Chinese mugwort moxibustion patch heating effect detection equipment and detection method thereof

Abstract

The invention relates to a Chinese mugwort moxibustion patch heating effect detection device and a detection method thereof, and relates to the technical field of moxibustion patch detection effect detection.The Chinese mugwort moxibustion patch heating effect detection device comprises a detection box, a bearing table for placing a Chinese mugwort moxibustion patch is arranged in the detection box, the bearing table is a flexible bearing table, the bending angle of the flexible bearing table is adjustable, and the detection box is connected with the detection box. An adjusting assembly for adjusting the rotating angle of the bearing table is arranged in the detection box, a detection assembly for detecting the temperature of the attaching face of the Chinese mugwort moxibustion patch is arranged on the bottom side of the bearing table, and an air inlet and an air outlet are formed in the detection box; and the detection box is also provided with a ventilation assembly for ventilating the interior of the detection box. The Chinese mugwort moxibustion patch has the advantages that the heating effect of the Chinese mugwort moxibustion patch can be conveniently detected, and the accuracy of human body effect display is improved.

Description

Technical Field

[0001] This application relates to the technical field of moxibustion patch testing, and in particular to a device and method for testing the heating effect of Qi Ai moxibustion patches. Background Technology

[0002] Currently, Qi Ai moxibustion patches use Qi Ai as the main ingredient, combined with heating materials, herbal extracts, etc., and simulate the warming effect of traditional moxibustion through self-heating technology or far-infrared materials. They are applied to acupoints or local areas of the human body to achieve health care or treatment purposes such as warming the meridians and dispelling cold, promoting blood circulation and unblocking collaterals, and removing dampness and relieving pain.

[0003] Because there may be batch-to-batch differences in the ratio of heating materials and the rate of oxidation reaction during the production process of Qi Ai moxibustion patches, different batches of Qi Ai moxibustion patches may have different heating effects. For example, the difference in the duration of heating affects the actual use effect, and the difference in the maximum heating temperature may cause burns to users or the therapeutic effect may not meet expectations. Therefore, after the Qi Ai moxibustion patches are produced, it is necessary to test their heating effect to determine their heating effect and quality.

[0004] A Chinese patent document with publication number CN118068052B discloses a graphene electrothermal film heating effect testing device, which includes a chassis with a feed port and an electrical connection structure inside the chassis for supplying electrical energy to the graphene electrothermal film. The chassis also includes a deformable film carrier structure, which includes a chain deformation mechanism disposed inside the chassis. The chain deformation mechanism includes multiple sets of connecting blocks disposed at equal intervals inside the chassis. The connecting blocks are fixedly connected to limit shafts, and a hinge plate is hinged between two adjacent sets of limit shafts.

[0005] Regarding the aforementioned technologies, when testing Qi Ai moxibustion patches using the aforementioned heating effect testing equipment, since Qi Ai moxibustion patches act directly on the human body compared to graphene electrothermal films, even slight temperature changes can affect the user's experience. Furthermore, the heating of Qi Ai moxibustion patches relies on the reaction between oxygen and the effective ingredients in the patches. Therefore, it is not easy to measure the accurate heating effect in a closed space, while it is not convenient to detect its subtle temperature changes in an open space. Thus, improvements are needed. Summary of the Invention

[0006] To facilitate the testing of the heating effect of Qi Ai moxibustion patches and improve the accuracy of the display of effects on the human body, this application provides a device and method for testing the heating effect of Qi Ai moxibustion patches.

[0007] The technical solution provided in this application for a device and method for testing the heating effect of moxibustion patches is as follows: A device and method for testing the heating effect of moxibustion patches made of Artemisia argyi include a frame and a testing box mounted on the frame. The testing box contains a support platform for placing the moxibustion patches. The support platform is a flexible support platform with an adjustable bending angle. The testing box contains an adjustment component for adjusting the rotation angle of the support platform. The bottom side of the support platform contains a testing component for detecting the temperature of the bonding surface of the moxibustion patches. The testing box has an air inlet and an air outlet. The testing box also contains a ventilation component for ventilating the interior of the testing box. The detection assembly includes a detection platform located inside the detection box on one side of the support platform, an infrared detection element disposed on the detection platform facing the support platform, and an adjustment element for adjusting the angle of the detection platform. The Qi Ai moxibustion patch is pasted on the side of the support platform away from the detection platform. The detection platform includes multiple detection plates that are rotatably connected in sequence. A rotating cylinder is provided between the detection plates. The adjustment element includes an adjustment rope that passes through the rotating cylinder. There are two sets of adjustment ropes, which are located on opposite sides of the detection plates. An adjustment wheel is provided inside the detection box. The two sets of adjustment ropes are wound around the adjustment wheel and connected to each other. The support platform includes multiple support plates that are rotatably connected in sequence. The adjustment assembly includes an adjustment cylinder rotatably connected between two adjacent support plates and a traction rope that slides through the adjustment cylinder. The two sets of traction ropes are located on opposite sides of the support plates. The detection box is also equipped with a traction wheel, and the two sets of traction ropes are wound around and connected to the traction wheel. The testing box is also equipped with a synchronizing element for synchronously adjusting the rotation of the traction wheel and the adjusting wheel.

[0008] By adopting the above technical solution, when testing the heating performance of Qi Ai moxibustion patches, the heat insulation layer of the patches to be tested is first removed, and then the patches are pasted onto the support platform. The ventilation components are used to ventilate the patches into the air inlet so that the patches start to heat up when they come into contact with fresh air. The temperature of the patches is measured by an infrared detector set on the testing platform. Based on the real-time data from the infrared detector, the heating trend and heat retention time of the patches are obtained.

[0009] Meanwhile, since moxibustion patches are often adhered to the skin surface during use, such as at the knee, ankle, and elbow joints, they will bend to varying degrees during normal daily activities. Therefore, when conducting heat detection, it is necessary to consider whether the bending of the moxibustion patch will affect its heating effect and heat retention time. It is also necessary to consider whether the moxibustion patch will fall off during repeated bending, thus affecting the treatment effect. Therefore, by setting up a flexible support platform that can be bent, when the traction wheel rotates, it drives two sets of traction ropes to slide, thereby causing the support platform to bend. When the traction rope on the side closer to the detection platform is tightened, the support platform bends toward the detection platform; when the traction rope on the side farther away from the detection platform is tightened, the support platform bends toward the direction away from the detection platform. By making the moxibustion patch bend back and forth, the heating effect of the moxibustion patch under different degrees of bending can be detected in real time.

[0010] In order to accurately measure the heat generated by each part of the moxibustion patch during the bending process, and thus determine the highest temperature of the patch when it is heating up, and to accurately determine whether the patch will cause burns, the detection platform is also designed to be flexible. The adjustment wheel drives the adjustment rope storage box to loosen. By adjusting the rope, the detection platform bends, causing it to bend at the same angle as the support platform. This ensures that the infrared detector is always aligned with the corresponding moxibustion patch on the support platform, thus ensuring that the temperature measurement results are always accurate.

[0011] Meanwhile, the traction wheel and the adjusting wheel are kept rotating synchronously by the set synchronization component, thereby realizing the synchronous bending adjustment of the test table and the support table. This eliminates the need for an additional power source and an additional adjustment mechanism, making the operation simple.

[0012] Optionally, the synchronizing element includes a rotatable synchronizing wheel disposed inside the testing box. The synchronizing wheel is connected to the adjusting wheel and the traction wheel in a transmission connection. The synchronizing wheel is also provided with a periodic forward / reverse power component. A friction test piece is also provided on the side of the bearing platform away from the testing platform.

[0013] By adopting the above technical solution, the synchronous wheel is driven to rotate periodically in both directions by the set power component, thereby realizing the periodic forward and reverse bending of the bearing platform and the testing platform.

[0014] Optionally, the friction test piece includes a friction test platform disposed on the side of the support platform away from the test platform. A test strip is slidably disposed on the friction test platform. The test strip is composed of multiple fabric strips of different materials that are sequentially spliced ​​together. The different materials of the test strip move in sequence to fit against the support platform. The bending angle of the friction test platform and the support platform are consistent. The test box is also provided with a sliding component for sliding adjustment of the test strip.

[0015] By adopting the above technical solution, the test platform is set up so that the test strip is always in contact with the breathable side of the moxibustion patch. At the same time, the heat generation of the moxibustion patch under different breathability levels of fabric is tested by using test strips of various materials, thereby determining the heating effect of the moxibustion patch.

[0016] Simultaneously, by rubbing and sliding different fabric strips against the moxibustion patch in sequence, the heat generated when the moxibustion patch rubs against the fabric in daily life is simulated. This also simulates the heating performance of the moxibustion patch under different breathability fabrics. Furthermore, by rubbing the surface of the moxibustion patch with the sliding fabric strips, the friction resistance of the moxibustion patch surface is determined. During the periodic rubbing of the moxibustion patch surface, the patch also bends during the rubbing process with the same fabric, thus testing the heating performance of the moxibustion patch under different bending conditions, different breathability fabrics, and different degrees of friction, thereby achieving precise monitoring of the heating performance of the moxibustion patch.

[0017] Meanwhile, by setting the friction test platform to always be in the same bending angle as the support platform, the friction strip is always in contact with the surface of the moxibustion patch, thus more accurately simulating the usage scenario of the moxibustion patch, and simultaneously testing the heating performance and wear fatigue strength of the moxibustion patch.

[0018] Because moxibustion patches often rub against clothing and fabrics during daily use, it is difficult to determine the effect of the patches during daily use if only heat testing is performed on the patches alone. Similarly, it is difficult to determine whether daily friction affects the heating effect of the patches if only friction testing is performed on the patches alone. By adopting the above technical solution, the heating and heat preservation effects of the moxibustion patches during daily use can be determined more accurately.

[0019] Optionally, the sliding member includes a receiving roller rotatably mounted on the detection box, on which the test belt is rotatably stored, and the receiving roller always rotates in the forward direction. A first synchronous gear is provided at the shaft of the receiving roller, and a second synchronous gear is provided at the shaft of the synchronous wheel. The first synchronous gear meshes with the second synchronous gear. When the second synchronous gear rotates in the forward direction, the first synchronous gear rotates in the forward direction. When the second synchronous gear rotates in the reverse direction, the first synchronous gear does not rotate. A one-way rotation structure is provided at the shaft of the first synchronous gear.

[0020] By adopting the above technical solution, the storage roller is rotated. When the synchronous wheel drives the second synchronous gear to rotate, the second synchronous gear drives the first synchronous gear to rotate, thereby driving the storage roller to rotate. Through the set unidirectional rotation structure, during the forward and reverse rotation of the second synchronous gear, the first synchronous gear and the storage roller always rotate in the forward direction, so that the test strip on the storage roller always slides in the forward direction. This allows for the measurement of the heating performance of various fabric materials under different bending conditions, thereby improving the accuracy of heating detection during actual use of the moxibustion patch.

[0021] Optionally, the friction test bench includes a fixed frame fixedly connected to the support platform and a bonding roller rotatably disposed on the fixed frame and movably fitted to the support platform. The test belt is located between the bonding roller and the support platform. The fixed frame is also provided with a limiting member for limiting the position of the bonding roller. The bonding roller is provided in multiple sets, and the multiple sets of bonding rollers correspond one-to-one with the multiple sets of support platforms.

[0022] By adopting the above technical solution, when it is necessary to test the heating effect of the moxibustion patch, the technician first rotates the bonding roller to a position away from the support platform, then the technician pastes the moxibustion patch onto the support platform. Immediately afterwards, the technician rotates the bonding roller to a position where the test strip adheres to the support platform, ensuring that the test strip remains in contact with the support platform.

[0023] Meanwhile, multiple sets of bonding rollers are installed on the corresponding carrier platforms via fixed frames, so that each carrier platform is equipped with a corresponding bonding roller, ensuring that the moxibustion patch on each carrier platform is bonded to the test strip. This enables the moxibustion patch on each carrier platform to undergo a heating test. In order to ensure stable bonding of the test strip to the moxibustion patch on each carrier platform, the bonding rollers on each carrier platform ensure stable bonding between the test strip and the moxibustion patch.

[0024] Optionally, the limiting member includes a limiting block that is elastically slidably disposed on the fixed frame. A limiting groove is formed on the roller shaft of the bonding roller. The limiting block is movably inserted into the limiting groove, and the end side of the limiting block is inclined. The inclined side of the limiting block is movably fitted and pressed against the side wall of the limiting groove.

[0025] By adopting the above technical solution, when it is necessary to conduct a heat test on the moxibustion patch, the technicians first release the limiting block from restricting the bonding roller, so that the limiting block is inserted into the fixed frame. At this time, the bonding roller can rotate freely. Then, the technicians rotate the bonding roller so that it is positioned perpendicular to the surface of the support platform. Then, the test strip on the receiving roller is unfolded and bonded to the support platform. Finally, the bonding roller is rotated to press the test strip tightly onto the support platform, thereby conducting the subsequent testing of the moxibustion patch.

[0026] Optionally, the end of the support platform away from the synchronous pulley and the end of the detection platform away from the synchronous pulley are both provided with positioning blocks. The top wall of the detection box is provided with positioning grooves corresponding to the two sets of positioning blocks respectively. The positioning blocks are slidably disposed in the positioning grooves, and the positioning grooves are arranged in an arc shape.

[0027] By adopting the above technical solution, the positioning groove limits the sliding direction of the positioning block, thereby adjusting the bending of the support platform and the testing platform during the pulling of the traction rope and the adjustment rope, thus reducing the jamming during the bending adjustment process.

[0028] Optionally, the air inlet is provided in multiple sets, and the multiple sets of air inlets are arranged at intervals along the length of the detection box. The ventilation component includes a sealing plate slidably disposed at the air inlet of the detection box and an operating component for positioning the sealing plate. The sealing plate is in the form of flexible cloth. A sealing roller is rotatably disposed on the detection box, and the sealing plate is wrapped around and stored on the sealing roller. An air collecting hood is movably connected to one side of the air inlet of the detection box, and the other end of the air collecting hood is connected to an air collecting pump.

[0029] By adopting the above technical solution, since the use of moxibustion patches is affected by various environmental factors and the user's clothing, the air collecting hood is directed towards the testing box for ventilation, and the sealing plate is adjusted to partially block the air inlet, thereby testing the heating effect of the moxibustion patch under different air intake conditions. This simulates the testing of the heating and heat preservation performance of the moxibustion patch under different environments, such as indoor and outdoor, and different clothing and breathability in winter and summer.

[0030] In summary, this application includes at least one of the following beneficial technical effects: 1. By using a rotating support platform and a detection platform, the heating effect of the moxibustion patch is tested by reciprocating rotation of the support platform, which in turn causes the moxibustion patch to bend repeatedly. By rotating the detection platform and the support platform synchronously, the infrared detector is always aligned with the detection area, thereby improving the accuracy of the detection results and reducing the unpredictable factors of temperature changes caused by different detection areas. 2. By using the adjustable cylinder, traction rope, and traction wheel, the traction wheel is rotated to pull the traction rope, thereby adjusting the bending angle of the support platform. The system is also connected to the traction wheel drive. 3. By using a set collection roller, a test belt wound around the collection roller, and a first synchronous wheel, a second synchronous wheel, and a unidirectional rotation structure to drive the collection roller to rotate synchronously, the moxibustion patch is subjected to friction with different fabrics during the reciprocating bending process, thereby detecting the heating performance and temperature rise performance of the moxibustion patch under different breathable fabrics. Attached Figure Description

[0031] Figure 1 This is a schematic diagram of the overall structure of a moxibustion patch heating effect testing device according to an embodiment of this application; Figure 2 This is a schematic diagram of the connection structure of the detection box, adjustment component, and detection component; Figure 3 This is a schematic diagram of the internal connection structure of the testing box; Figure 4 yes Figure 3 A schematic diagram of the connection structure of part A in the middle; Figure 5 This is a schematic diagram of the connection structure of the sealing plate.

[0032] Reference numerals: 1. Detection box; 11. Support platform; 12. Air inlet; 13. Air outlet; 2. Adjustment component; 21. Support plate; 22. Adjustment cylinder; 23. Traction rope; 24. Traction wheel; 25. Positioning block; 26. Positioning groove; 3. Detection component; 31. Detection platform; 32. Infrared detection component; 34. Detection plate; 35. Rotating cylinder; 36. Adjustment rope; 37. Adjustment wheel; 4. Synchronizing component; 41. Synchronizing wheel; 421. Servo motor; 5. Friction test piece; 51. Test belt; 52. Sliding component; 521. Receiving roller; 522. First synchronous pulley; 523. Second synchronous pulley; 524. One-way rotation structure; 53. Limiting component; 531. Limiting block; 532. Limiting groove; 54. Adhesion roller; 6. Ventilation assembly; 61. Sealing plate; 62. Sealing roller; 63. Air collection hood; 64. Air collection pump; 65. Operating lever; 66. Operating groove. Detailed Implementation

[0033] The following is in conjunction with the appendix Figure 1-5 This application will be described in further detail.

[0034] This application discloses a device for testing the heating effect of moxibustion patches made from Artemisia argyi. (Refer to...) Figure 1 and Figure 2A device for testing the heating effect of moxibustion patches includes a rectangular test box 1, a support platform 11 inside the test box 1, the support platform 11 being aligned with the height of the test box 1, the support platform 11 being of an adjustable bending angle, the moxibustion patch being pasted on the support platform 11, an air inlet 12 on one side of the test box 1 and an air outlet 13 on the other side of the test box 1, a ventilation component 6 for ventilating the test box 1, and a testing component 3 for detecting the temperature of the bonding surface of the moxibustion patch inside the test box 1.

[0035] The detection assembly 3 includes a detection platform 31 located inside the detection box 1 on the side of the support platform 11 near the air outlet 13. An infrared detector 32 is provided on the side of the detection platform 31 near the support platform 11, and the infrared detector 32 is arranged facing the support platform 11. The angle of the detection platform 31 is also adjustable. The detection platform 31 includes multiple detection plates 34 connected in sequence. A rotating cylinder 35 is provided between the detection plates 34. There are multiple rotating cylinders 35, and each rotating cylinder 35 corresponds to a multiple detection plate 34. Adjacent rotating cylinders 35 are rotatably connected, and the rotation axis of the rotating cylinder 35 is consistent with the height direction of the detection box 1. An adjusting rope 36 is provided on the side of the rotating cylinder 35 near the air inlet and the side near the air outlet. An adjusting wheel 37 is rotatably provided on one end of the detection plate 34. The adjusting rope 36 is fixedly wound around the adjusting wheel 37, and one end of the adjusting rope 36 is fixedly connected to the rotating cylinder 35 away from the adjusting wheel 37. The two sets of adjusting ropes 36 are connected.

[0036] Reference Figure 2 and Figure 3 The support platform 11 includes multiple support plates 21 rotatably connected in sequence. An adjustment assembly 2 for rotating the support platform 11 is provided inside the testing box 1. The adjustment assembly 2 includes an adjustment cylinder 22 connected to each support plate 21. Adjacent adjustment cylinders 22 are rotatably connected to each other. A traction rope 23 is slidably disposed inside the adjustment cylinder 22. Two sets of traction ropes 23 are also provided, arranged opposite each other. A traction wheel 24 is rotatably disposed on one side of the adjustment wheel 37 inside the testing box 1. The two sets of traction ropes 23 are located on the side of the adjustment cylinder 22 near the air inlet 12 and the air outlet 13, respectively. The traction ropes 23 are sleeved on and connected to the traction wheel 24.

[0037] Therefore, when it is necessary to test the heating effect of the moxibustion patch, the technician first pastes the moxibustion patch onto the support plate 21, and drives the traction rope 23 to slide by the rotation of the traction wheel 24, thereby driving the adjustment cylinder 22 to rotate. At this time, the adjustment cylinder 22 bends towards the air inlet 12 and the air outlet 13, thereby causing the moxibustion patch to bend towards the air inlet 12 and the air outlet 13. When testing the moxibustion patch, the adjustment wheel 37 rotates at the same time, driving the adjustment rope 36 to slide. The adjustment rope 36 pulls the adjustment cylinder 22 to rotate, thereby causing the detection plate 34 to bend towards the air inlet 12 and the air outlet 13. At the same time, the detection plate 34 and the support plate 21 bend synchronously, so that the infrared detection element 32 is always aligned with the corresponding position of the support plate 21.

[0038] In order to achieve synchronous bending of the detection plate 34 and the support plate 21, the detection box 1 is also equipped with a synchronizing element 4 for synchronously adjusting the rotation of the traction wheel 24 and the adjusting wheel 37. (Refer to...) Figure 1 and Figure 2 The synchronizing element 4 includes a rotatable synchronizing wheel 41 inside the detection box 1. The synchronizing wheel 41 is connected to the adjusting wheel 37 and the traction wheel 24 via belt drive. The detection box 1 is equipped with a synchronizing motor, and the output end of the synchronizing motor is connected to the synchronizing wheel 41. In this application, the synchronizing motor is a servo motor 421. The servo motor 421 is equipped with a PLC controller to set the forward and reverse rotation cycle of the servo motor 421. In this application, when the servo motor 421 rotates forward, the adjusting wheel 37 and the traction wheel 24 rotate synchronously in the forward direction. At this time, the detection plate 34 and the support plate 21 rotate toward the air inlet 12. When the servo motor 421 rotates in the reverse direction, the detection plate 34 and the support plate 21 rotate toward the air outlet 13.

[0039] The rotation of the detection plate 34 to its limit position in the forward direction and then to its limit position in the reverse direction constitutes one rotation cycle of the servo motor 421.

[0040] Reference Figure 1 and Figure 5 An air collecting hood 63 is movably installed on one side of the air inlet 12 of the testing box 1. The air collecting hood 63 is connected to an air collecting pump 64. The ventilation component 6 includes a sealing plate 61 slidably installed at the air inlet 12 of the testing box 1. There are two sets of sealing plates 61, which are arranged opposite to each other and slidably arranged opposite to each other. A sealing roller 62 is rotatably connected to the side wall of the testing box 1. The sealing plate 61 is made of flexible cloth and is wrapped around the sealing roller 62. The sealing plate 61 movably seals the air inlet 12. An operating block is provided at the end of the sealing plate 61 away from the sealing roller 62. A sliding groove is opened on the testing box 1, and the operating block is slidably installed in the sliding groove. An operating rod 65 is rotatably installed on the operating block. An operating groove 66 is opened on the testing box 1, and the operating rod 65 is movably engaged in the operating groove 66.

[0041] Before testing the heating effect of the moxibustion patch, technicians first use a sliding control block to block the air inlets 12 in different areas, thereby adjusting the air intake and facilitating the testing of the heating performance of the moxibustion patch under different air intake conditions.

[0042] Meanwhile, since the moxibustion patch often rubs against clothing fabrics during daily use, it is not easy to obtain the effect of the moxibustion patch in daily use if only the heat of the moxibustion patch is tested alone. It is also not easy to obtain whether daily friction will affect the heat of the moxibustion patch if only the friction of the moxibustion patch is tested alone. Therefore, the test box 1 is also equipped with a friction test piece 5. The friction test piece 5 includes a friction test platform located on the side of the support platform 11 away from the test platform 31. A test strip 51 is slidably arranged on the friction test platform. The test strip is made of multiple materials of cloth strips that are sequentially spliced ​​together. The material of the test strip 51 in this application can be any of the common clothing fabrics such as cotton, linen, wool, silk, polyester, nylon, and silkworm silk.

[0043] At the same time, the heat-generating performance of the moxibustion patch can be classified according to the fabric of people's clothes in different seasons, and different test strips 51 can be spliced ​​together to make it easier to judge the difference in the heating performance of the moxibustion patch when users wear different fabrics in different seasons. This application will not elaborate on this.

[0044] The testing chamber 1 is also equipped with a sliding component 52 for sliding adjustment of the test belt 51. The sliding component 52 includes a receiving roller 521 rotatably mounted on the testing chamber 1. There are two sets of receiving rollers 521. One set of receiving rollers 521 is located on one side of the support platform 11, and the other set of receiving rollers 521 is located on the support platform 11. The test belt 51 rotates and is circulated and stored on the two sets of receiving rollers 521, and the receiving rollers 521 always rotate in the forward direction. A first synchronous roller 522 is provided at the pivot of one set of receiving rollers 521, and a second synchronous roller 523 is provided at the pivot of the synchronous roller. The first synchronous roller 522 and the second synchronous roller 523 are connected in a driving connection. A one-way rotation structure 524 is provided at the pivot of the first synchronous roller 522. When the second synchronous roller 523 rotates in the forward direction, the first synchronous roller 522 rotates in the forward direction. When the second synchronous roller 523 rotates in the reverse direction, the first synchronous roller 522 does not rotate.

[0045] In this application, the unidirectional rotation structure 524 is a ratchet and pawl structure located at the shaft of the first synchronous roller 522. The test strip 51 is sleeved on the receiving roller 521. Therefore, when the test strip 51 on the receiving roller 521 located on one side of the support platform 11 is completely received on another receiving roller 521, the technician can take out the test strip 51 on the receiving roller 521 and exchange it on the receiving roller 521 without the test strip 51.

[0046] Reference Figure 3 and Figure 4The friction test bench includes a fixed frame fixedly connected to a support platform 11 and a bonding roller 54 rotatably mounted on the fixed frame and in contact with the support platform 11. A test belt 51 is located between the bonding roller 54 and the support platform 11. The fixed frame is also equipped with a limiting member 53 to restrict the position of the bonding roller 54. Multiple sets of bonding rollers 54 are provided, each corresponding to a set of support platforms 11. The limiting member 53 includes a limiting block 531 elastically slidably mounted on the fixed frame. A limiting groove 532 is formed on the roller shaft of the bonding roller 54, allowing the limiting block 531 to move. The limit block 531 is inserted into the limiting groove 532, and the end side of the limiting block 531 is inclined. The inclined side of the limiting block 531 is in close contact with the side wall of the limiting groove 532. In order to achieve stability when adjusting the angle of the bearing plate 21 and the detection plate 34, the end of the bearing platform 11 away from the synchronous wheel 41 and the end of the detection platform 31 away from the synchronous wheel 41 are provided with positioning blocks 25. The top wall of the detection box 1 is provided with positioning grooves 26 corresponding to the two sets of positioning blocks 25 respectively. The positioning blocks 25 are slidably disposed in the positioning grooves 26, and the positioning grooves 26 are arranged in an arc shape.

[0047] Meanwhile, the top side of the detection box 1 is provided with an opening and a movable sealing door. The sealing door is a transparent door, which makes it easy to observe the adhesion of the moxibustion patch. The detection box 1 is also equipped with a particulate matter concentration sensor at the air outlet 13, so as to make it easy to judge the bending fatigue of the moxibustion patch based on the reading of the particulate matter concentration sensor, and to determine the relationship between the reciprocating bending cycle of the moxibustion patch and the concentration of the effective ingredients volatilized when heating.

[0048] This application also discloses a method for detecting the heating effect of Qi Ai moxibustion patches, including the following steps: S1. Equipment preparation: First, the relevant technicians adjust the sliding sealing plate 61 to adjust the opening area of ​​the air inlet 12. Then, open the sealing door, peel off the release paper of the moxibustion patch to be tested, stick it on the support platform 11, and start the air pump 64 to prepare for testing. S2, initial detection: the temperature of the support platform 11 is collected in real time by the infrared detection device 32 and the data is recorded in real time. The servo motor 421 rotates to make the support platform 11 bend synchronously with the detection platform 31. The temperature change during the bending process is judged based on the temperature data. S3, dynamic test, servo motor 421 rotates periodically, while test belt 51 slides the moxibustion patch, thereby realizing the heating effect test of the moxibustion patch under different air permeability. S4, Data Analysis: By analyzing the temperature data detected by infrared and the data from the particulate matter concentration sensor at the air outlet, the trends of the moxibustion patch's temperature change over time, the temperature change of the moxibustion patch with the degree of bending, the temperature change of the moxibustion patch under different air permeability conditions, and the trends of the volatile concentration of the effective ingredients of the moxibustion patch and the friction time of the test strip 51 on the surface of the moxibustion patch are obtained, thereby determining the heating effect of the moxibustion patch under different conditions.

[0049] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A device for testing the heating effect of Qi Ai moxibustion patches, characterized in that: The device includes a testing box (1), which has a support platform (11) for placing moxibustion patches. The support platform (11) is a flexible support platform (11) with an adjustable bending angle. The testing box (1) has an adjustment component (2) for adjusting the rotation angle of the support platform (11). The bottom side of the support platform (11) has a testing component (3) for detecting the temperature of the bonding surface of the moxibustion patch. The testing box (1) has an air inlet (12) and an air outlet (13). The testing box (1) also has a ventilation component (6) for ventilating the inside of the testing box (1). The detection assembly (3) includes a detection platform (31) located inside the detection box (1) on one side of the support platform (11), an infrared detector (32) disposed on the detection platform (31) facing the support platform (11), and an adjustment component (33) for adjusting the angle of the detection platform (31). The moxibustion patch is pasted on the side of the support platform (11) away from the detection platform (31). The detection platform (31) includes multiple detection plates (34) that are rotatably connected in sequence. A rotating cylinder (35) is provided between the detection plates (34) and the detection plates (34). The adjusting component (33) includes an adjusting rope (36) that runs through the rotating cylinder (35). There are two sets of adjusting ropes (36), and the two sets of adjusting ropes (36) are located on opposite sides of the detection plates (34). An adjusting wheel (37) is provided inside the detection box (1). The two sets of adjusting ropes (36) are wound around the adjusting wheel (37) and connected to each other. The support platform (11) includes multiple support plates (21) that are rotatably connected in sequence. The adjustment assembly (2) includes an adjustment cylinder (22) rotatably connected between two adjacent support plates (21) and a traction rope (23) that slides through the adjustment cylinder (22). The two sets of traction ropes (23) are located on opposite sides of the support plates (21). The detection box (1) is also equipped with a traction wheel (24). The two sets of traction ropes (23) are wound around and connected to the traction wheel (24). The detection box (1) is also equipped with a synchronizing element (4) for synchronously adjusting the rotation of the traction wheel (24) and the adjusting wheel (37).

2. The device for detecting the heating effect of moxibustion patches according to claim 1, characterized in that: The synchronizing element (4) includes a synchronizing wheel (41) rotatably disposed in the testing box (1). The synchronizing wheel (41) is connected to the adjusting wheel (37) and the traction wheel (24) in a transmission. The synchronizing wheel (41) is also provided with a periodically forward / reverse power element (42). The bearing platform (11) is also provided with a friction test piece (5) on the side away from the testing platform (31).

3. The device for detecting the heating effect of moxibustion patches according to claim 2, characterized in that: The friction test piece (5) includes a friction test platform located on the side of the support platform (11) away from the test platform (31). A test strip (51) is slidably arranged on the friction test platform. The test strip (51) is made of cloth strips of various materials that are sequentially spliced ​​together. The different materials of the test strip (51) move sequentially to fit against the support platform (11). The bending angle of the friction test platform and the support platform (11) is consistent. The test box (1) is also provided with a sliding member (52) for sliding adjustment of the test strip (51).

4. The device for detecting the heating effect of moxibustion patches according to claim 3, characterized in that: The sliding member (52) includes a receiving roller (521) rotatably disposed on the detection box (1). The test belt (51) is rotatably received on the receiving roller (521), and the receiving roller (521) always rotates in the forward direction. A first synchronous roller (522) is provided at the pivot of the receiving roller (521), and a second synchronous roller (523) is provided at the pivot of the synchronous roller. The first synchronous roller (522) and the second synchronous roller (523) mesh with each other. When the second synchronous roller (523) rotates in the forward direction, the first synchronous roller (522) rotates in the forward direction. When the second synchronous roller (523) rotates in the reverse direction, the first synchronous roller (522) does not rotate. A one-way rotation structure (524) is provided at the pivot of the first synchronous roller (522).

5. The device for detecting the heating effect of moxibustion patches according to claim 4, characterized in that: The friction test bench includes a fixed frame fixedly connected to the support platform (11) and a bonding roller (54) rotatably mounted on the fixed frame and in contact with the support platform (11). The test belt (51) is located between the bonding roller (54) and the support platform (11). The fixed frame is also provided with a limiting member (53) for limiting the position of the bonding roller (54). The bonding roller (54) is provided in multiple sets, and the multiple sets of bonding rollers (54) correspond one-to-one with the multiple sets of support platforms (11).

6. The device for detecting the heating effect of moxibustion patches according to claim 5, characterized in that: The limiting member (53) includes a limiting block (531) that is elastically slidably disposed on the fixed frame. A limiting groove (532) is opened on the roller shaft of the bonding roller (54). The limiting block (531) is movably inserted into the limiting groove (532), and the end side of the limiting block (531) is inclined. The inclined side of the limiting block (531) is movably fitted and pressed against the side wall of the limiting groove (532).

7. The device for detecting the heating effect of moxibustion patches according to claim 6, characterized in that: The bearing platform (11) is provided with a positioning block (25) at one end away from the synchronous wheel (41), and the testing platform (31) is provided with a positioning groove (26) at one end away from the synchronous wheel (41). The top wall of the testing box (1) is provided with positioning grooves (26) corresponding to the two sets of positioning blocks (25). The positioning block (25) is slidably disposed in the positioning groove (26), and the positioning groove (26) is arranged in an arc shape.

8. The device for detecting the heating effect of moxibustion patches according to claim 7, characterized in that: The air inlet (12) is provided in multiple sets, and the multiple sets of air inlets (12) are arranged at intervals along the length direction of the detection box (1). The ventilation component (6) includes a sealing plate (61) slidably disposed at the air inlet (12) of the detection box (1) and an operating component for positioning the sealing plate (61). The sealing plate (61) is in the form of flexible cloth. A sealing roller (62) is rotatably disposed on the detection box (1). The sealing plate (61) is wrapped around and stored on the sealing roller (62). A wind collecting hood (63) is movably connected to one side of the air inlet (12) of the detection box (1). The other end of the wind collecting hood (63) is connected to a wind collecting pump (64).

9. The device for detecting the heating effect of moxibustion patches according to claim 8, characterized in that: The operating component includes an operating block located on the side of the sealing plate (61) away from the sealing roller (62), an operating rod (65) is rotatably mounted on the operating block, and an operating groove (66) is provided on the detection box (1), with the operating block being movably engaged in the operating groove (66).

10. A method for detecting the heating effect of a Qi Ai moxibustion patch, based on the Qi Ai moxibustion patch heating effect detection device as described in claim 9, comprising the following steps: S1, Equipment preparation: First, relevant technicians adjust the sliding sealing plate (61) to adjust the opening area of ​​the air inlet (12), then open the sealing door, peel off the release paper of the moxibustion patch to be tested and stick it on the support platform (11), and start the air pump (64) to prepare for testing; S2, initial detection, the temperature of the support platform (11) is collected in real time by the infrared detection device (32) and the data is recorded in real time. The servo motor rotates to make the support platform (11) and the detection platform (31) bend synchronously. The temperature change during the bending process is judged based on the temperature data. S3, dynamic test, the servo motor rotates periodically, and the test belt (51) slides with the moxibustion patch, so as to realize the heating effect test of the moxibustion patch under different air permeability. S4, Data Analysis: By analyzing the temperature data detected by infrared sensors and the data from the particulate matter concentration sensor at the air outlet, the heating effect of the moxibustion patch can be determined.

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