Determination device and determination method for anti-HPV gel production

Abstract

The invention discloses a determination device and a determination method for anti-HPV gel production, and relates to the technical field of gel production viscosity determination, the determination device comprises a support frame and a storage vessel filled with liquid, and further comprises a control module fixedly mounted at the top of the support frame; the placing part is mounted at the bottom of the supporting frame and used for placing the storage vessel. The method has the advantages that the changed anti-HPV gel is sucked into the rotor, and a stable anti-HPV gel runner is formed in the rotor, so that compared with the existing method of directly measuring the friction force outside the rotor, the method is not influenced by eddy current and rotating centrifugal force, the measurement response is quicker, the measurement accuracy is higher, and the measurement accuracy is higher. In addition, multiple times of measurement can be carried out by changing the flow speed under the condition that the rotating speed of the rotor is kept unchanged, it is guaranteed that the rotor is within the optimal rotating speed range, the influence of hysteresis of the rotor on measurement is effectively reduced, and the measurement accuracy is further improved.

Description

Technical Field

[0001] The present invention relates to the technical field of gel production viscosity measurement, and in particular to a measurement device and a measurement method for anti-HPV gel production. Background Art

[0002] Anti-HPV gel generally refers to topical medications or gels used to prevent or treat human papillomavirus infection. The main function of these products is to inhibit the activity of HPV virus, alleviate infection symptoms or help the body eliminate the virus. During the production process of anti-HPV gel, many different types of tests are required. One of the tests is to measure the viscosity of the anti-HPV gel to ensure that the viscosity of the anti-HPV gel is suitable for application on the outer surface of the skin.

[0003] At present, the rotational viscosity of anti-HPV gel is measured by a viscometer. The rotor is inserted into a storage dish containing anti-HPV gel measurement liquid, and then the rotor is rotated. When the rotor rotates in the liquid, the liquid will generate shear force, and this shear force is proportional to the viscosity of the fluid η=T / ω. When this type of viscometer is used in practice, the friction force generated between the rotor and the liquid will change unpredictably during the rotation of the rotor, resulting in a hysteresis change of the rotor. It is necessary to wait for the rotor to be relatively stable before calculating the viscosity of the liquid. Although the viscosity data can be obtained, the accuracy is poor. Therefore, announcement number CN105424556B discloses a viscometer, which includes a viscometer with a hollow cylinder supported in a base, the hollow cylinder can rotate around its longitudinal axis, and the fluid to be tested can flow through, especially the cylindrical measuring component is rotatably supported in the base.

[0004] According to the present invention, a hollow cylinder is provided, which is provided with an electromagnetic drive having a stator and a rotor, and the hollow cylinder can be rotated in a base by means of the electromagnetic drive, wherein the driven stator is supported on the base and the driven rotor is supported on the hollow cylinder, and an annular rotor driven by the stator to rotate around the longitudinal axis of the hollow cylinder is supported between the stator and the rotor for electromagnetic coupling of the stator and the rotor, so that the base and the hollow cylinder are mechanically decoupled relative to the electromagnetic drive, and a predetermined torque can be transmitted to the hollow cylinder by the electromagnetic drive, and at the same time, the forces acting on the hollow cylinder in the axial and radial directions are made as small as possible.

[0005] When the viscometer is used, there is friction between the rotor and the liquid. The rotation of the rotor will drive the liquid in the storage dish to rotate, and the rotation of the liquid will generate eddy currents in the storage dish. The flow of the eddy currents will generate centrifugal force, thereby causing the liquid to move to the side away from the rotor. The pressing force between the liquid and the rotor is reduced, thereby reducing the friction and causing many deviations in viscosity measurement. In order to improve accuracy, the rotation speed of the rotor needs to be controlled within a certain range. Slower rotation will prolong the hysteresis of the rotor and affect the accuracy of the measurement.

[0006] Therefore, a novel measuring device and measuring method for producing anti-HPV gel can be used to solve the shortcomings of the prior art. Summary of the invention

[0007] The purpose of the present invention is to solve the problem of deviation in measurement accuracy in the prior art, and to propose a measurement device and a measurement method for anti-HPV gel production.

[0008] In order to achieve the above object, the present invention adopts the following technical solutions:

[0009] A measuring device for anti-HPV gel production, comprising a support frame and a storage dish containing liquid, and also comprising a control module fixedly mounted on the top of the support frame;

[0010] A placement portion, installed at the bottom of the support frame, for placing a storage vessel, the placement portion comprising a placement plate fixedly installed at the bottom of the support frame, and a locking assembly matched with the storage vessel is installed on the placement plate;

[0011] The measuring part is installed at the bottom of the control module and is used to measure the viscosity of the liquid in the storage dish. The measuring part includes a motor fixedly installed at the bottom of the control module, a telescopic rod is fixedly installed at the driving end of the motor, a rotor with a water inlet hole and a water outlet hole is installed at the telescopic end at the bottom of the telescopic rod through a clamping assembly, and a flow guide assembly and a detection assembly are installed inside the rotor.

[0012] Preferably, the locking assembly includes clamping blocks that are slidably mounted on the placement plate through a slide groove and located on both sides of the storage dish, a linkage mechanism is installed between the two clamping blocks, a nut is fixedly mounted on the placement plate, a screw is threadedly rotatably mounted on the nut, and the screw passes through and extends into the slide groove and is rotatably connected to one of the clamping blocks.

[0013] Preferably, the linkage mechanism comprises a slot body provided at the bottom of the placement plate, a gear is rotatably mounted in the slot body, and a rack meshing with the gear is fixedly mounted on each of the two clamping blocks.

[0014] Preferably, the locking assembly includes a connecting plate fixedly mounted on the telescopic end of the telescopic rod, the connecting plate being provided with a slot, a connecting card plate being slidably mounted in the slot, a locking bolt which cooperates with the connecting card plate being threadedly rotatably mounted on the connecting plate, a hollow column being fixedly mounted on the bottom of the connecting card plate, and the bottom of the hollow column being fixedly connected to the rotor.

[0015] Preferably, the flow guide assembly includes a flow baffle block fixedly installed inside the rotor, and a flow baffle plate matched with the flow baffle block is fixedly installed inside the rotor, the two ends of the flow baffle plate are respectively located at the positions of the water inlet and the water outlet, and the flow baffle plate and the flow baffle block are designed in an arc shape.

[0016] Preferably, the detection component comprises a through hole opened in the middle of the baffle block, a rotating cylinder is installed in the through hole through a rotating mechanism, a plurality of permanent magnet blocks 2 are fixedly installed inside the rotating cylinder, a speed sensor matched with the control module is fixedly installed on the top of the hollow column, a pillar is rotatably installed on the speed sensor, and a plurality of permanent magnet blocks 1 matched with the permanent magnet blocks 2 are fixedly installed on the pillar;

[0017] The baffle block is provided with a receiving groove, a flushing wheel is rotatably installed in the receiving groove via a rotating shaft, a transmission wheel is rotatably installed inside the baffle block via a rotating shaft, the transmission wheel is attached to the rotating cylinder, the rotating shaft and the rotating shaft are connected by a transmission belt, a baffle plate matching the flushing wheel is fixedly installed on the baffle block, and a speed increasing mechanism matching the flushing wheel is installed on the baffle plate.

[0018] Preferably, the rotating mechanism includes a permanent magnetic disk 1 fixedly mounted on the bottom of the rotor and a top permanent magnetic ring 1 fixedly mounted on the top of the rotor, a permanent magnetic disk 2 matched with the permanent magnetic disk 1 is fixedly mounted on the bottom of the rotating cylinder, a top permanent magnetic ring 2 matched with the top permanent magnetic ring 1 is fixedly mounted on the top of the rotating cylinder, two side permanent magnetic rings 2 are fixedly mounted inside the baffle block, two side permanent magnetic rings 1 matched with the corresponding side permanent magnetic rings 2 are fixedly mounted on the side of the rotating cylinder, a limiting ring matched with the rotating cylinder is fixedly mounted on the baffle block, and the limiting ring is rotatably connected to the rotating cylinder.

[0019] Preferably, the speed increasing mechanism comprises a bow-shaped rectifier plate fixedly mounted on the baffle plate, the rectifier plate is located between the baffle block and the baffle plate, and the rectifier plate is made of a metal material with a certain toughness, and a rectifier structure matching the rectifier plate is installed on the baffle plate.

[0020] Preferably, the rectification structure comprises a screw rod rotatably mounted on the baffle plate, a motor is fixedly mounted on the baffle block, a driving end of the motor is fixedly connected to the screw rod, the screw rod passes through the baffle plate, a threaded sleeve is threadedly rotatably mounted on the screw rod, a disc is fixedly mounted on the threaded sleeve, a gasket is fixedly mounted on the rectification plate, the disc and the gasket are fixedly connected by a plurality of fixing columns, and a flow rate sensor matched with the motor is fixedly mounted on the side of the rectification plate away from the gasket;

[0021] A battery is fixedly mounted on the outside of the hollow column, a wire is fixedly connected to the motor, the wire extends out of the rotor, and the wire is rotatably connected to the battery via a positive electrode ring and a negative electrode ring.

[0022] The present invention also provides a method for measuring the production of anti-HPV gel, comprising the above-mentioned measuring device for the production of anti-HPV gel, and further comprising the following steps:

[0023] S1. First, place the anti-HPV gel with a good ratio in a storage dish, with the liquid level not exceeding two-thirds of the storage dish, place the storage dish on a placement plate, and fix the storage dish by a locking assembly on the placement plate, and then adjust the support frame to keep the anti-HPV gel page in the storage dish placed on the placement plate horizontal and still;

[0024] S2. After the adjustment is completed, manually adjust the height of the telescopic rod so that the rotor extends into the storage dish, and then immerse the water inlet and outlet holes of the rotor into the anti-HPV gel, and keep the upper surface of the rotor above the liquid level of the anti-HPV gel, and then lock the telescopic rod;

[0025] S3. After the locking is completed, the motor is turned on through the control module, the speed of the motor driving end is adjusted according to the needs, and the standard value of the anti-HPV gel is set. The motor driving end drives the telescopic rod to rotate, thereby driving the rotor to rotate through the locking assembly. When the rotor rotates, the anti-HPV gel in the storage dish is sucked in from the water inlet and discharged from the water outlet;

[0026] S4. After the anti-HPV gel enters the rotor, the guide component will guide the anti-HPV gel to make it flow regularly. During the flow, it will pass through the detection component to detect the viscosity of the anti-HPV gel. During the detection process, the flow rate of the anti-HPV gel can also be adjusted for multiple measurements. At the same time, the appropriate flow rate measurement can be selected according to liquids of different viscosities.

[0027] Compared with the prior art, the present invention has the following advantages:

[0028] 1. When the viscosity of the anti-HPV gel is measured by the measuring device, the anti-HPV gel in the storage dish can be sucked into the rotor to form an anti-HPV gel flow channel by setting the rotor, baffle block, baffle plate and rectifying plate, and the anti-HPV gel can be ensured to flow regularly and stably in the rotor. The anti-HPV gel flow channel in the rotor is not affected by the eddy current generated by the rotation of the external anti-HPV gel, so the accuracy of the measurement can be effectively improved.

[0029] 2. When measuring the viscosity of the anti-HPV gel, the measuring device sets a flushing wheel, a transmission wheel, a rotating cylinder, permanent magnet block 1 and permanent magnet block 2, and uses the flow of the anti-HPV gel to drive the flushing wheel to rotate, and then drives the rotating cylinder to rotate through the transmission wheel. The rotating cylinder will drive the pillar to rotate through permanent magnet block 1 and permanent magnet block 2, and the speed sensor is used to sense the speed of the pillar. The greater the viscosity, the greater the friction between the flushing wheel and the anti-HPV gel, the faster the rotation response of the pillar, the lower the energy loss, and the greater the speed of the pillar. Therefore, the viscosity of the anti-HPV gel can be measured by measuring the speed of the pillar through the speed sensor, without considering the hysteresis of the rotor rotation, reducing the error and improving the accuracy of the measurement.

[0030] 3. When measuring the viscosity of anti-HPV gel, the measuring device can use a motor to drive the screw to rotate by setting a motor, a screw, a threaded sleeve, a disc, and a fixed column, thereby driving the threaded sleeve to move, changing the flow channel width between the rectifier plate and the flushing wheel, thereby changing the flow rate of the liquid within a specific rotation speed range of the rotor. It can be used to measure the average value of different flow rates of the same liquid, which can effectively improve the accuracy of the measurement. It can also be used for viscosity measurement comparison of different liquids at the same flow rate, and has a wide range of applications.

[0031] In summary, the present invention forms a stable anti-HPV gel flow channel inside the rotor by changing the anti-HPV gel to be sucked into the inside of the rotor. Compared with the existing direct measurement through friction force on the outside of the rotor, the measurement response is faster and has higher measurement accuracy without being affected by eddy currents and rotating centrifugal forces. In addition, the flow rate can be changed while keeping the rotor speed unchanged to perform multiple measurements, ensuring that the rotor is within the optimal speed range, effectively reducing the influence of the rotor's hysteresis on the measurement, and further improving the measurement accuracy. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] The specific embodiments of the present invention are further described in detail below in conjunction with the accompanying drawings, wherein:

[0033] Figure 1 This is a schematic diagram of the structure of a measuring device for producing anti-HPV gel proposed by the present invention;

[0034] Figure 2 for Figure 1 A detailed schematic diagram of the enlarged structure of the disk placement part;

[0035] Figure 3 for Figure 2 Detailed schematic diagram of the structure after being rotated to a certain angle;

[0036] Figure 4 for Figure 3 A schematic detailed view of the plan structure along one of the angles;

[0037] Figure 5 for Figure 1 A detailed diagram of the enlarged structure of part A;

[0038] Figure 6 for Figure 5 A detailed diagram of the structure after the telescopic rod is removed and rotated to a certain angle;

[0039] Figure 7 for Figure 6 A detailed schematic diagram of the structure after the connection plate and the connection card are removed and rotated to a certain angle;

[0040] Figure 8 for Figure 7 A schematic detailed diagram of the planar structure of the middle rotor along one of the angles;

[0041] Fig. 9 for Figure 8 Detailed schematic diagram of the three-dimensional structure along the BB section;

[0042] Fig.10 for Fig. 9 A schematic detailed view of the plan structure along one of the angles;

[0043] Fig.11 for Fig.10 Detailed schematic diagram of the three-dimensional structure of the middle rectifier plate and the motor;

[0044] Fig.12 for Fig.11 The enlarged structural schematic detail diagram of the middle C part;

[0045] Fig.13 for Fig.11 Detailed schematic diagram of the structure after being rotated to a certain angle;

[0046] Fig.14 for Fig. 9 Detailed schematic diagram of the structure after removing the rotor and rotating it to a certain angle;

[0047] Fig.15 for Fig.14 Detailed schematic diagram of the structure after removing the baffle, motor and rectifier and rotating them to a certain angle;

[0048] Fig.16 for Fig.15 The enlarged structural schematic detail diagram of the D part;

[0049] Fig.17 for Fig.15 Detailed schematic diagram of the structure after being rotated to a certain angle;

[0050] Fig.18 for Fig.17 A schematic detailed view of the plan structure along one of the angles;

[0051] Fig.19 for Fig.18 A schematic detailed diagram of the three-dimensional structure of the middle baffle block along the EE section;

[0052] Fig. 20 for Fig.19 A schematic diagram of the structure after removing the baffle block, baffle plate, flushing wheel, transmission wheel and transmission belt;

[0053] Fig.21 for Fig. 20 Detailed diagram of the exploded structure after rotation at a certain angle.

[0054] In the figure: 1 support frame, 2 placement plate, 3 control module, 4 motor, 5 storage dish, 6 clamping block, 7 screw rod, 8 nut, 9 rack, 10 gear, 11 telescopic rod, 12 connecting plate, 13 connecting card plate, 14 hollow column, 15 rotor, 16 wire, 17 battery, 18 positive electrode ring, 19 negative electrode ring, 20 baffle block, 21 baffle plate, 22 rectifier plate, 23 permanent magnetic disk one, 24 motor, 25 screw rod, 26 threaded sleeve, 27 disc, 28 fixed column, 29 rectifier block, 30 flow rate sensor, 31 speed sensor, 32 pillar, 33 permanent magnetic block one, 34 baffle plate, 35 flushing wheel, 36 top permanent magnetic ring one, 37 rotating cylinder, 38 transmission wheel, 39 transmission belt, 40 top permanent magnetic ring two, 41 side permanent magnetic ring one, 42 side permanent magnetic ring two, 43 permanent magnetic block two, 44 ​​limit ring, 45 permanent magnetic disk two. DETAILED DESCRIPTION

[0055] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0056] Example 1: Reference Figure 1-Figure 4 , a measuring device for anti-HPV gel production, comprising a support frame 1 and a storage dish 5 filled with liquid, and also comprising a control module 3 fixedly mounted on the top of the support frame 1;

[0057] A placement portion, installed at the bottom of the support frame 1, for placing a storage dish 5, the placement portion comprising a placement plate 2 fixedly installed at the bottom of the support frame 1, and a locking assembly matched with the storage dish 5 is installed on the placement plate 2;

[0058] A plurality of adjustment knobs are installed at the bottom of the support frame 1, and a suction cup is fixedly installed at the bottom of each adjustment knob. The suction cup is used to fix the entire device to improve stability. The adjustment knob is an existing horizontal adjustment structure. The specific structure and operation method are not innovative parts here, so they are not elaborated in detail. The horizontality of the placement plate 2 is adjusted by adjusting the knob to ensure that the anti-HPV gel liquid level in the storage dish 5 is level, thereby reducing the probability of deviation in the measurement due to uneven liquid surface.

[0059] The locking assembly includes clamping blocks 6 slidably mounted on the placement plate 2 and located on both sides of the storage dish 5 through a slide groove. The clamping blocks 6 are made of rubber or wood and have a certain protective effect. A linkage mechanism is installed between the two clamping blocks 6. A nut 8 is fixedly mounted on the placement plate 2. A screw rod 7 is threadedly mounted on the nut 8. The screw rod 7 penetrates and extends into the slide groove and is rotatably connected to one of the clamping blocks 6.

[0060] The linkage mechanism comprises a groove body provided at the bottom of the placing plate 2 , in which a gear 10 is rotatably mounted, and a rack 9 meshing with the gear 10 is fixedly mounted on each of the two clamping blocks 6 .

[0061] Rotating the screw rod 7 will cause the screw rod 7 to move under the action of the nut 8. The movement of the screw rod 7 drives the clamping block 6 rotatably connected thereto to move. The movement of the clamping block 6 drives the rack 9 fixedly connected thereto to move, thereby driving the gear 10 to rotate. The rotation of the gear 10 drives another rack 9 to move in the opposite direction of the rack 9. The other rack 9 drives another clamping block 6 to move in the opposite direction of the clamping block 6, so that the two clamping blocks 6 move toward the side close to the storage dish 5 at the same time until the two clamping blocks 6 clamp and fix the storage dish 5, thereby completing the locking operation of the storage dish 5.

[0062] The purpose of requiring the two clamps 6 to move synchronously is to ensure that the storage dish 5 is placed at the center of the placement plate 2, so as to ensure that the eddy current generated during rotation rotates around the central axis of the storage dish 5, and the rotation force of the eddy current in all directions is the same. In this way, the vibration generated by the eddy current will be greatly reduced, which can effectively reduce the impact of the vibration on the measurement, thereby improving the accuracy of the measurement.

[0063] Embodiment 2: This embodiment is different from the embodiment 1 in that: Figure 1-Figure 2 , Figure 5-Figure 7 , a measuring part is installed at the bottom of the control module 3 and is used to measure the viscosity of the liquid in the storage dish 5. The measuring part includes a motor 4 fixedly installed at the bottom of the control module 3. A telescopic rod 11 is fixedly installed at the driving end of the motor 4. The telescopic rod 11 can be freely extended and locked. It is an existing structure and will not be elaborated on here. A rotor 15 with a water inlet hole and a water outlet hole and a hollow interior is installed at the telescopic end at the bottom of the telescopic rod 11 through a clamping assembly.

[0064] The direction of the water inlet is the same as the direction of the vortex generated when the rotor 15 rotates, and the direction of the water outlet is opposite to the direction of the vortex. In this way, the water discharged from the water outlet will counteract the vortex in the storage dish 5, which has a certain mitigating effect on the vortex, can effectively slow down the flow rate of the vortex, and reduce the impact of the vortex on the measurement. At the same time, a new flow channel is formed by rotating water absorption through the water inlet, so that the anti-HPV gel around the storage dish 5 can be sucked into the rotor 15 for measurement, which plays a certain mixing role and avoids the deviation of the measurement result due to uneven mixing or natural precipitation.

[0065] The clamping assembly includes a connecting disk 12 fixedly installed at the telescopic end of the telescopic rod 11, a card slot is opened on the connecting disk 12, a connecting card plate 13 is slidably installed in the card slot, a locking bolt that matches the connecting card plate 13 is threadedly installed on the connecting disk 12, a hollow column 14 is fixedly installed at the bottom of the connecting card plate 13, and the bottom of the hollow column 14 is fixedly connected to the rotor 15.

[0066] When installing the rotor 15, insert the connecting card plate 13 into the card slot on the connecting disk 12, then adjust the position of the connecting card plate 13, and use the locking bolt to fix the connecting card plate 13 so that the central axis of the hollow column 14 and the central axis of the connecting disk 12 are located on the same vertical line. This can ensure the central rotation of the eddy current storage dish 5. If an eccentric rotation measurement is performed (suitable for larger containers), the effect of the eccentric rotation measurement is better than the concentric rotation measurement effect. Because the container is large, the influence of the eddy current generated by the rotation of the rotor 15 on the measurement can be ignored. Neither the concentric eddy current nor the eccentric eddy current will have any effect. The range of the concentric rotation measurement is small, while the range of the eccentric rotation measurement is large, and the measurement result is more convincing.

[0067] Embodiment 3: This embodiment is different from the technical solution of Embodiment 2 in that: Figure 1-Figure 2 , Figure 6-Figure 21 A flow guide component and a detection component are installed inside the rotor 15. The flow guide component is used to guide the liquid entering the rotor 15 so that the liquid flows regularly along the inside of the rotor 15; the flow guide component includes a flow baffle block 20 fixedly installed inside the rotor 15, and a flow baffle plate 21 matched with the flow baffle block 20 is fixedly installed inside the rotor 15, and the two ends of the flow baffle plate 21 are respectively located at the positions of the water inlet hole and the water outlet hole, and the flow baffle plate 21 and the flow baffle block 20 are designed in an arc shape.

[0068] The purpose of adopting the arc-shaped design here is to conform to the water inlet and outlet holes, ensuring that the anti-HPV gel inside the rotor 15 flows smoothly without generating impact vibration, which can effectively improve the stability and accuracy of the measurement.

[0069] The detection assembly is used to detect the viscosity of the liquid flowing inside the rotor 15; the detection assembly includes a through hole opened in the middle of the baffle block 20, and a rotating cylinder 37 is installed in the through hole through a rotating mechanism;

[0070] The rotating mechanism includes a permanent magnetic disk 23 fixedly mounted on the bottom of the rotor 15 and a top permanent magnetic ring 36 fixedly mounted on the top of the rotor 15; a permanent magnetic disk 2 45 matched with the permanent magnetic disk 23 is fixedly mounted on the bottom of the rotating cylinder 37; a top permanent magnetic ring 2 40 matched with the top permanent magnetic ring 36 is fixedly mounted on the top of the rotating cylinder 37; two side permanent magnetic rings 42 are fixedly mounted inside the baffle block 20; two side permanent magnetic rings 41 matched with the corresponding side permanent magnetic rings 2 42 are fixedly mounted on the side of the rotating cylinder 37; a limiting ring 44 matched with the rotating cylinder 37 is fixedly mounted on the baffle block 20, and the limiting ring 44 is rotatably connected to the rotating cylinder 37.

[0071] The permanent magnetic disk 1 23, the permanent magnetic disk 2 45, the side permanent magnetic ring 2 42 and the side permanent magnetic ring 1 41 are used to make the rotating cylinder 37 in a magnetic suspension state in the storage groove, so that the rotation friction of the rotating cylinder 37 can be ignored, thereby improving the response speed of the rotating cylinder 37 and thus improving the accuracy of the measurement;

[0072] However, the magnetic suspension has poor stability and the rotating cylinder 37 will shake when it rotates. At this time, the rotating cylinder 37 needs to be limited by a limit ring 44 to prevent the rotating cylinder 37 from shaking. Three balls are rollingly installed on the side of the limit ring 44 close to the rotating cylinder 37. The side of the rotating cylinder 37 is provided with a rolling groove that matches the balls. Only three balls are needed because the rolling of the balls will also generate friction. Three balls are the minimum stable combination with minimal friction and guaranteed stability.

[0073] A plurality of permanent magnet blocks 2 43 are fixedly installed inside the rotating cylinder 37, a speed sensor 31 matching with the control module 3 is fixedly installed on the top of the hollow column 14, a support column 32 is rotatably installed on the speed sensor 31, and a plurality of permanent magnet blocks 1 33 matching with the permanent magnet blocks 2 43 are fixedly installed on the support column 32;

[0074] The rotation of the rotating cylinder 37 will drive the permanent magnet block 2 43 to rotate, thereby driving the permanent magnet block 1 33 to rotate. The rotation of the permanent magnet block 1 33 drives the support 32 to rotate, and then the speed sensor 31 senses the speed. The higher the speed, the lower the energy loss and the greater the viscosity.

[0075] A receiving groove is provided on the baffle block 20, and a flushing wheel 35 is installed in the receiving groove by rotating a shaft. A transmission wheel 38 is installed inside the baffle block 20 by rotating a shaft. The transmission wheel 38 is attached to the rotating cylinder 37, and the rotating shaft is connected to the rotating shaft by a transmission belt 39. A baffle plate 34 that cooperates with the flushing wheel 35 is fixedly installed on the baffle block 20, and a speed increasing mechanism that cooperates with the flushing wheel 35 is installed on the baffle plate 21.

[0076] The anti-HPV gel that enters the rotor 15 from the water inlet will be discharged from the water outlet through the baffle block 20 and the baffle plate 21. When passing through the flushing wheel 35, the anti-HPV gel will flush the flushing wheel 35 to cause the flushing wheel 35 to rotate. The rotation of the flushing wheel 35 drives the transmission wheel 38 to rotate through the transmission belt 39, thereby driving the rotating cylinder 37 to rotate. The flushing wheel 35 is arranged on the outside of the baffle block 20, and the receiving groove for the rotation of the flushing wheel 35 is not connected to the through hole, which can effectively prevent the anti-HPV gel from entering the through hole.

[0077] The speed increasing mechanism comprises a bow-shaped rectifier plate 22 fixedly mounted on the baffle plate 21 . The rectifier plate 22 is located between the baffle block 20 and the baffle plate 21 . The rectifier plate 22 is made of a metal material with a certain toughness. A rectifier structure matching the rectifier plate 22 is mounted on the baffle plate 21 .

[0078] In order to improve the response speed of the flushing wheel 35, the flow path of the anti-HPV gel in the rotor 15 is narrowed by the rectifier plate 22, thereby increasing the flow rate of the anti-HPV gel. As the flow rate increases, the pressure increases. The friction force is related to the pressure. As the friction force increases, the response speed of the flushing wheel 35 is improved, thereby improving the accuracy of the measurement.

[0079] The rectifying structure includes a screw rod 25 rotatably mounted on the baffle plate 21, a motor 24 is fixedly mounted on the baffle block 20, a driving end of the motor 24 is fixedly connected to the screw rod 25, the screw rod 25 passes through the baffle plate 21, a threaded sleeve 26 is threadedly rotatably mounted on the screw rod 25, a disc 27 is fixedly mounted on the threaded sleeve 26, a gasket is fixedly mounted on the rectifying plate 22, the disc 27 and the gasket are fixedly connected by a plurality of fixing columns 28, and a flow rate sensor 30 matched with the motor 24 is fixedly mounted on the side of the rectifying plate 22 away from the gasket;

[0080] Since the rectifier plate 22 is made of a metal material with a certain toughness, the flow channel of the anti-HPV gel inside the rotor 15 is arc-shaped, and the anti-HPV gel will impact the rectifier plate 22 to cause the rectifier plate 22 to vibrate. Therefore, the rectifier plate 22 can be fixed by the screw rod 25, the motor 24, the threaded sleeve 26, the disc 27 and the fixing column 28 to reduce the vibration amplitude of the rectifier plate 22, thereby reducing the influence of vibration on the measurement; in addition, the screw rod 25 can be driven to rotate by the motor 24, thereby driving the threaded sleeve 26 and the disc 27 to move, so as to change the distance between the rectifier plate 22 and the flushing wheel 35, thereby changing the flow velocity in the flow channel, so as to perform measurements of a variety of different flow velocities, and then take the average value. The measurement process can ensure that the rotor 15 is within the optimal speed range, effectively reduce the influence of the hysteresis of the rotor 15 on the measurement, and further improve the accuracy of the measurement.

[0081] A battery 17 is fixedly installed on the outside of the hollow column 14, and a wire 16 is fixedly connected to the motor 24. The wire 16 extends out of the rotor 15. The wire 16 and the battery 17 are rotatably connected through the positive electrode ring 18 and the negative electrode ring 19. The hollow column 14 and the connecting card plate 13 are spirally connected. When installing the hollow column 14, in order to prevent the wire 16 from being entangled, a rotating connection is used for conductivity, which does not affect the installation and disassembly of the hollow column 14. It is an existing rotating conductive structure and is not elaborated here.

[0082] The specific operation steps of this device are as follows:

[0083] First, place the anti-HPV gel with a good ratio in the storage dish 5, with the liquid level not exceeding two-thirds of the storage dish 5, place the storage dish 5 on the placement tray 2, and fix the storage dish 5 by the locking assembly on the placement tray 2, and then adjust the support frame 1 to keep the anti-HPV gel page in the storage dish 5 placed on the placement tray 2 horizontal and still;

[0084] After the adjustment is completed, the height of the telescopic rod 11 is manually adjusted so that the rotor 15 extends into the storage dish 5, and then the water inlet and outlet holes of the rotor 15 are immersed in the anti-HPV gel, and the upper surface of the rotor 15 is kept above the liquid level of the anti-HPV gel, and then the telescopic rod 11 is locked;

[0085] After the locking is completed, the motor 4 is turned on through the control module 3, and the speed of the driving end of the motor 4 is adjusted as needed. The driving end of the motor 4 drives the telescopic rod 11 to rotate, thereby driving the rotor 15 to rotate through the locking assembly. When the rotor 15 rotates, the anti-HPV gel in the storage dish 5 is sucked in from the water inlet and discharged from the water outlet.

[0086] After the anti-HPV gel enters the rotor 15, the guide component will guide the anti-HPV gel to make the anti-HPV gel flow regularly. During the flow, it will pass through the detection component to detect the viscosity of the anti-HPV gel. During the detection process, the flow rate of the anti-HPV gel can be adjusted by the rectification structure for multiple measurements. At the same time, the appropriate flow rate measurement can be selected according to liquids of different viscosities.

[0087] The above description is only a preferred specific implementation manner of the present invention, but the protection scope of the present invention is not limited thereto. Any technician familiar with the technical field can make equivalent replacements or changes according to the technical scheme and inventive concept of the present invention within the technical scope disclosed by the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A measuring device for producing anti-HPV gel, comprising a support frame (1) and a storage vessel (5) containing a liquid, characterized in that: It also includes a control module (3) fixedly mounted on the top of the support frame (1); A placement portion, mounted at the bottom of the support frame (1), and used for placing a storage vessel (5), the placement portion comprising a placement plate (2) fixedly mounted at the bottom of the support frame (1), and a locking assembly matched with the storage vessel (5) being mounted on the placement plate (2); A measuring unit is mounted at the bottom of the control module (3) and is used to measure the viscosity of the liquid in the storage dish (5). The measuring unit comprises a motor (4) fixedly mounted at the bottom of the control module (3). A telescopic rod (11) is fixedly mounted at the driving end of the motor (4). A rotor (15) having a water inlet and a water outlet is mounted at the telescopic end of the telescopic rod (11) via a snap-fit ​​assembly. A flow guide assembly and a detection assembly are mounted inside the rotor (15).

2. The assay device for anti-HPV gel production according to claim 1, characterized in that: The locking assembly comprises clamping blocks (6) which are slidably mounted on the placement plate (2) through a slide groove and are located on both sides of the storage dish (5); a linkage mechanism is installed between the two clamping blocks (6); a nut (8) is fixedly mounted on the placement plate (2); a screw rod (7) is threadedly mounted on the nut (8); the screw rod (7) penetrates and extends into the slide groove to be rotatably connected to one of the clamping blocks (6).

3. The assay device for anti-HPV gel production according to claim 2, characterized in that: The linkage mechanism comprises a groove body opened at the bottom of the placement plate (2), a gear (10) is rotatably mounted in the groove body, and a rack (9) meshing with the gear (10) is fixedly mounted on each of the two clamping blocks (6).

4. The assay device for anti-HPV gel production according to claim 1, characterized in that: The clamping assembly comprises a connecting plate (12) fixedly mounted on the telescopic end of the telescopic rod (11), the connecting plate (12) being provided with a clamping slot, a connecting clamping plate (13) being slidably mounted in the clamping slot, a locking bolt which matches the connecting clamping plate (13) being threadedly mounted on the connecting plate (12), a hollow column (14) being fixedly mounted on the bottom of the connecting clamping plate (13), and the bottom of the hollow column (14) being fixedly connected to a rotor (15).

5. The assay device for anti-HPV gel production according to claim 4, characterized in that: The flow guide assembly comprises a flow baffle block (20) fixedly mounted inside the rotor (15), and a flow baffle plate (21) matched with the flow baffle block (20) is fixedly mounted inside the rotor (15), the two ends of the flow baffle plate (21) are respectively located at the positions of the water inlet hole and the water outlet hole, and the flow baffle plate (21) and the flow baffle block (20) are designed to be arc-shaped.

6. The assay device for anti-HPV gel production according to claim 5, characterized in that: The detection assembly comprises a through hole opened in the middle of the baffle block (20), a rotating cylinder (37) is installed in the through hole through a rotating mechanism, a plurality of permanent magnet blocks (43) are fixedly installed inside the rotating cylinder (37), a speed sensor (31) matched with the control module (3) is fixedly installed on the top of the hollow column (14), a support (32) is rotatably installed on the speed sensor (31), and a plurality of permanent magnet blocks (33) matched with the permanent magnet blocks (43) are fixedly installed on the support (32); The baffle block (20) is provided with a receiving groove, a flushing wheel (35) is rotatably mounted in the receiving groove via a rotating shaft, a transmission wheel (38) is rotatably mounted in the baffle block (20) via a rotating shaft, the transmission wheel (38) is in contact with a rotating cylinder (37), the rotating shaft and the rotating shaft are connected via a transmission belt (39), a baffle plate (34) matched with the flushing wheel (35) is fixedly mounted on the baffle block (20), and a speed increasing mechanism matched with the flushing wheel (35) is mounted on the baffle plate (21).

7. A measuring device for anti-HPV gel production according to claim 6, characterized in that: The rotating mechanism comprises a permanent magnetic disk 1 (23) fixedly mounted on the bottom of the rotor (15) and a top permanent magnetic ring 1 (36) fixedly mounted on the top of the rotor (15); a permanent magnetic disk 2 (45) matched with the permanent magnetic disk 1 (23) is fixedly mounted on the bottom of the rotating cylinder (37); a top permanent magnetic ring 2 (40) matched with the top permanent magnetic ring 1 (36) is fixedly mounted on the top of the rotating cylinder (37); two side permanent magnetic rings 2 (42) are fixedly mounted on the inside of the baffle block (20); two side permanent magnetic rings 1 (41) matched with the corresponding side permanent magnetic rings 2 (42) are fixedly mounted on the side of the rotating cylinder (37); a limiting ring (44) matched with the rotating cylinder (37) is fixedly mounted on the baffle block (20); the limiting ring (44) is rotatably connected to the rotating cylinder (37).

8. The assay device for anti-HPV gel production according to claim 6, characterized in that: The speed increasing mechanism comprises a bow-shaped rectifying plate (22) fixedly mounted on the baffle plate (21); the rectifying plate (22) is located between the baffle block (20) and the baffle plate (21); the rectifying plate (22) is made of a metal material having a certain toughness; and a rectifying structure matched with the rectifying plate (22) is mounted on the baffle plate (21).

9. The assay device for anti-HPV gel production according to claim 8, characterized in that: The rectifying structure comprises a screw rod (25) rotatably mounted on the baffle plate (21); a motor (24) is fixedly mounted on the baffle block (20); a driving end of the motor (24) is fixedly connected to the screw rod (25); the screw rod (25) passes through the baffle plate (21); a threaded sleeve (26) is threadedly rotatably mounted on the screw rod (25); a disk (27) is fixedly mounted on the threaded sleeve (26); a gasket is fixedly mounted on the rectifying plate (22); the disk (27) and the gasket are fixedly connected via a plurality of fixing columns (28); a flow rate sensor (30) matched with the motor (24) is fixedly mounted on the side of the rectifying plate (22) away from the gasket; A battery (17) is fixedly mounted on the outside of the hollow column (14), a wire (16) is fixedly connected to the motor (24), the wire (16) extends out of the rotor (15), and the wire (16) is rotatably connected to the battery (17) via a positive electrode ring (18) and a negative electrode ring (19).

10. A method for measuring the production of anti-HPV gel, used in the measuring device for the production of anti-HPV gel as claimed in any one of claims 1 to 9, characterized in that: The following steps are involved: S1. First, place the anti-HPV gel with a good proportion in a storage dish (5), with the liquid level not exceeding two-thirds of the storage dish (5), place the storage dish (5) on the placement plate (2), and fix the storage dish (5) by means of a locking assembly on the placement plate (2), and then adjust the support frame (1) so that the anti-HPV gel page in the storage dish (5) placed on the placement plate (2) remains horizontal and still; S2. After the adjustment is completed, the height of the telescopic rod (11) is manually adjusted so that the rotor (15) extends into the storage dish (5), and then the water inlet and outlet holes of the rotor (15) are immersed in the anti-HPV gel, and the upper surface of the rotor (15) is kept above the liquid level of the anti-HPV gel, and then the telescopic rod (11) is locked; S3, after the locking is completed, the motor (4) is turned on through the control module (3), and the rotation speed of the driving end of the motor (4) is adjusted as needed, the driving end of the motor (4) drives the telescopic rod (11) to rotate, thereby driving the rotor (15) to rotate through the locking assembly, and when the rotor (15) rotates, the anti-HPV gel in the storage dish (5) is sucked in through the water inlet hole and discharged from the water outlet hole; S4. After the anti-HPV gel enters the rotor (15), the flow guide component will guide the anti-HPV gel to make the anti-HPV gel flow regularly. During the flow, the anti-HPV gel will pass through the detection component, and the viscosity of the anti-HPV gel will be detected by the detection component. During the detection process, the flow rate of the anti-HPV gel can also be adjusted for multiple measurements. At the same time, the appropriate flow rate measurement can be selected according to liquids of different viscosities.

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