (330), and the fifth cylinder shell (350) is slidably clamped to the fourth cylinder shell (340); 7. The glass curtain wall performance detection device according to claim 6, characterized in that, A pressure sensor (351) is installed and fixed inside the fifth cylinder shell (350). A first limiting ring (370) is fixed to one end of each of the multiple cylinder shells, and a second limiting ring (380) is fixed to the other end of each of the multiple cylinder shells; 8. The glass curtain wall performance detection device according to claim 1, characterized in that, A plurality of sealing strips (220) and sealing blocks (230) are fixed to the inside of the sealing board (200). The sealing blocks (230) are arranged between adjacent two sealing strips (220); 9. The glass curtain wall performance detection device according to claim 1 or 8, characterized in that A protection mechanism (600) is arranged inside the sealing board (200). The protection mechanism (600) is used to temporarily repair the inferior glass plate that cracks during the detection process. The protection mechanism (600) includes: Support seats (610), two in number, both detachably installed and fixed to the sealing board (200) by bolts; The rubber roller (620) is detachably and rotatably connected between two support seats (610), and a tape (630) is wound around the outer side of the rubber roller (620); The limiting roller (640) is rotatably connected between two support seats (610).

10. The glass curtain wall performance testing device according to claim 9, characterized in that, One end of the tape (630) is fixed with a clamping plate, and a fishing line rope (631) is fixed on the outer side of the clamping plate. The fishing line rope (631) penetrates through the sealing plate (200).

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