A curtain wall panel vibration performance detection device

Abstract

The present invention relates to the technical field of vibration detection of curtain wall panels, and in particular to a vibration performance detection device for curtain wall panels, which includes a supporting main frame, wherein both the front and rear sides of the supporting main frame are provided with a limiting structure, a power bidirectional telescopic rod A is fixedly passed through the front of the supporting main frame, and both ends of the power bidirectional telescopic rod A are respectively connected to the limiting structure, a vibration structure is provided above the supporting main frame, and a top frame is provided above the vibration structure. The present invention can gradually increase the vibration intensity of the glass curtain wall through the vibration structure, and at the same time, the vibration structure gradually increases the height of the movable frame by pushing the force plate upward, after the movable frame drives the card plate to disengage from the slot, the large gear ring rotates half a circle, and the card plate is inserted into the slot again, and at the same time, when the glass is broken before the oscillation structure rises to the highest position, the one-way paddle is controlled to push the lower baffle upward to disengage the card plate from the slot, so that after the glass is broken, the conveying wheel pushes the new glass curtain wall to move to the bottom of the vibration structure.

Description

Technical Field

[0001] The invention relates to the technical field of curtain wall panel vibration detection, and in particular to a curtain wall panel vibration performance detection device. Background Art

[0002] Building curtain wall refers to the non-load-bearing exterior wall enclosure of a building, which is usually composed of panels (glass, metal plates, stone slabs, ceramic plates, etc.) and the supporting structure behind it (aluminum beams and columns, steel structures, glass ribs, etc.); during the use of building curtain walls, there is a risk of the curtain walls falling, which in turn poses a safety hazard to the city's environment.

[0003] In the processing of glass curtain wall panels, the vibration resistance of the completed curtain wall panels will be tested. During the test, the glass curtain wall panels are supported, and then knocks are continuously applied to the top of the curtain wall panels. The knocking force is continuously increased during the test to see whether the glass curtain wall is broken within the seismic parameter range. However, the existing vibration detection device cannot replace the new glass curtain wall to be tested in time when the tested glass meets the parameter requirements or the glass is broken. Therefore, a curtain wall panel vibration performance detection device is proposed. Summary of the invention

[0004] In order to replace a new glass curtain wall in time when the detected glass curtain wall meets the parameter requirements or is broken, the present invention provides a curtain wall panel vibration performance detection device.

[0005] A curtain wall panel vibration performance detection device provided by the present invention adopts the following technical scheme: it includes a supporting main frame, and the front and rear sides of the supporting main frame are both provided with limiting structures, the front of the supporting main frame is fixedly penetrated by a powered bidirectional telescopic rod A, and the two ends of the powered bidirectional telescopic rod A are respectively connected to the limiting structures, a vibration structure is arranged above the supporting main frame, and a top frame is arranged above the vibration structure, and the front of the top frame is fixedly penetrated by two powered bidirectional telescopic rods B, and the top frame is slidably connected to the vibration structure, and the left and right ends of the vibration structure are both installed with longitudinal double-headed telescopic rods A, and the front and rear ends of each powered bidirectional telescopic rod B are fixed with vertical poles, and the lower end of the vertical pole is connected to the adjacent limiting structure, and the two ends of each longitudinal double-headed telescopic rod A are respectively slidably sleeved on the outer surface of the adjacent vertical pole, and two cross bars are arranged between the two longitudinal double-headed telescopic rods A, and the two ends of the two cross bars are respectively fixed with the two ends of the two longitudinal double-headed telescopic rods A.

[0006] The two lever is pivotally connected to the two link levers, and the two levers are pivotally connected to the two link levers at the bottom ends of the levers, the two levers being pivotally connected to the two link levers at the bottom ends of the levers. The two gears are connected with each other with a small gear, and the two gears are respectively connected with each other with a small gear at one end and a small gear at another end, and the two gears are respectively connected with each other with a small gear. The upper surface of each connecting rod is fixed with a power structure, and the output end of the power structure is connected with the adjacent longitudinal axis. The upper and lower surfaces of the connecting rod are

[0007] Optionally, the limiting structure includes a middle plate and two side plates, the middle plate is located between the two side plates, and a vertical double-head telescopic rod is fixed to and passes through the upper surface of the middle plate, and two ends of the vertical double-head telescopic rod are respectively fixed to the two side plates, the upper surface of the side plate above the middle plate is fixed to the adjacent vertical plate and the adjacent vertical pole, the upper surface of the side plate above the middle plate is fixed to the adjacent vertical single-head telescopic rod, the upper surface of the side plate above the middle plate is elastically rotatably connected to one end of the long axis, the lower end of the middle plate is fixed to one end of the adjacent powered two-way telescopic rod A, and each side plate is rotatably connected to a plurality of equally spaced track wheels on one side close to the supporting main frame.

[0008] Optionally, a central gear is elastically rotatably penetrated on one side of the middle plate close to the supporting main frame, and synchronous gear plates are meshed on both sides of the central gear, and the two synchronous gear plates are respectively fixed to the two side plates.

[0009] Optionally, the vibration structure includes a vibration plate and a bent frame, the upper surface of the vibration plate is fixed to the lower end of the bent frame, the top frame is slidably sleeved on the outer surface of the bent frame, and a plurality of evenly distributed oscillation telescopic rods are fixedly penetrated through the upper surface of the vibration plate, and the left and right ends of the vibration plate are respectively fixedly sleeved on the middle parts of two longitudinal double-headed telescopic rods A.

[0010] Optionally, the force storage structure includes an inner cavity disk and an outer toothed disk, the outer toothed disk is located on the inner ring side of the inner cavity disk, the outer toothed disk is coaxially fixed on the adjacent sleeve shaft, the inner cavity disk is coaxially fixed on the outer surface of the adjacent longitudinal axis, the inner cavity disk is elastically connected to the adjacent large toothed ring, the outer ring surface of the outer toothed disk is meshed with multiple tooth blocks, and the other end of the tooth block is elastically connected to the inner ring surface of the inner cavity disk.

[0011] Optionally, the power structure includes a power motor and a driving gear, the driving gear is fixed to the output end of the power motor, the power motor is fixed to the upper end of the vertical plate, a driven gear is meshed below the driving gear, and the driven gear is fixedly sleeved on the outer surface of the sleeve shaft.

[0012] Optionally, the left end of the long dial plate is located on the right side of the lower baffle frame, the long axis is located on the left side of the force plate, the right end of the long dial plate is located on the right side of the left end of the force plate, the right end of the upper baffle frame is located on the right side of the left end of the force plate, and the distance between the long axis and the right end of the long dial plate is smaller than the distance between the long axis and the left end of the long dial plate.

[0013] Optionally, a rod frame is arranged below the movable frame, and adjustment plates are fixed to the front and rear ends of the rod frame. The two adjustment plates are respectively slidably sleeved on the outer surface of the clamping plate. A threaded shaft is rotatably penetrated through the middle part of the bottom surface of the rod frame, and the movable frame is threadedly sleeved on the outer surface of the threaded shaft.

[0014] Optionally, both ends of the longitudinal double-head telescopic rod A are fixed with bent rods, the other end of the bent rod is vertical, and the vertical lower end of the bent rod is detachably connected with a counterweight block.

[0015] In summary, the present invention includes the following beneficial technical effects:

[0016] The present invention provides a force-applying plate, an upper baffle, a lower baffle, an insert plate and a large toothed ring. The card plate is inserted into the slot to prevent the large toothed ring from rotating. When the sleeve shaft rotates, the rotation of the large toothed ring is processed by the force storage structure. The control lift plate is located below the cross bar. The power single-head telescopic rod pushes the cross bar upward through the lift plate, driving the vibration structure to move upward. When the lift plate pushes the vibration structure upward to a certain height, it rotates to separate from the cross bar. The vibration structure falls under gravity to perform a hammering detection on the glass curtain wall. As the power single-head telescopic rod lifts the vibration structure upward each time, the vibration strength of the vibration structure on the glass curtain wall gradually increases. At the same time, the vibration structure The structure gradually increases the height of the movable frame by pushing the force plate upward. After the movable frame drives the card plate to disengage from the slot, the large gear ring rotates half a circle, and the card plate is inserted into the slot again. The large gear ring rotates half a circle and engages with the small gear to push the new glass curtain wall to move to the bottom of the vibration structure through the conveying wheel. At the same time, when the glass breaks before the oscillation structure rises to the highest position, the oscillation structure breaks the glass curtain wall and continues to fall downward. The force plate pushes the right end of the long dial plate to move downward, controls the one-way dial plate to push the lower baffle upward, and disengages the card plate from the slot. After the glass is broken, the conveying wheel pushes the new glass curtain wall to move to the bottom of the vibration structure.

[0017] The present invention arranges a rod frame, an adjustment plate and a threaded shaft, controls the threaded shaft to rotate and engage with a movable frame, adjusts the distance between the movable frame and the adjustment plate, changes the length of the clamping plate below the adjustment plate, and further controls the change in the upward movement distance when the force-applying plate pushes the clamping plate to disengage from the slot, thereby changing the maximum detection knocking force of the vibration structure on the glass plate and adapting to different types of glass curtain wall detection.

[0018] The present invention arranges a bent rod and a counterweight block and replaces the counterweight blocks with different weights to control the knocking force of the vibrating structure on the glass curtain wall when it rises to a certain height and falls, thereby increasing the detection range of the vibration resistance of the glass curtain wall. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the overall structure of an embodiment of the present invention;

[0020] Figure 2 2 is a schematic diagram of the structure of the connection between the supporting main frame and the powered bidirectional telescopic rod A in an embodiment of the present invention;

[0021] Figure 3 is a schematic diagram of the structure of the connection between the oscillating telescopic rod and the vibration plate in an embodiment of the present invention;

[0022] Figure 4 It is a schematic front view of some structures in an embodiment of the present invention;

[0023] Figure 5 It is a right side schematic diagram of some structures in an embodiment of the present invention;

[0024] Figure 6 2 is a schematic diagram of the structure of the connection between the bending frame and the force application plate in an embodiment of the present invention;

[0025] Figure 7 is a schematic structural diagram of the connection between the adjustment plate and the card plate in an embodiment of the present invention;

[0026] Figure 8 is a schematic diagram of the structure of the connection between the pinion gear and the large gear ring in an embodiment of the present invention;

[0027] Fig. 9 In the embodiment of the present invention Figure 3 A schematic diagram of the enlarged structure in the middle.

[0028] Figure numerals: 1. Support main frame; 2. Power two-way telescopic rod A; 3. Top frame; 4. Power two-way telescopic rod B; 5. Vibration structure; 51. Vibration plate; 52. Bending frame; 53. Oscillation telescopic rod; 6. Longitudinal double-headed telescopic rod A; 61. Bending rod; 62. Counterweight; 7. Limiting structure; 71. Middle plate; 72. Side plate; 73. Vertical double-headed telescopic rod; 74. Track wheel; 75. Center gear; 76. Synchronous gear plate; 8. Power storage structure; 81. Inner cavity disk; 82. Outer gear disk; 83. Tooth block; 9. Power structure; 91. Power motor; 92. Active Gear; 93, driven gear; 10, crossbar; 11, vertical bar; 12, movable frame; 121, rod frame; 122, adjustment plate; 123, threaded shaft; 13, large gear ring; 14, vertical single-head telescopic rod; 15, longitudinal axis; 16, vertical plate; 17, sleeve shaft; 18, chuck; 19, clamping plate; 20, small gear; 21, conveying wheel; 22, upper baffle; 23, lower baffle; 24, force plate; 25, one-way dial plate; 26, long dial plate; 27, long axis; 28, connecting rod; 29, power single-head telescopic rod; 30, twisting motor; 31, lifting plate; 32, slot. DETAILED DESCRIPTION

[0029] The following is combined with Figure 1-Figure 9 The present invention is described in further detail.

[0030] The embodiment of the present invention discloses a curtain wall panel vibration performance detection device. Figure 1-Figure 9As shown, it includes a supporting main frame 1, and limiting structures 7 are arranged on both the front and rear sides of the supporting main frame 1. A powered two-way telescopic rod A2 is fixedly passed through the front of the supporting main frame 1, and both ends of the powered two-way telescopic rod A2 are respectively connected to the limiting structures 7. The two ends of the powered two-way telescopic rod A2 control the distance between the two limiting structures 7 by telescoping, so as to limit the test of glass curtain walls of different widths. A vibration structure 5 is arranged above the supporting main frame 1, and a top frame 3 is arranged above the vibration structure 5. Two powered two-way telescopic rods B4 are fixedly passed through the front of the top frame 3, and the top frame 3 is slidably connected to the vibration structure 5. Longitudinal double-headed telescopic rods A6 are installed on both ends of the vibration structure 5, and vertical poles 11 are fixed on the front and rear ends of each powered two-way telescopic rod B4. The lower end of the vertical pole 11 is connected to the adjacent limiting structure 7, and the two ends of each longitudinal double-headed telescopic rod A6 are respectively slidably sleeved on the outer surface of the adjacent vertical pole 11. Two cross bars 10 are arranged between the two longitudinal double-headed telescopic rods A6, and the two ends of the two cross bars 10 are respectively fixed with the two ends of the two longitudinal double-headed telescopic rods A6.

[0031] A bent rod 61 is fixed at both ends of the longitudinal double-headed telescopic rod A6, the other end of the bent rod 61 is vertical, and a counterweight block 62 is detachably connected to the vertical lower end of the bent rod 61. By changing the weight of the counterweight block 62, the impact of the vibration structure 5 on the glass curtain wall when it falls from the same height can be changed, thereby increasing the detection range of the glass curtain wall.

[0032] A movable frame 12 is provided on the left side of the top frame 3, and large toothed rings 13 are provided on the front and rear sides of the movable frame 12. Vertical single-head telescopic rods 14 are fixed to the bottom surfaces of both ends of the movable frame 12, and the lower ends of the two vertical single-head telescopic rods 14 are respectively connected to the two limiting structures 7, and the vertical single-head telescopic rods 14 have a tendency to pull the movable frame 12 downward. A longitudinal axis 15 is fixed at the axis of each large toothed ring 13, and the outer surfaces of the two longitudinal axes 15 are rotatably sleeved with vertical plates 16, and the lower ends of the two vertical plates 16 are respectively connected to the two limiting structures 7, and the outer surfaces of the two longitudinal axes 15 are rotatably sleeved with sleeve shafts 17, and the ends of the two sleeve shafts 17 that are close to each other are respectively rotatably inserted into the sides of the two vertical plates 16 that are away from each other, and the ends of the two sleeve shafts 17 that are away from each other are coaxially fixed with a force storage structure 8, and the two force storage structures 8 are respectively rotatably connected to the two longitudinal axes 15, and the two force storage structures 8 are respectively elastically connected to the two large toothed rings 13.

[0033] A chuck 18 is arranged between the two vertical plates 16. A slot 32 passing through the axis is opened on the circumferential side of each chuck 18. A clamping plate 19 is arranged inside each slot 32. The upper ends of the two clamping plates 19 are fixed to the movable frame 12. The two chucks 18 are coaxially fixed to the two longitudinal axes 15 respectively.

[0034] The force storage structure 8 includes an inner cavity disk 81 and an outer toothed disk 82. The outer toothed disk 82 is located on the inner ring side of the inner cavity disk 81. The outer toothed disk 82 is coaxially fixed and sleeved on the adjacent sleeve shaft. The inner cavity disk 81 is coaxially fixed on the outer surface of the adjacent longitudinal axis 15. The inner cavity disk 81 is elastically connected to the adjacent large toothed ring 13. The outer ring surface of the outer toothed disk 82 is meshed with a plurality of tooth blocks 83. The other end of the tooth block 83 is elastically connected to the inner ring surface of the inner cavity disk 81. The tooth block 83 is meshed with the outer toothed disk 82 under the elastic connection. When the sleeve shaft 17 just starts to rotate, since the clamping plate 19 is located inside the slot 32, the longitudinal axis 15 and the large toothed ring 13 cannot rotate. When the sleeve shaft 17 rotates, the inner cavity disk 81 is first driven by the tooth block 83 to rotate relative to the large toothed ring 13 to store force. After the tooth block 83 is disengaged from the outer toothed disk 82, the inner cavity disk 81 rotates relative to the outer toothed disk 82.

[0035] A small gear 20 is meshed at the bottom of the two large toothed rings 13, and the two small gears 20 are rotatably connected to the two vertical plates 16 respectively. A conveying wheel 21 is coaxially fixed to the ends of the two small gears 20 that are close to each other. After the clamping plate 19 is disengaged from the slot 32, the large toothed ring 13 rotates half a circle and drives the conveying wheel 21 to rotate by meshing with the small gear 20 to push the new glass curtain wall to be inspected under the vibration structure 5. A power structure 9 is installed on the upper surfaces of the two vertical plates 16, and the output end of the power structure 9 is connected to the adjacent longitudinal axis 15.

[0036] The power structure 9 includes a power motor 91 and a driving gear 92. The driving gear 92 is fixed to the output end of the power motor 91. The power motor 91 is fixed to the upper end of the vertical plate 16. A driven gear 93 is meshed below the driving gear 92. The driven gear 93 is fixedly sleeved on the outer surface of the sleeve shaft 17. The power motor 91 drives the sleeve shaft 17 to rotate through the meshing of the driving gear 92 and the driven gear 93.

[0037] An upper baffle 22 is fixed to the right side of the movable frame 12, a lower baffle 23 is arranged below the upper baffle 22, a force plate 24 is arranged below the upper baffle 22 and on the right side of the lower baffle 23, and the right end of the force plate 24 is connected to the vibration structure 5

[0038] The vibration structure 5 includes a vibration plate 51 and a bent frame 52. The upper surface of the vibration plate 51 is fixed to the lower end of the bent frame 52. The top frame 3 is slidably sleeved on the outer surface of the bent frame 52. A plurality of evenly distributed oscillation telescopic rods 53 are fixedly penetrated through the upper surface of the vibration plate 51. The left and right ends of the vibration plate 51 are respectively fixedly sleeved on the middle parts of the two longitudinal double-headed telescopic rods A6.

[0039] A one-way shift plate 25 is provided below the lower baffle 23 , and a long shift plate 26 is elastically rotatably connected to the lower right end of the one-way shift plate 25 . A long shaft 27 is fixedly inserted at the right end of the long shift plate 26 , and both ends of the long shaft 27 are elastically rotatably connected to the two limiting structures 7 respectively.

[0040] The left end of the long dial plate 26 is located on the right side of the lower baffle frame 23, the long axis 27 is located on the left side of the force plate 24, the right end of the long dial plate 26 is located on the right side of the left end of the force plate 24, the right end of the upper baffle frame 22 is located on the right side of the left end of the force plate 24, and the distance between the long axis 27 and the right end of the long dial plate 26 is smaller than the distance between the long axis 27 and the left end of the long dial plate 26.

[0041] When the force plate 24 rises to a certain height, the movable frame 12 can drive the card plate 19 to disengage from the slot 32. At the same time, when the glass is broken, the vibration plate 51 continues to move downward after the glass template is broken. The force plate 24 pushes the right end of the long dial plate 26 to move downward, and controls the one-way dial plate 25 to push the lower baffle 23 upward, and can also disengage the card plate 19 from the slot 32. After the card plate 19 is disengaged from the slot 32, the large gear ring 13 rotates under the stored torque with the inner cavity disk 81. After the large gear ring 13 rotates half a circle, the card plate 19 is inserted into the slot 32 again. The large gear ring 13 rotates half a circle and engages with the pinion 20 through the conveying wheel 21 to push the new glass curtain wall to move to the bottom of the vibration plate 51.

[0042] The limiting structure 7 includes an intermediate plate 71 and two side plates 72. The intermediate plate 71 is located between the two side plates 72. A vertical double-headed telescopic rod 73 is fixedly passed through the upper surface of the intermediate plate 71. The two ends of the vertical double-headed telescopic rod 73 are respectively fixed to the two side plates 72. A side of the intermediate plate 71 close to the supporting main frame 1 is elastically rotatably passed through a central gear 75. Both sides of the central gear 75 are meshed with synchronous tooth plates 76. The two synchronous tooth plates 76 are respectively fixed to the two side plates 72. The upper surface of the side plate 72 located above the intermediate plate 71 is fixed to the adjacent vertical plate 16 and the adjacent vertical pole 11. The upper surface of the side plate 72 located above the intermediate plate 71 is fixed to the adjacent vertical single-headed telescopic rod 14. The upper surface of the side plate 72 located above the intermediate plate 71 is elastically rotatably connected to one end of the long shaft 27. The lower end of the intermediate plate 71 is fixed to one end of the adjacent power two-way telescopic rod A2. Each side plate 72 close to the supporting main frame 1 is rotatably connected to a plurality of equally spaced track wheels 74.

[0043] A rod frame 121 is provided below the movable frame 12, and adjustment plates 122 are fixed at the front and rear ends of the rod frame 121. The two adjustment plates 122 are respectively slidably sleeved on the outer surface of the clamping plate 19, and a threaded shaft 123 is rotatably penetrated through the middle part of the bottom surface of the rod frame 121. The movable frame 12 is threadedly sleeved on the outer surface of the threaded shaft 123. The threaded shaft 123 is controlled to rotate and engage with the movable frame 12, so as to adjust the distance between the movable frame 12 and the adjustment plate 122, change the length of the clamping plate 19 below the adjustment plate 122, and then control the change in the upward movement distance when the force plate 24 pushes the clamping plate 19 to disengage from the slot 32.

[0044] Connecting rods 28 are provided on the front and rear sides of the top frame 3, and the two ends of each connecting rod 28 are respectively fixed to one end of the adjacent power two-way telescopic rod B4, and the power two-way telescopic rod B4 is synchronously telescopic with the power two-way telescopic rod A2. A power single-head telescopic rod 29 is fixedly passed through the upper surface of each connecting rod 28, and a twisting motor 30 is fixed to the lower end of the power single-head telescopic rod 29. A lifting plate 31 is fixed to the output end of the twisting motor 30. The lifting plate 31 is located below the cross bar 10. The twisting motor 30 drives the lifting plate 31 to rotate half a circle each time. When the lifting plate 31 is located below the cross bar 10, the lifting plate 31 moves upward to push the cross bar 10. When the lifting plate 31 is not located below the cross bar 10 after rotation, the lifting plate 31 moves upward without pushing the cross bar 10.

[0045] The working principle is as follows: during the inspection, the glass curtain wall to be inspected is located on the left side between the upper and lower side panels 72, and the glass curtain wall to be inspected is moved between the four side panels 72. The track wheels 74 on the upper and lower sides limit the upper and lower sides of the glass curtain wall. The clamping plate 19 is inserted into the slot 32 so that the large gear ring 13 cannot rotate. When the power motor 91 drives the sleeve shaft 17 to rotate through the transmission, the sleeve shaft 17 first drives the inner cavity disc 81 to twist synchronously through the outer gear disc 82 and the tooth block 83, so that the inner cavity disc 81 is first relative to the large gear ring 13. For elastic torsion storage, after the tooth block 83 is separated from the outer tooth disc 82, the inner cavity disc 81 rotates relative to the outer tooth disc 82, and the torsion motor 30 controls the lifting plate 31 to rotate away from the side plate 72, and the power single-head telescopic rod 29 pushes the lifting plate 31 to move to the lower side of the cross bar 10, and then the torsion motor 30 controls the lifting plate 31 to rotate to the bottom of the cross bar 10, and when the lifting plate 31 moves upward, it pushes the cross bar 10, drives the vibration plate 51 and the oscillation telescopic rod 53 to move upward, and after rising to a certain height, controls the lifting plate 31 to separate from the cross bar 10 , so that the vibration plate 51 and the oscillation telescopic rod 53 fall downward to hammer the glass curtain wall. Each time the power single-head telescopic rod 29 lifts the vibration plate 51 upward, the vibration force of the oscillation telescopic rod 53 on the glass curtain wall gradually increases, and the height of the movable frame 12 is gradually increased by the force plate 24. After the force plate 24 reaches a certain height, the movable frame 12 drives the card plate 19 to separate from the slot 32. At the same time, when the glass is broken, the vibration plate 51 continues to move downward after the glass template is broken, and the force plate 24 is pushed upward to gradually increase the height of the movable frame 12. The plate 24 controls the one-way plate 25 to push the lower baffle 23 upward by pushing the right end of the long dial plate 26 to move downward, thereby disengaging the card plate 19 from the slot 32. After the card plate 19 is disengaged from the slot 32, the large gear ring 13 rotates under the stored torque with the inner cavity disk 81. After the large gear ring 13 rotates half a circle, the card plate 19 is inserted into the slot 32 again. The large gear ring 13 rotates half a circle and engages with the pinion 20 through the conveying wheel 21 to push the new glass curtain wall to move to the bottom of the vibration plate 51, so that the new glass curtain wall can be detected.

[0046] The above are all preferred embodiments of the present invention, and are not intended to limit the protection scope of the present invention. Therefore, any equivalent changes made based on the structure, shape, and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A curtain wall panel vibration performance detection device, comprising a supporting main frame (1), characterized in that: The front and rear sides of the supporting main frame (1) are both provided with limiting structures (7); a powered bidirectional telescopic rod A (2) is fixedly passed through the front of the supporting main frame (1); both ends of the powered bidirectional telescopic rod A (2) are respectively connected to the limiting structures (7); a vibration structure (5) is arranged above the supporting main frame (1); a top frame (3) is arranged above the vibration structure (5); two powered bidirectional telescopic rods B (4) are fixedly passed through the front of the top frame (3); the top frame (3) is slidably connected to the vibration structure (5); the vibration structure (5) is ) are both installed with longitudinal double-ended telescopic rods A (6) at both left and right ends, and vertical rods (11) are fixed to both front and rear ends of each powered bidirectional telescopic rod B (4), and the lower ends of the vertical rods (11) are connected to the adjacent limiting structures (7), and the two ends of each longitudinal double-ended telescopic rod A (6) are respectively slidably sleeved on the outer surface of the adjacent vertical rods (11), and two cross bars (10) are arranged between the two longitudinal double-ended telescopic rods A (6), and the two ends of the two cross bars (10) are respectively fixed to the two ends of the two longitudinal double-ended telescopic rods A (6); A movable frame (12) is arranged on the left side of the top frame (3), and large toothed rings (13) are arranged on both the front and rear sides of the movable frame (12). Vertical single-end telescopic rods (14) are fixed to the bottom surfaces of both ends of the movable frame (12), and the lower ends of the two vertical single-end telescopic rods (14) are respectively connected to the two limiting structures (7). A longitudinal axis (15) is fixed at the axis of each large toothed ring (13), and the outer surfaces of the two longitudinal axes (15) are rotatably sleeved with vertical plates (16), and the lower ends of the two vertical plates (16) are respectively connected to the two limiting structures (7). The outer surfaces of the two longitudinal axes (15) are rotatably sleeved with sleeve shafts (17), and the ends of the two sleeve shafts (17) close to each other are respectively rotatably inserted into the two vertical axes. A force storage structure (8) is coaxially fixed on one side of the two vertical plates (16) away from each other and one end of the two sleeve shafts (17) away from each other. The two force storage structures (8) are respectively rotatably connected to the two longitudinal shafts (15). The two force storage structures (8) are respectively elastically connected to the two large toothed rings (13). A chuck (18) is arranged between the two vertical plates (16). A slot (32) penetrating the axis is opened on the circumferential side of each chuck (18). A card plate (19) is arranged inside each slot (32). The upper ends of the two card plates (19) are fixed to the movable frame (12). The two chucks (18) are respectively coaxially fixed to the two longitudinal shafts (15). The lower parts of the two large toothed rings (13) are meshed with small gears ( 20), two small gears (20) are rotatably connected to the two vertical plates (16), the ends of the two small gears (20) close to each other are coaxially fixed with a conveying wheel (21), the upper surfaces of the two vertical plates (16) are installed with a power structure (9), the output end of the power structure (9) is connected to the adjacent longitudinal axis (15), an upper baffle frame (22) is fixed to the right side of the movable frame (12), a lower baffle frame (23) is arranged below the upper baffle frame (22), a force plate (24) is arranged below the upper baffle frame (22) and on the right side of the lower baffle frame (23), the right end of the force plate (24) is connected to the vibration structure (5), and a one-way shift plate (25) is arranged below the lower baffle frame (23). A long dial plate (26) is elastically rotatably connected to the lower right end of the dial plate (25), a long shaft (27) is fixedly inserted at the right end of the long dial plate (26), and the two ends of the long shaft (27) are elastically rotatably connected to the two limit structures (7) respectively. Connecting rods (28) are provided on both the front and rear sides of the top frame (3), and the two ends of each connecting rod (28) are respectively fixed to one end of an adjacent power bidirectional telescopic rod B (4), and a power single-head telescopic rod (29) is fixedly penetrated through the upper surface of each connecting rod (28), and a twisting motor (30) is fixed to the lower end of the power single-head telescopic rod (29), and a lifting plate (31) is fixed to the output end of the twisting motor (30), and the lifting plate (31) is located below the cross bar (10).

2. A curtain wall panel vibration performance detection device according to claim 1, characterized in that: The limiting structure (7) comprises an intermediate plate (71) and two side plates (72), wherein the intermediate plate (71) is located between the two side plates (72), a vertical double-head telescopic rod (73) is fixedly passed through the upper surface of the intermediate plate (71), and two ends of the vertical double-head telescopic rod (73) are respectively fixed to the two side plates (72), the upper surface of the side plate (72) located above the intermediate plate (71) is fixed to the adjacent vertical plate (16) and the adjacent vertical rod (11), the upper surface of the side plate (72) located above the intermediate plate (71) is fixed to the adjacent vertical single-head telescopic rod (14), the upper surface of the side plate (72) located above the intermediate plate (71) is elastically rotatably connected to one end of the long axis (27), the lower end of the intermediate plate (71) is fixed to one end of the adjacent dynamic bidirectional telescopic rod A (2), and a surface of each side plate (72) close to the supporting main frame (1) is rotatably connected to a plurality of track wheels (74) distributed at equal distances.

3. A curtain wall panel vibration performance detection device according to claim 2, characterized in that: A central gear (75) is elastically rotatably penetrated on one side of the intermediate plate (71) close to the supporting main frame (1), and synchronous toothed plates (76) are meshed on both sides of the central gear (75), and the two synchronous toothed plates (76) are respectively fixed to the two side plates (72).

4. The curtain wall panel vibration performance detection device according to claim 1, characterized in that: The vibration structure (5) comprises a vibration plate (51) and a bent frame (52); the upper surface of the vibration plate (51) is fixed to the lower end of the bent frame (52); the top frame (3) is slidably sleeved on the outer surface of the bent frame (52); a plurality of evenly distributed oscillating telescopic rods (53) are fixedly penetrated through the upper surface of the vibration plate (51); the left and right ends of the vibration plate (51) are respectively fixedly sleeved on the middle parts of two longitudinal double-headed telescopic rods A (6).

5. The curtain wall panel vibration performance detection device according to claim 1, characterized in that: The force storage structure (8) comprises an inner cavity disc (81) and an outer toothed disc (82), wherein the outer toothed disc (82) is located on the inner ring side of the inner cavity disc (81), the outer toothed disc (82) is coaxially fixedly sleeved on an adjacent sleeve shaft, the inner cavity disc (81) is coaxially fixed on the outer surface of an adjacent longitudinal axis (15), the inner cavity disc (81) is elastically connected to an adjacent large toothed ring (13), the outer ring surface of the outer toothed disc (82) is meshed with a plurality of tooth blocks (83), and the other end of the tooth block (83) is elastically connected to the inner ring surface of the inner cavity disc (81).

6. A curtain wall panel vibration performance detection device according to claim 1, characterized in that: The power structure (9) comprises a power motor (91) and a driving gear (92), wherein the driving gear (92) is fixed to the output end of the power motor (91), the power motor (91) is fixed to the upper end of the vertical plate (16), a driven gear (93) is meshed below the driving gear (92), and the driven gear (93) is fixedly sleeved on the outer surface of the sleeve shaft (17).

7. The curtain wall panel vibration performance detection device according to claim 1, characterized in that: The left end of the long dial plate (26) is located on the right side of the lower blocking frame (23), the long axis (27) is located on the left side of the force application plate (24), the right end of the long dial plate (26) is located on the right side of the left end of the force application plate (24), the right end of the upper blocking frame (22) is located on the right side of the left end of the force application plate (24), and the distance between the long axis (27) and the right end of the long dial plate (26) is smaller than the distance between the long axis (27) and the left end of the long dial plate (26).

8. The curtain wall panel vibration performance detection device according to claim 1, characterized in that: A rod frame (121) is provided below the movable frame (12), and adjustment plates (122) are fixed to both front and rear ends of the rod frame (121). The two adjustment plates (122) are respectively slidably sleeved on the outer surface of the clamping plate (19). A threaded shaft (123) is rotatably penetrated through the middle part of the bottom surface of the rod frame (121), and the movable frame (12) is threadedly sleeved on the outer surface of the threaded shaft (123).

9. A curtain wall panel vibration performance detection device according to claim 1, characterized in that: Both ends of the longitudinal double-ended telescopic rod A (6) are fixed with bent rods (61), the other end of the bent rod (61) is vertical, and the vertical lower end of the bent rod (61) is detachably connected with a counterweight (62).

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