Liquid fluidity detection equipment and drag reducer performance detection method
By designing a liquid flow detection device including air pressure adjustment components in the chamber and pipe, the problem that the prior art cannot detect the performance of the drag reducing agent under different air pressure environments is solved, and accurate detection under different air pressure conditions is achieved.
Patent Information
- Application Number
- CN202510315275.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-18
- Publication Date
- 2025-06-17
AI Technical Summary
The existing drag reducing agent performance detection methods cannot be applicable to liquids under different air pressure environments, resulting in the detection results being unsuitable to liquids under various environments.
A liquid fluidity detection device is designed, including a chamber gas pressure regulating assembly in a transparent chamber and a gas pressure regulating assembly in a pipe. By adjusting the air pressure, the performance of the drag reducing agent can be detected under different air pressure environments.
This equipment can accurately detect the performance of drag reducing agent under different air pressure environments, solving the problem of inapplicable detection results caused by different pressures in mines in different regions.
Smart Images
Figure CN120160943A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of fluidity detection, and specifically to a device for detecting the fluidity of a liquid and a method for detecting the performance of a drag reducer. Background Art
[0002] A drag reducer is a polymer compound that has the effect of reducing resistance. When it is added to a fluid during fluid transportation, effects such as increasing the flow rate and reducing energy consumption can be achieved. It is a substance that can be used to improve the rheological properties of cement slurry and is widely used in the process of oil and gas well cementing operations. When detecting the performance of a drag reducer, the conventional operation is to place two test tubes, one containing normal liquid and the other containing liquid with a drag reducer, and detect by observing the flow rate of the liquid flowing out of the two test tubes. However, the site where the drag reducer is applied may be in a mine, and the pressure in mines in different regions is different, and the effects produced by the drag reducer are different. Therefore, for the conventional detection method of drag reducer performance, the detection results cannot be applied to the use of liquids in various environments. Summary of the Invention
[0003] To solve the above technical problems, the present invention provides the following technical solutions: A device for detecting the fluidity of a liquid, including a detection platform, on which a placement table and a transparent chamber are provided. A plurality of liquid-receiving beakers are installed on the placement table, and a plurality of liquid storage test tubes are placed in the transparent chamber. An adjustment device for environmental adjustment is provided on the transparent chamber, and a fixing device for fixing the liquid-receiving beakers is provided on the placement table; The adjustment device includes a chamber air pressure adjustment component, a tube air pressure adjustment component, and a conversion part for the operation of both. When the conversion part rotates forward, it drives the chamber air pressure adjustment component to operate. When the conversion part rotates in the reverse direction, it drives the tube air pressure adjustment component to operate; The fixing device includes multiple groups of clamping parts and a lifting part for controlling the operation of the clamping parts. When the lifting part drives the placement table to move upward, it drives the clamping parts to fix the liquid-receiving beakers.
[0004] Preferably, a vertical plate is fixedly connected to the detection platform, and the transparent chamber is fixedly installed on one side of the vertical plate. A liquid supply chamber and a reagent chamber are respectively fixedly connected to the transparent chamber. Both the liquid supply chamber and the reagent chamber are communicated with the liquid storage test tubes. A test tube rack is fixedly connected inside the transparent chamber, and the liquid storage test tubes are installed on the test tube rack. The bottom of the liquid storage test tube extends to the bottom of the transparent chamber and is sleeved with the transparent chamber through a sealed bearing.
[0005] Preferably, the air pressure regulating component of the bin body includes a sealing plate which is arranged on one side of the transparent bin and fits against the inner wall of the transparent bin. One side of the sealing plate is rotatably connected to a first reciprocating lead screw through a bearing. One side of the transparent bin is rotatably connected to a threaded sleeve through a sealed bearing. The threaded sleeve extends to the other side of the vertical plate, and the first reciprocating lead screw is threadedly assembled in the threaded sleeve.
[0006] Preferably, the air pressure regulating component in the tube includes a plurality of pistons. A moving plate is arranged at the top of the inner cavity of the transparent bin. The top of the moving plate is rotatably connected to a second reciprocating lead screw through a bearing. The plurality of pistons are fixedly installed at the bottom of the moving plate. The pistons are fitted with the liquid storage test tubes. The top of the transparent bin is rotatably connected to a threaded collar through a sealed bearing. The second reciprocating lead screw is threadedly assembled in the threaded collar.
[0007] Preferably, the conversion component includes a transmission belt. A worm is rotatably connected to the transparent bin through a bearing. The outer circumference of the threaded collar is fixedly connected to a worm gear. The worm gear is meshed with the worm. One end of the worm extends to one side of the vertical plate. Two belt pulleys are arranged on one side of the vertical plate. One of the belt pulleys is rotatably connected to the vertical plate through a one-way bearing and is fixedly connected to one end of the worm. The other belt pulley is installed on the outer circumference of the threaded sleeve through a one-way bearing. The transmission belt is sleeved on the two belt pulleys. A base is fixedly installed on one side of the vertical plate. A first motor is fixedly connected to the base. The output end of the first motor is fixedly connected to one of the belt pulleys.
[0008] Preferably, a beaker rack is placed on the placement table. A plurality of liquid-receiving beakers are placed on the beaker rack. The clamping component includes a pair of clamping plates. A multi-faceted column is sleeved at the axis of the beaker rack. A plurality of fixing plates are fixedly connected to the outer circumference of the multi-faceted column. The fixing plates are located between two liquid-receiving beakers. A guide rail groove is formed on one side of the fixing plate. The pair of clamping plates are respectively located on both sides of the guide rail groove and are slidably connected to the fixing plate. A bidirectional lead screw is rotatably connected to the guide rail groove through a bearing. The pair of clamping plates are located on both sides of the bidirectional lead screw and are threadedly connected to the bidirectional lead screw. The pair of clamping plates are respectively located on both outer sides of the liquid-receiving beaker.
[0009] Preferably, the lifting component includes a toothed plate. A fixed seat is arranged on the detection platform. The plurality of toothed plates are respectively fixedly installed at the top edge of the fixed seat. The toothed plates extend into the multi-faceted column and are slidably connected to the multi-faceted column. One end of the bidirectional lead screw extends into the multi-faceted column. A plurality of main gears are rotatably connected to the inner cavity of the multi-faceted column through bearings. The main gears are meshed with the toothed plates. A connecting column is fixedly connected to the top of the fixed seat. A sliding groove is formed at the bottom of the multi-faceted column. The connecting column is sleeved in the sliding groove.
[0010] Preferably, the lifting member further includes a threaded rod. A circular groove is formed in the outer periphery of the placing table. Both sides of the top of the detection platform are fixedly connected with rectangular plates. A rectangular groove is formed in one side of the rectangular plate. A guide plate is slidably connected in the rectangular groove. The top of one side of the guide plate is fixedly connected with an arc-shaped block. The arc-shaped block is slidably arranged in the circular groove. The threaded rod is rotatably arranged in the rectangular groove through a bearing. The guide plate is threadedly connected with the threaded rod. The bottom of the detection platform is rotatably connected with a first gear through a bearing. The two first gears are respectively fixedly connected with one ends of the two threaded rods. A first toothed belt engaged with the first gears is sleeved on the outer periphery of the two first gears. The bottom of the detection platform is fixedly connected with a second motor. The output end of the second motor is fixedly connected with one of the first gears.
[0011] Preferably, a driving member for driving the placing table to rotate is arranged on the detection platform. The driving member includes two second gears. A clamping block is rotatably connected to the detection platform through a bearing. A clamping groove is formed in the bottom of the fixed seat. The clamping block is fitted with the clamping groove. The two second gears are rotatably arranged at the bottom of the detection platform through bearings. One of the second gears is fixedly connected with the clamping block. A third motor is fixedly connected to the detection platform. The output end of the third motor is fixedly connected with the other second gear.
[0012] A method for detecting the performance of a drag reducer, which applies a detection device for the fluidity of a liquid. The specific steps are as follows: Place the pure liquid in one of the liquid storage test tubes, and at the same time place the liquid mixed with the drag reducer in the other liquid storage test tube. The two liquid storage test tubes are located in the transparent chamber, that is, in the same environment. Then place the liquid receiving beaker for receiving the liquid on the placing table. Drive the liquid receiving beaker to move upward through the lifting member and make the beaker mouth of the liquid receiving beaker close to the liquid outlet of the liquid storage test tube. Through the power transmission between the clamping member and the lifting member, the clamping member fixes the liquid receiving beaker. Then open the one-way valve at the bottom of the liquid storage test tube, observe which liquid storage test tube's liquid all flows into the liquid receiving beaker first, and start timing. After the first round of experiments, through the setting of the conversion member, drive the air pressure regulating component of the chamber to operate, increase the air pressure in the transparent chamber, and then conduct the fluidity detection. Observe which liquid storage test tube's liquid all flows into the liquid receiving beaker first after increasing the air pressure, and start timing, so as to detect and analyze the performance of the drag reducer. Beneficial effects
[0013] Compared with the prior art, the present invention provides a detection device for the fluidity of a liquid and a method for detecting the performance of a drag reducer, having the following beneficial effects: 1. A detection device for liquid fluidity and a method for detecting the performance of a drag reducer. By setting the air pressure regulating component of the bin body, the air pressure in the transparent bin is adjusted, so that the device can detect and compare the performance of the drag reducer under different air pressure environments, solving the problem that the pressure in the mine shafts in different regions is different, and the effects produced by the drag reducer are different. Therefore, for the conventional detection method of the performance of the drag reducer, the detection results cannot be applied to the use of liquids in various environments.
[0014] 2. A detection device for liquid fluidity and a method for detecting the performance of a drag reducer. By setting the air pressure regulating component in the pipe, during the process of detecting the performance of the drag reducer, the pressure in the liquid storage test tube is increased, and the flow rates between the liquid with the drag reducer and the pure liquid are observed, so that the device can detect and compare the performance of the drag reducer under the condition of sudden increase in pressure.
[0015] 3. A detection device for liquid fluidity and a method for detecting the performance of a drag reducer. Through the power transmission between the lifting member and the clamping member, when the lifting member operates, it drives the liquid receiving beaker close to the liquid storage test tube, thus preventing the liquid in the liquid storage test tube from splashing due to the excessive distance between the two when flowing into the liquid receiving beaker. By setting the clamping member, the liquid receiving beaker is fixed. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1 is the overall structural schematic diagram of the present invention; Figure 2 is the internal structural schematic diagram of the transparent bin of the present invention; Figure 3 is the structural schematic diagram of the adjusting device of the present invention; Figure 4 is of the present invention Figure 3 structural schematic diagram of part A; Figure 5 is the structural schematic diagram of the clamping member of the present invention; Figure 6 is of the present invention Figure 5 structural schematic diagram of part B; Figure 7 is the first structural schematic diagram of the lifting member of the present invention; Figure 8 is of the present invention Figure 7 structural schematic diagram of part C; Figure 9 is the second structural schematic diagram of the lifting member of the present invention; Figure 10 is the structural schematic diagram of the driving member of the present invention.
[0017] In the figure: 1, detection platform; 2, placement table; 3, transparent chamber; 4, liquid-receiving beaker; 5, liquid storage test tube; 6, adjustment device; 7, fixing device; 61, chamber air pressure adjustment component; 62, air pressure adjustment component inside the tube; 63, conversion piece; 71, clamping piece; 72, lifting piece; 73, driving piece; 8, vertical plate; 9, liquid supply chamber; 10, reagent chamber; 11, test tube rack; 611, sealing plate; 612, first reciprocating lead screw; 613, threaded sleeve; 621, piston; 622, moving plate; 623, second reciprocating lead screw; 624, threaded collar; 631, transmission belt; 632, worm; 633, worm gear; 634, pulley; 635, first motor; 12, beaker rack; 711, clamping plate; 712, multi-faceted column; 713, fixing plate; 714, guide rail groove; 715, bidirectional lead screw; 721, toothed plate; 722, fixed seat; 723, main gear; 724, connecting column; 725, threaded rod; 726, circular groove; 727, rectangular plate; 728, rectangular groove; 729, guide plate; 720, arc-shaped block; 7211, first gear; 7212, first toothed belt; 7213, second motor; 731, second gear; 732, clamping block; 733, third motor. Specific implementation mode
[0018] The following will clearly and completely describe the technical solutions in the embodiments of the present invention with reference to the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.
[0019] As introduced in the background art, there are deficiencies in the prior art. To solve the above technical problems, the present application proposes a detection device for liquid fluidity and a method for detecting the performance of drag reducers. Embodiment 1
[0020] Please refer to Figures 1-3 , a detection device for liquid fluidity, including a detection platform 1, a placement table 2 and a transparent chamber 3 are arranged on the detection platform 1, a plurality of liquid-receiving beakers 4 are installed on the placement table 2, a plurality of liquid storage test tubes 5 are placed in the transparent chamber 3, an adjustment device 6 for environmental adjustment is arranged on the transparent chamber 3, and a fixing device 7 for fixing the liquid-receiving beaker 4 is arranged on the placement table 2; The adjustment device 6 includes a chamber air pressure adjustment component 61, an air pressure adjustment component 62 inside the tube, and a conversion piece 63 for the operation of both. When the conversion piece 63 rotates forward, it drives the operation of the chamber air pressure adjustment component 61. When the conversion piece 63 rotates in the reverse direction, it drives the operation of the air pressure adjustment component 62 inside the tube; The fixing device 7 includes multiple groups of clamping members 71 and a lifting member 72 for controlling the operation of the clamping members 71. During the process of the lifting member 72 driving the placing table 2 to move upward, the clamping members 71 are driven to fix the liquid receiving beaker 4.
[0021] Specifically, pure liquid is placed in one of the liquid storage test tubes 5, and at the same time, the liquid mixed with the drag reducer is placed in another liquid storage test tube 5. The two liquid storage test tubes 5 are located in the transparent chamber 3, that is, in the same environment. Then, the liquid receiving beaker 4 for receiving the liquid is placed on the placing table 2. The lifting member 72 drives the liquid receiving beaker 4 to move upward and makes the beaker mouth of the liquid receiving beaker 4 close to the liquid outlet of the liquid storage test tube 5. Through the power transmission between the clamping member 71 and the lifting member 72, the clamping member 71 fixes the liquid receiving beaker 4. Then, the one-way valve at the bottom of the liquid storage test tube 5 is opened, and it is observed which liquid storage test tube 5 has all the liquid flowing into the liquid receiving beaker 4 first, and timing is carried out. After the first round of experiments, through the setting of the conversion member 63, the air pressure regulating assembly 61 of the chamber body is driven to operate, increasing the air pressure in the transparent chamber 3. Then, the fluidity detection is carried out, and it is observed which liquid storage test tube 5 has all the liquid flowing into the liquid receiving beaker 4 first after the air pressure is increased, and timing is carried out, so as to detect and analyze the performance of the drag reducer; Through the setting of the air pressure regulating assembly 61 of the chamber body, the air pressure in the transparent chamber 3 is adjusted, so that the device can detect and compare the performance of the drag reducer under different air pressure environments, solving the problem that the pressures in the mine shafts in different regions are different, and the effects produced by the drag reducer are different. Therefore, for the conventional detection methods of the performance of the drag reducer, the detection results cannot be applied to the use of liquids in various environments. Embodiment 2
[0022] The difference from the above Embodiment 1 is that referring to Figures 3-4 , for the above-mentioned adjusting device 6, a vertical plate 8 is fixedly connected to the detection platform 1, the transparent chamber 3 is fixedly installed on one side of the vertical plate 8, a liquid supply chamber 9 and a medicine chamber 10 are respectively fixedly connected to the transparent chamber 3, both the liquid supply chamber 9 and the medicine chamber 10 are communicated with the liquid storage test tube 5, a test tube rack 11 is fixedly connected in the transparent chamber 3, the liquid storage test tube 5 is installed on the test tube rack 11, and the bottom of the liquid storage test tube 5 extends to the bottom of the transparent chamber 3 and is sleeved with the transparent chamber 3 through a sealed bearing; The air pressure regulating assembly 61 of the chamber body includes a sealing plate 611, the sealing plate 611 is arranged on one side of the transparent chamber 3 and fits with the inner wall of the transparent chamber 3. One side of the sealing plate 611 is rotatably connected with a first reciprocating lead screw 612 through a bearing, and one side of the transparent chamber 3 is rotatably connected with a threaded sleeve 613 through a sealed bearing. The threaded sleeve 613 extends to the other side of the vertical plate 8, and the first reciprocating lead screw 612 is threadedly assembled in the threaded sleeve 613; The air pressure regulating component 62 inside the pipe includes a plurality of pistons 621. A moving plate 622 is provided at the top of the inner cavity of the transparent chamber 3. The top of the moving plate 622 is rotatably connected to a second reciprocating lead screw 623 through a bearing. The plurality of pistons 621 are fixedly installed at the bottom of the moving plate 622. The pistons 621 are fitted with the liquid storage test tubes 5. The top of the transparent chamber 3 is rotatably connected to a threaded collar 624 through a sealed bearing. The second reciprocating lead screw 623 is threadedly assembled inside the threaded collar 624; The conversion component 63 includes a transmission belt 631. A worm 632 is rotatably connected to the transparent chamber 3 through a bearing. An outer periphery of the threaded collar 624 is fixedly connected with a worm gear 633. The worm gear 633 is meshed and connected with the worm 632. One end of the worm 632 extends to one side of the vertical plate 8. Two belt pulleys 634 are arranged on one side of the vertical plate 8. One of the belt pulleys 634 is rotatably connected to the vertical plate 8 through a one-way bearing and is fixedly connected with one end of the worm 632. The other belt pulley 634 is installed on the outer periphery of the threaded sleeve 613 through a one-way bearing. The transmission belt 631 is sleeved on the two belt pulleys 634. A base is fixedly installed on one side of the vertical plate 8. A first motor 635 is fixedly connected to the base. An output end of the first motor 635 is fixedly connected with one of the belt pulleys 634; Specifically, a one-way valve is installed at the outlet of the liquid storage test tube 5. First, the performance of the drag reducer is detected under normal pressure. At this time, the pure liquid in the liquid supply chamber 9 flows into one of the liquid storage test tubes 5. The liquid supply chamber 9 and the reagent chamber 10 simultaneously flow the pure liquid and the drag reducer into the other liquid storage test tube 5. Then, the one-way valve at the bottom of the liquid storage test tube 5 is opened. By observing the liquid flow rates in the two liquid storage test tubes 5 and respectively calculating the time after the liquids in the two liquid storage test tubes 5 completely flow into the liquid receiving beaker 4, the performance of the drag reducer is detected; Secondly, the performance of the drag reducer is detected under the condition of increased air pressure. Pure liquid and liquid with the drag reducer are simultaneously filled into the two test tubes. Then, the first motor 635 runs forward to drive the threaded sleeve 613 to rotate. Through the threaded connection between the first reciprocating lead screw 612 and the threaded sleeve 613, the first reciprocating lead screw 612 is driven to move forward, thereby driving the sealing plate 611 to move forward, and further increasing the pressure inside the transparent chamber 3. Then, the liquid flow rate in the liquid storage test tube 5 is detected and timed, and compared with the result of the previous group of liquid fluidity detection under normal pressure. At this time, due to the setting that the belt pulley 634 connected to the worm 632 is connected to the worm 632 through a one-way bearing, when the motor drives the two belt pulleys 634 to rotate simultaneously, one of the belt pulleys 634 drives the threaded sleeve 613 to rotate, and the other belt pulley 634 cannot drive the worm 632 to rotate; When the pressure suddenly increases during the detection of the liquid in the liquid storage test tube 5, the performance of the drag reducer is detected. By the reverse operation of the first motor 635, due to the setting that the threaded sleeve 613 and one of the pulleys 634 are connected through a one-way bearing, when the first motor 635 runs in reverse, one of the pulleys 634 cannot drive the threaded sleeve 613 to rotate, but can drive the worm 632 fixedly connected to the other pulley 634 to rotate. Through the meshing connection between the worm gear 633 and the worm 632, the worm gear 633 is driven to rotate, thereby driving the threaded collar 624 to rotate. Through the threaded connection between the threaded collar 624 and the second reciprocating lead screw 623, the second reciprocating lead screw 623 is driven to rotate, so that the moving plate 622 moves downward, and then drives all the pistons 621 into the liquid storage test tube 5, thereby increasing the air pressure in the liquid storage test tube 5, so as to detect and time the liquid flow rate in the liquid storage test tube 5, and compare it with the result of the previous group of liquid fluidity detection under normal pressure. Embodiment III
[0023] The difference from the above-mentioned Embodiment II is that referring to Figures 5-10 , for the above-mentioned fixing device 7, a beaker rack 12 is placed on the placing table 2, and a plurality of liquid receiving beakers 4 are placed on the beaker rack 12. The clamping member 71 includes a pair of clamping plates 711. A multi-faceted column 712 is sleeved at the axis of the beaker rack 12. A plurality of fixing plates 713 are fixedly connected to the outer periphery of the multi-faceted column 712. The fixing plates 713 are located between two liquid receiving beakers 4. A guide rail groove 714 is opened on one side of the fixing plate 713. A pair of clamping plates 711 are respectively located on both sides of the guide rail groove 714 and are slidably connected to the fixing plate 713. A bidirectional screw 715 is rotatably connected to the guide rail groove 714 through a bearing. A pair of clamping plates 711 are located on both sides of the bidirectional screw 715 and are threadedly connected to the bidirectional screw 715. A pair of clamping plates 711 are respectively located on both outer sides of the liquid receiving beaker 4; The lifting member 72 includes a toothed plate 721. A fixed seat 722 is provided on the detection platform 1. A plurality of toothed plates 721 are respectively fixedly installed at the top edge of the fixed seat 722. The toothed plates 721 extend into the multi-faceted column 712 and are slidably connected to the multi-faceted column 712. One end of the bidirectional screw 715 extends into the multi-faceted column 712. A plurality of main gears 723 are rotatably connected to the inner cavity of the multi-faceted column 712 through bearings. The main gears 723 are meshed with the toothed plates 721. A connecting column 724 is fixedly connected to the top of the fixed seat 722. A sliding groove is opened at the bottom of the multi-faceted column 712. The connecting column 724 is sleeved in the sliding groove; The lifting member 72 further includes a threaded rod 725. A circular groove 726 is formed on the outer periphery of the placement table 2. Rectangular plates 727 are fixedly connected to both sides of the top of the detection platform 1. A rectangular groove 728 is formed on one side of the rectangular plate 727. A guide plate 729 is slidably connected in the rectangular groove 728. An arc-shaped block 720 is fixedly connected to the top of one side of the guide plate 729. The arc-shaped block 720 is slidably arranged in the circular groove 726. The threaded rod 725 is rotatably arranged in the rectangular groove 728 through a bearing. The guide plate 729 is threadedly connected to the threaded rod 725. The bottom of the detection platform 1 is rotatably connected to a first gear 7211 through a bearing. The two first gears 7211 are respectively fixedly connected to one end of the two threaded rods 725. A first toothed belt 7212 engaged with the first gear 7211 is sleeved on the outer periphery of the two first gears 7211. A second motor 7213 is fixedly connected to the bottom of the detection platform 1. The output end of the second motor 7213 is fixedly connected to one of the first gears 7211; A driving member 73 for driving the placement table 2 to rotate is arranged on the detection platform 1. The driving member 73 includes two second gears 731. A clamping block 732 is rotatably connected to the detection platform 1 through a bearing. A clamping groove is formed at the bottom of the fixed seat 722. The clamping block 732 is fitted with the clamping groove. The two second gears 731 are rotatably arranged at the bottom of the detection platform 1 through bearings. One of the second gears 731 is fixedly connected to the clamping block 732. A third motor 733 is fixedly connected to the detection platform 1. The output end of the third motor 733 is fixedly connected to the other second gear 731; Specifically, place the beaker rack 12 on the placement table 2, then pass the fixing seat 722 through the holes in the beaker rack 12 and the placement table 2, and make the fixing seat 722 located on the upper surface of the detection platform 1. At the same time, make the card slot at the bottom of the fixing seat 722 coincide with the card block 732 on the detection platform 1. Then place multiple liquid-receiving beakers 4 on the beaker rack 12. Drive two first gears 7211 to rotate through the second motor 7213, thereby driving two threaded rods 725 to rotate. Through the threaded connection between the threaded rod 725 and the guide plate 729, drive the guide plate 729 to move upward, thereby driving the placement table 2 to move upward. During the upward movement of the placement table 2, drive the beaker rack 12 and the multi-faceted column 712 on the beaker rack 12 to move upward. Through the sliding connection between the connecting column 724 at the top of the fixing seat 722 and the sliding groove at the bottom of the multi-faceted column 712, and the sliding connection between multiple toothed plates 721 and the multi-faceted column 712, the distance between the multi-faceted column 712 and the fixing seat 722 is increased, so that the toothed plate 721 drives the main gear 723 to rotate, and then drives the bidirectional screw 715 to rotate. Through the threaded connection between the bidirectional screw 715 and a pair of clamping plates 711, drive the two clamping plates 711 to move towards each other, so that the two clamping plates 711 fix the liquid-receiving beaker 4. When it is necessary to rotate the placement table 2 so that the empty saving beaker is located at the bottom of the liquid storage test tube 5, drive two second gears 731 to rotate through the third motor 733, thereby driving the card block 732 fixedly connected to one of the second gears 731 to rotate, thereby driving the fixing seat 722 to rotate. Due to the opposite shape of the multi-faceted column 712 and the setting that the arc-shaped block 720 is slidably arranged in the circular groove 726, when the fixing seat 722 drives the multi-faceted column 712 to rotate, it drives the placement table 2 and the beaker rack 12 on the top to rotate, so as to adjust the positional relationship between the liquid-receiving beaker 4 and the liquid storage test tube 5. Embodiment 4
[0024] Refer to Figures 1-10 , this embodiment discloses a method for detecting the performance of drag reducer, and the specific steps are as follows: Place pure liquid in one of the liquid storage test tubes 5, and at the same time place the liquid mixed with the drag reducer in the other liquid storage test tube 5. The two liquid storage test tubes 5 are located in the transparent chamber 3, that is, in the same environment. Then place the liquid receiving beaker 4 for receiving the liquid on the placing table 2. Drive the liquid receiving beaker 4 to move upward through the lifting member 72 so that the mouth of the beaker of the liquid receiving beaker 4 is close to the liquid outlet of the liquid storage test tube 5. Through the power transmission between the clamping member 71 and the lifting member 72, the clamping member 71 fixes the liquid receiving beaker 4. Then open the one-way valve at the bottom of the liquid storage test tube 5, observe which liquid storage test tube 5 the liquid in first completely flows into the liquid receiving beaker 4, and start timing. After the first round of experiments, through the setting of the conversion member 63, drive the chamber air pressure regulating component 61 to operate, increase the air pressure in the transparent chamber 3, and then conduct a fluidity test. Observe which liquid storage test tube 5 the liquid in first completely flows into the liquid receiving beaker 4 after increasing the air pressure, and start timing, so as to detect and analyze the performance of the drag reducer.
[0025] Although the embodiments of the present invention have been shown and described, for those of ordinary skill in the art, it can be understood that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.
Claims
1. A liquid fluidity detection device, comprising a detection platform, characterized in that: The detection platform is provided with a placement table and a transparent warehouse, a plurality of liquid receiving beakers are installed on the placement table, a plurality of liquid storage test tubes are placed in the transparent warehouse, an adjustment device for environmental adjustment is provided on the transparent warehouse, and a fixing device for fixing the liquid receiving beakers is provided on the placement table; The regulating device comprises a bin body air pressure regulating component, an in-pipe air pressure regulating component and a conversion member for the operation of the two. When the conversion member rotates forward, the bin body air pressure regulating component is driven to operate. When the conversion member rotates reversely, the in-pipe air pressure regulating component is driven to operate. The fixing device comprises a plurality of groups of clamping members and a lifting member for controlling the movement of the clamping members. The lifting member drives the placing platform to move upward, thereby driving the clamping members to fix the docking liquid beaker.
2. A liquid flowability detection device according to claim 1, characterized in that: The detection platform is fixedly connected with a vertical plate, the transparent warehouse is fixedly installed on one side of the vertical plate, the transparent warehouse is respectively fixedly connected with a liquid supply warehouse and a medicine warehouse, the liquid supply warehouse and the medicine warehouse are both connected with liquid storage test tubes, a test tube rack is fixedly connected in the transparent warehouse, the liquid storage test tube is installed on the test tube rack, and the bottom of the liquid storage test tube extends to the bottom of the transparent warehouse and is sleeved with the transparent warehouse through a sealing bearing.
3. A liquid flowability detection device according to claim 2, characterized in that: The warehouse air pressure regulating assembly includes a sealing plate, which is arranged on one side of the transparent warehouse and fits against the inner wall of the transparent warehouse. One side of the sealing plate is rotatably connected to a first reciprocating screw via a bearing, and one side of the transparent warehouse is rotatably connected to a threaded sleeve via a sealing bearing. The threaded sleeve extends to the other side of the vertical plate, and the first reciprocating screw is assembled in the threaded sleeve via threads.
4. A liquid flowability detection device according to claim 3, characterized in that: The in-tube air pressure regulating assembly includes multiple pistons. A movable plate is provided at the top of the inner cavity of the transparent warehouse. The top of the movable plate is rotatably connected to a second reciprocating screw via a bearing. Multiple pistons are fixedly installed at the bottom of the movable plate. The pistons are matched with the liquid storage test tubes. The top of the transparent warehouse is rotatably connected to a threaded ring via a sealing bearing. The second reciprocating screw is assembled in the threaded ring via threads.
5. A liquid flowability detection device according to claim 4, characterized in that: The conversion member includes a transmission belt, a worm is rotatably connected to the transparent warehouse via a bearing, a worm wheel is fixedly connected to the outer periphery of the threaded collar, the worm wheel is meshingly connected to the worm, one end of the worm extends to one side of the vertical plate, two pulleys are arranged on one side of the vertical plate, one of the pulleys is rotatably connected to the vertical plate via a one-way bearing and is fixedly connected to one end of the worm, the other pulley is installed on the outer periphery of the threaded sleeve via a one-way bearing, the transmission belt is sleeved on the two pulleys, a base is fixedly installed on one side of the vertical plate, a first motor is fixedly connected to the base, and an output end of the first motor is fixedly connected to one of the pulleys.
6. A liquid flowability detection device according to claim 5, characterized in that: A beaker rack is placed on the placement table, and multiple liquid-receiving beakers are placed on the beaker rack. The clamping member includes a pair of clamping plates. A multi-faceted column is sleeved at the axis of the beaker rack, and multiple fixed plates are fixedly connected to the outer periphery of the multi-faceted column. The fixed plate is located between two liquid-receiving beakers. A guide rail groove is opened on one side of the fixed plate. A pair of the clamping plates are respectively located on both sides of the guide rail groove and are slidably connected to the fixed plate. A bidirectional screw is rotatably connected in the guide rail groove through a bearing. A pair of the clamping plates are located on both sides of the bidirectional screw and are threadedly connected to the bidirectional screw. A pair of the clamping plates are respectively located on both sides of the outer periphery of the liquid-receiving beaker.
7. A liquid flowability detection device according to claim 6, characterized in that: The lifting member includes a tooth plate, and a fixed seat is provided on the detection platform. A plurality of tooth plates are respectively fixedly installed at the top edge of the fixed seat. The tooth plate extends into the polyhedral column and is slidably connected to the polyhedral column. One end of the bidirectional screw extends into the polyhedral column. The inner cavity of the polyhedral column is rotatably connected to a plurality of main gears through bearings. The main gears are meshed with the tooth plate. A connecting column is fixedly connected to the top of the fixed seat. A sliding groove is provided at the bottom of the polyhedral column, and the connecting column is sleeved in the sliding groove.
8. A liquid flowability detection device according to claim 7, characterized in that: The lifting member also includes a threaded rod, a circular groove is provided on the outer periphery of the placing table, rectangular plates are fixedly connected on both sides of the top of the detection platform, a rectangular groove is provided on one side of the rectangular plate, a guide plate is slidably connected in the rectangular groove, an arc block is fixedly connected to the top of one side of the guide plate, the arc block is slidably arranged in the circular groove, the threaded rod is rotatably arranged in the rectangular groove through a bearing, the guide plate is threadedly connected to the threaded rod, a first gear is rotatably connected to the bottom of the detection platform through a bearing, two of the first gears are respectively fixedly connected to one end of two threaded rods, a first toothed belt meshingly connected to the first gear is sleeved on the outer periphery of the two first gears, a second motor is fixedly connected to the bottom of the detection platform, and an output end of the second motor is fixedly connected to one of the first gears.
9. A liquid flowability detection device according to claim 8, characterized in that: The detection platform is provided with a driving member that drives the placement table to rotate, and the driving member includes two second gears. The detection platform is rotatably connected with a clamping block through a bearing, and a clamping slot is provided at the bottom of the fixed seat, and the clamping block is matched with the clamping slot. Two second gears are rotatably arranged at the bottom of the detection platform through bearings, one of the second gears is fixedly connected to the clamping block, and a third motor is fixedly connected to the detection platform, and the output end of the third motor is fixedly connected to the other second gear.
10. A method for detecting the performance of a drag reducing agent, characterized in that: Using a liquid fluidity detection device as described in any one of claims 1 to 9, the specific steps are: Pure liquid is placed in one of the liquid storage test tubes, and liquid mixed with drag reducer is placed in another liquid storage test tube. The two liquid storage test tubes are located in a transparent warehouse, that is, in the same environment. Then a liquid receiving beaker for receiving the liquid is placed on a placement table, and the liquid receiving beaker is driven upward by a lifting member to make the beaker mouth of the liquid receiving beaker close to the liquid outlet of the liquid storage test tube. The clamping member is used to fix the liquid receiving beaker through the power transmission between the clamping member and the lifting member. Then the one-way valve at the bottom of the liquid storage test tube is opened to observe which liquid storage test tube has the liquid flowing to the liquid receiving beaker first, and timing is performed. After the first round of experiments is completed, the warehouse air pressure regulating component is driven to operate through the setting of the conversion member to increase the air pressure in the transparent warehouse, and then the fluidity test is performed to observe which liquid storage test tube has the liquid flowing to the liquid receiving beaker first after the air pressure is increased, and timing is performed, so as to detect and analyze the performance of the drag reducer.