Mineral nanometer polymerization nanometer heating blanket sewing thread strength detection device

Abstract

The invention discloses a mineral nanometer polymerization nanometer heating blanket stitch strength detection device, and relates to the technical field of stitch strength detection.The mineral nanometer polymerization nanometer heating blanket stitch strength detection device comprises a base, a testing mechanism and a cleaning mechanism, the testing mechanism is arranged at the top of the base, and the cleaning mechanism is arranged on the outer side of the testing mechanism; the testing mechanism comprises a wet plate, a heating plate, a frosted plate, an ultrasonic generator and a signal receiver, the wet plate, the heating plate and the frosted plate are randomly combined before the tensile force of the mineral nanometer polymerization nanometer heating blanket sewing thread is detected, and the ultrasonic generator and the signal receiver are randomly combined before the tensile force of the mineral nanometer polymerization nanometer heating blanket sewing thread is detected. A wet plate, a heating plate and a frosted plate are combined at will, data are recorded through multiple times of multi-scene tests, a comprehensive actual basis is provided for suture performance evaluation and model selection, the problem that deviation occurs between a heating blanket and expected quality is avoided, and meanwhile the situation that the body of a user is injured when the heating blanket is used is avoided.

Description

Technical Field

[0001] The present invention relates to the technical field of suture strength, and in particular to a mineral nano-polymer nano-heating blanket suture strength detection device. Background Art

[0002] Mineral nano-polymer nano-heating blanket suture is a thread used to sew mineral nano-polymer nano-heating blankets. It has the characteristics of high temperature resistance and stretch resistance to adapt to the high temperature environment when the heating blanket is working and the mechanical effects of pulling, folding, etc. in daily use, ensuring that the various components of the heating blanket are firmly connected.

[0003] In order to ensure that the strength of the mineral nano-polymer nano heating blanket sutures meets the standards and can work with the heating blanket as expected, while also ensuring the quality of the entire heating blanket, it is necessary to test and analyze the actual strength of the mineral nano-polymer nano heating blanket sutures, and to use a mineral nano-polymer nano heating blanket suture strength detection device.

[0004] However, the existing mineral nano-polymer nano-heating blanket suture strength detection device has the following shortcomings: Currently, a mineral nano-polymer nano-heating blanket suture strength detection device on the market only simply tests the tensile strength of the mineral nano-polymer nano-heating blanket suture under normal circumstances, but ignores the actual usage conditions of the mineral nano-polymer nano-heating blanket suture under external influences during actual use, causing the quality of the heating blanket to deviate from expectations, which can easily cause physical injuries to users during use.

[0005] Therefore, we propose a mineral nano-polymer nano-heating blanket suture strength detection device to solve the above problems. Summary of the Invention

[0006] The object of the present invention is to provide a mineral nano-polymer nano-heating blanket suture strength detection device, which selects a corresponding test channel according to the thickness specification of the mineral nano-polymer nano-heating blanket suture, then places the middle part of the mineral nano-polymer nano-heating blanket suture on the inner side of the corresponding wire control barrel on the wire shaft, and then starts the first piston-cylinder mechanism and the second piston-cylinder mechanism to firmly clamp the two ends of the mineral nano-polymer nano-heating blanket suture respectively, and then starts the first motor to drive the first piston mechanism to rotate, and then starts the third motor, the third motor drives the screw rod to rotate, and starts to start the hydraulic rod. The socket sleeve on the hydraulic rod moves downward under the action of the hydraulic rod starting until it contacts and engages with the socket bolt on the first piston-cylinder mechanism. At this time, the electric slide rod mechanism is started to release the limit of multiple second piston-cylinder mechanisms, so that the second piston-cylinder mechanism is independent and can transmit the tension received to the tension detector rotating with it. At this time, the hydraulic rod is started again to drive the first piston-cylinder mechanism fixed with the mineral nano-polymer nano-heating blanket suture to move downward, and move downward according to the detection standard speed.

[0007] To achieve the above-mentioned object, the present invention provides the following technical solution: a mineral nano-polymer nano-heating blanket suture strength detection device, comprising a base, a testing mechanism and a cleaning mechanism, wherein the testing mechanism is arranged on the top of the base, and the cleaning mechanism is arranged on the outside of the testing mechanism; The testing mechanism includes a wet plate, a heating plate, a frosted plate, an ultrasonic generator and a signal receiver. Before the mineral nano-polymer nano-heating blanket suture is subjected to tensile testing, the wet plate, heating plate and frosted plate are arbitrarily combined to simulate various environments encountered during actual use. Then, they are tested one by one to obtain various data of the mineral nano-polymer nano-heating blanket suture. During the test, the ultrasonic wave emitted by the ultrasonic generator continuously penetrates the mineral nano-polymer nano-heating blanket suture, and the internal microcracks, bubbles, delamination and impurity defects can be obtained through the signal receiver. Under the action of tension, the attenuation of the ultrasonic signal and the change of the reflected waveform are monitored in real time to track the crack initiation position and expansion process, and evaluate the damage tolerance and fracture risk of the material.

[0008] Preferably, the testing mechanism further includes a limiting rod, the limiting rod is arranged on the top of the base, the outer side of the limiting rod is slidably connected to the first slide, the top of the first slide is provided with a first motor, the top of the base is provided with a second motor, the inner side of the second motor is provided with a bidirectional threaded rod, the bidirectional threaded rod is threadedly connected to the first slide, the other end of the limiting rod is slidably connected to the second slide, the second slide is threadedly connected to the bidirectional threaded rod, a fixing rod is provided on the inner sides of the first slide and the second slide, one end of the fixing rod is meshed with the output end of the first motor, and the corresponding contact surfaces of the fixing rod and the output end of the first motor are formed to be mutually The meshing gear surface, the other end of the fixed rod is rotatably connected to the inner side of the second slide, a plurality of first piston-cylinder mechanisms are installed on the outer side of the fixed rod, and anti-slip pads are installed on the inner sides of the plurality of first piston-cylinder mechanisms. A sleeve bolt is provided on the top of the first piston-cylinder mechanism, and a sleeve sleeve is engaged with the outer side of the top of the sleeve bolt. The sleeve bolt is a quadrangular pyramid and has two spring sliders slidably connected to its inner side, and a plurality of conical nails are fixedly connected to its outer side. The inner side of the sleeve is provided with engaging holes corresponding to the plurality of conical nails, and a hydraulic rod is installed on the top of the sleeve, and a first fixed frame is installed on the other end of the hydraulic rod, and the first fixed frame is installed on the top of the base.

[0009] Preferably, a second fixed frame is installed on the top of the base, and a third motor is installed on the top of the second fixed frame, and the output end of the third motor is fixedly connected to a screw rod, and a moving assembly is provided on the top of the second fixed frame, and the moving assembly is threadedly connected to the screw rod. A first electric telescopic rod is installed on the top of the moving assembly, and a splint is installed on the top of the first telescopic rod, and the bottom of the other side of the splint is fixedly connected to the frosting plate, and the frosting plate is arranged on the outside of the heating plate, and the heating plate is arranged on the outside of the wet plate, and the frosting plate, heating plate and wet plate are arranged on the bottom of the splint in sequence, and the frosting plate, heating plate and wet plate are located in the middle of the top of the moving assembly, and the other end of the moving assembly is slidably connected to a sliding rod inside, and both ends of the sliding rod are fixedly connected to the second fixed frame on the other side.

[0010] Preferably, a third fixing frame is installed in the middle of the top of the base, the inner side of the third fixing frame is rotatably connected to a wire shaft, and the outer side of the wire shaft is installed with a plurality of wire control barrels of different sizes.

[0011] Preferably, a signal receiver is provided at the bottom of the wire shaft, and the signal receiver is fixedly connected to the top of the base. An ultrasonic generator is provided at the top of the wire shaft, and fourth fixing frames are installed on both sides of the bottom of the ultrasonic generator, and the fourth fixing frames are fixedly connected to the base.

[0012] Preferably, an electric slide mechanism is installed on the top of the other side of the base, and a plurality of second piston-cylinder mechanisms are provided on the inner side of the electric slide mechanism. The outer sides of the plurality of second piston-cylinder mechanisms are rotatably connected to tension detectors, and the inner sides of the plurality of tension detectors are rotatably connected to fixed racks, and the fixed racks are installed on the top of the base. The connecting surfaces on both sides of the plurality of second piston-cylinder mechanisms are provided with meshing tooth interfaces. A display is also installed on the top of the base, and a lifting platform is provided on the bottom of the plurality of tension detectors, and the lifting platform is fixedly connected to the base.

[0013] Preferably, the cleaning mechanism comprises a mounting frame, which is installed at the bottom of the base. An air blower is provided on the inner side of the mounting frame, and an air suction machine is provided on the outer side of the air blower.

[0014] Preferably, the top of the suction machine is connected to an air suction pipe, the air suction pipe passes through the base and is rotatably connected to a suction head, the top of the suction head is fixedly connected to a connecting rod, the top of the connecting rod is provided with a connecting rod, and the top of the blower is connected to an air blowing pipe.

[0015] Preferably, the top of the blowing pipe is connected to a fixing part, which is annular and is sleeved on the outside of the suction pipe. The inner side of the fixing part is rotatably connected to a rotating sealing disk, and the inner side of the rotating sealing disk is rotatably connected to a blowing head. The top of the blowing head is fixedly connected to another connecting rod, which is installed at the bottom of the connecting rod, and the top of the connecting rod is fixedly connected to a first gear.

[0016] Preferably, a chain is sleeved on the outer side of the first gear, and a second gear is sleeved on the inner side of the chain. The top of the second gear is fixedly connected to the fourth motor, and the top of the fourth motor is fixedly connected to the mounting plate. Top frames are installed at the bottom of both ends of the mounting plate, and multiple support rods are installed at the bottom of the four sides of the top frame. Multiple folding curtains are installed at the bottom of the top frame, and circular grooves are opened on the inner sides of the multiple folding curtains. A second electric telescopic rod is provided in the circular groove, and the top of the second electric telescopic rod is installed at the bottom of the top frame, and the bottom of the second electric telescopic rod is installed on the inner side of the folding curtain.

[0017] Compared with the prior art, the present invention has the following beneficial effects: 1. When testing the sutures of the mineral nano-polymer nano-heating blanket, the present invention first selects a test channel according to the thickness of the suture, places the middle of the suture in the wire control barrel of the wire shaft, and passes the two ends through each mechanism in turn, so that it is above the mobile component and below the frosting plate, heating plate and wet plate. Then, the first piston-cylinder mechanism and the second piston-cylinder mechanism clamp the two ends of the suture, start the first motor to drive the first piston mechanism to rotate, and wind the suture around the fixed rod for winding, so that the suture is in a slightly tight state to avoid displacement in subsequent tests. The anti-slip pad is used to ensure that it is clamped stably, and then the third motor is turned on to drive the screw rod to slide the mobile component equipped with the frosting plate, heating plate and wet plate. By loading and unloading different functional plates, the temperature, wear, After the scene simulation is completed for multiple usage scenarios such as humidity and heat, the hydraulic rod is started, and its sleeve moves down to engage with the sleeve bolt of the first piston cylinder mechanism. At the same time, the electric slide mechanism is turned on to release the limit of the second piston cylinder mechanism, so that it can transmit the tension to the tension detector. The hydraulic rod is started again, and the first piston cylinder mechanism that fixes the suture is pulled down at the standard speed for tensile testing. The ultrasonic generator and signal receiver are used in conjunction with the entire test process to monitor the internal defects of the suture and the crack expansion under tension in real time. Through multiple multi-scenario test recordings, a comprehensive and practical basis is provided for suture performance evaluation and selection, avoiding the problem of deviation between the heating blanket and the expected quality, and at the same time avoiding the user's physical injury during use.

[0018] 2. In order to improve the detection accuracy and reduce the failure rate, the equipment of the present invention is equipped with two groups of cleaning mechanisms. A blower and an air suction machine are installed on the mounting frame at the bottom of the base. The air suction machine is connected to the air suction head through the air suction pipe. The fourth motor drives the connecting rod to drive the air suction head to rotate in multiple directions through gears and chains, so that it can remove the residual thread impurities on the device. In order to further improve the practicality of the cleaning device, an air blower is added. The air blower is connected to the fixing part through the air blowing pipe. The fixing part is rotatably connected to the air blowing head through a rotating sealing disk. The connecting rod rotates and the air blowing head is driven to rotate synchronously. The rotating sealing disk ensures that the blowing channel rotates stably and is sealed. The air blowing head makes it easier to separate impurities and blows the impurities and thread ends up and floats, which is more conducive to the suction head. The second electric telescopic rod unfolds the folding curtain around the sealing device, shrinks the space, enhances the cleaning effect of the air blowing head and the air suction head, and reduces the impact on the surrounding environment. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 This is a main structural stereogram of a mineral nano-polymer nano-heating blanket suture strength detection device of the present invention; Figure 2 This is a disassembled three-dimensional diagram of the structure of a mineral nano-polymer nano-heating blanket suture strength detection device of the present invention; Figure 3This is a disassembled stereoscopic diagram of the testing mechanism in a mineral nano-polymer nano-heating blanket suture strength testing device of the present invention; Figure 4 This is a disassembled three-dimensional diagram of the testing mechanism of a mineral nano-polymer nano-heating blanket suture strength detection device of the present invention; Figure 5 This is a disassembled stereoscopic diagram of the cleaning mechanism in a mineral nano-polymer nano-heating blanket suture strength detection device of the present invention; Figure 6 This is a front view of a mineral nano-polymer nano-heating blanket suture strength detection device of the present invention; Figure 7 This is an exploded perspective view of the structure of a mineral nano-polymer nano-heating blanket suture strength detection device of the present invention.

[0020] In the figure: 1. base; 2. test mechanism; 201. limit rod; 202. bidirectional threaded rod; 203. first slide; 204. first motor; 205. second motor; 206. second slide; 207. fixed rod; 208. first piston-cylinder mechanism; 209. anti-slip pad; 210. sleeve bolt; 211. first fixed frame; 212. hydraulic rod; 213. sleeve sleeve; 214. second fixed frame; 215. moving assembly; 216. first electric telescopic rod; 217. third motor; 218. screw rod; 219. clamping plate; 220. wet plate; 221. heating plate; 222. frosting plate; 223. sliding rod; 224. third fixed frame; 225. wire shaft; 226. signal receiver; 227. fourth fixed frame Frame; 228, ultrasonic generator; 229, electric slide mechanism; 230, lifting platform; 231, second piston-cylinder mechanism; 232, tension detector; 233, fixed frame rod; 234, meshing gear interface; 235, display; 3, cleaning mechanism; 301, mounting frame; 302, blower; 303, suction machine; 304, suction pipe; 305, suction head; 306, fixing part; 307, rotating sealing disk; 308, blowing pipe; 309, blowing head; 310, connecting rod; 311, connecting rod; 312, first gear; 313, chain; 314, second gear; 315, fourth motor; 316, mounting plate; 317, top frame; 318, second electric telescopic rod; 319, folding curtain; 320, support rod. DETAILED DESCRIPTION

[0021] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the implementation regulations described are only part of the embodiments of the present invention, not all of the embodiments. All other embodiments obtained by ordinary technicians in this field based on the embodiments of the present invention without making any creative efforts shall fall within the scope of protection of the present invention.

[0022] Example 1, according to Figure 1-Figure 4As shown, in order to achieve the above-mentioned purpose, the present invention provides the following technical solutions: a mineral nano-polymer nano-heating blanket suture strength detection device, comprising a base 1, a testing mechanism 2 and a cleaning mechanism 3, the testing mechanism 2 is arranged on the top of the base 1, and the cleaning mechanism 3 is arranged on the outside of the testing mechanism 2, the testing mechanism 2 comprises a wet plate 220, a heating plate 221, a frosted plate 222, an ultrasonic generator 228 and a signal receiver 226, before the mineral nano-polymer nano-heating blanket suture is subjected to a tensile test, the wet plate 220, the heating plate 221 and the frosted plate 222 are arbitrarily combined to simulate various environments encountered in actual use, and then tested one by one to obtain a variety of data of the mineral nano-polymer nano-heating blanket suture. While testing, The ultrasonic wave emitted by the ultrasonic generator 228 continuously penetrates the suture of the mineral nano-polymer nano-heating blanket, and the internal micro-cracks, bubbles, delamination and impurity defects can be obtained through the signal receiver 226. Under the action of tension, the attenuation of the ultrasonic signal and the change of the reflected waveform are monitored in real time to track the crack initiation position and expansion process, and evaluate the damage tolerance and fracture risk of the material. The testing mechanism 2 also includes a limit rod 201, which is installed on the top of the base 1. The outer side of the limit rod 201 is slidably connected to the first slide 203, and the top of the first slide 203 is provided with a first motor 204, and the top of the base 1 is provided with a second motor 205. The inner side of the second motor 205 is provided with a bidirectional threaded rod 202, and the bidirectional threaded rod 202 is connected to the first slide 203. A slide 203 is threadedly connected, and the other end of the limit rod 201 is slidably connected to the second slide 206. The second slide 206 is threadedly connected to the bidirectional threaded rod 202. A fixing rod 207 is provided on the inner side of the first slide 203 and the second slide 206. One end of the fixing rod 207 is engaged with the output end of the first motor 204. The corresponding contact surfaces of the fixing rod 207 and the output end of the first motor 204 are provided as gear surfaces that mesh with each other. The other end of the fixing rod 207 is rotatably connected to the inner side of the second slide 206. A plurality of first piston-cylinder mechanisms 208 are provided on the outer side of the fixing rod 207. Anti-slip pads 209 are provided on the inner sides of the plurality of first piston-cylinder mechanisms 208. A sleeve bolt 210 is provided on the top of the first piston-cylinder mechanism 208. A sleeve 213 is engaged with the outer side of the top of the bolt 210. The sleeve bolt 210 is in the shape of a quadrangular pyramid and has two spring sliders slidably connected to its inner side. A plurality of conical nails are fixedly connected to its outer side. The inner side of the sleeve 213 is provided with engaging holes corresponding to the plurality of conical nails. A hydraulic rod 212 is installed on the top of the sleeve 213. A first fixing frame 211 is installed on the other end of the hydraulic rod 212. The first fixing frame 211 is installed on the top of the base 1. A second fixing frame 214 is installed on the top of the base 1. A third motor 217 is installed on the top of the second fixing frame 214. A screw rod 218 is fixedly connected to the output end of the third motor 217. A moving assembly 215 is provided on the top of the second fixing frame 214. The moving assembly 215 is threadedly connected to the screw rod 218.The top of the moving component 215 is provided with a first electric telescopic rod 216, and the top of the first telescopic rod is provided with a clamping plate 219. The bottom of the other side of the clamping plate 219 is fixedly connected to the frosting plate 222. The frosting plate 222 is arranged on the outside of the heating plate 221, and the heating plate 221 is arranged on the outside of the wet plate 220. The frosting plate 222, the heating plate 221 and the wet plate 220 are arranged on the bottom of the clamping plate 219 in sequence. The frosting plate 222, the heating plate 221 and the wet plate 220 are located in the middle of the top of the moving component 215. The inner side of the other end of the moving component 215 is slidably connected to the sliding rod 223. The two ends of the sliding rod 223 are fixedly connected to the second fixed frame 214 on the other side. A third fixed frame 224 is provided in the middle of the top of the base 1. The inner side of the third fixed frame 224 is rotatably connected to the wire shaft 225. A plurality of control wire barrels of different sizes are arranged on the outside of the wire shaft 225. The bottom of the wire shaft 225 is provided with a signal The receiver 226 is fixedly connected to the top of the base 1. An ultrasonic generator 228 is installed on the top of the wire shaft 225. Fourth fixing frames 227 are installed on both sides of the bottom of the ultrasonic generator 228. The fourth fixing frame 227 is fixedly connected to the base 1. An electric slide mechanism 229 is installed on the top of the other side of the base 1. Multiple second piston-cylinder mechanisms 231 are installed inside the electric slide mechanism 229. The outer sides of the multiple second piston-cylinder mechanisms 231 are rotatably connected to tension detectors 232. The inner sides of the multiple tension detectors 232 are rotatably connected to fixing frame rods 233. The fixing frame rods 233 are installed on the top of the base 1. The connecting surfaces on both sides of the multiple second piston-cylinder mechanisms 231 are provided with meshing gear interfaces 234. A display 235 is also installed on the top of the base 1. A lifting platform 230 is installed at the bottom of the multiple tension detectors 232. The lifting platform 230 is fixedly connected to the base 1.

[0023] The effect achieved by the entire embodiment 1 is as follows: when the mineral nano-polymer nano-heating blanket suture is tested, first, a test channel suitable for the suture is selected according to the thickness of the suture, and then the middle part of the suture is placed on the inner side of the corresponding wire control barrel on the wire shaft 225, and then the two ends of the suture are passed through each mechanism in turn, so that the suture is accurately placed at the top of the moving component 215, the frosting plate 222, the heating plate 221 and the bottom of the wet plate 220, and then the two ends of the suture are respectively placed in the clamping parts of the first piston-cylinder mechanism 208 and the second piston-cylinder mechanism 231, and they are started in turn to firmly clamp the two ends of the suture, and the first motor 204 is started to drive the first piston mechanism to start rotating, so that the suture is wound around the fixed rod 207 for the winding operation, until When the state of the stitching is stable within the preset range, the anti-slip pad 209 prevents the stitching from slipping, and then the third motor 217 is turned on. The third motor 217 drives the screw rod 218 to rotate, and then drives the moving component 215 to slide along the screw rod 218. As the moving component 215 slides, the frosted plate 222, the heating plate 221 and the wet plate 220 thereon begin to act on the stitching at the bottom. By loading and unloading different functional plates, a variety of actual usage environments can be simulated. Among them, the heating plate 221 simulates the temperature scene encountered by the stitching during the use of the heating blanket. When the frosted plate 222 reciprocates in the moving component 215, it simulates the wear scene of the heating blanket in daily use. When the heating plate 221 and the wet plate 220 act at the same time, they simulate the heating blanket itself when in use. In the scenario where heat is combined with moisture and sweat from the human body, when the scenario simulation link is over, the hydraulic rod 212 is started, and the sleeve 213 on the hydraulic rod 212 moves downward until it contacts and engages with the sleeve bolt 210 on the first piston cylinder mechanism 208. At this time, the electric slide mechanism 229 is turned on to release the limit of the multiple second piston cylinder mechanisms 231, so that the second piston cylinder mechanism 231 can operate independently and transmit the tension to the tension detector 232 rotatably connected thereto. Then, the hydraulic rod 212 is started again to drive the first piston cylinder mechanism 208 with the suture fixed thereon to move downward at the detection standard speed to carry out tension detection. According to the above process, multiple multi-scenario detections are performed on the same batch of sutures and the data is recorded to obtain The multiple test results are closer to the actual usage. During the entire test process, the ultrasonic generator 228 and the signal receiver 226 work together to continuously monitor the internal condition of the suture. The ultrasonic wave emitted by the ultrasonic generator 228 penetrates the suture, and the signal receiver 226 detects in real time whether there are microcracks, bubbles, delamination and impurity defects inside the suture. At the same time, under the action of tension, by real-time tracking the attenuation degree of the ultrasonic signal and the change of the reflected waveform, the initiation position and expansion process of the crack can be accurately grasped, and then the damage tolerance and fracture risk of the material can be scientifically evaluated. Through this comprehensive detection method, more detailed data can be obtained, which can enhance the understanding of the performance of the mineral nano-polymer nano-heating blanket suture, and facilitate the later material selection and use promotion.

[0024] Example 2, according to Figure 5-Figure 7 As shown, the cleaning mechanism 3 includes a mounting frame 301, which is mounted on the bottom of the base 1, an air blower 302 is provided on the inner side of the mounting frame 301, an air suction machine 303 is provided on the outer side of the air blower 302, and an air suction pipe 304 is connected to the top of the air suction pipe 304, which passes through the base 1 and is rotatably connected to an air suction head 305, and a connecting rod 310 is fixedly connected to the top of the air suction head 305, and a connecting rod 311 is mounted on the top of the connecting rod 310, and the top of the air blower 302 is connected to the air blowing pipe 308, and the top of the air blowing pipe 308 is connected to a fixing member 306, which is annular and sleeved on the outer side of the air suction pipe 304, and a rotating sealing disk 307 is rotatably connected to the inner side of the fixing member 306, and a blowing head 309 is rotatably connected to the inner side of the rotating sealing disk 307, and a blowing head 309 is fixedly connected to the top of the blowing head 309. Another connecting rod 310 is installed at the bottom of the connecting rod 311, and the top of the connecting rod 311 is fixedly connected to the first gear 312, the outer side of the first gear 312 is sleeved with a chain 313, the inner side of the chain 313 is sleeved with a second gear 314, the top of the second gear 314 is fixedly connected to the fourth motor 315, and the top of the fourth motor 315 is fixedly connected to the mounting plate 316, and the bottom of both ends of the mounting plate 316 are installed with a top frame 317, and a plurality of support rods 320 are installed around the bottom of the top frame 317. A plurality of folding curtains 319 are installed at the bottom of the top frame 317, and a circular groove is opened on the inner side of the plurality of folding curtains 319. A second electric telescopic rod 318 is provided in the circular groove. The top of the second electric telescopic rod 318 is installed at the bottom of the top frame 317, and the bottom of the second electric telescopic rod 318 is installed on the inner side of the folding curtain 319.

[0025] The effects achieved by the entire embodiment 2 are as follows: in order to improve the accuracy of detection data, reduce the probability of device failure, and realize equipment cleaning and maintenance, a mounting frame 301 is provided at the bottom of the base 1 for fixing the blower 302 and the suction machine 303, the suction machine 303 is connected to the suction head 305 through the suction pipe 304, the top of the suction head 305 is fixed with a connecting rod 311 through a connecting rod 310, the fourth motor 315 drives the connecting rod 311 to rotate with the help of the second gear 314, the chain 313 and the first gear 312, thereby driving the suction head 305 to rotate in all directions, sucking broken thread ends and dust impurities remaining on the surface of the device, in order to enhance the cleaning effect, the top of the blower 302 is connected to the blowing pipe 308, the end of the blowing pipe 308 is connected to the fixing part 306, and the rotating part inside the fixing part 306 is connected to the fixing part 306. The dynamic sealing disk 307 is connected to the blowing head 309, and the bottom of the connecting rod 311 is also connected to the blowing head 309 through the connecting rod 310. When the connecting rod 311 rotates, the blowing head 309 rotates synchronously on the outside of the suction head 305, and the rotating sealing disk 307 rotates smoothly in the fixing part 306, ensuring that the blowing head 309 rotates stably and the blowing structure is well sealed. The blowing head 309 blows air into the inside of the device, and the air flow generated will peel off the thread ends and dust impurities from the surface of the device, and then be sucked away by the suction head 305. In addition, the second electric telescopic rod 318 can drive the folding curtain 319 to unfold downward, tightly sealing the device on all sides. By reducing the cleaning space, the cleaning efficiency of the suction head 305 and the blowing head 309 can be concentrated, while preventing the dust generated during the cleaning process from polluting the surrounding environment.

[0026] The working principle of the entire device is as follows: when starting to test the mineral nano-polymer nano-heating blanket suture, first select the corresponding test channel according to the thickness specifications of the mineral nano-polymer nano-heating blanket suture, then place the middle part of the mineral nano-polymer nano-heating blanket suture on the inner side of the corresponding control tube on the wire shaft 225, and then pass the two ends through each mechanism respectively, so that the position of the mineral nano-polymer nano-heating blanket suture is at the top of the moving component 215, the bottom of the frosting plate 222, the heating plate 221, and the wet plate 220, at this time, place the two ends of the mineral nano-polymer nano-heating blanket suture on the clamping position of the first piston cylinder mechanism 208 and the second piston cylinder mechanism 231 respectively, and then start the first piston cylinder mechanism 208 and the second piston cylinder mechanism 231. The cylinder mechanism 231 clamps the two ends of the mineral nano polymer nano heating blanket suture firmly, and then starts the first motor 204 to drive the first piston mechanism to rotate, so that the mineral nano polymer nano heating blanket suture is wound around the fixed rod 207, and the mineral nano polymer nano heating blanket suture is wound so that its state is stable within a preset range. At this time, the anti-slip pad 209 prevents the mineral nano polymer nano heating blanket suture from slipping, and then starts the third motor 217, and the third motor 217 drives the screw rod 218 to rotate, so that the moving component 215 slides with the screw rod 218. The frosted plate 222, the heating plate 221 and the wet plate 220 on the moving component 215 move with the moving component 215, and the bottom mineral nano polymer nano heating blanket suture is tightened. The line simulates the scene influence, and by loading and unloading any one or more of the frosted plate 222, the heating plate 221 and the wet plate 220, a variety of environmental scenes can be simulated, wherein the heating plate heats the mineral nano-polymer nano-heating blanket stitches to simulate the temperature scene encountered by the mineral nano-polymer nano-heating blanket stitches when they are used on the heating blanket. The frosted plate 222 wears the mineral nano-polymer nano-heating blanket stitches when the moving component 215 moves back and forth to simulate the wear scene encountered by the heating blanket during multiple daily uses. When the heating plate and the wet plate 220 affect the mineral nano-polymer nano-heating blanket stitches at the same time, the scene of the heat of the heating blanket itself combined with the moisture and sweat of the human body when in use is simulated. When the scene simulation is completed When the hydraulic rod 212 is started, the sleeve 213 on the hydraulic rod 212 moves downward under the action of the hydraulic rod 212, until it contacts and engages with the sleeve bolt 210 on the first piston cylinder mechanism 208. At this time, the electric slide mechanism 229 is turned on to release the limit of the multiple second piston cylinder mechanisms 231, so that the second piston cylinder mechanism 231 is independent and can transmit the tension to the tension detector 232 rotating with it. At this time, the hydraulic rod 212 is started again to drive the first piston cylinder mechanism 208 fixed with the mineral nano-polymer nano heating blanket suture to move downward at the detection standard speed. According to the same process, multiple times and multiple scenes are used to detect and record the mineral nano-polymer nano heating blanket sutures of the same batch.This yields multiple data points that are more relevant to actual use. Throughout the entire testing process, the ultrasonic generator 228 and signal receiver 226 are used to detect microcracks, bubbles, delamination, and impurity defects within the mineral nano-polymer heating blanket suture. Furthermore, under tension, the ultrasonic signal attenuation and reflected waveform changes are monitored in real time to track the crack initiation location and propagation process, assessing the material's damage tolerance and fracture risk. This allows for a clearer understanding of the mineral nano-polymer heating blanket suture, making it easier to select and use.

[0027] In order to make the detection data more accurate, reduce the failure rate of the device, and at the same time to achieve cleaning of the device, two sets of cleaning mechanisms 3 are provided. A mounting frame 301 is provided at the bottom of the base 1 for accommodating the blower 302 and the suction machine 303. The suction machine 303 is rotatably connected to the suction head 305 through the suction pipe 304. The connecting rod 311 is fixed to the top of the suction head 305 by a connecting rod 310. When the connecting rod 311 is driven to rotate by the fourth motor 315 through the second gear 314, the chain 313, and the first gear 312, the rotating connecting rod 311 drives the suction head 305 to rotate, and the broken thread ends and dust impurities remaining on the surface of the device are sucked from the inside of the equipment in multiple directions. In order to improve the work of the suction head 305, a blowing pipe 308 is connected to the top of the blower 302, and the top of the blowing pipe 308 is connected to a fixing part 3 06. The rotating sealing disk 307 on the inside of the fixing part 306 is connected to the blowing head 309. The bottom of the connecting rod 311 is connected to the blowing head 309 through the same connecting rod 310. When the connecting rod 311 rotates, the blowing head 309 rotates on the outside of the suction head 305, and the rotating sealing disk 307 rotates in the fixing part 306, ensuring the rotation stability of the blowing head 309 and the sealing of the blowing structure. When the blowing head 309 blows air into the device, the thread ends and dust impurities on the surface of the device are subjected to the superimposed blowing force, so that they are quickly separated from the surface of the device and then sucked away by the suction head 305. At the same time, the second electric telescopic rod 318 drives the folding curtain 319 to unfold downward until the device is sealed on all sides. By reducing the space, the power of the suction head 305 and the blowing head 309 is maximized, and at the same time, the impact of the cleaning device on the surrounding environment when working is avoided.

[0028] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A mineral nano-polymer nano-heating blanket suture strength detection device, comprising a base (1), a testing mechanism (2) and a cleaning mechanism (3), characterized in that: The testing mechanism (2) is arranged on the top of the base (1), and the cleaning mechanism (3) is arranged on the outside of the testing mechanism (2); The testing mechanism (2) is used to simulate the complex working conditions of the mineral nano-polymer nano-heating blanket suture in actual use and to simultaneously track the internal damage of the material. It includes a wet plate (220), a heating plate (221), a frosted plate (222), an ultrasonic generator (228) and a signal receiver (226). The wet plate (220) is arranged on the outside of the heating plate (221) to increase the diversity of the actual use scenarios simulated by the heating plate (221). The frosted plate (222) is located on the outside of the wet plate (220). The signal receiver (226) is located at the bottom of the ultrasonic generator (228) to record and analyze the ultrasonic waves passing through the mineral nano-polymer nano-heating blanket suture.

2. The mineral nano-polymer nano-heating blanket suture strength detection device according to claim 1, characterized in that: The testing mechanism (2) further comprises a limiting rod (201), the limiting rod (201) being mounted on the top of the base (1), the outer side of the limiting rod (201) being slidably connected to a first slide (203), the top of the first slide (203) being mounted with a first motor (204), the top of the base (1) being mounted with a second motor (205), the inner side of the second motor (205) being mounted with a bidirectional threaded rod (202), the bidirectional threaded rod (202) being threadedly connected to the first slide (203), the other end of the limiting rod (201) being slidably connected to a second slide (206), the second slide (206) being threadedly connected to the bidirectional threaded rod (202), the inner sides of the first slide (203) and the second slide (206) being mounted with a fixing rod (207), one end of the fixing rod (207) being engaged with an output end of the first motor (204), the fixing rod (207) being engaged with an output end of the first motor (204), The corresponding contact surface of the output end is provided as a gear surface that meshes with each other. The other end of the fixed rod (207) is rotatably connected to the inner side of the second slide (206). A plurality of first piston-cylinder mechanisms (208) are installed on the outer side of the fixed rod (207). Anti-slip pads (209) are installed on the inner side of the plurality of first piston-cylinder mechanisms (208). A sleeve bolt (210) is provided on the top of the first piston-cylinder mechanism (208). The outer side of the top of the sleeve bolt (210) is clamped. A sleeve (213) is provided, the sleeve bolt (210) is in the shape of a quadrangular pyramid and has two spring sliders slidably connected to its inner side, and a plurality of conical nails are fixedly connected to its outer side, and a locking hole corresponding to the plurality of conical nails is provided on the inner side of the sleeve (213), a hydraulic rod (212) is installed on the top of the sleeve (213), and a first fixing frame (211) is installed on the other end of the hydraulic rod (212), and the first fixing frame (211) is installed on the top of the base (1).

3. The mineral nano-polymer nano-heating blanket suture strength detection device according to claim 2, characterized in that: A second fixing frame (214) is installed on the top of the base (1), a third motor (217) is installed on the top of the second fixing frame (214), an output end of the third motor (217) is fixedly connected to a screw rod (218), a moving assembly (215) is provided on the top of the second fixing frame (214), the moving assembly (215) is threadedly connected to the screw rod (218), a first electric telescopic rod (216) is installed on the top of the moving assembly (215), a clamping plate (219) is installed on the top of the first telescopic rod, and the bottom of the other side of the clamping plate (219) is fixed to the frosting plate (222). The frosting plate (222) is arranged on the outside of the heating plate (221), and the heating plate (221) is arranged on the outside of the wet plate (220). The frosting plate (222), the heating plate (221) and the wet plate (220) are sequentially arranged on the bottom of the clamping plate (219). The frosting plate (222), the heating plate (221) and the wet plate (220) are located in the middle of the top of the moving component (215). The other end of the moving component (215) is slidably connected to a sliding rod (223) on the inner side. The two ends of the sliding rod (223) are fixedly connected to the second fixing frame (214) on the other side.

4. The mineral nano-polymer nano-heating blanket suture strength detection device according to claim 3, characterized in that: A third fixing frame (224) is installed in the middle of the top of the base (1); a wire rotating shaft (225) is rotatably connected to the inner side of the third fixing frame (224); and a plurality of wire control barrels of different sizes are installed on the outer side of the wire rotating shaft (225).

5. The mineral nano-polymer nano-heating blanket suture strength detection device according to claim 4, characterized in that: A signal receiver (226) is provided at the bottom of the wire rotating shaft (225), and the signal receiver (226) is fixedly connected to the top of the base (1). An ultrasonic generator (228) is provided at the top of the wire rotating shaft (225), and fourth fixing frames (227) are installed on both sides of the bottom of the ultrasonic generator (228), and the fourth fixing frames (227) are fixedly connected to the base (1).

6. The mineral nano-polymer nano-heating blanket suture strength detection device according to claim 5, characterized in that: An electric slide mechanism (229) is installed on the top of the other side of the base (1), and a plurality of second piston-cylinder mechanisms (231) are provided on the inner side of the electric slide mechanism (229). The outer sides of the plurality of second piston-cylinder mechanisms (231) are rotatably connected to a tension detector (232), and the inner sides of the plurality of tension detectors (232) are rotatably connected to a fixed frame rod (233). The fixed frame rod (233) is installed on the top of the base (1). The connecting surfaces on both sides of the plurality of second piston-cylinder mechanisms (231) are provided with meshing tooth interfaces (234). A display (235) is also installed on the top of the base (1). A lifting platform (230) is provided on the bottom of the plurality of tension detectors (232), and the lifting platform (230) is fixedly connected to the base (1).

7. The mineral nano-polymer nano-heating blanket suture strength detection device according to claim 6, characterized in that: The cleaning mechanism (3) comprises a mounting frame (301), the mounting frame (301) being installed at the bottom of the base (1), an air blower (302) being provided on the inner side of the mounting frame (301), and an air suction machine (303) being provided on the outer side of the air blower (302).

8. The mineral nano-polymer nano-heating blanket suture strength detection device according to claim 7, characterized in that: The top of the suction machine (303) is connected to an air suction pipe (304), the air suction pipe (304) passes through the base (1) and is rotatably connected to an air suction head (305), the top of the air suction head (305) is fixedly connected to a connecting rod (310), the top of the connecting rod (310) is provided with a connecting rod (311), and the top of the air blower (302) is connected to an air blowing pipe (308).

9. The mineral nano-polymer nano-heating blanket suture strength detection device according to claim 8, characterized in that: The top of the air blowing pipe (308) is connected to a fixing member (306), which is annular and sleeved on the outside of the air suction pipe (304). The inner side of the fixing member (306) is rotatably connected to a rotating sealing disk (307), and the inner side of the rotating sealing disk (307) is rotatably connected to an air blowing head (309). The top of the air blowing head (309) is fixedly connected to another connecting rod (310), and the connecting rod (310) is installed at the bottom of the connecting rod (311). The top of the connecting rod (311) is fixedly connected to a first gear (312).

10. The mineral nano-polymer nano-heating blanket suture strength detection device according to claim 9, characterized in that: A chain (313) is sleeved on the outer side of the first gear (312), a second gear (314) is sleeved on the inner side of the chain (313), a fourth motor (315) is fixedly connected to the top of the second gear (314), a mounting plate (316) is fixedly connected to the top of the fourth motor (315), a top frame (317) is installed at the bottom of both ends of the mounting plate (316), a plurality of support rods (320) are installed at the bottom of the four sides of the top frame (317), a plurality of folding curtains (319) are installed at the bottom of the top frame (317), a circular groove is opened on the inner side of the plurality of folding curtains (319), a second electric telescopic rod (318) is installed in the circular groove, the top of the second electric telescopic rod (318) is installed at the bottom of the top frame (317), and the bottom of the second electric telescopic rod (318) is installed on the inner side of the folding curtain (319).

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