Sewage water quality sampling and monitoring integrated equipment

Abstract

The utility model discloses sewage quality sampling and monitoring integrated equipment which comprises a monitoring supporting mechanism, the top of the monitoring supporting mechanism is connected with a water quality sampling mechanism, and the bottom of the monitoring supporting mechanism is connected with a water quality monitoring mechanism; the monitoring supporting mechanism comprises a monitoring main body supporting plate, and monitoring supporting buoys are fixed to the two sides of the monitoring main body supporting plate respectively; the water quality sampling mechanism comprises a sampling supporting shaft, a sampling supporting ring is rotationally connected to the sampling supporting shaft, a plurality of sampling bottle placing holes are formed in the outer side of the sampling supporting ring, and sampling bottles are fixed in the sampling bottle placing holes; due to the integral floating type design, the whole equipment can be flexibly arranged in water bodies such as wastewater discharge ports of sewage treatment plants and industrial enterprises, rivers, lakes and the like; the position of the sampling conveying pump can be adjusted by utilizing the sampling end lifting mechanism, and the collected sample can be more comprehensive by adjusting the change of the sampling position, so that the accuracy of later result analysis is facilitated.

Description

TECHNICAL FIELD

[0001] The utility model relates to sewage treatment technical field, concretely is a sewage water quality sampling and monitoring integrated equipment. BACKGROUND

[0002] In water quality detection work, water quality sampling is a very important link, it is the beginning of this work, for testing the prescribed characteristics in water body, discontinuous or continuous from the specific water body takes a representative part, from sampling time, can be divided into instantaneous water sample and mixed water sample, from sampling concentration, can be divided into surface water sample, middle layer water sample and bottom water sample, from test item, can be divided into water quality water sample and biological water sample, the representativeness of water sample is the prerequisite of analysis test accuracy and evaluation conclusion reliability, and in order to guarantee the representativeness of water sample, must select the representative monitoring section or monitoring point, adopts the standardized sampling method, and collects the sample in the prescribed period;

[0003] The sampling device of prior art still has the deficiencies in the aspects of laying flexibility and sampling comprehensiveness, and needs further improvement and optimization. CONTENT OF THE UTILITY MODEL

[0004] The utility model discloses a kind of sewage water quality sampling and monitoring integrated equipment, can more flexible comprehensive sample collection and real-time monitoring to water quality.

[0005] To achieve the above object, the utility model provides the following technical scheme:

[0006] A kind of sewage water quality sampling and monitoring integrated equipment, including monitoring support mechanism, water quality sampling mechanism is connected in the top of monitoring support mechanism, water quality monitoring mechanism is connected in the bottom of monitoring support mechanism;

[0007] Monitoring support mechanism includes monitoring main body support plate, monitoring main body support plate both sides are each fixed with monitoring support float;

[0008] Water quality sampling mechanism includes the sampling support shaft that is fixed in the top of monitoring main body support plate and extends vertically, sampling support ring is rotationally connected with the coaxial sampling support shaft on the sampling support shaft, sampling support ring outside has a plurality of sampling bottle placing hole extending along its radial direction, sampling bottle is fixed in sampling bottle placing hole;

[0009] Monitoring main body support plate top is fixed with the sampling delivery support slide rail extending along the radial direction of sampling support ring, sampling delivery support slide rail is slidably connected with sampling delivery support sliding block on the sampling delivery support slide rail, sample delivery needle cylinder is fixed in the top of sampling delivery support sliding block, the needle head one end of sample delivery needle cylinder is towards sampling support ring;

[0010] The bottom of the monitoring main support plate is connected with a sampling containing spherical shell, a sampling delivery pump is fixed in the sampling containing spherical shell, and an output end of the sampling delivery pump is connected with a sample delivery needle cylinder in communication through a sampling delivery pipe.

[0011] The water quality monitoring mechanism comprises a water quality monitoring support column connected at the bottom of the monitoring main support plate, and a plurality of water quality monitoring flow-through holes penetrating along the axis of the water quality monitoring support column are formed in the water quality monitoring support column, and a water quality monitoring sensor is fixed in the water quality monitoring flow-through hole.

[0012] Preferably, the sampling containing spherical shell is connected with the monitoring main support plate through a sampling end lifting mechanism, the sampling end lifting mechanism comprises a sampling lifting fixed cylinder fixed on the monitoring main support plate and having an opening downward, a sampling lifting sliding cylinder having an opening upward is slidably connected in the sampling lifting fixed cylinder, and the sampling containing spherical shell is fixed at the lower end of the sampling lifting sliding cylinder.

[0013] A sampling lifting driving rod for driving the sampling lifting sliding cylinder to move is arranged in the sampling lifting fixed cylinder.

[0014] It is specified that the sampling end lifting mechanism can adjust the position of the sampling delivery pump, and the position of the sampling delivery pump is gradually deepened or shallowed under the driving of the sampling lifting driving rod, so that the collected sample can be more comprehensive, and the accuracy of the result analysis in the later stage is improved.

[0015] Preferably, the sampling containing spherical shell is a porous hollow structure with an inner and outer communication, and a sampling filter screen is arranged around the outer side of the sampling containing spherical shell.

[0016] It is specified that the sampling filter screen is used for filtering the water body, so as to avoid the blockage of the subsequent pipeline caused by the sundries in the water body.

[0017] Preferably, the water quality monitoring support column is connected with the bottom of the monitoring main support plate through a deflection depth exploration mechanism, the deflection depth exploration mechanism comprises a first deflection connecting seat fixed at the bottom of the monitoring main support plate, a first deflection rotating shaft is rotatably connected to the first deflection connecting seat, and a first deflection matching seat is fixed on the first deflection rotating shaft.

[0018] A depth exploration fixed cylinder with an open end is fixed on the first deflection matching seat, and a depth exploration sliding cylinder with an open end is slidably connected in the depth exploration fixed cylinder.

[0019] The outer end of the depth exploration sliding cylinder is fixed with a second deflection matching seat, the top of the water quality monitoring support column is fixed with a second deflection connecting seat, a second deflection rotating shaft is rotatably connected to the second deflection connecting seat, and the second deflection matching seat is fixedly connected with the second deflection rotating shaft.

[0020] A depth exploration driving rod for driving the depth exploration sliding cylinder to move is arranged in the depth exploration fixed cylinder.

[0021] The deflection deep exploration mechanism adjusts the position of the water quality monitoring support column body, controls the position of each water quality monitoring sensor through deflection and extension, and thus comprehensively monitors the water body.

[0022] Preferably, the downstream end of the water quality monitoring support column body is fixedly connected with an auxiliary flow pipe arranged coaxially therewith, the auxiliary flow pipe is rotationally connected with an auxiliary flow drive shaft coaxially therewith, and a plurality of auxiliary flow drive paddles are fixed on the auxiliary flow drive shaft.

[0023] The auxiliary flow pipe is fixedly connected with a rotation drive containing shell coaxially therewith, one end of the auxiliary flow drive shaft extends into the rotation drive containing shell, and the rotation drive containing shell is fixedly connected with an auxiliary flow drive motor for driving the auxiliary flow drive shaft to rotate.

[0024] The water body is made to flow, the data monitored by each water quality monitoring sensor is more comprehensive and accurate, and the monitoring data error of the local water body is large, thereby affecting the pollution judgment of the overall water body.

[0025] Compared with the prior art, the utility model has the beneficial effects in the following aspects:

[0026] 1. The utility model discloses a reasonable structure design, and the overall floating type design can make the whole equipment be arranged flexibly in the water body such as the wastewater discharge port of the sewage treatment plant, the industrial enterprise, the river and the lake.

[0027] 2. The utility model discloses convenient operation, and the sampling end lifting mechanism can adjust the position of the sampling delivery pump, the position of the sampling delivery pump is gradually deepened or gradually shallowed under the drive of the sampling lifting drive rod, the change adjustment of the sampling position makes the sample more comprehensive, and the accuracy of the result analysis in the later period is favorable.

[0028] 3. In the actual application process, if the flowability of the monitored water body is poor, the auxiliary flow drive motor can be started, the auxiliary flow drive shaft drives a plurality of auxiliary flow drive paddles to rotate together, under the drive of the plurality of auxiliary flow drive paddles, the water body is forced to flow along the extension direction of the water quality monitoring flow hole, the data monitored by each water quality monitoring sensor is more comprehensive and accurate, and the monitoring data error of the local water body is large, thereby affecting the pollution judgment of the overall water body.

[0029] 4. The utility model discloses that the deflection deep exploration mechanism adjusts the position of the water quality monitoring support column body, controls the position of each water quality monitoring sensor through deflection and extension, and thus comprehensively monitors the water body. BRIEF DESCRIPTION OF DRAWINGS

[0030] Figure 1 It is the front view of the utility model.

[0031] Figure 2 yes Figure 1 The left view;

[0032] Figure 3 This is a schematic diagram of the structure of the sampling and receiving spherical shell of this utility model;

[0033] Figure 4 This is a schematic diagram of the auxiliary flow tube of this utility model.

[0034] In the diagram, 10-monitoring support mechanism, 11-monitoring main support plate, 12-monitoring support float, 20-water quality sampling mechanism, 21-sampling support shaft, 22-sampling support ring, 220-sampling bottle placement hole, 23-sampling bottle, 241-sampling conveying support slide rail, 242-sampling conveying support slider, 25-sample conveying syringe, 251-sampling conveying pump, 252-sampling conveying pipe, 26-sampling receiving spherical shell, 261-sampling filter screen, 27-sampling end lifting mechanism, 271-sampling lifting fixed cylinder, 272-sampling lifting sliding cylinder, 273-sampling lifting drive rod, 30-water quality Monitoring mechanism, 31-water quality monitoring support column, 310-water quality monitoring flow hole, 32-water quality monitoring sensor, 33-deflection depth probing mechanism, 331-first deflection connecting seat, 332-first deflection shaft, 333-first deflection mating seat, 334-depth probing fixing cylinder, 335-depth probing sliding cylinder, 336-second deflection mating seat, 337-second deflection connecting seat, 338-second deflection shaft, 339-depth probing drive rod, 34-auxiliary flow pipe, 341-auxiliary flow drive shaft, 342-auxiliary flow drive blade, 343-rotation drive receiving shell, 344-auxiliary flow drive motor. Detailed Implementation

[0035] The following is combined with Figures 1-4 This utility model will be described in detail. For ease of description, the orientations mentioned below are defined as follows: The directions of up, down, left, right, front, and back mentioned below are consistent with the directions of up, down, left, right, front, and back in the projection relationship of their respective main views or structural schematic diagrams.

[0036] Example 1:

[0037] An integrated wastewater quality sampling and monitoring device, such as Figure 1 As shown, it includes a monitoring support mechanism 10, a water quality sampling mechanism 20 connected to the top of the monitoring support mechanism 10, and a water quality monitoring mechanism 30 connected to the bottom of the monitoring support mechanism 10;

[0038] The monitoring support structure 10 includes a monitoring main support plate 11, such as... Figure 2 As shown, monitoring support floats 12 are fixed on both sides of the monitoring main support plate 11;

[0039] The water quality sampling mechanism 20 comprises a sampling support shaft 21 fixed on the top of the monitoring main body support plate 11 and vertically extending, a sampling support ring 22 coaxial with the sampling support shaft 21 is rotationally connected to the sampling support shaft 21, a plurality of sampling bottle placing holes 220 radially extending along the sampling support ring 22 are formed on the outer side of the sampling support ring 22, and a sampling bottle 23 is fixed in each sampling bottle placing hole 220;

[0040] The bottle mouth of the sampling bottle 23 is sealed by a soft rubber plug;

[0041] The sampling support ring 22 is rotationally driven around the vertical axis of the sampling support shaft 21 by a servo motor fixed on the sampling support shaft 21 through gear transmission;

[0042] As shown in Figure 1 , the top of the monitoring main body support plate 11 is fixed with a sampling delivery support slide rail 241 extending radially along the sampling support ring 22, a sampling delivery support slide block 242 is slidingly connected to the sampling delivery support slide rail 241, a sample delivery syringe 25 is fixed on the top of the sampling delivery support slide block 242, and the needle head of the sample delivery syringe 25 is directed towards the sampling support ring 22;

[0043] The sampling delivery support slide block 242 is driven to move along the sampling delivery support slide rail 241 by a servo motor fixed on the sampling delivery support slide block 242 through gear and rack transmission;

[0044] As shown in Figure 1 , the bottom of the monitoring main body support plate 11 is connected with a sampling containing spherical shell 26, a sampling delivery pump 251 is fixed in the sampling containing spherical shell 26, and the output end of the sampling delivery pump 251 is connected in communication with the sample delivery syringe 25 through a sampling delivery pipe 252;

[0045] The sampling delivery pump 251 is a liquid delivery pump of the prior art;

[0046] The water quality monitoring mechanism 30 comprises a water quality monitoring support column 31 connected to the bottom of the monitoring main body support plate 11, a plurality of water quality monitoring flow-through holes 310 extending through the water quality monitoring support column 31 along the axis thereof are formed in the water quality monitoring support column 31, and a water quality monitoring sensor 32 is fixed in each water quality monitoring flow-through hole 310.

[0047] One water quality monitoring sensor 32 is arranged in each water quality monitoring flow-through hole 310, and the water quality monitoring sensor 32 comprises a pH sensor, a dissolved oxygen sensor, a conductivity sensor, a turbidity sensor, a chemical oxygen demand sensor and an ammonia nitrogen sensor of the prior art;

[0048] Embodiment 2:

[0049] On the basis of embodiment 1, as shown in Figure 1As shown, the sampling containing shell 26 is connected with the monitoring main body support plate 11 through the sampling end lifting mechanism 27, the sampling end lifting mechanism 27 comprises a sampling lifting fixed cylinder 271 fixed on the monitoring main body support plate 11 and opening downward, a sampling lifting sliding cylinder 272 opening upward is slidably connected in the sampling lifting fixed cylinder 271, and the sampling containing shell 26 is fixed at the lower end of the sampling lifting sliding cylinder 272.

[0050] The sampling lifting fixed cylinder 271 is provided with a sampling lifting driving rod 273 for driving the sampling lifting sliding cylinder 272 to move, the sampling lifting driving rod 273 is an existing technology electric control telescopic rod, the outer rod end of the sampling lifting driving rod 273 is fixedly connected with the inner top of the sampling lifting fixed cylinder 271, and the inner rod end of the sampling lifting driving rod 273 is fixedly connected with the inner bottom of the sampling lifting sliding cylinder 272.

[0051] Embodiment 3:

[0052] On the basis of embodiment 2, as shown in the figure, Figure 3 The sampling containing shell 26 is a porous hollow structure with the inside and outside communicated, and the sampling containing shell 26 is surrounded by a sampling filter screen 261 outside.

[0053] The sampling filter screen 261 is a filter screen of the prior art 400 purposes;

[0054] Embodiment 4:

[0055] On the basis of embodiment 3, as shown in the figure, Figure 1 The water quality monitoring support column 31 is connected with the bottom of the monitoring main body support plate 11 through the deflection depth exploration mechanism 33, the deflection depth exploration mechanism 33 comprises a first deflection connecting seat 331 fixed on the bottom of the monitoring main body support plate 11, the first deflection connecting seat 331 is rotatably connected with a first deflection rotating shaft 332, and the first deflection rotating shaft 332 is fixedly connected with a first deflection matching seat 333;

[0056] The first deflection rotating shaft 332 is rotatably driven by a servo motor fixed on the first deflection connecting seat 331 through a gear transmission;

[0057] The first deflection matching seat 333 is fixedly connected with a depth exploration fixed cylinder 334 with one end opening, and the depth exploration fixed cylinder 334 is slidably connected with a depth exploration sliding cylinder 335 with one end opening;

[0058] The depth exploration sliding cylinder 335 is fixedly connected with a second deflection matching seat 336 at the outer end, the water quality monitoring support column 31 is fixedly connected with a second deflection connecting seat 337 at the top, the second deflection connecting seat 337 is rotatably connected with a second deflection rotating shaft 338, and the second deflection matching seat 336 is fixedly connected with the second deflection rotating shaft 338;

[0059] The second deflection rotating shaft 338 is driven to rotate by a servo motor fixed on the second deflection connecting seat 337 through gear transmission.

[0060] The deep exploration fixed cylinder 334 is internally provided with a deep exploration driving rod 339 for driving the deep exploration sliding cylinder 335 to move, the deep exploration driving rod 339 is an existing electric control telescopic rod, the outer end of the deep exploration driving rod 339 is fixedly connected with the inner end of the deep exploration fixed cylinder 334, and the inner rod end of the deep exploration driving rod 339 is fixedly connected with the inner end of the deep exploration sliding cylinder 335.

[0061] Embodiment 5:

[0062] On the basis of embodiment 4, as shown in Figure 1 The downstream end of the water quality monitoring support column body 31 is fixedly connected with an auxiliary flow pipe 34 coaxially arranged therewith, the auxiliary flow pipe 34 is rotationally connected with an auxiliary flow driving shaft 341 coaxially arranged therewith, and a plurality of auxiliary flow driving paddles 342 are fixed on the auxiliary flow driving shaft 341.

[0063] As shown in Figure 4 The auxiliary flow pipe 34 is fixedly connected with a rotary driving containing shell 343 coaxially arranged therewith, one end of the auxiliary flow driving shaft 341 extends into the rotary driving containing shell 343, and the rotary driving containing shell 343 is fixedly connected with an auxiliary flow driving motor 344 for driving the auxiliary flow driving shaft 341 to rotate.

[0064] The auxiliary flow driving motor 344 is an existing motor, and the auxiliary flow driving motor 344 drives the auxiliary flow driving shaft 341 to rotate through gear transmission.

[0065] In the actual application process, the whole device is placed on the water surface, the monitoring support float 12 can provide buoyancy for the whole device, so that the whole device floats on the water surface, at this time, the monitoring main body support plate 11 is above the water surface, the sampling containing spherical shell 26 is immersed below the water surface, and the water quality monitoring support column body 31 is also immersed below the water surface.

[0066] The sampling support ring 22 is driven to rotate around the vertical axis of the sampling support shaft 21 by a servo motor fixed on the sampling support shaft 21 through gear transmission, so that one of the sampling bottles 23 and the sample delivery needle cylinder 25 are coaxially aligned along the radial direction of the sampling support ring 22 at all times.

[0067] In the sampling process, the water body is conveyed into the sample delivery syringe 25 through the sampling delivery pump 251 and the sampling delivery support slider 242, which is driven by the servo motor fixed on the sampling delivery support slider 242 to move along the sampling delivery support rail 241 through the gear and rack transmission, and the sample delivery syringe 25 is driven by the sampling delivery support slider 242 to approach the sampling bottle 23 and insert the needle into the sampling bottle 23, and then the water body is injected into the sampling bottle 23 to form a water sample;

[0068] After the injection is completed, the sampling delivery support slider 242 drives the sample delivery syringe 25 away from the sampling bottle 23, and the needle is extracted from the sampling bottle 23, and then the servo motor fixed on the sampling support shaft 21 drives the sampling support ring 22 to rotate around the vertical axis of the sampling support shaft 21 through the gear transmission, and the angle between the adjacent two sampling bottles 23 is rotated, so that the next empty sampling bottle 23 is coaxially aligned with the sample delivery syringe 25, and the next sampling work is prepared;

[0069] The sampling end lifting mechanism 27 can adjust the position of the sampling delivery pump 251, the inner rod of the sampling lifting drive rod 273 can drive the sampling lifting sliding cylinder 272 to move downward together with the sampling containing sphere 26 and the sampling delivery pump 251, so that the position of the sampling delivery pump 251 gradually deepens, and the inner rod of the sampling lifting drive rod 273 can drive the sampling lifting sliding cylinder 272 to move upward together with the sampling containing sphere 26 and the sampling delivery pump 251, so that the position of the sampling delivery pump 251 gradually shallows, and the change of the sampling position is adjusted, so that the collected sample can be more comprehensive, and the accuracy of the later result analysis is beneficial;

[0070] In the monitoring process, the extension direction of the water quality monitoring flow-through hole 310 is consistent with the flow direction of the water body, the monitored water body flows into the upstream end of the water quality monitoring flow-through hole 310 and then flows out from the downstream end, and each water quality monitoring sensor 32 arranged in the water quality monitoring flow-through hole 310 is used for monitoring the water body, including pH, dissolved oxygen, conductivity, turbidity, chemical oxygen demand and ammonia nitrogen;

[0071] Each water quality monitoring sensor 32 is electrically connected with a wireless transmission module of the prior art, and the data monitored by each water quality monitoring sensor 32 can be transmitted to the monitoring center in real time through the wireless transmission module, and the monitoring center can analyze and store all the monitored data;

[0072] If the flow of the monitored water body is poor, the auxiliary flow driving motor 344 can be started. The auxiliary flow driving motor 344 drives the auxiliary flow driving shaft 341 to rotate through gear transmission, and the auxiliary flow driving shaft 341 drives the plurality of auxiliary flow driving paddles 342 to rotate together. Under the drive of the plurality of auxiliary flow driving paddles 342, the water body is forced to flow along the extension direction of the water quality monitoring flow hole 310, which is beneficial to the more comprehensive and accurate data monitored by each water quality monitoring sensor 32, and avoids that the monitoring data of the local water body is too large to affect the judgment of the overall water pollution.

[0073] The position of the water quality monitoring support column 31 is adjusted by the deflection depth finding mechanism 33. The first deflection shaft 332 is driven to rotate by the servo motor fixed on the first deflection connecting seat 331 through gear transmission. The first deflection shaft 332 drives the first deflection matching seat 333, the depth finding fixed cylinder 334, the depth finding sliding cylinder 335, the second deflection matching seat 336, the second deflection shaft 338, the second deflection connecting seat 337 and the water quality monitoring support column 31 to deflect, so that the water quality monitoring support column 31 moves away from the monitoring main body support plate 11, and the positions of the water quality monitoring sensors 32 gradually become deeper, or the water quality monitoring support column 31 moves close to the monitoring main body support plate 11, and the positions of the water quality monitoring sensors 32 gradually become shallower.

[0074] Meanwhile, the second deflection shaft 338 is driven to rotate by the servo motor fixed on the second deflection connecting seat 337 through gear transmission, so that the water quality monitoring support column 31 and the second deflection connecting seat 337 deflect relative to the second deflection shaft 338, and the extension direction of the water quality monitoring flow hole 310 always keeps consistent with the flow direction of the water body.

[0075] The extension of the inner rod of the depth finding driving rod 339 can drive the depth finding sliding cylinder 335 and the water quality monitoring support column 31 to move along the axis of the depth finding fixed cylinder 334, so that the positions of the water quality monitoring sensors 32 gradually become deeper. The retraction of the inner rod of the depth finding driving rod 339 can drive the depth finding sliding cylinder 335 and the water quality monitoring support column 31 to move along the axis of the depth finding fixed cylinder 334, so that the positions of the water quality monitoring sensors 32 gradually become shallower.

[0076] The positions of the water quality monitoring sensors 32 are controlled by deflection and extension, so that the water body is more comprehensively monitored.

Claims

1. A sewage water quality sampling and monitoring integrated device, characterized in that, Including monitoring support mechanism (10), water quality sampling mechanism (20) is connected on the top of monitoring support mechanism (10), water quality monitoring mechanism (30) is connected on the bottom of monitoring support mechanism (10); The monitoring support mechanism (10) includes a monitoring body support plate (11), and monitoring support floats (12) are fixed on both sides of the monitoring body support plate (11); The water quality sampling mechanism (20) includes a sampling support shaft (21) fixed on the top of the monitoring body support plate (11) and vertically extending, a sampling support ring (22) coaxial with the sampling support shaft (21) is rotatably connected to the sampling support shaft (21), a plurality of sampling bottle placing holes (220) radially extending along the sampling support ring (22) are formed in the outer side of the sampling support ring (22), and sampling bottles (23) are fixed in the sampling bottle placing holes (220); A sampling conveying support sliding rail (241) radially extending along the sampling support ring (22) is fixed on the top of the monitoring body support plate (11), a sampling conveying support sliding block (242) is slidably connected to the sampling conveying support sliding rail (241), a sample conveying syringe (25) is fixed on the top of the sampling conveying support sliding block (242), and a needle head of the sample conveying syringe (25) is directed to the sampling support ring (22); A sampling containing spherical shell (26) is connected to the bottom of the monitoring body support plate (11), a sampling conveying pump (251) is fixed in the sampling containing spherical shell (26), and an output end of the sampling conveying pump (251) is connected in communication with the sample conveying syringe (25) through a sampling conveying pipe (252); The water quality monitoring mechanism (30) includes a water quality monitoring support column (31) connected to the bottom of the monitoring body support plate (11), a plurality of water quality monitoring flow-through holes (310) penetrating through the water quality monitoring support column (31) along the axis of the water quality monitoring support column (31) are formed in the water quality monitoring support column (31), and water quality monitoring sensors (32) are fixed in the water quality monitoring flow-through holes (310).

2. The integrated sewage water quality sampling and monitoring device according to claim 1, characterized in that, The sampling containing spherical shell (26) is connected to the monitoring body support plate (11) through a sampling end lifting mechanism (27), the sampling end lifting mechanism (27) includes a sampling lifting fixed cylinder (271) fixed on the monitoring body support plate (11) and having an opening downward, a sampling lifting sliding cylinder (272) having an opening upward is slidably connected in the sampling lifting fixed cylinder (271), and the sampling containing spherical shell (26) is fixed to the lower end of the sampling lifting sliding cylinder (272). The sampling lifting fixed cylinder (271) is provided with a sampling lifting driving rod (273) for driving the sampling lifting sliding cylinder (272) to move.

3. The integrated sewage water quality sampling and monitoring device according to claim 1, characterized in that, The sampling containing spherical shell (26) is a porous hollow structure with an inner side and an outer side in communication, and a sampling filter screen (261) is arranged around the outer side of the sampling containing spherical shell (26).

4. The integrated sewage water quality sampling and monitoring device according to claim 1, characterized in that, The water quality monitoring support column (31) is connected with the bottom of the monitoring main body support plate (11) through a deflection deep exploration mechanism (33), the deflection deep exploration mechanism (33) comprises a first deflection connecting seat (331) fixed on the bottom of the monitoring main body support plate (11), a first deflection rotating shaft (332) is rotatably connected to the first deflection connecting seat (331), and a first deflection matching seat (333) is fixed on the first deflection rotating shaft (332); An open-ended deep exploration fixed cylinder (334) is fixed on the first deflection matching seat (333), and an open-ended deep exploration sliding cylinder (335) is slidably connected in the deep exploration fixed cylinder (334); A second deflection matching seat (336) is fixed on the outer end of the deep exploration sliding cylinder (335), a second deflection connecting seat (337) is fixed on the top of the water quality monitoring support column (31), a second deflection rotating shaft (338) is rotatably connected to the second deflection connecting seat (337), and the second deflection matching seat (336) is fixedly connected with the second deflection rotating shaft (338); The deep exploration fixed cylinder (334) is provided with a deep exploration driving rod (339) for driving the deep exploration sliding cylinder (335) to move.

5. The integrated sewage water quality sampling and monitoring device according to claim 1, characterized in that, The downstream end of the water quality monitoring support column (31) is fixedly connected with an auxiliary flow pipe (34) coaxially arranged therewith, the auxiliary flow pipe (34) is rotatably connected with an auxiliary flow driving shaft (341) coaxially arranged therewith, and a plurality of auxiliary flow driving paddles (342) are fixed on the auxiliary flow driving shaft (341). The auxiliary flow pipe (34) is fixedly connected with a rotating driving containing shell (343) coaxially arranged therewith, one end of the auxiliary flow driving shaft (341) extends into the rotating driving containing shell (343), and an auxiliary flow driving motor (344) for driving the auxiliary flow driving shaft (341) to rotate is fixed in the rotating driving containing shell (343).

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