Rapid water quality testing equipment for mine water filling source

Abstract

The invention provides a mine water filling source water quality rapid test device, and relates to the technical field of water quality test equipment, the mine water filling source water quality rapid test device is characterized in that a longitudinal support rotating pipe is rotatably sleeved with three driving gears at equal intervals, and the three driving gears are correspondingly engaged with three vertical racks for transmission; a driving shaft is slidably mounted in the longitudinal supporting rotating pipe through pushing of a spring, and three roller-shaped gears are welded and sleeved on the part, located in the longitudinal supporting rotating pipe, of the driving shaft at intervals; and a circle of tooth grooves are formed in the circumferential inner rings of the driving gears in a surrounding mode, and when the driving shaft slides towards the tail end of the longitudinal supporting rotating pipe, the three roller-shaped gears are sequentially in inserted connection transmission with the three circles of tooth grooves in the inner rings of the three driving gears correspondingly. When the three reagents in the three transparent reagent tubes are sequentially discharged and added, the hand can be implemented without leaving the driving shaft and only needs to move forwards and twist the driving shaft, compared with the prior art, the hand does not need to be greatly moved, and the overall adding operation efficiency of the three reagents can be improved.

Description

Technical Field

[0001] The invention relates to the technical field of water quality testing equipment, and in particular to a rapid testing equipment for water quality of a mine filling water source. Background Art

[0002] The mine filling water source water quality rapid testing equipment is a kind of equipment specially used for the mine filling water source water quality testing. It is used to quickly determine the content of harmful substances that may exist in the mine water to ensure the safe production of the mine.

[0003] When using the water quality testing equipment, a variety of different test reagents need to be added to the water sample. However, most of the existing water quality testing equipment do not have integrated test reagent containers. As a result, during the test, multiple reagent containers need to be picked up and transferred one by one from an external device for carrying and placing test reagent containers to the water sample container of the water quality testing equipment. After the reagents are added, the multiple reagent containers need to be picked up and transferred and reset again, which is troublesome and inconvenient to operate. In addition, although some water quality testing equipment is integrated with reagent containers, the components on multiple reagent containers for discharging the internal reagents for adding are installed separately and independently, and lack a mechanism that can be driven in sequence without moving the hand significantly. As a result, when adding multiple reagents one by one, it is necessary to move the hand significantly and move the hand close to multiple reagent containers in turn to drive the reagent discharging components on the corresponding reagent containers to discharge and add multiple reagents in turn. This operation is relatively cumbersome and inconvenient, and is not conducive to improving the overall efficiency of adding multiple reagents. Summary of the invention

[0004] In view of this, the present invention provides a rapid testing device for the water quality of a mine filling water source, so as to solve the problem of low efficiency in the overall addition of multiple reagents.

[0005] The technical solution proposed by the present invention is: a rapid testing device for the water quality of a mine water source, specifically comprising: a testing table, one short side of which is detachably mounted with three transparent reagent tubes arranged at equal intervals, and the bottom of the transparent reagent tube is fixedly connected with an L-shaped liquid outlet pipe; Three vertical racks are slidably installed just above the three transparent reagent tubes, and rubber pistons are fixedly sleeved at the bottom of the vertical racks. When the three vertical racks slide downward, the three rubber pistons corresponding to the sliding plugs are inserted into the three transparent reagent tubes, which are used to discharge the reagents in the three transparent reagent tubes through the three L-shaped liquid outlet pipes and add them to the mine water sample to be tested; A longitudinal support rotating tube is rotatably installed in the space above the top of the three transparent reagent tubes, and three driving gears are rotatably mounted on the longitudinal support rotating tube at equal intervals, and the three driving gears are meshed with three vertical racks for transmission; a driving shaft is slidably installed inside the longitudinal support rotating tube through spring pushing, and three roller gears are welded and mounted on the part of the driving shaft located in the longitudinal support rotating tube at intervals; a circle of teeth grooves are arranged around the inner ring of the circumference of the driving gear, and when the driving shaft slides toward the rear end of the longitudinal support rotating tube, the three roller gears are respectively and sequentially plugged into the three circles of teeth grooves on the inner rings of the three driving gears for transmission.

[0006] Furthermore, The longitudinal support rotating tube is welded with three sets of limit rings at equal intervals, each set of limit rings is composed of two limit rings arranged at intervals, and the rotation limit of the driving gear is between the two limit rings arranged in one group.

[0007] Furthermore, The wall of the longitudinal support rotating tube is provided with three circles of long sliding grooves arranged at intervals, and the three circles of gear pieces on the three roller-shaped gears are correspondingly slidably matched with the three circles of long sliding grooves; The inner ring of the limit ring is surrounded by a circle of through grooves, which are connected with the long slide grooves, and the part of the tooth sheet of the roller-shaped gear protruding from the long slide grooves is slidably matched with the through grooves.

[0008] Furthermore, The top of one short side of the test platform is fixed with three L-shaped mounting rods arranged at equal intervals by bolts, and the three vertical racks are correspondingly penetrated and slidably matched with the head ends of the cross bracing rod sections of the three L-shaped mounting rods; The two end parts of the short side of the detection platform close to the L-shaped mounting rod are fixed with two symmetrically arranged L-shaped support rods by bolts, and the head and tail end parts of the longitudinal support rotating tube correspond to the top parts of the two L-shaped support rods and rotate through them.

[0009] Furthermore, A vertically arranged square plug rod is slidably installed in the middle part of the cross brace section of the L-shaped mounting rod through the spring push; The transparent reagent tube is made of plastic, and the top portion is integrally formed with two clamping plates at intervals, and a clamping slot is formed between the two clamping plates, and the clamping slot is inserted and matched with the short side portion of the detection table close to the L-shaped mounting rod; The bottom side of the square plug rod is plugged and matched with the detection table and two clamping plates.

[0010] Furthermore, Two ground-contacting support frames are symmetrically welded on the two short sides of the bottom side of the detection table, wherein a horizontally arranged I-shaped mounting plate is welded inside the ground-contacting support frame located on the side of the transparent reagent tube, and three short filling tubes equidistantly arranged and fixed are penetrated through the short longitudinal support plate of the I-shaped mounting plate.

[0011] Furthermore, Three soft conduits are connected between the three filling short pipes and the head ends of the three L-shaped liquid outlet pipes.

[0012] Furthermore, A test cup is placed on the ground directly below the three filling short pipes, and the test cup is used to hold the mine water sample to be tested; A water quality tester is fixed on the top of the test table by bolts, and a test probe is connected to the water quality tester through a communication cable. During the test, the test probe is inserted into the test cup and the head end is immersed in the mine water sample.

[0013] Furthermore, The head end portion of the driving shaft protrudes from the longitudinal support rotating tube, and a plum blossom knob is welded to the head end of the longitudinal support rotating tube.

[0014] The invention provides a rapid testing device for the water quality of a mine water source, which has the following beneficial effects: 1. The three transparent reagent tubes are respectively used to hold three different test reagents. The three transparent reagent tubes are integrated and installed on the right side of the test bench. When adding test reagents to the water sample, the reagents in the three transparent reagent tubes can be directly discharged. Compared with the prior art, the trouble of picking up and transferring the three transparent reagent tubes back and forth between the external device for carrying and placing the three transparent reagent tubes and the test equipment when adding reagents is eliminated. The operation is convenient and efficient.

[0015] 2. When the present invention discharges and adds three reagents in three transparent reagent tubes in sequence, the hand can be implemented without leaving the drive shaft, and only needs to move forward and twist the drive shaft. Compared with the prior art, it saves the cumbersome steps of moving the hand significantly, moving the hand to the three transparent reagent tubes in sequence and pressing down the three vertical racks in sequence to discharge and add the three reagents. It is easy to operate and use, which helps to improve the overall efficiency of the addition of the three reagents. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In order to more clearly illustrate the technical solution of the embodiment of the present invention, the drawings of the embodiment are briefly introduced below.

[0017] In the drawings described below, the length direction of the testing platform is marked as the left-right direction, and the width direction is marked as the front-back direction.

[0018] The drawings described below are only related to some embodiments of the present invention, but are not intended to limit the present invention.

[0019] In the attached picture: Figure 1 The overall structural diagram of the present invention is shown; Figure 2 The overall left side structural schematic diagram of the present invention is shown; Figure 3 The overall bottom side structural schematic diagram of the present invention is shown; Figure 4 A schematic diagram of the structure of an L-shaped mounting rod and an L-shaped support rod of the present invention is shown; Figure 5 A schematic diagram of the structure of a transparent reagent tube of the present invention is shown; Figure 6 A schematic diagram of the longitudinal support rotating pipe structure of the present invention is shown; Figure 7 It shows a schematic diagram of the inner side structure of a half-section of the longitudinal support rotating tube of the present invention; Figure 8 A schematic diagram showing a disassembled state of the drive shaft and the drive gear of the present invention is shown; Fig. 9 A schematic diagram of the driving gear structure of the present invention is shown.

[0020] List of reference numerals: 1. Test bench; 101. I-shaped mounting plate; 1011. Filling short pipe; 102. L-shaped mounting rod; 1021. Square plug rod; 103. L-shaped support rod; 2. Water quality tester; 201. Test probe; 3. Transparent reagent tube; 301. L-shaped liquid outlet tube; 302. Cardboard; 4. Test cup; 5. Vertical rack; 501. Rubber piston; 6. Longitudinal support rotating tube; 601. Driving gear; 602. Limiting ring; 603. Long slide groove; 7. Drive shaft; 701. Roller gear. DETAILED DESCRIPTION

[0021] In order to make the purpose, technical solution and advantages of the present invention clearer, the technical solution of the present invention will be clearly and completely described below in conjunction with the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the described embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work belong to the scope of protection of the present invention.

[0022] Please refer to Figures 1 to 9, an embodiment provided by the present invention: The present invention provides a rapid testing device for the water quality of a mine water source, comprising: a testing platform 1, on one short side of which three transparent reagent tubes 3 arranged at equal intervals are detachably mounted, and the bottom of the transparent reagent tube 3 is fixedly connected with an L-shaped liquid outlet pipe 301; The three transparent reagent tubes 3 are respectively used to contain three different test reagents. The three transparent reagent tubes 3 are integrated and installed on the right side of the test table 1. When adding test reagents to the water sample, the reagents in the three transparent reagent tubes 3 can be directly discharged. Compared with the prior art, when adding reagents, the trouble of reciprocating and transferring the three transparent reagent tubes 3 between the external device for carrying and placing the three transparent reagent tubes 3 and the test equipment is omitted, and the operation is convenient and efficient. Three vertical racks 5 are slidably mounted just above the three transparent reagent tubes 3, and a rubber piston 501 is fixedly mounted on the bottom of the vertical racks 5. When the three vertical racks 5 slide downward, the three rubber pistons 501 are inserted into the three transparent reagent tubes 3 corresponding to the sliding plugs, so as to discharge the reagents in the three transparent reagent tubes 3 through the three L-shaped liquid outlet pipes 301 and add them to the mine water sample to be tested; A longitudinal support rotating tube 6 is rotatably installed in the space above the top of the three transparent reagent tubes 3, and three driving gears 601 are rotatably installed on the longitudinal support rotating tube 6 at equal intervals, and the three driving gears 601 are meshed with three vertical racks 5 for transmission; a driving shaft 7 is slidably installed inside the longitudinal support rotating tube 6 through spring pushing, and three roller-shaped gears 701 are welded and sleeved on the part of the driving shaft 7 located in the longitudinal support rotating tube 6 at intervals; a circle of tooth grooves is arranged around the inner ring of the circumference of the driving gear 601, and when the driving shaft 7 slides toward the tail end of the longitudinal support rotating tube 6, the three roller-shaped gears 701 are respectively and sequentially plugged into the three circles of tooth grooves on the inner ring of the three driving gears 601 for transmission; Through the three driving gears 601, the driving shaft 7 can mesh with and drive the three vertical racks 5 and the three rubber pistons 501 to slide downward in sequence, so as to press and discharge the reagents inside the three transparent reagent tubes 3. Specifically, in the initial state, the roller gear 701 on the rear side is plugged into and matched with a circle of teeth and grooves on the inner ring of the rear driving gear 601. At this time, the driving shaft 7 is power-coupled with the rear driving gear 601. The rear vertical rack 5 can be driven to slide down by the rotation and meshing of the rear driving gear 601, so as to press and discharge the reagents inside the rear transparent reagent tube 3. When the reagent in the rear transparent reagent tube 3 is discharged and added, the drive shaft 7 is slid forward. During the forward sliding process of the drive shaft 7, when the rear roller gear 701 is separated from the tooth groove of the inner ring of the rear driving gear 601, the middle roller gear 701 is plugged into and matched with the tooth groove of the inner ring of the middle driving gear 601 for transmission. At this time, the forward movement of the drive shaft 7 is stopped. The drive shaft 7 is coupled with the middle roller gear 701 in power. The middle roller gear 701 can be rotated and meshed to drive the middle vertical rack 5 to slide down, so that the middle transparent reagent tube 3 is discharged. The reagent inside the tube 3 is pressed out; when the reagent in the middle transparent reagent tube 3 is discharged and added, the drive shaft 7 continues to slide forward. When the drive shaft 7 continues to slide forward, the middle roller gear 701 is separated from the inner circle of the middle drive gear 601. The front roller gear 701 is plugged into the inner circle of the front drive gear 601 for transmission. At this time, the forward movement of the drive shaft 7 is stopped. The drive shaft 7 is coupled with the front drive gear 601 by power, and the front vertical gear can be driven by the front drive gear 601 to rotate and mesh. The rack 5 slides down to push and discharge the reagent inside the transparent reagent tube 3 at the front side. In this way, when the three reagents in the three transparent reagent tubes 3 are discharged and added in sequence, the hand can be carried out without leaving the drive shaft 7, and only needs to move forward and twist the drive shaft 7. Compared with the prior art, it saves the cumbersome steps of moving the hand significantly, moving the hand to the three transparent reagent tubes 3 in sequence, and pressing down the three vertical racks 5 in sequence to discharge and add the three reagents. The operation is convenient and useful, which helps to improve the overall efficiency of the addition of the three reagents. It is worth noting that: when the driving shaft 7 slides forward and drives the front and middle roller gears 701 to connect with the front and middle driving gears 601 respectively, there may be a situation where the teeth on the roller gear 701 and the tooth grooves on the inner ring of the driving gear 601 are not aligned or misaligned. At this time, the driving shaft 7 should be twisted forward and backward to fine-tune the tooth grooves on the inner ring of the roller gear 701 and the driving gear 601, and the correction should be performed on a circle of tooth grooves on the inner ring of the roller gear 701 and the driving gear 601.

[0023] Preferably, Three groups of limit rings 602 are welded and mounted on the longitudinal support rotating tube 6 at equal intervals. Each group of limit rings 602 is composed of two limit rings 602 arranged at intervals. The rotation of the driving gear 601 is limited between the two limit rings 602 arranged in a group.

[0024] Preferably, Three circles of long slide grooves 603 are arranged at intervals on the tube wall of the longitudinal support rotating tube 6, and the three circles of tooth pieces on the three roller-shaped gears 701 correspond to the three circles of long slide grooves 603 that penetrate and slide in cooperation; a circle of through grooves is arranged around the inner ring of the limiting ring 602, which is connected with the long slide groove 603, and the part of the tooth piece of the roller-shaped gear 701 that protrudes from the long slide groove 603 slides in cooperation with the through grooves.

[0025] Preferably, Three L-shaped mounting rods 102 equidistantly arranged are fixed to the top of a short side portion of the testing platform 1 by bolts, and three vertical racks 5 are slidably fitted with the head ends of the three transverse bracing rod sections of the L-shaped mounting rods 102; two symmetrically arranged L-shaped bracing rods 103 are fixed to the two end portions of the short side portion of the testing platform 1 close to the L-shaped mounting rod 102 by bolts, and the head and tail end portions of the longitudinal supporting rotating tube 6 are rotatably fitted with the top ends of the two L-shaped bracing rods 103.

[0026] Preferably, The middle part of the cross brace section of the L-shaped mounting rod 102 is pushed through by a spring to slide and install a vertically arranged square plug rod 1021; the transparent reagent tube 3 is made of plastic material, and the top part is integrally formed with two clamping plates 302 at an interval, and a clamping groove is formed between the two clamping plates 302, and the clamping groove is inserted and matched with the short side part of the detection platform 1 close to the L-shaped mounting rod 102; the bottom side part of the square plug rod 1021 is inserted and matched with the detection platform 1 and the two clamping plates 302; The square plug rod 1021 can insert and position the two clamping plates 302 and the right side of the detection platform 1 together to fix the transparent reagent tube 3.

[0027] Preferably, Two ground-contacting support frames are symmetrically welded on the two short sides of the bottom side of the detection platform 1, and a horizontally arranged I-shaped mounting plate 101 is welded inside the ground-contacting support frame located on the side of the transparent reagent tube 3. Three equally spaced short filling tubes 1011 are fixedly penetrated on the short longitudinal support plate of the I-shaped mounting plate 101; three soft guide tubes are connected between the three short filling tubes 1011 and the head ends of the three L-shaped liquid outlet tubes 301.

[0028] Preferably, A test cup 4 is placed on the ground directly below the three filling short pipes 1011, and the test cup 4 is used to hold the mine water sample to be tested; a water quality tester 2 is fixed to the top of the test table 1 by bolts, and a test probe 201 is connected to the water quality tester 2 by a communication cable. During the test, the test probe 201 is inserted into the test cup 4 and the head end is immersed in the mine water sample; A display screen is embedded in the top of the water quality tester 2. The test probe 201 is used to test the water sample. The water quality data detected by the test probe 201 is transmitted to the water quality tester 2 via the communication cable and displayed on the display screen in real time. The three reagents discharged by top pressure through the three L-shaped liquid outlet pipes 301 are sequentially added to the water sample inside the test cup 4 through three soft catheters and three filling short tubes 1011.

[0029] Preferably, The head end portion of the driving shaft 7 protrudes from the longitudinal support rotating tube 6 , and a plum blossom knob is welded to the head end of the longitudinal support rotating tube 6 .

[0030] The working principle of this embodiment is as follows: the test cup 4 is used to hold the mine water sample to be tested, and the three transparent reagent tubes 3 are respectively used to hold three different test reagents. The above three test reagents need to be added to the water sample during the test; Through three driving gears 601, the driving shaft 7 can mesh with and drive three vertical racks 5 and three rubber pistons 501 to slide downward in sequence, so as to press and discharge the reagents inside the three transparent reagent tubes 3. Specifically, in the initial state, the roller gear 701 on the rear side is plugged into and matched with a circle of teeth on the inner ring of the rear driving gear 601 for transmission. At this time, the driving shaft 7 is power-coupled with the rear driving gear 601, and the rear vertical rack 5 can be driven to slide down through the rotation and meshing of the rear driving gear 601 to press and discharge the reagents inside the rear transparent reagent tube 3. After the discharge and addition of the reagents in the rear transparent reagent tube 3 are completed, the driving shaft 7 is slid forward. During the process of the driving shaft 7 sliding forward, when the roller gear 701 on the rear side is separated from the circle of teeth on the inner ring of the rear driving gear 601, the middle roller gear 701 is plugged into and matched with a circle of teeth on the inner ring of the middle driving gear 601 for transmission. At this time, the forward movement of the driving shaft 7 is stopped, and the driving shaft 7 and the middle The roller gear 701 is power coupled, and the middle roller gear 701 can rotate and mesh to drive the middle vertical rack 5 to slide down, so that the reagent inside the middle transparent reagent tube 3 is pressed and discharged; when the discharge and addition of the reagent in the middle transparent reagent tube 3 are completed, the drive shaft 7 continues to slide forward. During the process of the drive shaft 7 continuing to slide forward, after the middle roller gear 701 is separated from a circle of teeth on the inner ring of the middle drive gear 601, the front roller gear 701 is plugged and matched with a circle of teeth on the inner ring of the front drive gear 601 for transmission, and the forward movement of the drive shaft 7 is stopped at this time. The drive shaft 7 is power coupled with the front drive gear 601, and the front vertical rack 5 can be driven to slide down by the rotation and meshing of the front drive gear 601, so that the reagent inside the front transparent reagent tube 3 is pressed and discharged; the three reagents pressed and discharged through the three L-shaped liquid outlet pipes 301 are sequentially added to the water sample inside the test cup 4 through three soft catheters and three filling short tubes 1011; A display screen is embedded in the top of the water quality tester 2. The test probe 201 is used to test the water sample. The water quality data detected by the test probe 201 is transmitted to the water quality tester 2 via a communication cable and displayed on the display screen in real time.

[0031] In this article, there are a few points to note: 1. The drawings of the embodiments of the present invention only involve structures related to the embodiments of the present invention, and other structures can refer to the general design.

[0032] 2. In the absence of conflict, the embodiments of the present invention and the features therein may be combined with each other to obtain new embodiments.

[0033] The above are only specific embodiments of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art who is familiar with the technical field can easily think of changes or substitutions within the technical scope disclosed by the present invention, which should be included in the protection scope of the present invention. Therefore, the protection scope of the present invention should be based on the protection scope of the claims.

Claims

1. A rapid testing device for the quality of water source for mine filling, comprising: A testing platform (1), wherein three transparent reagent tubes (3) arranged at equal intervals are detachably mounted on one short side of the testing platform (1), and an L-shaped liquid outlet tube (301) is fixedly connected to the bottom of the transparent reagent tube (3); The invention is characterized in that three vertical racks (5) are slidably mounted just above the three transparent reagent tubes (3), and a rubber piston (501) is fixedly mounted on the bottom of the vertical racks (5). When the three vertical racks (5) slide downward, the three rubber pistons (501) are inserted into the three transparent reagent tubes (3) corresponding to the sliding plugs, so as to discharge the reagents in the three transparent reagent tubes (3) through the three L-shaped liquid outlet pipes (301) and add them to the mine water sample to be tested. A longitudinal support rotating tube (6) is rotatably installed in the space above the top of the three transparent reagent tubes (3), and three driving gears (601) are rotatably mounted on the longitudinal support rotating tube (6) at equal intervals, and the three driving gears (601) are meshed with three vertical racks (5) for transmission; a driving shaft (7) is slidably installed inside the longitudinal support rotating tube (6) through spring pushing, and three roller gears (701) are welded and mounted on the part of the driving shaft (7) located in the longitudinal support rotating tube (6); a circle of tooth grooves is arranged around the inner ring of the circumference of the driving gear (601), and when the driving shaft (7) slides toward the rear end of the longitudinal support rotating tube (6), the three roller gears (701) are respectively and sequentially plugged into the three circles of tooth grooves on the inner ring of the three driving gears (601) for transmission.

2. A rapid testing device for water quality of a mine water source according to claim 1, characterized in that: Three groups of limit rings (602) are welded and sleeved on the longitudinal support rotating tube (6) at equal intervals, each group of limit rings (602) is composed of two limit rings (602) arranged at intervals, and the rotation of the driving gear (601) is limited between the two limit rings (602) arranged in a group.

3. A rapid testing device for water quality of a mine water source according to claim 2, characterized in that: The wall of the longitudinal support rotating tube (6) is provided with three circles of long sliding grooves (603) arranged at intervals, and the three circles of gear pieces on the three roller-shaped gears (701) are correspondingly slidably matched with the three circles of long sliding grooves (603); The inner ring of the limiting ring (602) is provided with a circle of through grooves, which are connected to the long slide groove (603), and the part of the tooth plate of the roller-shaped gear (701) protruding from the long slide groove (603) is slidably matched with the through groove.

4. A rapid testing device for water quality of a mine water source according to claim 1, characterized in that: The top end of a short side portion of the detection platform (1) is fixed with three L-shaped mounting rods (102) arranged at equal intervals by bolts, and the three vertical racks (5) are slidably fitted through the head ends of the horizontal bracing rod sections of the three L-shaped mounting rods (102); Two symmetrically arranged L-shaped support rods (103) are fixed to the two end portions of the short side of the detection platform (1) close to the L-shaped mounting rod (102) by bolts, and the head and tail end portions of the longitudinal support rotating tube (6) are correspondingly penetrated and rotatably matched with the top ends of the two L-shaped support rods (103).

5. A rapid testing device for water quality of a mine water source according to claim 4, characterized in that: A square plug rod (1021) arranged vertically and slidably installed in the middle part of the cross brace section of the L-shaped installation rod (102) through spring pushing; The transparent reagent tube (3) is made of plastic, and has two clamping plates (302) integrally formed at the top portion at an interval, with a clamping groove formed between the two clamping plates (302), which is inserted and matched with the short side portion of the detection platform (1) close to the L-shaped mounting rod (102); The bottom side portion of the square plug rod (1021) is inserted and matched with the detection platform (1) and the two clamping plates (302).

6. A rapid testing device for water quality of a mine filling water source according to claim 1, characterized in that: Two ground-contacting support frames are symmetrically welded to the two short sides of the bottom side of the detection platform (1), wherein a horizontally arranged I-shaped mounting plate (101) is welded inside the ground-contacting support frame located on one side of the transparent reagent tube (3), and three equally spaced short filling pipes (1011) are fixedly penetrated on the short longitudinal support plate of the I-shaped mounting plate (101).

7. A rapid testing device for water quality of a mine filling water source according to claim 6, characterized in that: Three soft conduits are connected between the three filling short pipes (1011) and the head ends of the three L-shaped liquid outlet pipes (301).

8. A rapid testing device for water quality of a mine water source according to claim 7, characterized in that: A test cup (4) is placed on the ground directly below the three filling short pipes (1011), and the test cup (4) is used to hold a mine water sample to be tested; A water quality tester (2) is fixed to the top of the test platform (1) by means of bolts, and a test probe (201) is connected to the water quality tester (2) by means of a communication cable. During the test, the test probe (201) is inserted into the test cup (4) with the head end immersed in the mine water sample.

9. A rapid testing device for water quality of a mine water source according to claim 1, characterized in that: The head end portion of the driving shaft (7) protrudes from the longitudinal support rotating tube (6), and a plum blossom knob is welded to the head end of the longitudinal support rotating tube (6).

Images