A kind of testing equipment and method for building material production

Abstract

The present invention discloses a detection device and method for building material production, which relates to the technical field of material detection, including a processing bottom frame, a fixed top frame installed on the top of the processing bottom frame, a fixed opening opened on the top of the processing bottom frame, and a mounting block is embedded and installed in the inner cavity of the fixed opening, and a movable protection mechanism, wherein the movable protection mechanism includes a movable protection plate, and the movable protection plate is movably installed on the outside of the fixed top frame. The present invention starts a stamping detection mechanism during the detection process, and avoids the situation where the pressure controller is damaged due to different detection pressures through the stamping detection mechanism. When testing building materials, not only can building materials of different strengths be tested, but also the pressure end can be protected according to different detection pressures, thereby increasing the life and stability during use.

Description

Technical Field

[0001] The present invention relates to the technical field of material detection, in particular to a detection device and method for producing building materials. Background Art

[0002] At present, building materials are a general term for materials used in civil engineering and construction engineering. Building materials can be divided into structural materials, decorative materials and special materials;

[0003] Before building materials are put into use in large quantities, they need to be tested, especially the strength of the materials. However, the existing testing methods can only use one method for testing, which makes the testing process not comprehensive enough. If there are slight changes in the materials during the testing process, conventional testing methods cannot detect them, which will lead to real problems with the building materials and obvious errors between the building materials, which will eventually lead to misjudgment. Summary of the invention

[0004] The object of the present invention is to provide a detection device and method for building material production to solve the problems raised in the above background technology.

[0005] To achieve the above object, the present invention provides the following technical solution: a detection device for building material production, comprising a processing bottom frame, a fixed top frame is installed on the top of the processing bottom frame, a fixed opening is opened on the top of the processing bottom frame, and a mounting block is embedded and installed in the inner cavity of the fixed opening;

[0006] A movable protection mechanism, the movable protection mechanism comprising a movable protection plate, the movable protection plate being movably mounted outside the fixed top frame;

[0007] A stamping detection mechanism, the stamping detection mechanism comprises a hydraulic cylinder, a movable mounting plate and a stamping detection head, the hydraulic cylinder is mounted at the middle of the top of the fixed top frame, the bottom end of the hydraulic cylinder is mounted with a movable mounting plate, and the bottom end of the movable mounting plate is mounted with a stamping detection head;

[0008] A micro-detection mechanism, the micro-detection mechanism comprises a fixed top ring, a silicone ring strip and a movable slide rod, the movable mounting plate is provided with slide holes around it, and movable slide rods are slidably installed inside the slide holes, a fixed top ring is provided at the bottom end of the movable mounting plate, the bottom end of the movable slide rod is connected to the top end of the fixed top ring, and a silicone ring strip is installed at the bottom end of the fixed top ring;

[0009] A placement receiving mechanism, the placement receiving mechanism comprises a placement bottom frame and a receiving notch, the top of the processing bottom frame is provided with a placement bottom frame, the bottom end of the inner cavity of the placement bottom frame is provided with a receiving notch, and the top end of the mounting block is connected to the bottom end of the placement bottom frame;

[0010] A placement detection mechanism, the placement detection mechanism includes an annular airbag and a movable empty slot, an annular airbag is installed around the inner cavity of the placement bottom frame, and a movable empty slot is opened on the left side of the inner cavity of the placement bottom frame;

[0011] The abnormal monitoring mechanism comprises a mounting recess and a monitoring airbag. The bottom end of the movable slot inner cavity is provided with a mounting recess, and the top end of the mounting recess inner cavity is movably provided with a monitoring airbag.

[0012] Preferably, the movable protection mechanism also includes a fixed slider and a movable slide groove, a fixed slider is installed on the external top end of the fixed top frame, a movable slide groove is opened in the inner cavity of the movable protection plate at a relative position to the fixed slider, the end of the fixed slider away from the fixed top frame is slidably connected to the upper end of the inner cavity of the movable slide groove, fixed magnetic blocks are installed on the bottom end of the fixed slider and the bottom end of the inner cavity of the movable slide groove, and an observation panel is installed on the upper front end of the movable protection plate.

[0013] Preferably, the stamping detection mechanism also includes a mounting spring, a movable mounting block, an air jet head, a docking recess, a rubber mounting block, a solid top layer, a pressure controller, a support foot, a movable support block, a movable recess, an extrusion airbag and a connecting rope. The top of the stamping detection head is provided with a docking recess, the bottom end of the inner cavity of the docking recess is provided with a rubber mounting block, the top of the rubber mounting block is provided with a solid top layer, movable recesses are provided on both sides of the top of the stamping detection head, the top of the inner cavity of the movable recess is slidably provided with a movable mounting block, the top of the movable mounting block is connected to the bottom end of the movable mounting plate, and the outer surface of the movable mounting block The upper ends of the parts are all sleeved and installed with mounting springs, the bottom ends of the mounting springs are in contact with the upper ends of the stamping detection heads, the bottom ends of the movable mounting blocks are all installed with extrusion airbags, the bottom ends of the extrusion airbags are connected to the bottom ends of the inner cavities of the movable recesses, the upper ends of the inner cavities of the docking recesses are all installed with jet heads, the inner cavities of the stamping detection heads are both provided with air passages at positions relative to the jet heads on both sides, and the ends of the air passages away from the jet heads are in contact with the bottom ends of the inner cavities of the extrusion airbags, the bottom ends of the inner cavities of the rubber mounting blocks are installed with a pressure controller, the upper ends of the front sides of the processed bottom frames are installed with a control panel, and the pressure controller is electrically connected to the control panel.

[0014] Preferably, movable support blocks are provided at the bottom ends of both sides of the inner cavity of the docking recess, and both sides of the bottom end of the movable support block are connected to the bottom end of the inner cavity of the docking recess through rebound hinges, and the rebound hinges are in a compressed state, and the movable support block is installed with supporting feet on the side close to the rubber mounting block and the end away from the rebound hinge, and sliding holes are opened on both sides of the inner cavity of the rubber mounting block, and connecting ropes are slidably installed inside the sliding holes, the top end of the connecting rope is connected to the top end of the solid top layer, and the end of the connecting rope away from the solid top layer is connected to one side of the bottom end of the movable support block, and the movable support blocks are made of rubber material.

[0015] Preferably, the micro-detection mechanism also includes a fixed spring, an annular cavity, an expansion airbag, a detection notch, a moving block, an extrusion block, a pressure touch switch and a reset spring rod. An annular cavity is opened around the bottom end of the silicone ring strip, a detection notch is opened at the upper left end of the fixed top ring inner cavity, a baffle is installed on the right side of the inner cavity of the detection notch, and a pressure touch switch is installed on the left side of the baffle, the pressure touch switch is electrically connected to the control panel, a fixed spring is installed on the top of the movable sliding rod, the bottom end of the fixed spring is connected to the top of the movable mounting plate, an expansion airbag is installed on the left side of the inner cavity of the detection notch, a moving block is installed on the right side of the expansion airbag, an extrusion block is installed on the right side of the moving block, the extrusion block is in a semicircular structure, a reset spring rod is installed around the right side of the moving block, the reset spring rod is made of spring steel, and an air hole is opened between the left side of the inner cavity of the detection notch and the top of the annular cavity.

[0016] Preferably, the placement and receiving mechanism also includes a placement mesh plate, a receiving plate, a pulling spring, a receiving recess and a starting guide block. A receiving recess is opened in the middle of the bottom end of the inner cavity of the receiving recess, and the receiving recess is in a trumpet-shaped structure. A receiving plate is movably installed at the upper end of the inner cavity of the receiving recess. The middle cross-section of the receiving plate is in an arc-shaped structure. Pulling springs are installed around the top of the receiving plate, and the top of the pulling spring is connected to the top of the inner cavity of the receiving recess. Starting guide blocks are installed at the bottom of the receiving plate and the bottom of the inner cavity of the receiving recess, and a yellow alarm is installed on the control panel, and the starting guide block is electrically connected to the yellow alarm inside the control panel.

[0017] Preferably, the placement detection mechanism also includes an annular limit airbag, a movable sheet, a shrink airbag and a touch switch. A shrink airbag is movably installed at the upper end of the movable empty slot inner cavity, the shrink airbag inner cavity is filled with cotton, a movable sheet is installed at the bottom of the shrink airbag, air holes are opened at the bottom of the shrink airbag and the middle of the movable sheet, the annular airbag and the movable empty slot inner cavity are in a negative pressure state, the shrink airbag is in a compressed state, an annular limit airbag is installed at the upper and middle end around the movable empty slot inner cavity, a plurality of air holes are opened at the bottom end of the annular limit airbag, a touch switch is installed at the upper and middle end on the left side of the movable empty slot inner cavity, the touch switch is electrically connected to the control panel, and a green alarm is installed outside the control panel.

[0018] Preferably, the abnormal monitoring mechanism also includes a connection guide block, a movable plate, an adsorption friction block, a movable baffle, an adhesive adsorption block, a retractable slot, a reset spring, a limit rope and a brush strip. A movable plate is installed at the bottom of the monitoring airbag, and connection guide blocks are installed at the bottom of the movable plate and the bottom of the inner cavity of the installation recess, and a red alarm is installed outside the control panel. The connection guide block is electrically connected to the red alarm inside the control panel, and adhesive adsorption blocks are installed around the bottom of the inner cavity of the installation recess, and retractable slots are opened at the middle and lower ends around the inner cavity of the installation recess. A movable baffle is provided on the upper end of the adhesive adsorption block, and an end of the movable baffle away from the connecting guide block extends to one side of the inner cavity of the retractable slot, and a return spring is installed on the end of the movable baffle close to the retractable slot, and a brush strip is installed on the side of the bottom end of the movable baffle away from the retractable slot, and a limiting rope is installed on the end of the movable baffle close to the retractable slot, and a pulley is installed in the middle of the inner cavity of the installation recess, and the end of the limiting rope away from the movable baffle passes through the pulley and is connected to the top of the movable plate, and adsorption friction blocks are installed around the bottom end of the movable plate.

[0019] A method for using a testing device for building material production comprises the following steps:

[0020] Step 1: When testing the strength of building materials, directly place the material to be tested inside the bottom frame, and then start the hydraulic cylinder to drive the movable mounting plate and the stamping detection head to move downward, so that the bottom end of the stamping detection head contacts the upper end of the building material. When the movable mounting plate moves downward, the convex block will contact and squeeze the top of the rubber mounting block. When the rubber mounting block is squeezed, the pressure controller will be squeezed, and the pressure value will be fed back to the control panel through the pressure controller. When the tested building material cannot withstand the pressure, it will be damaged. If the pressure value of the pressure controller does not meet the expected requirements, an alarm will be generated, and when the movable mounting plate moves downward, it will drive the movable mounting block to move toward the inner cavity of the movable recess and squeeze the extrusion airbag. When the movable mounting plate moves downward, it will squeeze the installation spring, and later reset it through the extruded installation spring. When the extrusion airbag is squeezed, the air inside the extrusion airbag will be transported to the inside of the jet head through the airway, and the airflow will be transported to the upper end of the solid top layer through the jet head to clean the upper end of the solid top layer to avoid it during testing. During the process, the splashed debris runs to the upper end of the solid top layer and causes accumulation, which affects the final test result. When the strength of the tested building materials is different and the test pressure is different, the greater the degree of compression of the rubber mounting block when the solid top layer moves downward, the greater the restraint force lost by the connecting rope. The movable support block is driven upward away from the side of the rubber mounting block by the rebound hinge in the compressed state, so that the movable support block and the bottom end of the inner cavity of the docking recess are in a 90-degree structure, and the stability of the movable support block during use is further improved by the support feet to avoid the pressure controller being damaged due to different test pressures. When testing building materials, not only can building materials of different strengths be tested, but also the pressure end can be protected according to different test pressures to increase the life and stability during use, and the test end can be processed during the test to increase the accuracy after multiple tests, so as to avoid the test end being damaged due to different pressures, and the test end can be processed each time to avoid dirt falling on the test end, resulting in errors in the final test results.

[0021] Step 2: When the movable mounting plate moves downward, the movable slide rod drives the fixed top ring and the silicone ring strip to move downward. When the movable slide rod slides inside the slide hole, the fixed spring is stretched. Later, the movable slide rod and the fixed top ring are reset by the stretched fixed spring to facilitate continued use next time, so that the bottom end of the silicone ring strip contacts and squeezes the upper end of the material to be tested. When the silicone ring strip is squeezed and deformed, the fit and sealing between the silicone ring strip and the upper end of the test material are increased. When the silicone ring strip is squeezed and deformed, the gas inside the annular cavity is transported to the inside of the expansion airbag, causing the expansion airbag to expand, driving the moving block and the extrusion block to move to the right, and resetting the spring rod. The material is squeezed and then reset by the reset spring rod after squeezing. When the squeeze block contacts the pressure touch switch, the alarm outside the control panel will be triggered to alarm, telling the staff that the material under test is still intact. If the material is cracked or broken during the pressure test, the alarm cannot be triggered by contact. The density of the material can be tested during the test. The comprehensiveness of the test process is increased through double testing to avoid the failure of the alarm when the material under test is cracked or damaged during the test. Then, the staff can be told that the material to be tested is abnormal and no further testing is required. The material can be directly processed.

[0022] Step 3: When testing building materials, directly place the materials on the upper end of the placement screen of the bottom frame. When the outside of the material is abnormal during the testing process and residues fall, the residues are dropped into the receiving recess through the receiving notch and collected by the receiving plate. When the weight of the receiving plate increases, the receiving plate moves downward and contacts the starting guide block to trigger the control panel. When the receiving plate moves downward, it drives the pulling spring to stretch. Later, the stretched pulling spring drives the receiving plate to reset. When the outer surface of the tested material suddenly breaks, the granular impurities on the outside of the material splash and contact the annular airbag. When the annular airbag is impacted, the air pressure inside the annular airbag and the movable slot is transmitted to the inside of the monitoring airbag. If the impact force is too large, the annular airbag is damaged, causing the air pressure inside the annular airbag to be lost, causing the inside of the annular limit airbag to lose air, which causes the contraction airbag to expand and drive the movable sheet to move downward to contact the touch switch, triggering the control panel to tell the staff that the outside of the material is damaged.

[0023] Step 4: When the air pressure inside the annular airbag is transmitted to the monitoring airbag to expand the monitoring airbag, the movable plate is driven to move downward. When the movable plate moves downward, the limit rope is driven to move, and the movable baffle is driven to move to one side of the inner cavity of the retractable slot, thereby squeezing the reset spring. Later, the movable baffle is reset by the reset spring after squeezing. When the movable baffle moves to the inside of the retractable slot, the top of the adhesive adsorption block is exposed. When the movable plate moves downward, the adsorption friction block is driven to move downward, and contacts and adheres to the top of the adhesive adsorption block. When the movable plate moves downward, the connection guide block is contacted, triggering the red alarm outside the control panel. The device will give an alarm, and in the process of testing building materials, it can also conduct multiple monitoring of subtle changes on the outside of building materials. As long as the building materials have abnormal conditions, they can be monitored at the first time, and the monitored conditions can be told to the staff to remind them to deal with them at the first time, so as to avoid the situation where the external changes of building materials cannot be monitored during the testing of building materials. If the building materials change and the staff does not discover it in time, and the stamping detection end is still working, the building materials will be completely damaged, which will also cause errors between the final test results and the actual problems.

[0024] Compared with the prior art, the present invention has the following beneficial effects:

[0025] The present invention starts the punching detection mechanism during the detection process, and avoids the situation that the pressure controller is damaged due to different detection pressures through the punching detection mechanism. When testing building materials, not only can building materials with different strengths be tested, but also the pressure end can be protected according to the different detection pressures, thereby increasing the life and stability during use. In addition, the detection end is processed during the detection process to increase the accuracy after multiple tests, thereby avoiding the situation that the detection end is damaged due to different detection pressures, and each time the detection end is processed, dirt is prevented from falling on the detection end, thereby causing errors in the final detection result.

[0026] The present invention uses a tiny detection mechanism to tell the staff that the material to be tested is intact. If the material is cracked or broken during the pressure test, the contact alarm cannot be triggered. The density of the material can be tested during the test. The double test increases the comprehensiveness of the test process, avoiding the situation that the alarm cannot be triggered when the material to be tested is cracked or broken during the test. The staff can be told that the material to be tested is abnormal and does not need to be tested further. The material can be directly processed.

[0027] The present invention can perform multiple monitoring on the slight changes on the outside of building materials during the process of testing building materials by placing a receiving mechanism, a detection mechanism and an abnormality monitoring mechanism. As long as the building materials have abnormal conditions, the monitoring can be carried out at the first time, and the monitored conditions can be informed to the staff to remind them to deal with them at the first time, so as to avoid the situation that the changes on the outside of building materials cannot be monitored during the process of testing building materials. If the building materials change and the staff fails to discover the changes in time while the stamping detection end is still working, the building materials will be completely damaged, which will also cause errors between the final detection results and the actual problems. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 Provides an overall structural diagram for an embodiment of the present invention;

[0029] Figure 2 A structural diagram of a horizontal cross-section of a fixed top frame provided in an embodiment of the present invention;

[0030] Figure 3 A cross-sectional structural diagram of a stamping detection head provided in an embodiment of the present invention;

[0031] Figure 4 A structural diagram of the internal cross-section of a movable hollow slot provided by an embodiment of the present invention;

[0032] Figure 5 The embodiment of the present invention provides Figure 2 The enlarged structural diagram at A in the middle;

[0033] Figure 6 The embodiment of the present invention provides Figure 2 The enlarged structure diagram at B in the middle;

[0034] Figure 7 A structural diagram of a partial cross-section of the inner cavity of a mounting recess provided in an embodiment of the present invention;

[0035] Figure 8 A partial cross-sectional structural diagram of a rubber mounting block provided in an embodiment of the present invention.

[0036] In the figure: 1, processing bottom frame; 2, mobile protection mechanism; 201, mobile protection plate; 202, fixed slider; 203, mobile slide; 3, stamping detection mechanism; 301, hydraulic cylinder; 302, movable mounting plate; 303, stamping detection head; 304, mounting spring; 305, movable mounting block; 306, jet head; 307, docking notch; 308, rubber mounting block; 309, solid top layer; 310, pressure controller; 311, support foot; 312, movable support block; 313, movable notch; 314, extrusion airbag; 315, connecting rope; 4, micro detection mechanism; 401, fixed spring; 402, fixed top ring; 403, silicone ring strip; 404, movable slide bar; 405, annular cavity; 406, expansion airbag; 407, detection notch; 408, moving block; 409, extrusion Pressure block; 410, pressure touch switch; 411, reset spring rod; 5, place detection mechanism; 501, annular airbag; 502, movable empty slot; 503, annular limit airbag; 504, movable sheet; 505, contraction airbag; 506, touch switch; 6, place receiving mechanism; 601, place bottom frame; 602, receiving notch; 603, place mesh plate; 604, receiving plate; 605, pull spring; 606, receiving notch; 607, start guide block; 7, abnormal monitoring mechanism; 701, installation notch; 702, monitoring airbag; 703, connection guide block; 704, moving plate; 705, adsorption friction block; 706, movable baffle; 707, bonding adsorption block; 708, retractable notch; 709, reset spring; 710, limit rope; 711, brush strip; 8, fix top frame; 9, installation block. DETAILED DESCRIPTION

[0037] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention. Example

[0038] See also Figure 1-8 The present invention provides a technical solution: a detection device for building material production, comprising a processing bottom frame 1, a fixed top frame 8 is installed on the top of the processing bottom frame 1, a fixing opening is opened on the top of the processing bottom frame 1, and a mounting block 9 is embedded and installed in the inner cavity of the fixing opening;

[0039] A mobile protection mechanism 2, the mobile protection mechanism 2 comprises a mobile protection plate 201, and the mobile protection plate 201 is movably mounted outside the fixed top frame 8;

[0040] The stamping detection mechanism 3 includes a hydraulic cylinder 301, a movable mounting plate 302 and a stamping detection head 303. The hydraulic cylinder 301 is installed at the middle of the top of the fixed top frame 8, the movable mounting plate 302 is installed at the bottom of the hydraulic cylinder 301, and the stamping detection head 303 is installed at the bottom of the movable mounting plate 302;

[0041] The micro-detection mechanism 4 includes a fixed top ring 402, a silicone ring strip 403 and a movable slide rod 404. The movable mounting plate 302 is provided with sliding holes around it, and the movable slide rods 404 are slidably installed inside the sliding holes. The bottom end of the movable mounting plate 302 is provided with a fixed top ring 402, and the bottom end of the movable slide rod 404 is connected to the top end of the fixed top ring 402. The silicone ring strip 403 is installed at the bottom end of the fixed top ring 402;

[0042] The receiving mechanism 6 is placed, and the receiving mechanism 6 includes a placing bottom frame 601 and a receiving notch 602. The placing bottom frame 601 is arranged at the top of the processing bottom frame 1, and the receiving notch 602 is arranged at the bottom of the inner cavity of the placing bottom frame 601. The top of the mounting block 9 is connected to the bottom of the placing bottom frame 601.

[0043] The placement detection mechanism 5 includes an annular airbag 501 and a movable empty slot 502. The annular airbag 501 is installed around the inner cavity of the placement bottom frame 601, and the movable empty slot 502 is opened on the left side of the inner cavity of the placement bottom frame 601;

[0044] The abnormal monitoring mechanism 7 includes a mounting recess 701 and a monitoring airbag 702 . The mounting recess 701 is provided at the bottom of the inner cavity of the movable slot 502 , and the monitoring airbag 702 is movably installed at the top of the inner cavity of the mounting recess 701 .

[0045] The mobile protection mechanism 2 also includes a fixed slider 202 and a mobile slide groove 203. The fixed slider 202 is installed on the top of the outer side of the fixed top frame 8. The mobile slide groove 203 is opened in the inner cavity of the mobile protection plate 201 at a relative position of the fixed slider 202. The end of the fixed slider 202 away from the fixed top frame 8 is slidably connected to the upper end of the inner cavity of the mobile slide groove 203. The bottom ends of the fixed slider 202 and the bottom ends of the inner cavity of the mobile slide groove 203 are both installed with fixed magnetic blocks. An observation plate is installed on the upper front end of the mobile protection plate 201.

[0046] The specific implementation method is as follows: when placing construction materials, pull the movable protective plate 201 upward to make the movable slide groove 203 slide outside the fixed slide block 202. When the construction materials are placed, pull the movable protective plate 201 downward to make the movable protective plate 201 directly cover the bottom of the fixed top frame 8 around for shielding and protection, thereby increasing the protection of the construction materials during the detection process.

[0047] The stamping detection mechanism 3 also includes a mounting spring 304, a movable mounting block 305, an air jet 306, a docking notch 307, a rubber mounting block 308, a solid top layer 309, a pressure controller 310, a support foot 311, a movable support block 312, a movable notch 313, an extrusion airbag 314 and a connecting rope 315. A docking notch 307 is provided at the top of the stamping detection head 303, a rubber mounting block 308 is installed at the bottom of the inner cavity of the docking notch 307, a solid top layer 309 is installed at the top of the rubber mounting block 308, movable notches 313 are provided on both sides of the top of the stamping detection head 303, movable mounting blocks 305 are slidably installed at the top of the inner cavity of the movable notch 313, and the top of the movable mounting block 305 is slidably connected to the bottom of the movable mounting plate 302 The upper end of the movable mounting block 305 is fitted with a mounting spring 304, and the bottom end of the mounting spring 304 contacts the upper end of the stamping detection head 303. The bottom end of the movable mounting block 305 is installed with an extrusion airbag 314, and the bottom end of the extrusion airbag 314 is connected to the bottom end of the inner cavity of the movable recess 313. The upper ends of both sides of the inner cavity of the docking recess 307 are installed with nozzles 306. Airways are opened at the relative positions of the nozzles 306 on both sides of the inner cavity of the stamping detection head 303, and the end of the airway away from the nozzle 306 contacts the bottom end of the inner cavity of the extrusion airbag 314. A pressure controller 310 is installed at the bottom end of the inner cavity of the rubber mounting block 308. A control panel is installed at the upper end of the front side of the processing bottom frame 1, and the pressure controller 310 is electrically connected to the control panel.

[0048] Movable support blocks 312 are arranged at the bottom ends of both sides of the inner cavity of the docking notch 307. Both sides of the bottom ends of the movable support blocks 312 are connected to the bottom ends of the inner cavity of the docking notch 307 through rebound hinges, and the rebound hinges are in a compressed state. Support feet 311 are installed on the side of the movable support blocks 312 close to the rubber mounting block 308 and the end away from the rebound hinge. Sliding holes are opened on both sides of the inner cavity of the rubber mounting block 308, and connecting ropes 315 are slidably installed inside the sliding holes. The top end of the connecting rope 315 is connected to the top end of the solid top layer 309, and the end of the connecting rope 315 away from the solid top layer 309 is connected to one side of the bottom end of the movable support blocks 312. The movable support blocks 312 are made of rubber material.

[0049] The specific implementation method is as follows: when conducting strength testing on building materials, the material to be tested is directly placed inside the bottom frame 601, and then the hydraulic cylinder 301 is started to drive the movable mounting plate 302 and the punching detection head 303 to move downward, so that the bottom end of the punching detection head 303 contacts the upper end of the building material. When the movable mounting plate 302 moves downward, the protrusion will contact and squeeze the top of the rubber mounting block 308. When the rubber mounting block 308 is squeezed, the pressure controller 310 will be squeezed, and the pressure value will be fed back to the control panel through the pressure controller 310. When the tested building material cannot withstand the pressure, it will be damaged, and the pressure value of the pressure controller 310 will not meet the expected requirements, and an alarm will be generated. When the movable mounting plate 302 moves downward, it will drive the movable mounting block 305 to move toward the inner cavity of the movable recess 313 and squeeze the squeezing airbag 314. When the movable mounting plate 302 moves downward, it will squeeze the mounting spring 304. The mounting spring 304 is reset after the back, and when the extrusion airbag 314 is squeezed, the air inside the extrusion airbag 314 is transported to the inside of the nozzle 306 through the airway, and the airflow is transported to the upper end of the solid top layer 309 through the nozzle 306 to clean the upper end of the solid top layer 309, so as to avoid the splashing debris running to the upper end of the solid top layer 309 and causing accumulation during the detection process, thereby affecting the final detection result. When the strength of the building materials to be detected is different and the pressure of the detection is different, when the solid top layer 309 moves downward, the greater the degree of compression of the rubber mounting block 308, the greater the restraint force lost by the connecting rope 315, and the movable support block 312 is driven to move upward away from the side of the rubber mounting block 308 through the rebound hinge in the compressed state, so that the movable support block 312 and the bottom end of the inner cavity of the docking recess 307 are in a 90-degree structure, and the support foot 311 is used to further improve the stability of the movable support block 312 during use, so as to avoid the pressure controller 310 being damaged due to different detection pressures.

[0050] The micro-detection mechanism 4 also includes a fixed spring 401, an annular cavity 405, an inflatable airbag 406, a detection notch 407, a moving block 408, an extrusion block 409, a pressure touch switch 410 and a reset spring rod 411. An annular cavity 405 is provided around the bottom end of the silicone ring strip 403, a detection notch 407 is provided at the upper left end of the inner cavity of the fixed top ring 402, a baffle is installed on the right side of the inner cavity of the detection notch 407, and a pressure touch switch 410 is installed on the left side of the baffle. The pressure touch switch 410 is electrically connected to the control panel, and the movable slide bar A fixing spring 401 is installed at the top of each of the 404, and the bottom of the fixing spring 401 is connected to the top of the movable mounting plate 302. An expansion airbag 406 is installed on the left side of the inner cavity of the detection slot 407, and a moving block 408 is installed on the right side of the expansion airbag 406. An extrusion block 409 is installed on the right side of the moving block 408. The extrusion block 409 is a semicircular structure. A reset spring rod 411 is installed around the right side of the moving block 408. The reset spring rod 411 is made of spring steel. An air hole is opened between the left side of the inner cavity of the detection slot 407 and the top of the annular cavity 405;

[0051] The specific implementation method is as follows: when the movable mounting plate 302 moves downward, the movable slide bar 404 drives the fixed top ring 402 and the silicone ring strip 403 to move downward. When the movable slide bar 404 slides inside the slide hole, the fixed spring 401 is stretched. Later, the stretched fixed spring 401 drives the movable slide bar 404 and the fixed top ring 402 to reset, so that it is convenient for continued use next time, so that the bottom end of the silicone ring strip 403 contacts and squeezes the upper end of the material to be tested. When the silicone ring strip 403 is squeezed and deformed, the silicone ring strip 403 and the detection The fit and sealing of the contact at the upper end of the material, when the silicone ring strip 403 is squeezed and deformed, the gas inside the annular cavity 405 will be transported to the inside of the expansion airbag 406, causing the expansion airbag 406 to expand, driving the moving block 408 and the extrusion block 409 to move to the right, and squeezing the reset spring rod 411. Later, the reset spring rod 411 is reset by the extrusion. When the extrusion block 409 contacts the pressure touch switch 410, it will trigger the alarm outside the control panel to sound an alarm, telling the staff that the tested material is still intact.

[0052] The placement receiving mechanism 6 also includes a placement mesh plate 603, a receiving plate 604, a pulling spring 605, a receiving recess 606 and a starting guide block 607. A receiving recess 606 is provided in the middle of the bottom end of the inner cavity of the receiving recess 602. The receiving recess 602 is in a trumpet-shaped structure. A receiving plate 604 is movably installed at the upper end of the inner cavity of the receiving recess 606. The middle cross-section of the receiving plate 604 is in an arc-shaped structure. Pulling springs 605 are installed around the top of the receiving plate 604. The top of the pulling spring 605 is connected to the top of the inner cavity of the receiving recess 606. Starting guide blocks 607 are installed at the bottom of the receiving plate 604 and the bottom of the inner cavity of the receiving recess 606. A yellow alarm is installed on the control panel, and the starting guide block 607 is electrically connected to the yellow alarm inside the control panel.

[0053] The specific implementation method is as follows: when testing building materials, the materials are directly placed on the upper end of the placement mesh plate 603 of the placement bottom frame 601. When an abnormality occurs on the outside of the material during the testing process and residues fall, the fallen residues are dropped into the receiving recess 606 through the receiving slot 602 and collected by the receiving plate 604. When the weight of the receiving plate 604 increases, the receiving plate 604 moves downward and contacts the starting guide block 607 to trigger the control panel. When the receiving plate 604 moves downward, it drives the pulling spring 605 to stretch. Later, the stretched pulling spring 605 drives the receiving plate 604 to reset.

[0054] The placement detection mechanism 5 also includes an annular limiting airbag 503, a movable sheet 504, a shrinking airbag 505 and a touch switch 506. The shrinking airbag 505 is movably installed at the upper end of the inner cavity of the movable empty slot 502. The inner cavity of the shrinking airbag 505 is filled with cotton. The movable sheet 504 is installed at the bottom of the shrinking airbag 505. Air holes are opened at the bottom of the shrinking airbag 505 and the middle of the movable sheet 504. The inner cavities of the annular airbag 501 and the movable empty slot 502 are in a negative pressure state, and the shrinking airbag 505 is in a compressed state. An annular limiting airbag 503 is installed at the upper and middle ends of the inner cavity of the movable empty slot 502. A plurality of air holes are opened at the bottom end of the annular limiting airbag 503. A touch switch 506 is installed at the upper and middle ends of the left side of the inner cavity of the movable empty slot 502. The touch switch 506 is electrically connected to the control panel, and a green alarm is installed on the outside of the control panel.

[0055] The specific implementation method is as follows: when the outer surface of the material being tested suddenly breaks, causing the granular impurities on the outside of the material to splash and come into contact with the annular airbag 501. When the annular airbag 501 is impacted, the air pressure inside the annular airbag 501 and the movable slot 502 is transmitted to the inside of the monitoring airbag 702. If the impact force generated is too large, the annular airbag 501 will be damaged, causing the air pressure inside the annular airbag 501 to be lost, causing the inside of the annular limiting airbag 503 to lose air, which will cause the contraction airbag 505 to expand and drive the movable sheet 504 to move downward and come into contact with the touch switch 506, triggering the control panel to tell the staff that the outside of the material is damaged.

[0056] The abnormal monitoring mechanism 7 also includes a connection guide block 703, a movable plate 704, an adsorption friction block 705, a movable baffle 706, an adhesive adsorption block 707, a retractable slot 708, a reset spring 709, a limit rope 710 and a brush strip 711. The bottom of the monitoring airbag 702 is installed with a movable plate 704, and the bottom of the movable plate 704 and the bottom of the inner cavity of the mounting recess 701 are both installed with a connection guide block 703, and a red alarm is installed outside the control panel, and the connection guide block 703 is electrically connected to the red alarm inside the control panel, and the bottom of the inner cavity of the mounting recess 701 is installed with adhesive adsorption blocks 707 around the bottom, and the middle and lower ends of the inner cavity of the mounting recess 701 are opened with retractable slots 708. A movable baffle 706 is arranged on the upper end of the bonding adsorption block 707, and one end of the movable baffle 706 away from the connecting guide block 703 is extended to one side of the inner cavity of the retractable slot 708, and a return spring 709 is installed on the end of the movable baffle 706 close to the retractable slot 708, and a brush strip 711 is installed on the side of the bottom end of the movable baffle 706 away from the retractable slot 708, and a limit rope 710 is installed on the end of the movable baffle 706 close to the retractable slot 708, and pulleys are installed in the middle of the inner cavity around the installation recess 701, and the end of the limit rope 710 away from the movable baffle 706 passes through the pulley and is connected to the top of the movable plate 704, and adsorption friction blocks 705 are installed around the bottom end of the movable plate 704;

[0057] The specific implementation is as follows: when the air pressure inside the annular airbag 501 is transmitted to the monitoring airbag 702 to expand the monitoring airbag 702, the movable plate 704 is driven to move downward. When the movable plate 704 moves downward, the limiting rope 710 is driven to move, and the movable baffle 706 is driven to move toward the inner cavity of the retractable slot 708, thereby squeezing the reset spring 709. Later, the movable baffle 706 is reset by the squeezed reset spring 709. When the movable baffle 706 moves to the inside of the retractable slot 708, the top of the adhesive adsorption block 707 is exposed. When the movable plate 704 moves downward, the adsorption friction block 705 is driven to move downward, and contacts and adheres to the top of the adhesive adsorption block 707. When the movable plate 704 moves downward, the connecting guide block 703 is contacted, triggering the red alarm outside the control panel to alarm. Example

[0058] A method for using a detection device for building material production comprises the following steps:

[0059] Step 1: When testing the strength of building materials, directly place the materials to be tested inside the bottom frame 601, and then start the hydraulic cylinder 301 to drive the movable mounting plate 302 and the punching detection head 303 to move downward, so that the bottom end of the punching detection head 303 contacts the top end of the building material. When the movable mounting plate 302 moves downward, the convex block will contact and squeeze the top end of the rubber mounting block 308. When the rubber mounting block 308 is squeezed, the pressure controller 310 will be squeezed, and the pressure value will be fed back to the control panel through the pressure controller 310. When the tested building material cannot withstand the pressure, it will generate When the pressure value of the pressure controller 310 fails to meet the expected requirement due to damage, an alarm will be generated, and when the movable mounting plate 302 moves downward, the movable mounting block 305 will be driven to move toward the inner cavity of the movable recess 313, and the extrusion airbag 314 will be squeezed. When the movable mounting plate 302 moves downward, the mounting spring 304 will be squeezed, and the mounting spring 304 will be reset later. When the extrusion airbag 314 is squeezed, the air inside the extrusion airbag 314 will be transported to the inside of the jet head 306 through the airway, and the airflow will be transported to the upper end of the solid top layer 309 through the jet head 306, The upper end of the solid top layer 309 is cleaned to prevent the splashed debris from running to the upper end of the solid top layer 309 and causing accumulation during the detection process, thereby affecting the final detection result. When the strength of the building materials being tested is different and the pressure of the test is different, the greater the degree of compression of the rubber mounting block 308 when the solid top layer 309 moves downward, the greater the restraint force lost by the connecting rope 315. The movable support block 312 is driven to move upward away from the side of the rubber mounting block 308 through the rebound hinge in the compressed state, so that the movable support block 312 and the bottom end of the inner cavity of the docking recess 307 form a 90-degree structure, and the movable support is further improved through the support foot 311. The stability of the block 312 during use can avoid the situation that the pressure controller 310 is damaged due to different detection pressures. When testing building materials, not only can building materials of different strengths be tested, but also the pressure end can be protected according to the different detection pressures, thereby increasing the life and stability during use. In addition, the detection end can be processed during the detection process to increase the accuracy after multiple tests, thereby avoiding the situation that the detection end is damaged due to different detection pressures, and each time the detection end is processed, dirt is prevented from falling on the detection end, resulting in errors in the final detection results.

[0060] Step 2: When the movable mounting plate 302 moves downward, the movable slide bar 404 drives the fixed top ring 402 and the silicone ring strip 403 to move downward. When the movable slide bar 404 slides inside the slide hole, the fixed spring 401 is stretched. Later, the movable slide bar 404 and the fixed top ring 402 are reset by the stretched fixed spring 401 to facilitate continued use next time, so that the bottom end of the silicone ring strip 403 is in contact and squeezed with the upper end of the material to be tested. When the silicone ring strip 403 is squeezed and deformed, the fit and sealing of the silicone ring strip 403 and the upper end of the test material are increased. When the silicone ring strip 403 is squeezed and deformed, the gas inside the annular cavity 405 is transported to the inside of the expansion airbag 406, causing the expansion airbag 406 to expand, driving the movable block 404 to move. 08 and the squeezing block 409 move to the right, and squeeze the reset spring rod 411. Later, the reset spring rod 411 is reset by squeezing. When the squeezing block 409 contacts the pressure touch switch 410, the alarm outside the control panel will be triggered to alarm, telling the staff that the material to be tested is still intact. If the material is cracked or broken during the pressure test, the contact start alarm cannot be performed, and the density of the material can be tested during the test. The comprehensiveness of the test process is increased through double testing, and it is avoided that when the material to be tested is cracked or damaged during the test, the alarm cannot be performed. Then, the staff can be told that the material to be tested is abnormal and does not need to be tested further. The material can be directly processed;

[0061] Step 3: When testing building materials, directly place the materials on the upper end of the placement screen 603 of the placement bottom frame 601. When the outside of the material is abnormal during the testing process and residues fall, the residues are dropped into the receiving recess 606 through the receiving notch 602 and collected by the receiving plate 604. When the weight of the receiving plate 604 increases, the receiving plate 604 moves downward and contacts the start guide block 607 to trigger the control panel. When the receiving plate 604 moves downward, it drives the pull spring 605 to stretch. Later, the stretched pull spring 605 drives the receiving plate 604 to reset. When the tested material When the outer surface of the material suddenly breaks, the granular impurities on the outside of the material splash and contact the annular airbag 501. When the annular airbag 501 is impacted, the air pressure inside the annular airbag 501 and the movable slot 502 is transmitted to the inside of the monitoring airbag 702. If the impact force is too large, the annular airbag 501 is damaged, causing the air pressure inside the annular airbag 501 to be lost, causing the inside of the annular limit airbag 503 to lose air, and then the contraction airbag 505 is expanded, and the movable sheet 504 is driven to move downward to contact the touch switch 506, triggering the control panel to tell the staff that the material is damaged.

[0062] Step 4: When the air pressure inside the annular airbag 501 is transmitted to the monitoring airbag 702 to expand the monitoring airbag 702, the movable plate 704 is driven to move downward. When the movable plate 704 moves downward, the limit rope 710 is driven to move, and the movable baffle 706 is driven to move toward the inner cavity of the retractable slot 708, thereby squeezing the reset spring 709. Later, the reset spring 709 after squeezing drives the movable baffle 706 to reset. When the movable baffle 706 moves to the inside of the retractable slot 708, the top of the adhesive adsorption block 707 is exposed. When the movable plate 704 moves downward, the adsorption friction block 705 is driven to move downward, and contacts and adheres to the top of the adhesive adsorption block 707, and the movable plate 704 moves downward. When it moves, it will make the connecting guide block 703 contact, triggering the red alarm on the outside of the control panel to alarm, and in the process of testing the building materials, it can also perform multiple monitoring of the subtle changes on the outside of the building materials. As long as the building materials have abnormal conditions, they can be monitored at the first time, and the monitored situation can be told to the staff to remind them to deal with it at the first time, so as to avoid the situation where the changes on the outside of the building materials cannot be monitored during the testing of the building materials. If the building materials change and the staff does not discover it in time, and the stamping detection end is still working, the building materials will be completely damaged, which will also cause the final detection results to be different from the actual problems.

[0063] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0064] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A detection device and method for building material production, comprising a processing bottom frame (1), a fixed top frame (8) being installed at the top of the processing bottom frame (1), a fixing opening being opened at the top of the processing bottom frame (1), and a mounting block (9) being embedded and installed in the inner cavity of the fixing opening, characterized in that: A movable protection mechanism (2), the movable protection mechanism (2) comprising a movable protection plate (201), the movable protection plate (201) being movably mounted outside the fixed top frame (8); A stamping detection mechanism (3), the stamping detection mechanism (3) comprising a hydraulic cylinder (301), a movable mounting plate (302) and a stamping detection head (303), the hydraulic cylinder (301) being mounted at the middle of the top end of the fixed top frame (8), the movable mounting plate (302) being mounted at the bottom end of the hydraulic cylinder (301), and the stamping detection head (303) being mounted at the bottom end of the movable mounting plate (302); A micro-detection mechanism (4), the micro-detection mechanism (4) comprising a fixed top ring (402), a silicone ring strip (403) and a movable slide rod (404), the movable mounting plate (302) being provided with sliding holes around its periphery, and movable slide rods (404) being slidably mounted inside the sliding holes, the bottom end of the movable mounting plate (302) being provided with a fixed top ring (402), the bottom end of the movable slide rod (404) being connected to the top end of the fixed top ring (402), and the bottom end of the fixed top ring (402) being provided with a silicone ring strip (403); The micro-detection mechanism (4) further comprises a fixed spring (401), an annular cavity (405), an inflatable airbag (406), a detection notch (407), a moving block (408), an extrusion block (409), a pressure touch switch (410) and a reset spring rod (411); an annular cavity (405) is provided around the bottom end of the silicone ring strip (403); a detection notch (407) is provided at the upper left end of the inner cavity of the fixed top ring (402); a baffle is installed on the right side of the inner cavity of the detection notch (407), and a pressure touch switch (410) is installed on the left side of the baffle; the pressure touch switch (410) is electrically connected to the control panel; the movable slide rod (411) is electrically connected to the control panel; and the movable slide rod (412) is electrically connected to the control panel. 04) are all installed with a fixed spring (401) at the top, the bottom end of the fixed spring (401) is connected to the top of the movable mounting plate (302), an expansion airbag (406) is installed on the left side of the inner cavity of the detection slot (407), a moving block (408) is installed on the right side of the expansion airbag (406), an extrusion block (409) is installed on the right side of the moving block (408), and the extrusion block (409) is in a semicircular structure. Reset spring rods (411) are installed around the right side of the moving block (408), and the reset spring rods (411) are made of spring steel. An air hole is opened between the left side of the inner cavity of the detection slot (407) and the top of the annular cavity (405); A placement receiving mechanism (6), the placement receiving mechanism (6) comprising a placement bottom frame (601) and a receiving notch (602), the placement bottom frame (601) being arranged at the top end of the processing bottom frame (1), the receiving notch (602) being arranged at the bottom end of the inner cavity of the placement bottom frame (601), and the top end of the mounting block (9) being connected to the bottom end of the placement bottom frame (601); A placement detection mechanism (5), the placement detection mechanism (5) comprising an annular airbag (501) and a movable empty slot (502), the annular airbag (501) being installed around the inner cavity of the placement bottom frame (601), and the movable empty slot (502) being opened on the left side of the inner cavity of the placement bottom frame (601); An abnormality monitoring mechanism (7), the abnormality monitoring mechanism (7) comprising a mounting recess (701) and a monitoring airbag (702), the mounting recess (701) being provided at the bottom end of the inner cavity of the movable hollow slot (502), and the monitoring airbag (702) being movably mounted at the top end of the inner cavity of the mounting recess (701).

2. A detection device and method for building material production according to claim 1, characterized in that: The mobile protection mechanism (2) further comprises a fixed slider (202) and a mobile slide groove (203); the fixed slider (202) is installed at the top of the outer side of the fixed top frame (8); the mobile slide groove (203) is provided at the inner cavity of the mobile protection plate (201) at a position relative to the fixed slider (202); the end of the fixed slider (202) away from the fixed top frame (8) is slidably connected to the upper end of the inner cavity of the mobile slide groove (203); the bottom end of the fixed slider (202) and the bottom end of the inner cavity of the mobile slide groove (203) are both installed with fixed magnetic blocks; and the upper end of the front side of the mobile protection plate (201) is installed with an observation panel.

3. A detection device and method for building material production according to claim 1, characterized in that: The punching detection mechanism (3) further comprises a mounting spring (304), a movable mounting block (305), an air jet head (306), a docking notch (307), a rubber mounting block (308), a solid top layer (309), a pressure controller (310), a support foot (311), a movable support block (312), a movable notch (313), an extrusion airbag (314) and a connecting rope (315). The top of the punching detection head (303) is provided with a docking notch (307), the bottom end of the inner cavity of the docking notch (307) is provided with a rubber mounting block (308), the top end of the rubber mounting block (308) is provided with a solid top layer (309), both sides of the top of the punching detection head (303) are provided with movable notches (313), the top end of the inner cavity of the movable notch (313) is provided with movable mounting blocks (305) slidably mounted, the top end of the movable mounting block (305) is connected to the bottom end of the movable mounting plate (302), and the The upper end of the outer side of the movable mounting block (305) is fitted with a mounting spring (304), the bottom end of the mounting spring (304) contacts the upper end of the punching detection head (303), the bottom end of the movable mounting block (305) is fitted with an extrusion airbag (314), the bottom end of the extrusion airbag (314) is connected to the bottom end of the inner cavity of the movable recess (313), the upper ends of both sides of the inner cavity of the docking recess (307) are fitted with spray heads (306), both sides of the inner cavity of the punching detection head (303) are provided with air passages at positions relative to the spray heads (306), and one end of the air passages away from the spray heads (306) contacts the bottom end of the inner cavity of the extrusion airbag (314), the bottom end of the inner cavity of the rubber mounting block (308) is fitted with a pressure controller (310), the upper end of the front side of the processing bottom frame (1) is fitted with a control panel, the pressure controller (310) is electrically connected to the control panel, and the bottom end of the movable mounting plate (302) is fitted with a convex block.

4. A detection device and method for building material production according to claim 3, characterized in that: Movable support blocks (312) are provided at the bottom ends of both sides of the inner cavity of the docking recess (307). Both sides of the bottom ends of the movable support blocks (312) are connected to the bottom ends of the inner cavity of the docking recess (307) through rebound hinges, and the rebound hinges are in a compressed state. Support feet (311) are installed on the side of the movable support block (312) close to the rubber mounting block (308) and the end away from the rebound hinge. Sliding holes are provided on both sides of the inner cavity of the rubber mounting block (308), and connecting ropes (315) are slidably installed inside the sliding holes. The top end of the connecting rope (315) is connected to the top end of the solid top layer (309), and the end of the connecting rope (315) away from the solid top layer (309) is connected to one side of the bottom end of the movable support block (312). The movable support blocks (312) are made of rubber material.

5. A detection device and method for building material production according to claim 3, characterized in that: The placement receiving mechanism (6) further comprises a placement screen (603), a receiving plate (604), a pulling spring (605), a receiving recess (606) and a starting guide block (607); a receiving recess (606) is provided in the middle of the bottom end of the inner cavity of the receiving recess (602); the receiving recess (602) is in a trumpet-shaped structure; a receiving plate (604) is movably mounted on the upper end of the inner cavity of the receiving recess (606); a middle cross-section of the receiving plate (604) is in an arc-shaped structure; pulling springs (605) are mounted around the top of the receiving plate (604); the top of the pulling spring (605) is connected to the top of the inner cavity of the receiving recess (606); a starting guide block (607) is mounted on the bottom end of the receiving plate (604) and the bottom end of the inner cavity of the receiving recess (606); a yellow alarm is mounted on the control panel; and the starting guide block (607) is electrically connected to the yellow alarm inside the control panel.

6. A detection device and method for building material production according to claim 3, characterized in that: The placement detection mechanism (5) further comprises an annular limiting airbag (503), a movable sheet (504), a shrinking airbag (505) and a touch switch (506); a shrinking airbag (505) is movably mounted at the upper end of the inner cavity of the movable slot (502); the inner cavity of the shrinking airbag (505) is filled with cotton; a movable sheet (504) is mounted at the bottom end of the shrinking airbag (505); air holes are provided at the bottom end of the shrinking airbag (505) and in the middle of the movable sheet (504); the annular airbag (503) is movably mounted at the upper end of the inner cavity of the movable slot (502); the inner cavity of the shrinking airbag (505) is filled with cotton; an movable sheet (504) is mounted at the bottom end of the shrinking airbag (505); air holes are provided at the bottom end of the shrinking airbag (505) and in the middle of the movable sheet (504); 501) and the inner cavity of the movable empty slot (502) are in an incomplete negative pressure state, the contraction airbag (505) is in a compressed state, an annular limiting airbag (503) is installed at the upper middle end around the inner cavity of the movable empty slot (502), a plurality of air holes are opened at the bottom end of the annular limiting airbag (503), a touch switch (506) is installed at the upper middle end on the left side of the inner cavity of the movable empty slot (502), the touch switch (506) is electrically connected to the control panel, and a green alarm is installed outside the control panel.

7. A detection device and method for building material production according to claim 1, characterized in that: The abnormal monitoring mechanism (7) further comprises a connection guide block (703), a movable plate (704), an adsorption friction block (705), a movable baffle (706), an adhesive adsorption block (707), a retractable notch (708), a reset spring (709), a limit rope (710) and a brush strip (711); the bottom end of the monitoring airbag (702) is mounted with a movable plate (704); the bottom end of the movable plate (704) and the bottom end of the inner cavity of the mounting recess (701) are both mounted with a connection guide block (703); a red alarm is mounted outside the control panel; the connection guide block (703) is electrically connected to the red alarm inside the control panel; the bottom end of the inner cavity of the mounting recess (701) is surrounded by adhesive adsorption blocks (707); the middle and lower ends of the inner cavity of the mounting recess (701) are each provided with a retractable notch (708); A movable baffle (706) is provided at the upper end of the bonding adsorption block (707), and one end of the movable baffle (706) away from the connecting guide block (703) extends to one side of the inner cavity of the retractable slot (708), and one end of the movable baffle (706) close to the retractable slot (708) is installed with a return spring (709), and a brush strip (711) is installed at the side of the bottom end of the movable baffle (706) away from the retractable slot (708), and one end of the movable baffle (706) close to the retractable slot (708) is installed with a limit rope (710), and pulleys are installed in the middle of the inner cavity around the installation recess (701), and one end of the limit rope (710) away from the movable baffle (706) passes through the pulley and is connected to the top of the movable plate (704), and adsorption friction blocks (705) are installed around the bottom end of the movable plate (704).

8. A method for using a detection device for building material production, characterized in that: The method for using the detection device for building material production is applicable to the detection device for building material production according to any one of claims 1 to 7, comprising the following steps: Step 1: When testing the strength of building materials, the material to be tested is directly placed inside the bottom frame (601), and then the hydraulic cylinder (301) is started to drive the movable mounting plate (302) and the punching detection head (303) to move downward, so that the bottom end of the punching detection head (303) contacts the top end of the building material. When the movable mounting plate (302) moves downward, the protrusion contacts and squeezes the top end of the rubber mounting block (308). When the rubber mounting block (308) is squeezed, the pressure controller (310) is squeezed. The pressure controller (310) feeds back the pressure value to the control panel. When the detected building material cannot withstand the pressure, it will be damaged, so that the pressure value of the pressure controller (310) cannot meet the expected requirements, and an alarm will be generated. When the movable installation plate (302) moves downward, it will drive the movable installation block (305) to move toward the inner cavity of the movable recess (313) and squeeze the squeezing airbag (314). When the movable installation plate (302) moves downward, it will squeeze the installation spring (304). The spring (304) is installed to reset. When the extrusion airbag (314) is squeezed, the air inside the extrusion airbag (314) is transported to the inside of the nozzle (306) through the air passage, and the airflow is transported to the upper end of the solid top layer (309) through the nozzle (306) to clean the upper end of the solid top layer (309). This prevents splashed debris from running to the upper end of the solid top layer (309) and causing accumulation during the detection process, thereby affecting the final detection result. When the strength of the building materials being tested is different and the detection pressure is different, the solid top layer (309) is cleaned. 9) When the rubber mounting block (308) is compressed more during downward movement, the connection rope (315) loses more restraining force, and the movable support block (312) is driven to move upward away from the side of the rubber mounting block (308) through the compressed rebound hinge, so that the movable support block (312) and the bottom end of the inner cavity of the docking recess (307) form a 90-degree structure, and the support foot (311) further improves the stability of the movable support block (312) during use, thereby avoiding the situation where the pressure controller (310) is damaged due to different detected pressures; Step 2: When the movable mounting plate (302) moves downward, the movable slide bar (404) drives the fixed top ring (402) and the silicone ring strip (403) to move downward. When the movable slide bar (404) slides inside the slide hole, the fixed spring (401) is stretched. Later, the movable slide bar (404) and the fixed top ring (402) are reset by the stretched fixed spring (401) to facilitate the next use, so that the bottom end of the silicone ring strip (403) contacts and squeezes the upper end of the material to be tested. When the silicone ring strip (403) is squeezed and deformed, the silicone ring strip (403) is increased to contact and squeeze with the test material. The contact and sealing of the upper end of the material are improved. When the silicone ring strip (403) is squeezed and deformed, the gas in the annular cavity (405) is transported to the inside of the expansion airbag (406), causing the expansion airbag (406) to expand, driving the moving block (408) and the squeezing block (409) to move to the right, and squeezing the reset spring rod (411). Later, the reset spring rod (411) is reset by squeezing. When the squeezing block (409) contacts the pressure touch switch (410), the alarm outside the control panel is triggered to sound an alarm, telling the staff that the tested material is still intact. Step 3: When testing the building materials, the materials are directly placed on the upper end of the placement screen (603) of the placement bottom frame (601). When the outside of the material is abnormal during the testing process and residues fall, the residues are dropped into the receiving recess (606) through the receiving notch (602) and collected by the receiving plate (604). When the weight of the receiving plate (604) increases, the receiving plate (604) moves downward and contacts the start guide block (607) to trigger the control panel. When the receiving plate (604) moves downward, it drives the pulling spring (605) to stretch. Later, the stretched pulling spring (605) drives the receiving plate (604) to reset. When the tested When the outer surface of the material suddenly breaks, the particles and impurities on the outer surface of the material splash and come into contact with the annular airbag (501). When the annular airbag (501) is impacted, the air pressure inside the annular airbag (501) and the movable slot (502) is transmitted to the inside of the monitoring airbag (702). If the impact force is too large, the annular airbag (501) is damaged, causing the air pressure inside the annular airbag (501) to be lost, causing the inside of the annular limiting airbag (503) to lose air, causing the contraction airbag (505) to expand, and driving the movable sheet (504) to move downward and come into contact with the touch switch (506), triggering the control panel to inform the staff that the outer surface of the material is damaged. Step 4: When the air pressure inside the annular airbag (501) is transmitted to the monitoring airbag (702) to expand the monitoring airbag (702), the moving plate (704) is driven to move downward. When the moving plate (704) moves downward, the limit rope (710) is driven to move, and the movable baffle (706) is driven to move toward the inner cavity of the retractable slot (708), thereby squeezing the reset spring (709). The movable baffle (706) is reset. When the movable baffle (706) moves to the inside of the retractable slot (708), the top of the adhesive adsorption block (707) is exposed. When the movable plate (704) moves downward, the adsorption friction block (705) is driven to move downward and contact and adhere to the top of the adhesive adsorption block (707). When the movable plate (704) moves downward, the connecting guide block (703) is contacted, triggering the red alarm outside the control panel to alarm.

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