Building curtain wall detection device

Abstract

The utility model provides a building curtain wall detection device, which relates to the technical field of curtain wall detection and comprises a detection machine table, an operation block and a driving support seat are fixed at the top of the detection machine table, the inner wall of the operation block is rotatably connected with a sliding limiting plate, one side is rotatably connected with a first screw rod, and the other end is connected with the driving support seat. Two first sliding rods are fixed to one side of the operation block, the other end of the operation block is fixed to the driving supporting seat, the surface of the first lead screw is in threaded connection with a movable operation block, the two first sliding rods are in sliding connection with the movable operation block, and the inner wall of the movable operation block is in sliding connection with a sliding block; two first springs are fixed to one side of the sliding block, the other end of the sliding block is fixed to the inner wall of the movable operation block, a sliding indication rod is fixed to the top of the sliding block, an indication block is arranged at one end of the indication rod, and a fixing plate is fixed to the top of the movable operation block. And two ends of the indicating block.

Description

Technical Field

[0001] The utility model relates to the technical field of curtain wall detection, in particular to a building curtain wall detection device. Background Art

[0002] With the development of modern construction technology, curtain walls, as an important component of building facades, are receiving increasing attention for their quality and safety. Curtain walls not only carry the aesthetics of buildings, but also directly affect the energy-saving performance and service life of buildings. Therefore, detection devices for curtain walls have emerged. They aim to use efficient and accurate detection methods to timely discover potential problems such as aging, deformation, and cracks of curtain wall materials, thereby ensuring the overall safety and durability of buildings.

[0003] As an important element of modern architecture, the edge flatness of glass curtain walls is directly related to the overall aesthetics and structural safety. With the increasing complexity of building design, ensuring the flatness of glass curtain wall edges has become a key link in construction quality control. Traditional detection methods often rely on manual measurement, which is inefficient and prone to errors. Therefore, it is particularly important to develop a high-precision edge flatness detection device. This device can quickly and accurately evaluate the edge condition of glass curtain walls, providing a scientific basis for construction and maintenance, thereby improving the quality standards and safety of buildings.

[0004] In the existing technology, the flatness inspection of glass curtain wall edges usually relies on manual visual inspection. This method has many disadvantages. First, manual inspection is highly subjective, and the results are affected by factors such as the inspection personnel's experience, vision, and emotions, resulting in inconsistent and unreliable evaluation results. Second, manual inspection is inefficient, especially in the inspection of large-area curtain walls. It is time-consuming and labor-intensive, and it is difficult to meet the modern construction industry's demand for rapid construction. In addition, it is difficult to capture tiny flatness deviations during visual inspection, which may lead to safety hazards in the later stage or affect the aesthetics of the building. Environmental factors such as light changes and viewing angle limitations will further affect the accuracy of the inspection results. Therefore, the traditional method of relying on manual visual inspection is inadequate to ensure building quality and safety. Utility Model Content

[0005] The purpose of the utility model is to solve the shortcomings of the prior art and to propose a building curtain wall detection device.

[0006] In order to achieve the above-mentioned purpose, the utility model adopts the following technical scheme: a building curtain wall detection device, including a detection machine, a fixed operating block and a driving support seat are fixed on the top of the detection machine, the inner wall of the fixed operating block is rotatably connected to a sliding limit plate, one side of the fixed operating block is rotatably connected to a first screw rod, the other end of the first screw rod is rotatably connected to one side of the driving support seat, the first screw rod is driven to rotate by a driving assembly, two first sliding rods are fixed on one side of the fixed operating block, the other end of the two first sliding rods is fixed to one side of the driving support seat, the surface of the first screw rod is threadedly connected to the mobile operating block, the surfaces of the two first sliding rods are slidably connected to the mobile operating block, the inner wall of the mobile operating block is slidably connected to the sliding block, the inner wall of the sliding block is rotatably connected to the first rotating wheel, two first springs are fixed on one side of the sliding block, the other end of the two first springs is fixed to the inner wall of the mobile operating block, a sliding indicator rod is fixed on the top of the sliding block, one end of the sliding indicator rod is fixed to the indicator block, the top of the mobile operating block is fixed, and one side of the fixed plate is slidably connected to two identification sliding rods, and the two identification sliding rods are respectively arranged at both ends of the indicator block. In the existing technology, the flatness detection of the edge of glass curtain wall usually relies on manual visual inspection. This method has many disadvantages. First, manual inspection is highly subjective, and the results are affected by factors such as the experience, vision and mood of the inspector, resulting in inconsistency and lack of reliability in the evaluation results. Second, manual inspection is inefficient, especially in the inspection of large-area curtain walls. It is time-consuming and labor-intensive, and it is difficult to meet the demand of modern construction industry for rapid construction. In addition, it is difficult to capture tiny flatness deviations by visual inspection, which may lead to safety hazards in the later stage or affect the aesthetics of the building. Environmental factors such as light changes and viewing angle limitations will further affect the accuracy of the inspection results. Therefore, the traditional method of relying on manual visual inspection is powerless to ensure the quality and safety of the building. To address such problems, the utility model adopts a flat Detection structure: before the engineer performs the inspection operation, he first adjusts the mobile operating block to the appropriate position through the driving assembly, and then places one end of the glass curtain wall to be inspected into the first support groove and the inner wall of the second support groove for limiting, and places the other end into the sliding limit plate and the inner groove of the first rotating wheel for limiting, and then adjusts the position of the mobile operating block again to make the sliding block contract and compress the first spring to a certain limit. As the glass curtain wall passes through the first rotating wheel, if there is a bulge or depression on the edge of the glass curtain wall, it drives the indicator block to shake left and right. As the position of the indicator sliding rod changes, it can be judged whether there is a bulge or depression on the edge of the glass curtain wall, thereby greatly reducing the influence of human error and subjective judgment, improving inspection efficiency, shortening operation time, ensuring the consistency and reliability of inspection results, and being able to work under various environmental conditions without being affected by viewing angle restrictions.

[0007] Preferably, a first support plate and a second support plate are fixed to the top of the detection machine platform, and one side of the first support plate is rotatably connected to the second screw rod, and the other end of the second screw rod is rotatably connected to the second support plate. Two second sliding rods are fixed to one side of the first support plate, and the other end of the two second sliding rods are fixed to one side of the second support plate. The surface of the second screw rod is threadedly connected to the pushing seat, and the surfaces of the two second sliding rods are slidably connected to the pushing seat. The second screw rod is fixed to one end of the second support plate near the second support plate, and the surface of the first gear is meshed with the second gear, and the second gear is rotatably connected to one side of the detection machine platform, and the second gear is driven to rotate by a motor, and the motor is fixed to one side of the detection machine platform, and the first support groove and the second support groove are fixed to one side of the pushing seat, and the inner wall of the pushing seat is slidably connected to the sliding limit plate, and the sliding limit plate is fixed to the top of the first support plate and the second support plate. In the prior art, glass curtain wall inspection usually requires manual pushing of the inspection device. This method has many inconveniences. First, manual pushing may lead to uneven inspection speed, affecting the accuracy and consistency of data collection. Second, manual operation is labor-intensive and inefficient, especially for large curtain wall areas, which is time-consuming and labor-intensive. Third, manual pushing may cause the device to shake or deviate from the inspection route due to differences in the operator's physical strength and skills, further affecting the stability of the inspection results. Finally, there are certain safety hazards when the manual pushing device is operated at height. To address such problems, the present invention adopts a smooth pushing structure. When the glass curtain wall is placed, the starting motor drives the first gear, thereby driving the second screw to rotate, driving the pushing seat to push. Since the radius of the second gear is smaller than that of the first gear, the pushing seat is decelerated and pushed in slowly, thereby improving the accuracy and consistency of data collection, reducing the labor intensity of manual operation, and improving efficiency. This is particularly prominent in the inspection of large glass curtain walls. At the same time, the automated system can reduce the shaking and deviation caused by differences in the operator's physical strength and skills, ensure the stability of the inspection results, and improve the safety and reliability of the overall inspection.

[0008] The transmission gear of the second end is fixed with a toothed connecting strip which is cooperatively connected with the toothed connecting strip of the first and second gears and is convenient to use and can be used for the transmission gear of the second end. In the prior art, the drawbacks of the lack of a fine-tuning structure when rotating and adjusting the position are mainly reflected in many aspects. First, the adjustment accuracy is low, and it is difficult to achieve detailed positioning, which may cause the device to fail to reach the optimal working state. Second, the adjustment process is not flexible enough, and the user needs to make multiple large adjustments to find the appropriate position, wasting time and energy. In addition, the lack of a fine-tuning function may lead to unstable operation, increase the risk of misoperation, and affect the overall performance and user experience of the device. To address such problems, the present invention adopts a fine-tuning structure. When a large rotation is required, the switching rod is toggled to cause the switching circular member to drive the sliding drive member to slide and slide to the groove of the second drive gear. This drives the second driving gear to rotate, and then drives the second driven gear to rotate. The sliding driving part is adjusted to the groove of the first driving gear, driving the first driving gear to rotate, and then driving the first driven gear to rotate. Since the radius of the first driving gear is smaller than that of the first driven gear, a deceleration effect is achieved, so fine-tuning can be achieved, which can significantly improve the accuracy and flexibility of adjustment, and can achieve more detailed positioning, ensuring that the equipment reaches the best working state, reducing the frequency of large adjustments, thereby saving time and energy, and can enhance the stability of operation, reduce the risk of misoperation, and improve the performance and user experience of the equipment as a whole, making it more efficient and reliable.

[0009] Preferably, the second supporting groove is slidably connected to one side of the pushing seat. Through the sliding of the second supporting groove, it can better adapt to glass curtain walls of different sizes, achieve adjustment according to size, and make the glass curtain wall more stable and smooth during the feeding process.

[0010] Preferably, a rubber pad is fixed to the inner wall of the second support groove. The rubber pad fixed to the inner wall of the second support groove prevents the glass curtain wall from being damaged by collision during the pushing process, can effectively ensure the quality of the glass curtain wall to be tested during the testing process, and can make the retraction process more stable.

[0011] Preferably, a magnet is fixed to the inner wall of the shift seat. The magnet fixed to the inner wall of the shift seat enables the switch lever to be adsorbed on the inner wall after being toggled, thereby ensuring the stability of the device after adjustment.

[0012] Preferably, the fixing plate is provided with scale lines on one side. The scale lines provided on the fixing plate can more accurately detect the degree of convexity and concavity of the glass curtain wall edge, thereby improving detection accuracy and work efficiency.

[0013] Beneficial effects

[0014] 1. In the prior art, the flatness inspection of glass curtain wall edges usually relies on manual visual inspection. This method has many disadvantages. First, manual inspection is highly subjective, and the results are affected by factors such as the inspector's experience, vision, and mood, resulting in inconsistent and unreliable evaluation results. Second, manual inspection is inefficient, especially when inspecting large curtain walls. It is time-consuming and labor-intensive, which makes it difficult to meet the modern construction industry's demand for rapid construction. In addition, visual inspection has difficulty capturing subtle flatness deviations, which may lead to safety hazards or affect the aesthetics of the building later. Environmental factors such as light changes and viewing angle limitations can further affect the accuracy of the inspection results. Therefore, the traditional method of relying on manual visual inspection is inadequate in ensuring building quality and safety. To address these issues, the present invention adopts a flatness detection structure, which greatly reduces the impact of human error and subjective judgment, improves inspection efficiency, shortens operation time, ensures the consistency and reliability of inspection results, and can work under various environmental conditions without being affected by viewing angle limitations.

[0015] 2. In the prior art, glass curtain wall inspection usually requires manual pushing of the inspection device. This method has many inconveniences. First, manual pushing may lead to uneven inspection speed, affecting the accuracy and consistency of data collection. Second, manual operation is labor-intensive and inefficient, especially for large curtain wall areas, which is time-consuming and labor-intensive. Third, manual pushing may cause the device to shake or deviate from the inspection route due to differences in the operator's physical strength and skills, further affecting the stability of the inspection results. Finally, there are certain safety hazards when the manual pushing device is used at high altitudes. To address such problems, the present invention adopts a smooth pushing structure to improve the accuracy and consistency of data collection, reduce the labor intensity of manual operation, and improve efficiency, especially in the inspection of large glass curtain walls. At the same time, the automation system can reduce the shaking and deviation caused by differences in the operator's physical strength and skills, ensure the stability of the inspection results, and improve the safety and reliability of the overall inspection.

[0016] 3. In the prior art, the disadvantages of lacking a fine-tuning structure when rotating to adjust the position are mainly reflected in many aspects. First, the adjustment accuracy is low, and it is difficult to achieve detailed positioning, which may cause the device to fail to reach the optimal working state. Second, the adjustment process is not flexible enough, and the user needs to make multiple large adjustments to find the appropriate position, wasting time and energy. In addition, the lack of fine-tuning function may lead to unstable operation, increase the risk of misoperation, and affect the overall performance and user experience of the device. To address such problems, the utility model adopts a fine-tuning structure to significantly improve the accuracy and flexibility of adjustment, achieve more detailed positioning, ensure that the device reaches the optimal working state, reduce the frequency of large adjustments, thereby saving time and energy, and can enhance operational stability, reduce the risk of misoperation, and improve the overall performance and user experience of the device, making it more efficient and reliable. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a schematic diagram of the three-dimensional structure of the utility model;

[0018] Figure 2 It is a schematic diagram of the three-dimensional structure of the detection structure of the utility model;

[0019] Figure 3 This is a schematic diagram of the three-dimensional structure of the glass curtain wall push-in structure of the utility model;

[0020] Figure 4 for Figure 2 Enlarged view of point A in the middle;

[0021] Figure 5 for Figure 2 Enlarged view of point B in the middle.

[0022] Legend:

[0023] 1. Inspection machine; 101. Fixed operating block; 102. Moving operating block; 103. Sliding block; 104. First spring; 105. Sliding indicator rod; 106. Indicator block; 107. Identification sliding rod; 108. Fixed plate; 109. First rotating wheel; 110. First screw rod; 111. First sliding rod; 112. Sliding limit plate; 113. Drive support seat; 2. Push seat; 201. First support groove; 202. Second support groove; 203. First support plate; 204. Second support Plate; 205, second screw rod; 206, second sliding rod; 207, first gear; 208, second gear; 209, motor; 3, driving wheel; 301, first rotating rod; 302, second rotating rod; 303, first driving gear; 304, first driven gear; 305, sliding driving member; 306, switching circular member; 307, switching seat; 308, switching rod; 309, speed change seat; 310, second driving gear; 311, second driven gear; 312, rotating rod; 313, magnet. DETAILED DESCRIPTION

[0024] In order to make the technical means, creative features, objectives and effects achieved by the present invention easier to understand, the present invention is further described below in conjunction with specific embodiments and drawings. However, the following embodiments are only preferred embodiments of the present invention and are not exhaustive. Based on the embodiments in the implementation manner, other embodiments obtained by those skilled in the art without creative work are all within the scope of protection of the present invention.

[0025] The specific embodiments of the present utility model are described below with reference to the accompanying drawings. Specific embodiment:

[0027] Reference Figure 1-5, a building curtain wall detection device includes a detection machine 1, a fixed operating block 101 and a driving support seat 113 are fixed on the top of the detection machine 1, the inner wall of the fixed operating block 101 is rotatably connected to a sliding limit plate 112, one side of the fixed operating block 101 is rotatably connected to a first screw rod 110, the other end of the first screw rod 110 is rotatably connected to one side of the driving support seat 113, the first screw rod 110 is driven to rotate by a driving assembly, one side of the fixed operating block 101 is fixed with two first sliding rods 111, the other end of the two first sliding rods 111 is fixed to one side of the driving support seat 113, the surface of the first screw rod 110 is threadedly connected to the mobile operating block 102, the two first sliding rods The surface of the movable rod 111 is slidingly connected to the mobile operating block 102, and the inner wall of the mobile operating block 102 is slidingly connected to the sliding block 103, and the inner wall of the sliding block 103 is rotatably connected to the first rotating wheel 109. Two first springs 104 are fixed on one side of the sliding block 103, and the other ends of the two first springs 104 are fixed to the inner wall of the mobile operating block 102. A sliding indication rod 105 is fixed on the top of the sliding block 103, and an indication block 106 is fixed at one end of the sliding indication rod 105. A fixed plate 108 is fixed on the top of the mobile operating block 102, and two identification sliding rods 107 are slidingly connected to one side of the fixed plate 108. The two identification sliding rods 107 are respectively arranged at both ends of the indication block 106.In the existing technology, the flatness detection of the edge of glass curtain walls usually relies on manual visual inspection. This method has many disadvantages. First, manual inspection is highly subjective, and the results are affected by factors such as the experience, vision and mood of the inspectors, resulting in inconsistency and insufficient reliability of the evaluation results. Second, manual inspection is inefficient, especially in the inspection of large-area curtain walls. It is time-consuming and labor-intensive, and it is difficult to meet the modern construction industry's demand for rapid construction. In addition, it is difficult to capture tiny flatness deviations in naked eye inspection, which may lead to safety hazards in the later stage or affect the aesthetics of the building. Environmental factors such as light changes and viewing angle limitations will further affect the accuracy of the inspection results. Therefore, the traditional method of relying on manual visual inspection is inadequate in ensuring building quality and safety. To address such problems, the utility model adopts a flatness detection structure to detect the flatness of the glass curtain walls before the engineer performs the inspection. First, the moving operation block 102 is adjusted to an appropriate position through the driving assembly, and then one end of the glass curtain wall to be inspected is placed in the inner wall of the first supporting groove 201 and the second supporting groove 202 for limiting, and the other end is placed in the sliding limiting plate 112 and the inner groove of the first rotating wheel 109 for limiting, and then the position of the moving operation block 102 is adjusted again to make the sliding block 103 contract and compress the first spring 104 to a certain limit. As the glass curtain wall passes through the first rotating wheel 109, if there is a bulge or depression on the edge of the glass curtain wall, it drives the indicator block 106 to shake left and right. As the position of the indicator sliding rod 107 changes, it can be judged whether there is a bulge or depression on the edge of the glass curtain wall, thereby greatly reducing the influence of human error and subjective judgment, improving detection efficiency, shortening operation time, ensuring the consistency and reliability of detection results, and being able to work under various environmental conditions without being affected by viewing angle restrictions.

[0028] The top of the detection machine 1 is fixed with a first support plate 203 and a second support plate 204. One side of the first support plate 203 is rotatably connected to a second screw rod 205. The other end of the second screw rod 205 is rotatably connected to one side of the second support plate 204. Two second sliding rods 206 are fixed to one side of the first support plate 203. The other ends of the two second sliding rods 206 are fixed to one side of the second support plate 204. The surface of the second screw rod 205 is threadedly connected to the push seat 2. The surfaces of the two second sliding rods 206 are slidably connected to the push seat 2. The second screw rod 20 A first gear 207 is fixed near one end of the second support plate 204. A second gear 208 is meshed with the surface of the first gear 207. The second gear 208 is rotatably connected to one side of the detection machine 1. The second gear 208 is driven to rotate by a motor 209, which is fixed to one side of the detection machine 1. A first support groove 201 and a second support groove 202 are fixed to one side of the pusher base 2. A sliding limit plate 112 is slidably connected to the inner wall of the pusher base 2. The sliding limit plate 112 is fixed to the top of the first support plate 203 and the second support plate 204. In the prior art, glass curtain wall inspection usually requires manual pushing of the inspection device. This method has many inconveniences. First, manual pushing may lead to uneven inspection speed, affecting the accuracy and consistency of data collection. Second, manual operation is labor-intensive and inefficient, especially for large curtain wall areas, which is time-consuming and labor-intensive. Third, manual pushing may cause the device to shake or deviate from the inspection route due to differences in the operator's physical strength and skills, further affecting the stability of the inspection results. Finally, there are certain safety hazards when manually pushing the device at high altitude. To address such problems, the utility model adopts a smooth push-in structure. Structure, when the glass curtain wall is placed, the starting motor 209 drives the first gear 207 and thus drives the second screw rod 205 to rotate, driving the pushing seat 2 to push. Since the radius of the second gear 208 is smaller than that of the first gear 207, the pushing seat 2 is decelerated and pushed in slowly, thereby improving the accuracy and consistency of data collection, reducing the labor intensity of manual operation, and improving efficiency, which is particularly prominent in the inspection of large glass curtain walls. At the same time, the automation system can reduce the jitter and deviation caused by differences in the operator's physical strength and skills, ensure the stability of the inspection results, and improve the safety and reliability of the overall inspection.

[0029] A speed change seat 309 is fixed on one side of the detection machine platform 1, and the inner wall of the speed change seat 309 is rotatably connected to the first rotating rod 301 and the second rotating rod 302. The second rotating rod 302 is fixedly connected to the first screw rod 110 at one end close to the detection machine platform 1. The surface of the first rotating rod 301 is rotatably connected to the first driving gear 303 and the second driving gear 310. The first driving gear 303 and the second driving gear 310 are both provided with grooves and the inner walls of the grooves are fixed with protruding blocks. The surface of the first rotating rod 301 is slidably connected to the sliding driving member 305, and the surface of the second rotating rod 302 is fixed with the first driven gear 304 and the second driven gear 311. The radius of the first driving gear 303 is smaller than that of the second driving gear 310, the radius of the second driving gear 310 is equal to that of the second driven gear 311, and the radius of the second driven gear 311 is smaller than that of the first driven gear 304. The driving wheel 3 is fixed to the end of the first rotating rod 301 away from the detection machine platform 1, and the rotating rod 312 is fixed on the outer side of the driving wheel 3. In the prior art, the disadvantages of lacking a fine-tuning structure when rotating and adjusting the position are mainly reflected in many aspects. First, the adjustment accuracy is low, and it is difficult to achieve detailed positioning, which may cause the device to fail to reach the optimal working state. Second, the adjustment process is not flexible enough, and the user needs to make multiple large adjustments to find the right position, wasting time and energy. In addition, the lack of fine-tuning function may lead to unstable operation, increase the risk of misoperation, and affect the overall performance and user experience of the device. To address such problems, the present invention adopts a fine-tuning structure. When a large rotation is required, the switching rod 308 is toggled to make the switching circular member 306 drive the sliding drive member 305 to slide, and slide to the groove of the second drive gear 310, so that the second drive gear 310 drives the second drive gear 310 to slide. The drive gear 310 rotates, thereby driving the second driven gear 311 to rotate. This adjusts the sliding drive member 305 to the groove of the first drive gear 303, driving the first drive gear 303 to rotate, and in turn, the first driven gear 304 to rotate. Because the radius of the first drive gear 303 is smaller than that of the first driven gear 304, a deceleration effect is achieved, allowing fine-tuning, significantly improving the accuracy and flexibility of adjustment. This allows for more precise positioning, ensuring the device reaches optimal operating conditions, and reducing the frequency of large adjustments, thereby saving time and energy, enhancing operational stability, reducing the risk of misoperation, and overall improving the performance and user experience of the device, making it more efficient and reliable. The second support groove 202 is slidably connected to one side of the push base 2. The slidable nature of the second support groove 202 allows for better adaptation to glass curtain walls of varying sizes, enabling adjustment based on size, and ensuring a more stable and smoother insertion process. A rubber pad is fixed to the inner wall of the second support groove 202. The rubber pad fixed on the inner wall of the second support groove 202 can prevent the glass curtain wall from being damaged during the pushing process, effectively ensuring the quality of the glass curtain wall during the testing process and making the retraction process more stable. A magnet 313 is fixed on the inner wall of the gear shift seat 309.Magnets 313 fixed to the inner wall of the shifter base 309 allow the switch lever 308 to adhere to the inner wall after being moved, ensuring the stability of the device after adjustment. Scale lines are provided on one side of the fixed plate 108. These scale lines enable more accurate detection of the degree of unevenness of the glass curtain wall edge, improving detection accuracy and work efficiency.

[0030] The working principle of the present invention is as follows: before conducting the inspection operation, the engineer first adjusts the mobile operating block 102 to the appropriate position through the driving component, and then places one end of the glass curtain wall to be inspected into the first support groove 201 and the inner wall of the second support groove 202 for limiting, and the other end is placed into the sliding limit plate 112 and the inner groove of the first rotating wheel 109 for limiting. Subsequently, the engineer adjusts the displacement of the mobile operating block 102 again, so that the sliding block 103 compresses the first spring 104 to a certain limit. When the glass curtain wall passes through the first rotating wheel 109, if there are convexities or concave depressions on its edge, the indicator block 106 will swing left and right accordingly. The displacement change of the indicator sliding rod 107 can be used to judge the flatness of the edge of the glass curtain wall. After the glass curtain wall is placed, the motor 209 is started to drive the first gear 207 to rotate, thereby driving the second screw rod 205 to push the pushing seat 2 in slowly. Due to the radius of the second gear 208 The first gear 304 is rotated by the second driven gear 310, and the second driven gear 311 is rotated. After that, the sliding drive member 305 is adjusted to the groove of the first driving gear 303, driving the first driving gear 303 to rotate, and then driving the first driven gear 304 to rotate, achieving a fine-tuning effect. In addition, the second support groove 202 is slidable and can adapt to glass curtain walls of different sizes. The rubber pad fixed on the inner wall of the second support groove 202 prevents the glass curtain wall from being damaged by collision during the pushing process. The magnet 313 fixed on the inner wall of the speed change seat 309 enables the switch rod 308 to be adsorbed on the inner wall after being toggled. Finally, the scale line on one side of the fixed plate 108 can more accurately detect the concave and convex degree of the edge of the glass curtain wall.

[0031] In the present invention, unless otherwise expressly specified or limited, a first feature being "above" or "below" a second feature may include the first and second features being in direct contact, or may include the first and second features being in contact not directly but through another feature between them. Moreover, a first feature being "above," "above," and "above" a second feature may include the first feature being directly above or obliquely above the second feature, or may simply mean that the first feature is higher in level than the second feature. A first feature being "below," "below," and "below" a second feature may include the first feature being directly below or obliquely below the second feature, or may simply mean that the first feature is lower in level than the second feature.

[0032] The above shows and describes the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are merely preferred examples of the present invention and are not intended to limit the present invention. Various changes and improvements may be made to the present invention without departing from the spirit and scope of the present invention, and such changes and improvements fall within the scope of the present invention. The scope of protection claimed in the present invention is defined by the appended claims and their equivalents.

Claims

1. A building curtain wall detection device, comprising a detection machine (1), characterized in that: A fixed operating block (101) and a driving support seat (113) are fixed on the top of the detection machine (1); the inner wall of the fixed operating block (101) is rotatably connected to a sliding limit plate (112); one side of the fixed operating block (101) is rotatably connected to a first screw rod (110); the other end of the first screw rod (110) is rotatably connected to one side of the driving support seat (113); the first screw rod (110) is driven to rotate by a driving assembly; one side of the fixed operating block (101) is fixed with two first sliding rods (111); the other ends of the two first sliding rods (111) are fixed to one side of the driving support seat (113); the surface of the first screw rod (110) is threadedly connected to a movable operating block (102); the surfaces of the two first sliding rods (111) are connected to the movable operating block (102); The movable operation block (102) is slidably connected to the inner wall of the movable operation block (102), the inner wall of the movable operation block (102) is slidably connected to a sliding block (103), the inner wall of the sliding block (103) is rotatably connected to a first rotating wheel (109), one side of the sliding block (103) is fixed with two first springs (104), the other ends of the two first springs (104) are fixed to the inner wall of the movable operation block (102), a sliding indicator rod (105) is fixed on the top of the sliding block (103), one end of the sliding indicator rod (105) is fixed with an indicator block (106), a fixed plate (108) is fixed on the top of the movable operation block (102), one side of the fixed plate (108) is slidably connected to two identification sliding rods (107), and the two identification sliding rods (107) are respectively arranged at the two ends of the indicator block (106).

2. A building curtain wall detection device according to claim 1, characterized in that: A first support plate (203) and a second support plate (204) are fixed on the top of the detection machine (1); one side of the first support plate (203) is rotatably connected to a second screw rod (205); the other end of the second screw rod (205) is rotatably connected to one side of the second support plate (204); two second sliding rods (206) are fixed to one side of the first support plate (203); the other ends of the two second sliding rods (206) are fixed to one side of the second support plate (204); the surface of the second screw rod (205) is threadedly connected to a push seat (2); the surfaces of the two second sliding rods (206) are slidably connected to the push seat (2); the second screw rod (205) is close to the push seat (2); A first gear (207) is fixed near one end of the second support plate (204), a second gear (208) is meshed on the surface of the first gear (207), the second gear (208) is rotatably connected to one side of the detection machine (1), the second gear (208) is driven to rotate by a motor (209), the motor (209) is fixed to one side of the detection machine (1), a first support groove (201) and a second support groove (202) are fixed to one side of the pushing seat (2), a sliding limit plate (112) is slidably connected to the inner wall of the pushing seat (2), and the sliding limit plate (112) is fixed to the top of the first support plate (203) and the second support plate (204).

3. The building curtain wall detection device according to claim 1, characterized in that: A speed change seat (309) is fixed on one side of the detection machine (1), and the inner wall of the speed change seat (309) is rotatably connected to a first rotating rod (301) and a second rotating rod (302), and the second rotating rod (302) is fixedly connected to the first screw rod (110) at one end close to the detection machine (1). The surface of the first rotating rod (301) is rotatably connected to a first driving gear (303) and a second driving gear (310), and the first driving gear (303) and the second driving gear (310) are both provided with a groove and a protrusion is fixed on the inner wall of the groove. The surface of the first rotating rod (301) is slidably connected to a sliding driving member (305), and the surface of the second rotating rod (302) is fixed to a first driven gear. The first driving gear (303) has a radius smaller than that of the second driving gear (310), the radius of the second driving gear (310) is equal to that of the second driven gear (311), and the radius of the second driven gear (311) is smaller than that of the first driven gear (304). The first rotating rod (301) is fixed with a driving wheel (3) at one end away from the detection machine (1), and a rotating rod (312) is fixed on the outer side of the driving wheel (3). The inner wall of the speed change seat (309) is rotatably connected to the switching seat (307), the outer side of the switching seat (307) is fixed with a switching rod (308), and the inner side of the switching seat (307) is fixed with a switching round piece (306).

4. A building curtain wall detection device according to claim 2, characterized in that: The second supporting groove (202) is slidably connected to one side of the pushing seat (2).

5. The building curtain wall detection device according to claim 2, characterized in that: A rubber pad is fixed to the inner wall of the second supporting groove (202).

6. The building curtain wall detection device according to claim 3, characterized in that: A magnet (313) is fixed on the inner wall of the speed change seat (309).

7. The building curtain wall detection device according to claim 3, characterized in that: A scale line is provided on one side of the fixing plate (108).

Images