Water quality detection and cleaning system

Abstract

The application provides a water quality detection and cleaning system, which comprises a machine body, a test water tank, a cleaning water tank, a detection piece, a brushing structure, a first position switching module and a second position switching module. The detection piece is arranged in the first position switching module and can be moved into the cleaning water tank under the driving of the first position switching module to clean the detection piece or into the test water tank to detect the test water in the test water tank. The brushing structure is arranged in the second position switching module and can be moved into the test water tank under the driving of the second position switching module to brush the test water tank or out of the test water tank. When cleaning, the first position switching module moves the detection piece out of the test water tank and drives it into the cleaning water tank to clean the detection piece. Meanwhile, the second position switching module moves the brushing structure into the test water tank to clean the test water tank, so that the test water tank and the detection piece can be separately and completely cleaned, and the cleaning effect is improved.

Description

Technical Field

[0001] This application relates to the field of water quality testing device cleaning technology, and in particular to a water quality testing cleaning system. Background Technology

[0002] The water quality testing device includes a test water tank and parameter sensors. The test water tank holds the water to be tested, and the parameter sensors are fixed inside the tank to measure the water quality. After testing, both the parameter sensors and the test water tank usually need to be cleaned to prepare for the next water quality test.

[0003] However, the current cleaning operation involves cleaning the test water tank and the parameter sensors fixed inside the tank as a whole. This can lead to incomplete cleaning, which in turn affects the subsequent test results. Utility Model Content

[0004] The purpose of this application is to provide a water quality testing and cleaning system that aims to solve the problem of incomplete cleaning of test water tanks and parameter sensors.

[0005] This application provides a water quality testing and cleaning system, including a body, a test water tank, a cleaning water tank, a testing component, a brushing structure, a first position switching module, and a second position switching module;

[0006] The cleaning water tank and the test water tank are spaced apart on the body along the length of the body;

[0007] The first position switching module and the second position switching module are disposed on the machine body. The detection component is disposed on the first position switching module and can be moved into the cleaning water tank to clean the detection component or moved into the test water tank to test the test water in the test water tank under the drive of the first position switching module. The brushing structure is disposed on the second position switching module and can be moved into the test water tank to brush the test water tank or moved out of the test water tank under the drive of the second position switching module.

[0008] In some embodiments, the first position switching module includes a first track disposed on the body and a second track slidably disposed on the first track. The first track extends horizontally along the body and the second track extends vertically along the body. The detection element is slidably disposed on the second track.

[0009] In some embodiments, the first position switching module includes a first driving component and at least four first sensing devices electrically connected to the first driving component. The first driving component is respectively driven to cooperate with the second track and the detection element to drive the second track and the detection element to slide respectively.

[0010] At least four of the first sensing devices are respectively disposed on the first track and the second track, and are used to trigger the first drive assembly to stop driving when the detection element moves into the cleaning water tank or the test water tank.

[0011] In some embodiments, the second position switching module includes a third track disposed on the body and a fourth track slidably disposed on the third track. The third track extends horizontally along the body and the fourth track extends vertically along the body. The brushing structure is slidably disposed on the fourth track.

[0012] In some embodiments, the second position switching module includes a second driving component and at least four second sensing devices electrically connected to the second driving component. The second driving component is respectively driven to cooperate with the fourth track and the brushing structure to drive the fourth track and the brushing structure to slide respectively.

[0013] At least four of the second sensing devices are respectively disposed on the third track and the fourth track, and are used to trigger the second drive assembly to stop driving when the brushing structure moves into or out of the test water tank.

[0014] In some embodiments, the first position switching module and the second position switching module are spaced apart along the length direction of the body, and both the first position switching module and the second position switching module are located on the same side of the cleaning water tank and the test water tank along the width direction of the body.

[0015] And / or, portions of the first position switching module and portions of the second position switching module are offset along the width or height direction of the body.

[0016] In some embodiments, the water quality testing and cleaning system further includes a water supply pipeline assembly, which is connected to the test water tank and the cleaning water tank respectively, to deliver cleaning water to the test water tank or the cleaning water tank, or to deliver test water to the test water tank.

[0017] In some embodiments, the water supply pipeline assembly includes a first water supply pipeline, one end of which has a test water inlet for external test water to enter, and the other end of the first water supply pipeline is connected to the test water inlet and the test water tank, respectively.

[0018] The first water supply pipeline is equipped with a first control valve and a second control valve, which are spaced apart along the extension direction of the first water supply pipeline.

[0019] In some embodiments, the water supply pipeline assembly includes a second water supply pipeline, a first sub-pipeline, and a second sub-pipeline. One end of the second water supply pipeline has a first cleaning water inlet for external cleaning water to enter. The other end of the second water supply pipeline is selectively connected to one end of the first sub-pipeline and one end of the second sub-pipeline. The other end of the first sub-pipeline is connected to the test water tank, and the other end of the second sub-pipeline is connected to the cleaning water tank.

[0020] A third control valve is provided at the junction of the second water supply pipeline, the first sub-pipeline, and the second sub-pipeline.

[0021] In some embodiments, the water supply pipeline assembly further includes a third water supply pipeline, one end of which has a second cleaning water inlet for external cleaning water to enter, and the other end of which is connected to the second cleaning water inlet and the cleaning water tank respectively.

[0022] The water supply pipeline assembly also includes a main pipeline, one end of which has a main inlet for external cleaning water to enter, and the other end of which is connected to the second cleaning water inlet and the first cleaning water inlet; a fourth control valve is provided in the third water supply pipeline.

[0023] In some embodiments, the water quality testing and cleaning system further includes a drainage pipeline assembly, which is connected to the test water tank and the cleaning water tank respectively, for discharging the cleaning water or test water in the test water tank and the cleaning water tank.

[0024] In some embodiments, the drainage pipeline assembly includes a main drainage pipeline, one end of which has a drain outlet, and the main drainage pipeline is connected to the test water tank and the cleaning water tank respectively.

[0025] In some embodiments, the drainage pipeline assembly includes at least one first drainage pipeline, the at least one first drainage pipeline being connected to the test water tank and the main drainage pipeline respectively, and a fifth control valve being provided in the first drainage pipeline;

[0026] And / or, the drainage pipeline assembly includes at least one second drainage pipeline, the at least one second drainage pipeline being connected to the cleaning water tank and the main drainage pipeline respectively, and a sixth control valve being provided in the second drainage pipeline;

[0027] And / or, the water quality testing and cleaning system further includes a rinsing water tank, which is located on the body of the machine and on the side of the test water tank away from the cleaning water tank. The rinsing water tank is used to clean the brushing structure when the brushing structure is removed from the test water tank and moved into the rinsing water tank. The drainage pipeline assembly further includes at least one third drainage pipeline, which is connected to the rinsing water tank and the main drainage pipeline respectively. At least one seventh control valve is provided in the third drainage pipeline.

[0028] In some embodiments, the brushing structure is rotatably disposed at the second position switching module, and the brushing structure includes at least one brush body, the at least one brush body being used to rotate and brush the inner wall of the test water tank when the brushing structure moves into the test water tank.

[0029] And / or, the cleaning tank includes a transparent cleaning tank body and cleaning nozzles disposed inside the cleaning tank body;

[0030] And / or, the water quality testing and cleaning system further includes a controller, which is electrically connected to the first position switching module and the second position switching module respectively, and is used to control the working status of the first position switching module and the second position switching module.

[0031] The beneficial effects of this utility model are:

[0032] This utility model provides a water quality testing and cleaning system, including a body, a test water tank, a cleaning water tank, a testing component, a brushing structure, a first position switching module, and a second position switching module. The cleaning water tank and the test water tank are spaced apart along the length of the body. The first and second position switching modules are also located on the body. The testing component is positioned on the first position switching module and can be moved by the first position switching module into the cleaning water tank for cleaning or into the test water tank for testing the water. Simultaneously, the brushing structure is located on the second position switching module and can be moved by the second position switching module into the test water tank for brushing or out of the test water tank for testing the water. In other words, this utility model's water quality testing and cleaning system allows the brushing structure to be moved out of the test water tank via the second position switching module when water quality testing is needed, and the testing component to be moved into the test water tank via the first position switching module for water quality testing. When cleaning is required after testing, the first position switching module moves the test piece out of the test water tank and into the cleaning water tank for cleaning. Simultaneously, the second position switching module moves the scrubbing structure into the test water tank for cleaning. This allows for thorough cleaning of both the test water tank and the test piece, improving cleaning effectiveness and ensuring the accuracy of subsequent test results. Attached Figure Description

[0033] To more clearly illustrate the technical solutions of the embodiments of this application, the drawings used in the description of the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0034] Figure 1 This is a schematic diagram of the device flow of the water quality testing and cleaning system shown in the embodiments of this application;

[0035] Figure 2 This is a schematic diagram of the structure of the water quality testing and cleaning system shown in the embodiments of this application. Figure 1 ;

[0036] Figure 3 This is a schematic diagram of the structure of the water quality testing and cleaning system shown in the embodiments of this application. Figure 2 ;

[0037] Figure 4 This is a schematic diagram of the structure of the water quality testing and cleaning system shown in the embodiments of this application. Figure 3 ;

[0038] Figure 5This is a schematic diagram of the structure of the water quality testing and cleaning system shown in the embodiments of this application. Figure 4 ;

[0039] Figure 6 This is a schematic diagram of the structure of the water quality testing and cleaning system shown in the embodiments of this application. Figure 5 .

[0040] Figure label:

[0041] 100. Machine body; 110. Controller; 200. Test water tank; 300. Cleaning water tank; 310. Cleaning chamber; 400. Detection component; 500. Brush structure; 510. Brush body; 520. Stepper motor; 600. First position switching module; 610. First track; 620. Second track; 630. First sensing device; 700. Second position switching module; 710. Third track; 720. Fourth track; 730. Second sensing device; 800. Water supply pipeline assembly; 801. First water supply pipeline; 802. Test water inlet; 803. First control valve; 804. Second control valve; 805. Second water supply pipeline; 806. First sub-pipeline; 807. Second sub-pipeline; 808. First cleaning water inlet; 809. Third control valve; 810. Third water supply pipeline; 811. Second cleaning water inlet; 812. Main pipeline; 813. Main water inlet; 814. Fourth control valve; 900. Drainage pipeline assembly; 901. Main drainage pipeline; 902. Drain outlet; 903. First drainage pipeline; 904. Fifth control valve; 905. Second drainage pipeline; 906. Sixth control valve; 907. Flushing water tank; 908. Third drainage pipeline; 909. Seventh control valve; 910. Water storage tank. Detailed Implementation

[0042] In the embodiments of this application, the terms "first," "second," "third," "fourth," "fifth," and "sixth" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of indicated technical features. Thus, a feature defined with "first," "second," "third," "fourth," "fifth," and "sixth" may explicitly or implicitly include one or more of that feature.

[0043] In embodiments of this application, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Without further limitation, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes that element.

[0044] Reference Figures 1 to 6 As shown, this embodiment provides a water quality testing and cleaning system, including a body 100, a test water tank 200, a cleaning water tank 300, a testing component 400, a brushing structure 500, a first position switching module 600, and a second position switching module 700.

[0045] The cleaning water tank 300 and the test water tank 200 are spaced apart along the length of the body 100.

[0046] The first position switching module 600 and the second position switching module 700 are disposed on the body 100. The detection component 400 is disposed on the first position switching module 600 and can be moved into the cleaning water tank 300 to clean the detection component 400 or moved into the test water tank 200 to test the test water in the test water tank 200 under the drive of the first position switching module 600. The brushing structure 500 is disposed on the second position switching module 700 and can be moved into the test water tank 200 to brush the test water tank 200 or moved out of the test water tank 200 under the drive of the second position switching module 700.

[0047] In specific implementation, refer to Figure 1 As shown, the cleaning water tank 300 and the test water tank 200 can be arranged along the length of the body 100, i.e. Figure 1 The left and right directions are spaced out as shown. For example, the cleaning water tank 300 can be set to the left of the test water tank 200. Alternatively, in other implementations, the cleaning water tank 300 can be set to the right of the test water tank 200. This embodiment does not specifically limit this.

[0048] When the cleaning water tank 300 is located to the left of the test water tank 200, in order to facilitate the first position switching module 600 to move the detection component 400 into the cleaning water tank 300, the first position switching module 600 and the second position switching module 700 can also be arranged in the left-right direction.

[0049] When it is necessary to test the water quality of the test water in the test water tank 200, the second position switching module 700 can move the brushing structure 500 installed on it out of the test water tank 200, so that the first position switching module 600 can move the detection component 400 installed on it into the test water tank 200, so as to test the water quality of the test water in the test water tank 200.

[0050] After testing is completed, the first position switching module 600 can move the test piece 400 out of the test water tank 200 and into the cleaning water tank 300 for thorough, individual cleaning of the test piece 400. Simultaneously, the second position switching module 700 can move the scrubbing structure 500 into the test water tank 200 to scrub the inner wall of the test water tank 200, thus achieving thorough cleaning of both the test piece 400 and the test water tank 200, improving the cleaning effect.

[0051] After cleaning is complete, the second position switching module 700 can be used to move the brushing structure 500 out of the test water tank 200, so that the water quality test can be performed again after returning to the initial state.

[0052] For example, the test water tank 200 and the cleaning water tank 300 can both be cylindrical water tanks or square water tanks, etc.

[0053] It should be noted that during water quality testing, the test water tank 200 contains test water, i.e., the water for which water quality testing is to be performed. When the test water tank 200 needs to be cleaned, the test water in the test water tank 200 has been drained, and cleaning water is introduced into the test water tank 200 to facilitate the cleaning of the inner wall of the test water tank 200 by the scrubbing structure 500. For example, the cleaning water may be tap water.

[0054] For example, the detection element 400 may be a five-parameter sensor or other water quality detector.

[0055] In other words, the water quality testing and cleaning system of this embodiment can, when water quality testing is required, move the scrubbing structure 500 out of the test water tank 200 via the second position switching module 700, and move the testing component 400 into the test water tank 200 via the first position switching module 600 to test the water quality in the test water tank 200. When cleaning is required after testing, the first position switching module 600 moves the testing component 400 out of the test water tank 200 and moves it into the cleaning water tank 300 for cleaning. Simultaneously, the second position switching module 700 moves the scrubbing structure 500 into the test water tank 200 for cleaning. This allows for thorough cleaning of both the test water tank 200 and the testing component 400, improving the cleaning effect and ensuring the accuracy of subsequent test results.

[0056] In addition, the water quality testing and cleaning system also includes a controller 110, which is electrically connected to the first position switching module 600 and the second position switching module 700 respectively, and is used to control the working state of the first position switching module 600 and the second position switching module 700, thereby realizing the automated control of the above operations.

[0057] Reference Figure 1 As shown, in some embodiments, the first position switching module 600 includes a first track 610 disposed on the body 100 and a second track 620 slidably disposed on the first track 610. The first track 610 is along the length direction of the body 100 (see reference). Figure 1 Extending in the left-right direction as shown, the second track 620 extends along the up-down direction of the body 100, and the detection component 400 is slidably disposed on the second track 620.

[0058] In specific implementation, the first track 610 follows... Figure 1 Extending in the left and right direction as shown, the second track 620 follows... Figure 1 As shown, the second track 620 extends in the vertical direction and can slide relative to the first track 610 in the horizontal direction. The detection element 400 can slide relative to the second track 620 in the vertical direction, so that the detection element 400 can be moved into or out of the test water tank 200, or moved into or out of the cleaning water tank 300.

[0059] For example, the cleaning water tank 300 may be positioned to the left of the test water tank 200, and the first position switching module 600 may be positioned in front of the test water tank 200 and the cleaning water tank 300.

[0060] For example, if the initial position is that the detection component 400 is located inside the cleaning water tank 300, the brushing structure 500 is located inside the test water tank 200, and the test water in the test water tank 200 needs to be tested for water quality, then the brushing structure 500 can be moved outside the test water tank 200 by using the second position switching module 700.

[0061] Then, the detection element 400 slides towards the front relative to the second track 620 until it reaches the front position on the second track 620, at which point the entire detection element 400 is outside the cleaning water tank 300. Next, it slides to the right relative to the first track 610 via the second track 620 until it reaches the right side position on the first track 610. At this point, the second track 620 causes the detection element 400 to slide to the right until it is directly opposite the test water tank 200. Then, the detection element 400 slides backward relative to the second track 620 until it reaches the rear position on the second track 620, at which point the entire detection element 400 is inside the test water tank 200, facilitating water quality testing of the test water inside the test water tank 200.

[0062] After the test is completed, the test piece 400 can be slid forward relative to the second track 620 to the front position on the second track 620. At this time, the test piece 400 is removed from the test water tank 200. Then, the second track 620 moves to the left relative to the first track 610 to the left side position of the first track 610. Then, the test piece 400 slides backward relative to the second track 620 to the rear position of the second track 620, so that the test piece 400 moves into the cleaning water tank 300. In this way, the test piece 400 is switched back to the initial position.

[0063] For example, the detection element 400 can be slidably connected to the second track 620 via a groove or a slide rail. The second track 620 can be slidably connected to the first slide rail 610 via a groove or a slide rail. The brushing structure 500 can be slidably connected to the fourth track 720 via a groove or a slide rail. The fourth track 720 can be slidably connected to the third track 710 via a groove or a slide rail.

[0064] Reference Figures 1 to 6 As shown, in some embodiments, the first position switching module 600 includes a first driving component and at least four first sensing devices 630 electrically connected to the first driving component. The first driving component is in transmission cooperation with the second track 620 and the detection element 400 respectively to drive the second track 620 and the detection element 400 to slide respectively.

[0065] At least four first sensing devices 630 are respectively disposed on the first track 610 and the second track 620, and are used to trigger the first driving component to stop driving when the detection element 400 moves into the cleaning water tank 300 or the test water tank 200.

[0066] In a practical implementation, the second track 620 can be driven to slide relative to the first track 610 and the detection element 400 can slide relative to the second track 620 by the first driving component, thereby achieving automated operation and saving manpower. For example, the first driving component may include two first servo motors to drive the second track 620 and the detection element 400 to move respectively.

[0067] Furthermore, in order to enable the second track 620 to slide precisely to the corresponding left and right positions, two first sensing devices 630 can be set on the first track 610. The two first sensing devices 630 can be positioned at the left and right positions respectively, so that when the second track 620 slides to the left or right position relative to the first track 610, a touch command is issued through the first sensing device 630 at the left or right position to control the first servo motor that drives the second track 620 to stop driving.

[0068] Similarly, in order to enable the detection element 400 to slide precisely to the corresponding front and rear positions, two first sensing devices 630 can be set on the second track 620. The two first sensing devices 630 can be positioned at the front and rear positions respectively, so that when the detection element 400 slides to the front or rear position relative to the second track 620, the first sensing device 630 at the front or rear position issues a touch command to control the first servo motor that drives the detection element 400 to stop driving.

[0069] Reference Figures 1 to 4 As shown, in some embodiments, the second position switching module 700 includes a third track 710 disposed on the body 100 and a fourth track 720 slidably disposed on the third track 710. The third track 710 extends horizontally along the body 100, and the fourth track 720 extends vertically along the body 100. The brushing structure 500 is slidably disposed on the fourth track 720.

[0070] In specific implementation, the third track 710 follows... Figure 1 Extending in the left and right directions as shown, the fourth track 720 follows... Figure 1 As shown, the fourth track 720 extends in the vertical direction and can slide relative to the third track 710 in the horizontal direction. The brushing structure 500 can slide relative to the fourth track 720 in the vertical direction, so that the brushing structure 500 can be moved into or out of the test water tank 200.

[0071] For example, the cleaning water tank 300 may be positioned to the left of the test water tank 200, and the second position switching module 700 may be positioned in front of the test water tank 200 and the cleaning water tank 300.

[0072] For example, if the initial position is that the detection element 400 is located inside the cleaning water tank 300 and the brushing structure 500 is located inside the test water tank 200, and water quality testing is required for the test water in the test water tank 200, then the brushing structure 500 can be moved to a rear position relative to the fourth track 720. At this time, the brushing structure 500 moves out of the test water tank 200. Then, the fourth track 720 moves to the right relative to the third track 710 to a position to the right of the third track 710. At this time, the entire brushing structure 500 is located outside the test water tank 200, away from the cleaning water tank 300, to avoid positional interference with the detection element 400.

[0073] Then, the detection element 400 slides towards the front relative to the second track 620 until it reaches the front position on the second track 620, at which point the entire detection element 400 is outside the cleaning water tank 300. Next, it slides to the right relative to the first track 610 via the second track 620 until it reaches the right side position on the first track 610. At this point, the second track 620 causes the detection element 400 to slide to the right until it is directly opposite the test water tank 200. Then, the detection element 400 slides backward relative to the second track 620 until it reaches the rear position on the second track 620, at which point the entire detection element 400 is inside the test water tank 200, facilitating water quality testing of the test water inside the test water tank 200.

[0074] After the test is completed, the testing component 400 can be slid forward relative to the second track 620 to a front position on the second track 620, at which point the testing component 400 moves out of the test water tank 200. Then, the second track 620 moves to the left relative to the first track 610 to a position to the left of the first track 610. Next, the testing component 400 slides backward relative to the second track 620 to a position to the rear of the second track 620, moving the testing component 400 into the cleaning water tank 300. Simultaneously, the fourth track 720 moves to the left relative to the third track 710, at which point the brushing structure 500 is positioned directly opposite the test water tank 200. Then, the brushing structure 500 slides backward relative to the fourth track 720 to a position to the rear of the fourth track 720, moving the brushing structure 500 into the test water tank 200. This process returns the testing component 400 and the brushing structure 500 to their initial positions.

[0075] Reference Figure 1 As shown, in some embodiments, the second position switching module 700 includes a second drive assembly and at least four second sensing devices 730 electrically connected to the second drive assembly. The second drive assembly is in drive cooperation with the fourth track 720 and the brushing structure 500 respectively to drive the fourth track 720 and the brushing structure 500 to slide respectively.

[0076] At least four second sensing devices 730 are respectively disposed on the third track 710 and the fourth track 720, and are used to trigger the second drive assembly to stop driving when the brushing structure 500 moves into or out of the test water tank 200.

[0077] In practice, the fourth track 720 can be driven to slide relative to the second track 620 and the brushing structure 500 can slide relative to the fourth track 720 through the second drive component, thereby achieving automated operation and saving manpower. For example, the second drive component may include two second servo motors to drive the fourth track 720 and the brushing structure 500 to move respectively.

[0078] Furthermore, in order to enable the fourth track 720 to slide precisely to the corresponding left and right positions, two second sensing devices 730 can be set on the third track 710. The two second sensing devices can be positioned at the left and right positions respectively, so that when the fourth track 720 slides to the left or right position relative to the third track 710, the second sensing device 730 at the left or right position will issue a touch command to control the second servo motor that drives the fourth track 720 to stop driving.

[0079] Similarly, in order to enable the brushing structure 500 to slide precisely to the corresponding front and rear positions, two second sensing devices 730 can be set on the fourth track 720. The two second sensing devices 730 can be positioned at the front and rear positions respectively, so that when the brushing structure 500 slides to the front or rear position relative to the fourth track 720, the second sensing device 730 at the front or rear position sends a touch command to control the second servo motor that drives the brushing structure 500 to stop driving.

[0080] Reference Figures 1 to 4 As shown, in some embodiments, the first position switching module 600 and the second position switching module 700 are spaced apart along the length direction of the body 100, and the first position switching module 600 and the second position switching module 700 are both located on the same side of the cleaning water tank 300 and the test water tank 200 along the width direction of the body 100, so as to achieve a compact arrangement while realizing the corresponding position switching operation.

[0081] Reference Figures 1 to 4 As shown, in some embodiments, portions of the first position switching module 600 and the second position switching module 700 are misaligned along the width or height of the body 100 to avoid interference between the detection element 400 and the brushing structure 500 during position switching.

[0082] Reference Figure 1 , Figure 5 and Figure 6 As shown, in some embodiments, the water quality testing and cleaning system further includes a water supply pipeline assembly 800, which is connected to both the test water tank 200 and the cleaning water tank 300 to deliver cleaning water to the test water tank 200 or the cleaning water tank 300, or to deliver test water to the test water tank 200. This allows the water supply pipeline assembly 800 to provide test water to the test water tank 200 when water quality testing is required. Furthermore, when cleaning water needs to be stored in the test water tank 200 and the cleaning water tank 300 for cleaning the test water tank 200 and the testing component 400, cleaning water can be stably supplied to both the test water tank 200 and the cleaning water tank 300 through the water supply pipeline assembly 800.

[0083] Reference Figure 1 , Figure 5 and Figure 6 As shown, in some embodiments, the water supply pipeline assembly 800 includes a first water supply pipeline 801, one end of which has a test water inlet 802 for external test water to enter, and the other end of the first water supply pipeline 801 is connected to the test water inlet 802 and the test water tank 200 respectively.

[0084] The first water supply pipeline 801 is provided with a first control valve 803 and a second control valve 804, which are spaced apart along the extension direction of the first water supply pipeline 801.

[0085] In practice, when water quality testing is required, the first control valve 803 and the second control valve 804 are opened, allowing external test water to be sequentially delivered to the test water tank 200 through the test water inlet 802 and the first water supply pipeline 801, thus achieving the test water supply operation. When test water is not needed, the first control valve 803 and the second control valve 804 are closed.

[0086] Reference Figure 1 , Figure 5 and Figure 6 As shown, in some embodiments, the water supply pipeline assembly 800 includes a second water supply pipeline 805, a first sub-pipeline 806, and a second sub-pipeline 807. One end of the second water supply pipeline 805 has a first cleaning water inlet 808 for external cleaning water to enter. The other end of the second water supply pipeline 805 is selectively connected to one end of the first sub-pipeline 806 and one end of the second sub-pipeline 807. The other end of the first sub-pipeline 806 is connected to the test water tank 200, and the other end of the second sub-pipeline 807 is connected to the cleaning water tank 300.

[0087] A third control valve 809 is provided at the junction of the second water supply pipeline 805, the first sub-pipeline 806, and the second sub-pipeline 807.

[0088] In practice, when cleaning water needs to be supplied to the test water tank 200 for cleaning, the second water supply pipe 805 and the first sub-pipe 806 can be connected by the third control valve 809, while the second water supply pipe 805 and the second sub-pipe 807 are not connected. At this time, external cleaning water is sequentially delivered to the test water tank 200 through the first cleaning water inlet 808, the second water supply pipe 805, and the first sub-pipe 806, thus ensuring a reliable supply of cleaning water. When cleaning water is not needed, the second water supply pipe 805 and the first sub-pipe 806 can be disconnected by the third control valve 809.

[0089] Similarly, when cleaning water needs to be supplied to the cleaning water tank 300 for cleaning the test piece 400, the second water supply pipe 805 and the second sub-pipe 807 can be connected by the third control valve 809, while the second water supply pipe 805 is not connected to the first sub-pipe 806. At this time, the external cleaning water is sequentially transported to the cleaning water tank 300 through the first cleaning water inlet 808, the second water supply pipe 805, and the second sub-pipe 807 to achieve a reliable supply of cleaning water. When cleaning water is not needed, the second water supply pipe 805 and the second sub-pipe 807 can be disconnected by the third control valve 809.

[0090] Alternatively, when it is necessary to supply cleaning water to both the test water tank 200 and the cleaning water tank 300 at the same time, the second water supply pipeline 805 can be connected to both the first sub-pipeline 806 and the second sub-pipeline 807 simultaneously through the third control valve 809. The whole structure is simple and easy to operate.

[0091] Reference Figure 1 , Figure 5 and Figure 6 As shown, in some embodiments, the water supply pipeline assembly 800 further includes a third water supply pipeline 810, one end of which has a second cleaning water inlet 811 for external cleaning water to enter, and the other end of the third water supply pipeline 810 is connected to the second cleaning water inlet 811 and the cleaning water tank 300 respectively.

[0092] The water supply pipeline assembly 800 also includes a main pipeline 812, one end of which has a main inlet 813 for external cleaning water to enter, and the other end of which is connected to a second cleaning water inlet 811 and a first cleaning water inlet 808; a fourth control valve 814 is provided in the third water supply pipeline 810.

[0093] In practice, when it is necessary to supply cleaning water to the cleaning water tank 300 for cleaning, the main pipeline 812 and the third water supply pipeline 810 can be connected by the fourth control valve 814, so that the external cleaning water can be transported to the cleaning water tank 300 in sequence through the main water inlet 813, the second cleaning water inlet 811, and the third water supply pipeline 810 for cleaning.

[0094] In addition, the water supply piping assembly 800 may also include a water storage tank 910 to provide cleaning water to the water supply piping assembly 800.

[0095] Reference Figure 1 , Figure 5 and Figure 6As shown, in some embodiments, the water quality testing and cleaning system further includes a drainage pipeline assembly 900, which is connected to the test water tank 200 and the cleaning water tank 300 respectively, for discharging the cleaning water or test water in the test water tank 200 and the cleaning water tank 300, so as to quickly realize the drainage operation for subsequent use.

[0096] For example, when the test water tank 200 is filled with test water and it is necessary to clean the test water tank 200, the test water in the test water tank 200 can be drained through the drain pipe assembly 900 first, and then the cleaning water can be supplied to the test water tank 200 through the water supply pipe assembly 800.

[0097] Alternatively, when the test water tank 200 is filled with cleaning water and a water quality test is required, the cleaning water in the test water tank 200 can be drained through the drain pipe assembly 900 first, and then the test water can be supplied to the test water tank 200 through the water supply pipe assembly 800.

[0098] Similarly, after the cleaning water tank 300 has finished cleaning, the cleaning water in the cleaning water tank 300 can be drained through the drain pipe assembly 900 to facilitate the next inspection and cleaning operation.

[0099] Reference Figure 1 , Figure 5 and Figure 6 As shown, in some embodiments, the drainage pipeline assembly 900 includes a main drainage pipeline 901, one end of which has a drain outlet 902. The main drainage pipeline 901 is connected to the test water tank 200 and the cleaning water tank 300 respectively, so that the test water tank 200 and the cleaning water tank 300 can share a main drainage pipeline to realize drainage operation, thereby simplifying the structure and reducing costs.

[0100] Reference Figure 1 , Figure 5 and Figure 6 As shown, in some embodiments, the drainage pipeline assembly 900 includes at least one first drainage pipeline 903, which is connected to the test water tank 200 and the main drainage pipeline 901 respectively, and a fifth control valve 904 is provided in the first drainage pipeline 903.

[0101] In other words, when it is necessary to drain the test water or cleaning water in the test water tank 200, the fifth control valve 904 can be opened so that the test water or cleaning water in the test water tank 200 can be discharged sequentially through the first drain pipe 903 and the main drain pipe 901.

[0102] Once the discharge operation is complete, the fifth control valve 904 can be closed.

[0103] Furthermore, the first drainage pipe 903 can be configured as follows: Figure 1 As shown, the two can be respectively provided at the bottom and side of the test water tank 200, with the first drain outlet 902 connected to the two first drain pipes 903, so as to realize drainage operation at different water levels or meet different drainage efficiency requirements.

[0104] Reference Figure 1 , Figure 5 and Figure 6 As shown, in some embodiments, the drainage pipeline assembly 900 includes at least one second drainage pipeline 905, which is connected to the cleaning water tank 300 and the main drainage pipeline 901 respectively, and a sixth control valve 906 is provided in the second drainage pipeline 905.

[0105] In other words, when it is necessary to drain the cleaning water in the cleaning water tank 300, the sixth control valve 906 can be opened so that the cleaning water can be discharged sequentially through the second drain pipe 905 and the main drain pipe 901.

[0106] Once the discharge operation is complete, the sixth control valve 906 can be closed.

[0107] Furthermore, the second drainage pipe 905 can be configured as follows: Figure 1 As shown, two second drain outlets 902 can be provided at the bottom and side of the cleaning water tank 300, respectively, and connected to two second drain pipes 905, so as to realize drainage operation at different water levels or meet different drainage efficiency requirements.

[0108] Reference Figures 1 to 6 As shown, in some embodiments, the water quality testing and cleaning system further includes a rinsing water tank 907, which is located on the body 100 and on the side of the test water tank 200 away from the cleaning water tank 300. The rinsing water tank 907 is used to clean the brushing structure 500 when it is moved out of the test water tank 200 and into the rinsing water tank 907. The drainage pipeline assembly 900 also includes at least one third drainage pipeline 908, which is connected to the rinsing water tank 907 and the main drainage pipeline 901 respectively. At least one seventh control valve 909 is provided in the third drainage pipeline 908.

[0109] In practice, when the fourth slide rail moves to the right position relative to the third slide rail, the brushing structure 500 is positioned directly opposite the rinsing water tank 907. Then, the brushing structure 500 can be moved to the rear position relative to the fourth slide rail. At this time, the brushing structure 500 is located outside the test water tank, specifically inside the rinsing water tank 907, to clean the brushing structure 500. This ensures that the brushing structure 500 is clean before the next cleaning operation of the test water tank 200 can be performed.

[0110] Specifically, after the rinsing water tank 907 has completed the cleaning operation of the brushing structure 500, the seventh control valve 909 can be opened so that the cleaning water can be discharged through the third drain pipe 908 and the main drain pipe 901.

[0111] Once the discharge operation is complete, the seventh control valve 909 can be closed.

[0112] Furthermore, the third drainage pipe 908 can be configured as follows: Figure 1 As shown, the two can be respectively provided with a third drain outlet 902 at the bottom and side of the flushing water tank 907, which is connected to two third drain pipes 908 to realize drainage operation at different water levels or meet different drainage efficiency requirements.

[0113] Reference Figures 1 to 6 As shown, in some embodiments, the brushing structure 500 is rotatably disposed in the second position switching module 700, and the brushing structure 500 includes at least one brush body 510 and a stepper motor 502. The at least one brush body 510 is used to rotate by the stepper motor 502 when the brushing structure 500 moves into the test water tank 200, so as to perform rotational brushing on the inner wall of the test water tank 200, thereby achieving thorough cleaning of all positions on the inner wall of the test water tank 200.

[0114] Furthermore, the brushing structure 500 also includes a motor, which can drive the brush body 510 to rotate to achieve automated operation.

[0115] In addition, the brush body 510 can be specifically configured as three, of which two brush bodies 510 can extend along the axial direction of the brushing structure 500, and the other brush body 510 can extend obliquely along the axial direction of the brushing structure 500, so as to more effectively clean the inner wall of the test water tank 200.

[0116] Reference Figures 1 to 6 As shown, in some embodiments, the cleaning tank 300 includes a transparent cleaning tank body 310 and a cleaning nozzle disposed within the cleaning tank body 310, so as to spray and clean the detection element 400 located within the cleaning tank body 310 through the cleaning nozzle, thereby improving the cleaning effect.

[0117] In addition, the transparent cleaning chamber 310 allows operators to directly observe the cleaning process and effect of the test piece 400.

[0118] Finally, combining Figure 1 The operation process of the water quality testing and cleaning device in this embodiment is described as follows:

[0119] First, open the first control valve 803 and the second control valve 804 so that external test water can be delivered to the test water tank 200 through the test water inlet 802 and the first water supply pipeline 801 in sequence.

[0120] Then, by moving the brushing structure 500 to a rearward position relative to the fourth track 720, the brushing structure 500 is removed from the test water tank 200. Then, the fourth track 720 is moved to the right of the third track 710 to a position to the right of the third track 710. At this time, the entire brushing structure 500 is located on the outside of the test water tank 200 away from the cleaning water tank 300 to avoid positional interference with the test piece 400.

[0121] Then, the detection element 400 slides towards the front relative to the second track 620 until it reaches the front position on the second track 620, at which point the entire detection element 400 is outside the cleaning water tank 300. Next, it slides to the right relative to the first track 610 via the second track 620 until it reaches the right side position on the first track 610. At this point, the second track 620 causes the detection element 400 to slide to the right until it is directly opposite the test water tank 200. Then, the detection element 400 slides backward relative to the second track 620 until it reaches the rear position on the second track 620, at which point the entire detection element 400 is inside the test water tank 200, facilitating water quality testing of the test water inside the test water tank 200.

[0122] After the water quality test is completed, open the fifth control valve 904 to allow the test water in the test water tank 200 to be discharged sequentially through the first drain pipe 903 and the main drain pipe 901. Once the discharge operation is complete, close the fifth control valve 904.

[0123] Then, the detection element 400 can be moved forward relative to the second track 620 to the front position on the second track 620, at which point the detection element 400 is removed from the test water tank 200. Then, the second track 620 moves to the left relative to the first track 610 to the left side position of the first track 610. Then, the detection element 400 slides backward relative to the second track 620 to the rear position of the second track 620, so that the detection element 400 moves into the cleaning water tank 300.

[0124] Next, the second water supply pipeline 805 and the second sub-pipeline 807 are connected by the third control valve 809. At this time, the external cleaning water is delivered to the cleaning water tank 300 through the first cleaning water inlet 808, the second water supply pipeline 805 and the second sub-pipeline 807 in sequence to achieve a reliable supply of cleaning water so as to clean the detection component 400 in the cleaning water tank 300.

[0125] At the same time, the main pipeline 812 and the third water supply pipeline 810 are connected by the fourth control valve 814, so that the external cleaning water can be transported to the cleaning water tank 300 in sequence through the main water inlet 813, the second cleaning water inlet 811 and the third water supply pipeline 810, so as to clean the cleaning water tank 300.

[0126] After cleaning is completed, the cleaning water in the cleaning water tank 300 can be discharged through the second drain pipe 905 and the main drain pipe 901.

[0127] Simultaneously, the fourth track 720 moves to the left relative to the third track 710, at which point the scrubbing structure 500 and the test water tank 200 are directly opposite each other. Then, the scrubbing structure 500 slides backward relative to the fourth track 720 to a position behind the fourth track 720. At this point, the scrubbing structure 500 moves into the test water tank 200, and the second water supply pipe 805 and the first sub-pipe 806 are connected by the third control valve 809, while the second water supply pipe 805 and the second sub-pipe 807 are not connected. At this time, the external cleaning water is sequentially delivered to the test water tank 200 through the first cleaning water inlet 808, the second water supply pipe 805, and the first sub-pipe 806, so that the scrubbing structure 500 can clean the test water tank 200.

[0128] After cleaning, the cleaning water in the test water tank 200 can be drained through the first drain pipe 903 and the main drain pipe 901.

[0129] After the test water tank 200 is cleaned, when the fourth slide rail moves to the right position relative to the third slide rail, the brush washing structure 500 is positioned directly opposite the rinsing water tank 907. Then, the brush washing structure 500 can be moved to the rear position relative to the fourth slide rail. At this time, the brush washing structure 500 is located inside the rinsing water tank 907 to clean the brush washing structure 500. This ensures that the brush washing structure 500 is clean before the next cleaning operation of the test water tank 200 can be performed.

[0130] After cleaning, the cleaning water in the flushing water tank 907 can be drained through the third drain pipe 908 and the main drain pipe 901.

[0131] In short, the control process for the water supply piping assembly 800 and the drainage piping assembly 900 is as follows:

[0132] First, the first control valve 803 and the second control valve 804 are opened to supply water to the test water tank 200, so as to complete the water intake of the test water tank 200 for water quality testing.

[0133] Then, after the test is completed, open the fifth control valve 904 to drain the test water from the test water tank 200. Next, open the third control valve 809 to supply cleaning water to the cleaning water tank 300 to spray and wash the test piece 400. After spraying and washing, open the sixth control valve 906 to drain the water. Then, open the fourth control valve 814 to supply cleaning water to the cleaning water tank 300 to clean it. After spraying and washing, open the sixth control valve 906 to drain the water.

[0134] Next, open the third control valve 809 to supply cleaning water to the test water tank 200 to clean the test water tank 200. After cleaning, close the third control valve 809.

[0135] Then, open the fifth control valve 904 to drain the cleaning water from the test water tank 200, and then close the fifth control valve 904. Next, after cleaning the brushing structure 500, open the seventh control valve 909 to drain the cleaning water from the rinsing water tank 907. The above-mentioned cleaning water supply operations can be performed in any order.

[0136] In the description of the embodiments of this application, specific features, structures, materials or characteristics may be combined in any suitable manner in one or more embodiments or examples.

[0137] The above are merely specific embodiments of this application, but the scope of protection of this application is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in this application should be included within the scope of protection of this application. Therefore, the scope of protection of this application should be determined by the scope of the claims.

Claims

1. A water quality testing and cleaning system, characterized in that, It includes a body (100), a test water tank (200), a cleaning water tank (300), a test piece (400), a brushing structure (500), a first position switching module (600), and a second position switching module (700); The cleaning water tank (300) and the test water tank (200) are spaced apart on the body (100) along the length direction of the body (100); The first position switching module (600) and the second position switching module (700) are disposed on the body (100). The detection component (400) is disposed on the first position switching module (600) and can be moved into the cleaning water tank (300) to clean the detection component (400) or moved into the test water tank (200) to detect the test water in the test water tank (200) under the drive of the first position switching module (600). The brushing structure (500) is disposed on the second position switching module (700) and can be moved into the test water tank (200) to brush the test water tank (200) or moved out of the test water tank (200) under the drive of the second position switching module (700).

2. The water quality testing and cleaning system according to claim 1, characterized in that, The first position switching module (600) includes a first track (610) disposed on the body (100) and a second track (620) slidably disposed on the first track (610). The first track (610) extends left and right along the body (100), and the second track (620) extends up and down along the body (100). The detection element (400) is slidably disposed on the second track (620).

3. The water quality testing and cleaning system according to claim 2, characterized in that, The first position switching module (600) includes a first driving component and at least four first sensing devices (630) electrically connected to the first driving component. The first driving component is in transmission cooperation with the second track (620) and the detection element (400) respectively to drive the second track (620) and the detection element (400) to slide respectively. At least four of the first sensing devices (630) are respectively disposed on the first track (610) and the second track (620), and are used to trigger the first driving assembly to stop driving when the detection element (400) moves into the cleaning water tank (300) or the test water tank (200).

4. The water quality testing and cleaning system according to claim 1, characterized in that, The second position switching module (700) includes a third track (710) disposed on the body (100) and a fourth track (720) slidably disposed on the third track (710). The third track (710) extends left and right along the body (100), and the fourth track (720) extends up and down along the body (100). The brushing structure (500) is slidably disposed on the fourth track (720).

5. The water quality testing and cleaning system according to claim 4, characterized in that, The second position switching module (700) includes a second drive assembly and at least four second sensing devices (730) electrically connected to the second drive assembly. The second drive assembly is in drive cooperation with the fourth track (720) and the brushing structure (500) respectively to drive the fourth track (720) and the brushing structure (500) to slide respectively. At least four of the second sensing devices (730) are respectively disposed on the third track (710) and the fourth track (720), and are used to trigger the second drive assembly to stop driving when the brushing structure (500) moves into or out of the test water tank (200).

6. The water quality testing and cleaning system according to claim 1, characterized in that, The first position switching module (600) and the second position switching module (700) are spaced apart along the length direction of the body (100), and the first position switching module (600) and the second position switching module (700) are both located on the same side of the cleaning water tank (300) and the test water tank (200) along the width direction of the body (100); And / or, portions of the first position switching module (600) and portions of the second position switching module (700) are offset along the width or height direction of the body (100).

7. The water quality testing and cleaning system according to any one of claims 1 to 6, characterized in that, The water quality testing and cleaning system also includes a water supply pipeline assembly (800), which is connected to the test water tank (200) and the cleaning water tank (300) respectively, so as to deliver cleaning water to the test water tank (200) or the cleaning water tank (300) or to deliver test water to the test water tank (200).

8. The water quality testing and cleaning system according to claim 7, characterized in that, The water supply pipeline assembly (800) includes a first water supply pipeline (801), one end of which has a test water inlet (802) for external test water to enter, and the other end of the first water supply pipeline (801) is connected to the test water inlet (802) and the test water tank (200) respectively. The first water supply pipeline (801) is provided with a first control valve (803) and a second control valve (804), and the first control valve (803) and the second control valve (804) are spaced apart along the extension direction of the first water supply pipeline (801).

9. The water quality testing and cleaning system according to claim 7, characterized in that, The water supply pipeline assembly (800) includes a second water supply pipeline (805), a first sub-pipeline (806), and a second sub-pipeline (807). One end of the second water supply pipeline (805) has a first cleaning water inlet (808) for external cleaning water to enter. The other end of the second water supply pipeline (805) is selectively connected to one end of the first sub-pipeline (806) and one end of the second sub-pipeline (807). The other end of the first sub-pipeline (806) is connected to the test water tank (200), and the other end of the second sub-pipeline (807) is connected to the cleaning water tank (300). A third control valve (809) is provided at the junction of the second water supply pipeline (805), the first sub-pipeline (806), and the second sub-pipeline (807).

10. The water quality testing and cleaning system according to claim 9, characterized in that, The water supply pipeline assembly (800) further includes a third water supply pipeline (810), one end of which has a second cleaning water inlet (811) for external cleaning water to enter, and the other end of which is connected to the second cleaning water inlet (811) and the cleaning water tank (300) respectively. The water supply pipeline assembly (800) also includes a main pipeline (812), one end of which has a main inlet (813) for external cleaning water to enter, and the other end of which is connected to the second cleaning water inlet (811) and the first cleaning water inlet (808); a fourth control valve (814) is provided in the third water supply pipeline (810).

11. The water quality testing and cleaning system according to any one of claims 1 to 6, characterized in that, The water quality testing and cleaning system also includes a drainage pipeline assembly (900), which is connected to the test water tank (200) and the cleaning water tank (300) respectively, and is used to discharge the cleaning water or test water in the test water tank (200) and the cleaning water tank (300).

12. The water quality testing and cleaning system according to claim 11, characterized in that, The drainage pipeline assembly (900) includes a main drainage pipeline (901), one end of which has a drain outlet (902), and the main drainage pipeline (901) is connected to the test water tank (200) and the cleaning water tank (300) respectively.

13. The water quality testing and cleaning system according to claim 12, characterized in that, The drainage pipeline assembly (900) includes at least one first drainage pipeline (903), at least one first drainage pipeline (903) is connected to the test water tank (200) and the main drainage pipeline (901) respectively, and a fifth control valve (904) is provided in the first drainage pipeline (903); And / or, the drain pipe assembly (900) includes at least one second drain pipe (905), the at least one second drain pipe (905) being connected to the cleaning water tank (300) and the main drain pipe (901) respectively, and a sixth control valve (906) is provided in the second drain pipe (905); And / or, the water quality testing and cleaning system further includes a rinsing water tank (907), which is located on the body (100) and on the side of the test water tank (200) away from the cleaning water tank (300). The rinsing water tank (907) is used to clean the brushing structure (500) when the brushing structure (500) is moved out of the test water tank (200) and into the rinsing water tank (907). The drainage pipeline assembly (900) further includes at least one third drainage pipeline (908), which is connected to the rinsing water tank (907) and the main drainage pipeline (901) respectively. At least one seventh control valve (909) is provided in the third drainage pipeline (908).

14. The water quality testing and cleaning system according to any one of claims 1 to 6, characterized in that, The brushing structure (500) is rotatably disposed in the second position switching module (700), and the brushing structure (500) includes at least one brush body (510), at least one brush body (510) is used to perform rotational brushing on the inner wall of the test water tank (200) when the brushing structure (500) moves into the test water tank (200); And / or, the cleaning tank (300) includes a transparent cleaning tank body (310) and a cleaning nozzle disposed within the cleaning tank body (310); And / or, the water quality testing and cleaning system further includes a controller (110), which is electrically connected to the first position switching module (600) and the second position switching module (700) respectively, and is used to control the working status of the first position switching module (600) and the second position switching module (700).

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