CN202770666U - Profile sampling device for water buoy - Google Patents

Profile sampling device for water buoy Download PDF

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Publication number
CN202770666U
CN202770666U CN 201220281568 CN201220281568U CN202770666U CN 202770666 U CN202770666 U CN 202770666U CN 201220281568 CN201220281568 CN 201220281568 CN 201220281568 U CN201220281568 U CN 201220281568U CN 202770666 U CN202770666 U CN 202770666U
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CN
China
Prior art keywords
water
buoy
section
valve
measurement chamber
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Expired - Fee Related
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CN 201220281568
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Chinese (zh)
Inventor
韩志国
姜星
钱程
毕昆
顾群
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ZEALQUEST SCIENTIFIC TECHNOLOGY CO., LTD.
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SHANGHAI ZEALQUEST SCIENTIFIC TECHNOLOGY Co Ltd
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Priority to CN 201220281568 priority Critical patent/CN202770666U/en
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Abstract

The utility model provides a profile sampling device for a water buoy, which comprises an electronic cabin unit mounted in the buoy and a profile sampling unit hung under the buoy, wherein the profile sampling unit includes a profile water inlet pipe, three-way valves mounted on the profile water inlet pipe at intervals, a steel cable, a pressure sensor mounted on the steel cable, a water temperature sensor mounted on the steel cable, and a heavy punch connected with the tail end of the steel cable; the pressure sensor, the water temperature sensor and all the three-way valves are mounted in the same horizontal plane; and the electronic cabin unit includes a flow meter connected with the profile water inlet pipe, a water quality measurement chamber connected with the flow meter, a pumping plant connected between the flow meter and the water quality measurement chamber, a data acquisition module connected with the pressure sensor, the pumping device and the water quality measurement chamber for controlling the water sample acquisition, the depth measurement and the water quality analysis and recording the measurement data, and a solar power supply system for supplying power to the whole set of sampling device. The profile sampling device for the water buoy disclosed by the utility model can automatically acquire water samples in different water layers to analyze the water quality so as to achieve the purpose of long-time continuous unattended sampling.

Description

Water body buoy section sampling apparatus
Technical field
The utility model relates to the monitoring water environment technical field, and specifically, the utility model relates to a kind of water body buoy section sampling apparatus.
Background technology
Physics, chemistry, the biotic factor of the different water layers of the water bodys such as ocean, lake, reservoir, river are widely different, and traditional monitering buoy is general only monitors for surface water, can not truly reflect the water quality situation of whole water body section.For example, in the ocean, phytoplankton can be in the whole euphotic layer existence of degree of depth 0-200m, and the Phytoplankton biomass of so only measuring surface water is to represent Phytoplankton biomass in the whole 200m water column.
In order to carry out long term monitoring to the water body of different depth, the researchist has designed several different methods and device is done profile survey, substantially can be divided into four classes:
(1) the buoy section method of movement.The buoy integral body of carrying surveying instrument is carried out the section motion in water body inside, simultaneously the water body of different depth is monitored.Most typical representative is the Argos drifting buoy, by regulating up and down section motion in the marine site of buoyancy in degree of depth 2000m, measures the indexs such as water temperature, pressure, salinity, and carry out satellite communication when buoy surfaces.China scientific research personnel also autonomous Design some can do the buoy of section motion, such as Chinese invention patent CN 100445164C, CN 101738179B and CN 102129089A etc.
Although these buoys can carry out good profile survey, but all exist power supply supply difficulty, electric weight to exhaust the problem of necessary power cut-off, simultaneously can only measure the basic indexs such as water temperature, pressure, salinity, complicated nutritive salt and biological indicator can't be measured owing to length consuming time.
(2) the sensor section method of movement.Setting winch system on buoy or platform does the section motion by winch control sensor and measures in the underwater.Just proposed this viewpoint as far back as U.S.'s patent of invention 4157657 in 1979, the water quality vertical section automatic monitoring system of U.S. YSI Inc. has also adopted similar approach.The major defect of this method also is to measure complicated nutritive salt and biological indicator.U.S. Patent application US2003/0092393A1 has proposed a kind of platform that can regulate buoyancy that drags under buoy, carry instrument on the platform, by the lifting method of carrying out profile survey of control platform.The elevating control of platform is similar to the Argos drifting buoy in this method, but the sun power of water surface float is adopted in its power supply, can continue.For the instrument type of carrying on the platform, this patent is not pointed out in detail.
(3) the sensor section lays method.Wirerope of drag and drop under buoy or platform is installed water quality sensor every a segment distance on wirerope, be placed in the water body for a long time and monitor.Typical Representative is the temperature chain T-Chain system of U.S. PME company, and Chinese utility model patent CN 201497507U, CN 201215902U and CN2400792Y etc. have also proposed similar temperature catenary system.This system also take indexs such as simple gaging pressure, temperature as main, can't measure for nutritive salt and biological indicator.
(4) the sampling pipe section method of movement.Chinese invention patent application CN 102381441A has proposed a kind of sampling pipe VTOL (vertical take off and landing) below the motor control buoy and has come section sampling, and the instrument room that sample delivery enters buoy inside is carried out the method for analysis to measure.The advantage of this method is water sample is conveyed in the instrument room of buoy inside can carry out complicated measurement, such as the flow cytometry that utilizes that this patent proposes phytoplankton is counted, shortcoming is that sampling pipe easily with the current drift, causes the degree of depth that can't accurately determine the source water sample.
To sum up, still there is not a kind of preferably method that the water body section is carried out perfect physics, chemistry and biology measurement at present.Buoy and the sensor section method of movement are not suitable for carrying out process complexity, long nutritive salt consuming time, the measurement of biological indicator; The sensor section lays method can only measure simple physical index, if nutritive salt analysis, bio-analysis instrument also section are laid, cost is too high; The impact that the sampling pipe section method of movement is subject to drift about.More feasible mode is a kind of device that can carry out accurate section sampling under buoy of desired design at present, water sample is conveyed in the instrument cabin of buoy inside, utilize various advanced persons' physics, chemistry and biology analytical instrument to carry out perfect measurement, and provide electric power by the buoy solar electric power supply system, reach the purpose of unmanned, long-term, continuous monitoring.
Summary of the invention
Technical problem to be solved in the utility model provides a kind of water body buoy section sampling apparatus, and the water sample that can automatically gather different water layers carries out water analysis.
For solving the problems of the technologies described above, the utility model provides a kind of water body buoy section sampling apparatus, comprises the electronic compartment unit that is installed in buoy inside and the section sampling unit that is hung vertically in described buoy below; Wherein said section sampling unit comprises:
The section water inlet pipe;
A plurality of T-valve are installed on the described section water inlet pipe every a segment distance, are used for gathering and carrying the water sample of different depth;
Wirerope is connected with described buoy;
A plurality of pressure transducers are installed on the described wirerope every a segment distance, are installed in accordingly respectively on the same level face with each described T-valve, are used for measuring the hydraulic pressure at each described T-valve place;
A plurality of cooling-water temperature sensors are installed on the described wirerope every a segment distance, are installed in accordingly respectively on the same level face with each described T-valve, are used for measuring the water temperature at each described T-valve place; And weight, with being connected bottom of described wirerope, make described wirerope keep vertical as far as possible;
Described electronic compartment unit comprises:
Flowmeter is connected with described section water inlet pipe, is used for measuring the water sample flow velocity that extracts;
The water quality measurement chamber is connected with described flowmeter by pipeline, is used for the water sample that extracts from different depth is carried out Measurement and analysis;
Water plug is connected on the pipeline between described flowmeter and the described water quality measurement chamber by pipeline, is used for controlling the water sample that described section sampling unit gathers different depth;
Data acquisition module is connected with a plurality of described pressure transducers, a plurality of described cooling-water temperature sensor, described water plug and described water quality measurement chamber respectively, is used for control water sampling, depth survey and water analysis, and the data of record measurement; And
Solar electric power supply system is connected with described water quality measurement chamber with described data acquisition module respectively, is used for gathering the work power supply that sun power is described water body buoy section sampling apparatus.
Alternatively, described solar electric power supply system comprises:
Solar panels are used for gathering sun power and being translated into electric energy;
Battery pack is used for storing described electric energy;
The solar-electricity pool controller is connected with described battery pack with described solar panels respectively, and the power storage that is used for described solar panels are transformed is to described battery pack, and carries power supply after the electric power voltage stabilizing with described battery pack output.
Alternatively, the number of described T-valve, described pressure transducer and described cooling-water temperature sensor is 2~200.
Alternatively, sieves is equipped with in the water inlet of described T-valve, is used for the impurity in the filtering water body.
Alternatively, the Measurement and analysis of physics, chemistry and/or Biological indicators is carried out in described water quality measurement chamber to described water sample.
Alternatively, the outside of described buoy is led to drainpipe in described water quality measurement chamber, and the described water sample that is used for measuring is discharged to outside the described buoy.
Compared with prior art, the utlity model has following advantage:
The utility model can carry out accurate section sampling to the water body under the buoy, and wirerope connects the drift that weight has been avoided the section water inlet pipe effectively.Even in the larger place of current, by a small margin drift has occured in the section water inlet pipe, and near the pressure transducer each T-valve also can be done calibration to sampling depth, does not affect the profile analysis to whole water column.
The utility model carries out Measurement and analysis with the water quality measurement chamber that water sample is conveyed into buoy inside, both can do simple physical measurement, also can do the measurements such as complicated nutritive salt, flow cytometry, modulation chlorophyll fluorescence, more accurate, more perfect than existing monitering buoy measurement index.
Being pressure transducer that vertical section distributes and temperature sensor in the utility model can accomplish function to the water temperature profile survey to be used for water temperature layering research.
The utility model adopts solar electric power supply system that electric power is provided, and can really accomplish the purpose of unmanned, long-term, continuous sampling, in conjunction with the buoy monitoring device, can carry out long term monitoring to water body.
Description of drawings
The above and other feature of the present utility model, character and advantage will become more obvious by the description below in conjunction with drawings and Examples, wherein:
Fig. 1 is the modular structure figure of the water body buoy section sampling apparatus of an embodiment of the utility model;
Fig. 2 is the entity structure synoptic diagram of the water body buoy section sampling apparatus of an embodiment of the utility model;
Fig. 3 is the process flow diagram of the water body buoy section method of sampling of an embodiment of the utility model.
Embodiment
The utility model is described in further detail below in conjunction with specific embodiments and the drawings; set forth in the following description more details so that fully understand the utility model; but the utility model obviously can be implemented with the multiple alternate manner that is different from this description; those skilled in the art can do similar popularization, deduction according to practical situations in the situation of the utility model intension, therefore should be with the content constraints of this specific embodiment protection domain of the present utility model.
Fig. 1 is the modular structure figure of the water body buoy section sampling apparatus of an embodiment of the utility model; Fig. 2 is the entity structure synoptic diagram of the water body buoy section sampling apparatus of an embodiment of the utility model.It should be noted that these and follow-up other accompanying drawing all only as example, it is not to be to draw according to the condition of equal proportion, and should not be construed as limiting as the protection domain to the utility model actual requirement with this.Please in conjunction with Fig. 1 and shown in Figure 2, this water body buoy section sampling apparatus comprises integral installation in the electronic compartment unit 100 of buoy 8 inside and is hung vertically in section sampling unit 200 below the buoy 8.
Wherein, section sampling unit 200 comprises: section water inlet pipe 9, a plurality of T-valve 101~1nn, wirerope 10, a plurality of pressure transducer 201~2nn, a plurality of cooling-water temperature sensor 301~3nn and weight 11 etc.Each T-valve 101~1nn includes the first port A, the second port B and water inlet C, and the break-make between each mouthful is changeable.A plurality of T-valve 101~1nn are installed on the section water inlet pipe 9 every a segment distance, are used for gathering and carrying the water sample of different depth.Sieves 12 all can be equipped with in the water inlet C place of each T-valve 101~1nn, for impurity such as the silt in the filtering water body, suspensions.The top of wirerope 10 is connected with buoy 8, is connected with bottom weight 11, makes wirerope 10 keep vertical as far as possible, drifts about with current to avoid wirerope 9.A plurality of pressure transducer 201~2nn and a plurality of cooling-water temperature sensor 301~3nn are installed on the wirerope 10 every a segment distance, being installed in accordingly respectively on the same level face with each T-valve 101~1nn (is T-valve 101 and pressure transducer 201, cooling-water temperature sensor 301 is installed on the same level face, T-valve 102 and pressure transducer 202, cooling-water temperature sensor 302 is installed on the same level face, T-valve 1nn and pressure transducer 2nn, it is first-class that cooling-water temperature sensor 3nn is installed in the same level face), for hydraulic pressure and the water temperature of measuring each T-valve 101~1nn place.When current are excessive when causing wirerope 9 drift, the degree of depth that the data that pressure transducer 201-2nn measures can be used for proofreading and correct water inlet.The number range of T-valve 101~1nn, pressure transducer 201~2nn and cooling-water temperature sensor 301~3nn is 2~200, and concrete number designs according to sample requirement.
In addition, electronic compartment unit 100 comprises: data acquisition module 4, water plug 5, flowmeter 6, water quality measurement chamber 7 and solar electric power supply system 300 etc.Flowmeter 6 is connected with section water inlet pipe 9, is used for measuring the water sample flow velocity that extracts.Water quality measurement chamber 7 is connected with flowmeter 6 by pipeline, is used for the water sample that extracts from different depth is carried out for example Measurement and analysis of physics, chemistry and/or Biological indicators, such as doing the measurements such as complicated nutritive salt, flow cytometry, modulation chlorophyll fluorescence.Water plug 5 is connected on the pipeline between flowmeter 6 and the water quality measurement chamber 7 by pipeline, is used for the water sample that control section sampling unit 200 gathers different depths.Data acquisition module 4 is connected with water quality measurement chamber 7 with a plurality of pressure transducer 201~2nn, a plurality of cooling-water temperature sensor 301~3nn, water plug 5 respectively, is used for control water sampling, depth survey and water analysis, and the data of record measurement.Solar electric power supply system 300 is connected with water quality measurement chamber 7 with data acquisition module 4 respectively, is used for gathering the work power supply that sun power is water body buoy section sampling apparatus.In addition, the outside of buoy 8 can be led to drainpipe 13 in water quality measurement chamber 7, is used for the water sample that measures is discharged to outside the buoy 8.
In the present embodiment, this solar electric power supply system 300 can specifically comprise: solar panels 1, solar-electricity pool controller 2 and battery pack 3.Solar panels 1 are used for gathering sun power and being translated into electric energy.Battery pack 3 is used for storage of electrical energy.Solar-electricity pool controller 2 is connected with battery pack 3 with solar panels 1 respectively, and the power storage that is used for solar panels 1 are transformed is to battery pack 3, and will carry power supply after the electric power voltage stabilizing of battery pack 3 outputs.
Fig. 3 is the process flow diagram of the water body buoy section method of sampling of an embodiment of the utility model.Present embodiment is continued to use element numbers and the partial content of previous embodiment, wherein adopts identical label to represent identical or approximate element, and has optionally omitted the explanation of constructed content.Explanation about clipped can be with reference to previous embodiment, and present embodiment no longer repeats to give unnecessary details.
This water body buoy section method of sampling can comprise step:
Execution in step S301 opens its first port A and water inlet C (namely opening the C-A road) water inlet by data acquisition module 4 according to the T-valve n of a certain degree of depth N of programmed control.
Execution in step S302 starts water plug 5, and the extraction decimation in time water sample that follow procedure is set, flowmeter 6 are measured the water sample flow velocity in the water pipe of entering of extraction simultaneously.
Execution in step S303,7 pairs of water quality measurement chambers are extracted the water sample that enters in it from degree of depth N and are carried out various Measurement and analysis.Wherein, the water sample in this water quality measurement chamber 7 can be continuous flow, also can be resident according to analyzing needs.
Execution in step S304, after the measurement of above-mentioned steps S303 finished, data acquisition module 4 was closed according to the water inlet C of program with the T-valve n of current degree of depth N, opens the second port B (namely switching to the B-A road).In addition, the T-valve n+1 that controls another degree of depth N+1 opens its first port A and water inlet C (namely opening the C-A road) water inlet.
Execution in step S305 repeats above-mentioned steps S302~S304, and whole T-valve 101~1nn and water plug 5 are closed in the end until the T-valve 101~1nn of all degree of depth all samples, and finishes to measure.
In the present embodiment, extraction time=water sample by the current degree of depth to the time+water sample of flowmeter 6 by the time+time expand of flowmeter 6 to water quality measurement chamber 7.Water sample in order to ensure extraction is the water at certain depth place, and time expand is to disturb needed safe time for getting rid of.
In the present embodiment, data acquisition module 4 can also be when T-valve 101~1nn water inlet at control different depth place, obtain synchronously the pressure transducer 201~2nn of current depth and hydraulic pressure data and the water temperature data that cooling-water temperature sensor 301~3nn measures, in order to the depth of water degree of depth at Measurement accuracy T-valve 101~1nn place, avoid because the excessive depth error that causes that wirerope 10 drifts cause of current.
The utility model can carry out accurate section sampling to the water body under the buoy, and wirerope connects the drift that weight has been avoided the section water inlet pipe effectively.Even in the larger place of current, by a small margin drift has occured in the section water inlet pipe, and near the pressure transducer each T-valve also can be done calibration to sampling depth, does not affect the profile analysis to whole water column.
The utility model carries out Measurement and analysis with the water quality measurement chamber that water sample is conveyed into buoy inside, both can do simple physical measurement, also can do the measurements such as complicated nutritive salt, flow cytometry, modulation chlorophyll fluorescence, more accurate, more perfect than existing monitering buoy measurement index.
Being pressure transducer that vertical section distributes and temperature sensor in the utility model can accomplish function to the water temperature profile survey to be used for water temperature layering research.
The utility model adopts solar electric power supply system that electric power is provided, and can really accomplish the purpose of unmanned, long-term, continuous sampling, in conjunction with the buoy monitoring device, can carry out long term monitoring to water body.
Although the utility model with preferred embodiment openly as above, it is not to limit the utility model, and any those skilled in the art can make possible change and modification within not breaking away from spirit and scope of the present utility model.Therefore, every content that does not break away from technical solutions of the utility model, all falls within the protection domain that the utility model claim defines any modification, equivalent variations and modification that above embodiment does according to technical spirit of the present utility model.

Claims (5)

1. a water body buoy section sampling apparatus is characterized in that, comprises the section sampling unit (200) that is installed in the inner electronic compartment unit (100) of buoy (8) and is hung vertically in described buoy (8) below; Wherein
Described section sampling unit (200) comprising:
Section water inlet pipe (9);
A plurality of T-valve (101~1nn), be installed on the described section water inlet pipe (9) every a segment distance, gather and carry the water sample of different depth;
Wirerope (10) is connected with described buoy (8);
A plurality of pressure transducers (201~2nn), be installed on the described wirerope (10) every a segment distance, (101~1nn) are installed on the same level face respectively accordingly, measure each described T-valve (101~1nn) hydraulic pressure of locating with each described T-valve;
A plurality of cooling-water temperature sensors (301~3nn), be installed on the described wirerope (10) every a segment distance, (101~1nn) are installed on the same level face respectively accordingly, measure each described T-valve (101~1nn) water temperatures of locating with each described T-valve; And
Weight (11) with being connected bottom of described wirerope (10), makes described wirerope (10) keep vertical as far as possible;
Described electronic compartment unit (100) comprising:
Flowmeter (6) is connected with described section water inlet pipe (9), measures the water sample flow velocity that extracts;
Water quality measurement chamber (7) is connected with described flowmeter (6) by pipeline, and the water sample that extracts from different depth is carried out Measurement and analysis;
Water plug (5) is connected on the pipeline between described flowmeter (6) and the described water quality measurement chamber (7) by pipeline, controls the water sample that described section sampling unit (200) gathers different depth;
Data acquisition module (4), respectively with a plurality of described pressure transducers (201~2nn), a plurality of described cooling-water temperature sensor (301~3nn), described water plug (5) is connected with described water quality measurement chamber (7), control water sampling, depth survey and water analysis, and the data of record measurement; And
Solar electric power supply system (300) is connected with described water quality measurement chamber (7) with described data acquisition module (4) respectively, and gathering sun power is the work power supply of described water body buoy section sampling apparatus.
2. water body buoy section sampling apparatus according to claim 1 is characterized in that described solar electric power supply system (300) comprising:
Solar panels (1) gather sun power and are translated into electric energy;
Battery pack (3) is stored described electric energy;
Solar-electricity pool controller (2), be connected with described battery pack (3) with described solar panels (1) respectively, the power storage that described solar panels (1) are transformed arrives on the described battery pack (3), and will carry power supply after the electric power voltage stabilizing of described battery pack (3) output.
3. water body buoy section sampling apparatus according to claim 1, it is characterized in that, described T-valve (101~1nn), described pressure transducer (201~2nn) with described cooling-water temperature sensor (301~3nn) number is 2~200.
4. according to claim 1 or 3 described water body buoy section sampling apparatuses, it is characterized in that (101~1nn) water inlet (C) locates to be equipped with sieves (12), the impurity in the filtering water body to described T-valve.
5. water body buoy section sampling apparatus according to claim 1, it is characterized in that, the outside of described buoy (8) is led to drainpipe (13) in described water quality measurement chamber (7), and the described water sample that measures is discharged to outside the described buoy (8).
CN 201220281568 2012-06-14 2012-06-14 Profile sampling device for water buoy Expired - Fee Related CN202770666U (en)

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Application Number Priority Date Filing Date Title
CN 201220281568 CN202770666U (en) 2012-06-14 2012-06-14 Profile sampling device for water buoy

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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN105974078A (en) * 2016-06-13 2016-09-28 无锡虹业自动化工程有限公司 Multifunctional sewage water quality detection device
CN106770023A (en) * 2017-01-17 2017-05-31 谢锦宸 The laser detection monitor and detection method of multi-chamber

Cited By (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN105974078A (en) * 2016-06-13 2016-09-28 无锡虹业自动化工程有限公司 Multifunctional sewage water quality detection device
CN106770023A (en) * 2017-01-17 2017-05-31 谢锦宸 The laser detection monitor and detection method of multi-chamber
CN106770023B (en) * 2017-01-17 2018-01-16 明光市裕阳新材料有限公司 The laser detection monitor and detection method of multi-chamber

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Owner name: SHANGHAI ZEQUAN TECHNOLOGY CO., LTD.

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Address after: 200333, room 28, building 879, Tiandi Software Park, No. 403, Zhongjiang Road, Shanghai, Putuo District

Patentee after: ZEALQUEST SCIENTIFIC TECHNOLOGY CO., LTD.

Address before: 200333, room 28, building 879, Tiandi Software Park, No. 403, Zhongjiang Road, Shanghai, Putuo District

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CF01 Termination of patent right due to non-payment of annual fee