CN102338794B - Simulated test device for seepage of underground water and simulated test method - Google Patents

Simulated test device for seepage of underground water and simulated test method Download PDF

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CN102338794B
CN102338794B CN201110157224XA CN201110157224A CN102338794B CN 102338794 B CN102338794 B CN 102338794B CN 201110157224X A CN201110157224X A CN 201110157224XA CN 201110157224 A CN201110157224 A CN 201110157224A CN 102338794 B CN102338794 B CN 102338794B
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water
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soil
column casing
tank
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CN102338794A (en
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和树庄
张国盛
胡斌
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Yunnan University YNU
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Abstract

The invention discloses a simulated test device for seepage of underground water and a simulated test method; the test device comprises a cylindrical drum, a substrate water tank, a water supply tank and a control valve, wherein the substrate water tank is arranged at the bottom of the cylindrical drum and is communicated with the water supply tank through the control valve and the water supply pipe; the water supply tank is a lifting adjustable water tank; the substrate water tank is arranged on a support; a drainage valve is arranged at the bottom of the substrate water tank; and the test method comprises steps of sampling point selection, sample soil collection, sample soil pretreatment, cylindrical drum filling, soaking test on underground water, collection of polluted water sample, water sample analysis and calculation of polluted output quantity. The simulated test device of the invention is convenient for collecting water sample in a layering way, provides basic data such as water quality, water yield and the like for the research of underground water pollution law and achieves the purpose of simulating the state and law of the underground water pollution. The test method is simple and convenient; equipment is convenient to operate; and test cost is low. The invention is suitable for test environments that the temperature is 4-45 DEG C, and the constant pressure pH is 6.5-8.5.

Description

Groundwater seepage simulation test device and simulation experiment method
Technical field
The invention belongs to the environment monitoring technical field, be specifically related to a kind ofly can accurately simulate groundwater seepage simulation test device and the simulation experiment method of inland lake Lakesides soil to the Shallow Groundwater Pollution situation.
Background technology
It is the major issue that China faces at present that inland lake pollutes with eutrophication, administering the inland lake pollution huge with the required investment amount of eutrophication, accurately judge all kinds of pollution sources, enter the lake rule, is accurately to formulate countermeasured to bring inflation under control, the reduce cost waste, improve the basic guarantee of administering performance.
The rainfall situation of hinterland is generally to be seasonal variety, and lake level is respective change also.The Lakesides shallow ground water is limited by water body in lake, the lake level lifting, and the corresponding lifting of Lakesides underground water table, in lifting process, Lakesides soil is in and soaks and control in dried state.In soil, especially in the mold of top layer, contained organic matter, nitrogen phosphorus can reach several thousand to several ten thousand ppm usually; In the shallow ground water of lakeside, organic matter, nitrogen phosphorus are usually below 100ppm, even close to zero.During seasonal the immersion, pollutant spreads in underground water from soil, until reach balance.Arrive when dry season, the lake water water level descends, and shallow ground water imports the lake body, and pollutant shifts and enters the lake body from soil thereupon.Because Lakesides distributes in the form of a ring, the process of pollution is slow, hidden, and is very large to the description difficulty of the type local ground watering pollution condition.
At present, study this pollution type and mainly adopt the mode of excavation inspection well to carry out dynamic monitoring, gather different Observational depth sampling of ground waters, analyze the level of pollution of underground water.Although the inspection well method can directly reflect the pollution situation of observation station, but can only obtain water quality data, it is the pollution level of Lakesides underground water, still need rely on the model measuring and calculating for the defeated data of polluting the water yield of moving, total amount of pollutants discharge (water quality the multiply by the water yield) result reliability that uses the method to record can't directly be verified.Simultaneously, application the method need to arrange a plurality of observation stations, causes investment large, and it is also high that the collection in worksite sample comes and goes cost.Therefore, develop the groundwater seepage simulation test device of a kind of accurate simulation inland lake Lakesides soil to the Shallow Groundwater Pollution situation, very necessary.
Summary of the invention
The first purpose of the present invention is to provide a kind of simple in structure, and working stability is reliable, can accurately simulate the groundwater seepage simulation test device because of groundwater contamination situation due to the Soil Hydrological state variation of lake, shore; Another object of the present invention is to provide a kind of application process of this device of application.
The first purpose of the present invention is to realize like this, comprise column casing, substrate water tank, supply tank and operation valve, described column casing bottom arranges the substrate water tank, and described substrate water tank is communicated with supply tank by operation valve, feed pipe, and described supply tank is the water tank that liftable is regulated; Described substrate water tank is arranged on support, and the substrate water tank bottom arranges draining valve.
Another object of the present invention be achieved in that comprise that sampling point is chosen, sample soil gathers, the pre-service of sample soil, column casing filling, underground water soak test, pollution water sample collection, water sample analysis, the calculating of pollution output quantity, specifically comprise the following steps:
A, sampling point are chosen: the simulation soil sample obtains from the scene, Lakesides, uses Land-Use as selecting the sampling point Main Basis, takes into account soil types; Every kind of Land-Use is chosen 3 sampled points at least;
B, sample soil gather: excavates respectively the soil profile of 1m * 1m * 1m at each impact point, presses 0-30cm, and 30-60cm, the 60-90cm layering gathers soil sample;
C, the pre-service of sample soil: sample soil separately dries by layer in the place, cool place, fully smashs to pieces, crosses the 2mm aperture sieve, and extracting screen underflow is standby;
D, simulation post filling: the sample soil layering that will process is packed in each section column casing, and compacting is close to state of nature, and each section column casing is dressed up integral body by sample soil profile order seal group simulate post; Each sampling point soil sample is loaded respectively 3 parallel experiment simulation posts;
E, underground water soak test: fill with water in supply tank, and the supply tank bottom surface is set in hypomere column casing top horizontal line position, open the operation valve of supply tank, water enters the substrate water tank and from bottom to top infiltrates column casing, after the hypomere column casing is observed the thieff hatch water outlet, supply tank is brought up to stage casing column casing top horizontal line position, after the stage casing column casing is observed the thieff hatch water outlet, again supply tank is brought up to epimere column casing top horizontal line position, after the epimere column casing is observed the thieff hatch water outlet, closed the operation valve of supply tank;
F, pollution water sample collection: from top to bottom through observing thieff hatch, gather successively 3 water samples in column casing; Open afterwards the draining valve of substrate water tank, collect the bottom water sample;
G, water sample metering and analysis: each layer water sample measures respectively, and measures nitrogen, phosphorus, COD, the TOC matter index of nitrogen, phosphorus, organic matter and the water sample of soil sample by the national standard analysis;
H, according to analog reslt, calculate the simulating pollution output quantity and pollutant output total amount is got in the target test.
Soil sampling and simulation test be the following factors of Lakesides soil comprehensively:
1, soil types factor: soil types is determining the character of soil, and the content of colloid grain in soil is different, and specific surface area is also different, causes that the pollutant in soil precipitation ability is had certain difference, as sandy soil, easily separates out, and the clay difficulty is separated out.
2, land use pattern factor: what of contained pollutant in soil are land use pattern determined, especially mold loam, because the reasons such as fertilising, the content difference of pollutant wherein (for crop, being nutrient) is very large, as large in booth district rate of fertilizer application, in mold, pollutant load is high; There are the xenobiotic pollutantss such as fertilising hardly in barren beach.
3, soil layer factor: generally, the soil cultivation layer thickness is 30cm approximately, is also the main distributive province of pollutant, and this is the important reference that soil sample gathers.
Described simulation post pollutes output quantity and is calculated as follows:
Figure 398831DEST_PATH_IMAGE001
W fFor pollutant output quantity in a certain column casing section, the mg of unit;
C fFor pollutant output concentration in a certain column casing section, the mg/l of unit;
Q fFor exporting the water yield, units/ml in a certain column casing section.
According to this regional soil types Land-Use difference analog reslt, according to elevation segmentation statistics, target test site pollutant output total amount is calculated with following formula:
W is Lakesides soil pollutant output total amount in lake water fluctuation process, unit: t
A is the column casing sectional area, unit: m 2
N is that sample soil gathers hierarchy number
M is the soil types number of sample soil
L is the land use pattern number of sample soil
I is the i layer soil of sample penus when sampling
J is that the sample penus is in j kind soil types
K is that the sample penus is in k kind Land-Use
C is the pollutant output concentration in institute's water sampling, unit: mg/L
Q is the output water yield of institute's water sampling, unit: L
B is institute's water sampling in the substrate water tank
S is the soil types and the land area of utilizing mode, unit: hm of certain earth pillar representative 2
Above-mentioned computing formula is according to law of conservation of mass, and the consideration following factors derives:
1, to separate out amount of pollutant be the product of separating out pollutant levels and separating out the water yield to soil.Different soil pollutant output quantity, add the amount of pollutant in the substrate water tank, is pollutant output total amount in one group of simulation column casing.
2, per surface area pollutant output quantity is that in one group of simulation column casing, pollutant is exported total amount divided by the column casing surface area.
3,, due to land use pattern, soil types difference, cause pollutant in soil and pollutant precipitation ability there are differences.So in a zone, need to classify and soil types difference sampling experimental according to land use pattern, and by this, calculate respectively.
A certain soil types soil in a certain land use pattern, its pollutant output quantity multiply by the surface area of the type soil, obtains the pollutant output quantity of a certain soil types in this land use pattern.
The pollutant output quantity sum of different land use type soil is the pollutant output total amount in institute's survey region.
The present invention has the column casing of sectional combination and the specialized simulation test unit of height-adjustable supply tank, can layering collect the simulated soil pore water,, for the research of groundwater contamination rule provides the basic test data such as water quality and the water yield, reached the purpose of simulated groundwater pollutional condition and rule.Present device is easy and simple to handle, and experimentation cost is cheap.Be applicable to 4-45 ℃ of temperature, normal pressure, the experimental enviroment of pH 6.5-8.5.
Description of drawings
Fig. 1 is apparatus of the present invention one-piece construction schematic diagram;
Fig. 2 is the inventive method FB(flow block).
In figure: the 1-column casing, the 2-coupling bolt, the 3-core, 4-substrate water tank, the 5-operation valve, the 6-support, the 7-set bolt, the 8-feed pipe, the 9-supply tank, the 10-tank tower, 11-observes thieff hatch, 12-draining valve.
Embodiment
The present invention is further illustrated below in conjunction with accompanying drawing, but never in any form the present invention is limited, and any conversion based on training centre of the present invention is done, all fall into protection scope of the present invention.
As shown in Figure 1, groundwater seepage simulation test device of the present invention, comprise column casing 1, substrate water tank 4, supply tank 9 and operation valve 5, described column casing 1 bottom arranges substrate water tank 4, described substrate water tank 4 is communicated with supply tank 9, the water tank that described supply tank 9 is regulated for liftable by operation valve 5, feed pipe 8; Described substrate water tank 4 is arranged on support 6, and substrate water tank 4 bottoms arrange draining valve 12.
Described column casing 1 is sectional combination structure, is connected with bolt seal by flange between each section; Described column casing 1 each section is respectively equipped with observes thieff hatch 11; Described observation thieff hatch 11 diameters are 15-25mm.
The two groups of above column casings 1 that be arranged in parallel on described substrate water tank 4, carry out many groups simulation tests simultaneously to facilitate.
The diameter of described column casing 1 is 180-220mm, and the single hop height is 150-450mm, wall thickness 8-12mm.
Described observation thieff hatch 11 is more than two, and pitch of holes is 7-15cm; Observing thieff hatch 11 vertically is staggered.
On the stopper of described observation thieff hatch 11, mozzle is set, variable valve is set on mozzle; Described draft-tube diameter is the 6-10mm transparent pipe, to facilitate the water level of observing in column casing.
Isolation core 3 is set, isolation core 3 and column casing 1 inwall wringing fit between described substrate water tank 6 and column casing 1; Described isolation core 3 hole apertures are 15-60 μ m.Both guarantee the normal flow of simulated flow, be convenient to again collect pollutant output under the saturated or unsaturated mobile condition of the holard.
As shown in Figure 2, the simulation experiment method of application apparatus of the present invention, comprise that sampling point is chosen, sample soil gathers, the pre-service of sample soil, column casing filling, underground water soak test, pollution water sample collection, water sample analysis, the calculating of pollution output quantity, specifically comprises the following steps:
A, sampling point are chosen: use Land-Use as selecting the sampling point Main Basis, take into account soil types.(Shang Suan town, Jinning County) selects to be limited in greenhouse gardening year 1 of the sampled point of 10 years in the Dianchi Lake Basin Lakesides, and soil types is clay loam, is used for relatively pollutant output quantity, chooses 3 sampled points;
B, sample soil gather: excavates respectively the soil profile of 1m * 1m * 1m at each impact point, presses 0-30cm, and 30-60cm, the 60-90cm layering gathers soil sample;
C, the pre-service of sample soil: sample soil separately dries by layer in the place, cool place, fully smashs to pieces, crosses the 2mm aperture sieve, and extracting screen underflow is standby;
D, simulation post filling: the sample soil layering that will process is packed in each section column casing 1, and compacting is close to state of nature, and each section column casing 1 is dressed up integral body by sample soil profile order seal group simulate post; Each sampling point soil sample is loaded respectively 3 parallel experiment simulation posts;
E, underground water soak test: fill with water in supply tank 9, and supply tank 9 bottom surfaces are set in hypomere column casing 1 top horizontal line position, open the operation valve 5 of supply tank 9, water enters substrate water tank 4 and from bottom to top infiltrates column casing 1, approximately after 5 days the sample of hypomere column casing 1(filling soil sample position in the 60-90cm section) observe thieff hatch 11 water outlets after, supply tank 9 is brought up to stage casing column casing 1 top horizontal line position, approximately after 7 days the sample of stage casing column casing 1(filling soil sample position in the 30-60cm section) observe thieff hatch 11 water outlets after, again supply tank 9 is brought up to epimere column casing 1 top horizontal line position, approximately after 10 days the sample of epimere column casing 1(filling soil sample position in the 0-30cm section) observe thieff hatch 11 water outlets after, close the operation valve 5 of supply tank 9,
F, pollution water sample collection: from top to bottom through observing thieff hatch 11, gather successively 3 water samples in column casing 1; Complete through collection in 15 hours, each hole collects the 100-200ml water sample.Open afterwards the draining valve 12 of substrate water tank 4, collect the bottom water sample, collect water sample 23000ml;
G, water sample metering and analysis: each layer water sample measures respectively, and measures nitrogen, phosphorus, COD, the TOC matter index of nitrogen, phosphorus, organic matter and the water sample of soil sample by the national standard analysis;
H, according to analog reslt, calculate the simulating pollution output quantity and pollutant output total amount is got in the target test.
The pollutant output quantity sum of each sampling section sample soil, add that in substrate water tank 4, the pollutant output quantity is one group of column casing, 1 pollutant output total amount.
Use following formula, calculate each section of column casing pollutant output quantity:
Use following formula, calculating place target test site pollutant output total amount:
Figure 366284DEST_PATH_IMAGE004
According to the surface area and the ratio that represents the land use pattern area of column casing 1, multiply by the average output total amount of pollutant of column casing 1, can draw actual land pollution thing output total amount.
Following table is that after in this sampling point plot, the soil sample organic carbon is separated out analog result and simulated groundwater effect, total organic carbon is separated out analog result.
Three groups of parallel analog reslts of column casing
Sample number into spectrum Sample position Total organic carbon in water (mg) Sample soil total organic carbon (g) Column casing diameter (cm) Sampling soil thickness (cm) Column casing surface area (m 2 Unit area output (mg/m 2)
A0 The substrate water tank 102.38 ? ? ? ? ?
a1 Lower floor's column casing 3.89 10.81 18 31.5 0.025 152.8
a2 The middle level column casing 7.38 81.69 18 32 0.025 290.1
a3 The upper strata column casing 9.68 156.49 18 32 0.025 380.7
Amount to ? 123.33 249.00 ? ? ? 4849.1
B0 The substrate water tank 94.67 ? ? ? ? ?
b1 Lower floor's column casing 7.76 10.81 18 31.5 0.025 ?
b2 The middle level column casing 5.76 92.09 18 32 0.025 226.3
b3 The upper strata column casing 9.94 156.49 18 32 0.025 390.8
Amount to ? 118.13 259.39 ? ? ? 4644.4
C0 The substrate water tank 130.85 ? ? ? ? ?
c1 Lower floor's column casing 1.19 10.81 ? ? ? ?
c2 The middle level column casing 3.73 95.058 20 31 0.031 ?
c3 The upper strata column casing 8.23 156.49 18 32 0.025 262.9
Amount to ? 144.03 262.36 ? ? ? 5663.0
Principle of work of the present invention and the course of work:
The simulation soil sample obtains from the scene, Lakesides, and by the layering of soil profile order, adopts the soil sample collection.After naturally drying, smash to pieces, sieve, sample soil mixes.Corresponding section order is from bottom filling column casing 1, and compaction is near the soil natural state, and layering filling, der group install to whole simulation column casing 1.To supply tank 9 water fillings (near the lake water clear water or sampling point), open basad water tank 4 water fillings of operation valve 5 of supply tank 9 bottoms after filling with, make water slowly upwards infiltration from column casing 1 bottom.Note to observe the liquid level of thieff hatch 11, after hypomere column casing 1 is observed thieff hatch 11 water outlets, improve step by step supply tank 9 positions until concordant with column casing 1 top, can close water inlet control valve 5 after the end face water outlet.Water filling simulation overall process needs the tens days time to a wheat harvesting period, so that supply tank 9 reaches abundant balance with column casing 1 liquid level.Then sequentially open from top to bottom on each section observation thieff hatch 11 mozzle layering collection water sample is set, open finally substrate water tank 4 draining valves 12, collect the water sample in substrate water tank 4.Each layer water sample measures respectively, and measures nitrogen, phosphorus, COD, the TOC matter index of nitrogen, phosphorus, organic matter and the water sample of soil sample by the national standard analysis.
Characteristics of the present invention:
1, simple in structure, easy and simple to handle, cost of manufacture is cheap;
2, inland lake Lakesides pollutant in soil be can simulate and features of pollution and the rule of underground water entered with lake stage lifting vertical migration.The setting of substrate water tank can be simulated the seasonal fluctuation in stage of inland lake and be caused Lakesides soil WATER LEVEL CHANGES process;
3, the simulated soil pore water is collected in layering, measures simultaneously water quality and the water yield, has facilitated definite mensuration pollutant output quantity;
4, solve field observation well method and can only measure water quality, and can not measure the weakness of the water yield, can quantitative description inland lake Lakesides soil seasonality soak Shallow Groundwater Pollution process and the pollution level of bringing;
5, experimentation cost is low, and investment is far below field observation well method;
6, sample, manage more convenient and quick.

Claims (9)

1. the simulation experiment method of a groundwater seepage simulation test device, it is characterized in that: described device comprises column casing (1), substrate water tank (4), supply tank (9) and operation valve (5), described column casing (1) bottom arranges substrate water tank (4), described substrate water tank (4) is communicated with supply tank (9) by operation valve (5), feed pipe (8), the water tank that described supply tank (9) is regulated for liftable; Described substrate water tank (4) is arranged on support (6), and substrate water tank (4) bottom arranges draining valve (12); Its simulation experiment method comprises that sampling point is chosen, sample soil gathers, the pre-service of sample soil, column casing filling, underground water soak test, pollution water sample collection, water sample analysis, the calculating of pollution output quantity, specifically comprises the following steps:
A, sampling point are chosen: the simulation soil sample obtains from the scene, Lakesides, uses Land-Use as selecting the sampling point Main Basis, takes into account soil types; Every kind of Land-Use is chosen 3 sampled points at least;
B, sample soil gather: excavates respectively the soil profile of 1m * 1m * 1m at each impact point, presses 0-30cm, and 30-60cm, the 60-90cm layering gathers soil sample;
C, the pre-service of sample soil: sample soil separately dries by layer in the place, cool place, fully smashs to pieces, crosses the 2mm aperture sieve, and extracting screen underflow is standby;
D, simulation post filling: the sample soil layering that will process is packed in each section column casing (1), and compacting is close to state of nature, and each section column casing (1) is dressed up integral body by sample soil profile order seal group simulate post; Each sampling point soil sample is loaded respectively 3 parallel experiment simulation posts;
E, the underground water soak test: supply tank is filled with water in (9), and supply tank (9) bottom surface is set in hypomere column casing (1) top horizontal line position, open the operation valve (5) of supply tank (9), water enters substrate water tank (4) and from bottom to top infiltrates column casing (1), after hypomere column casing (1) is observed thieff hatch (11) water outlet, supply tank (9) is brought up to stage casing column casing (1) top horizontal line position, after stage casing column casing (1) is observed thieff hatch (11) water outlet, again supply tank (9) is brought up to epimere column casing (1) top horizontal line position, after epimere column casing (1) is observed thieff hatch (11) water outlet, close the operation valve (5) of supply tank (9),
F, pollution water sample collection: from top to bottom through observing thieff hatch (11), gather successively water sample in 3 column casings (1); Open afterwards the draining valve (12) of substrate water tank (4), collect the bottom water sample;
G, water sample metering and analysis: each layer water sample measures respectively, and measures nitrogen, phosphorus, COD, the TOC matter index of nitrogen, phosphorus, organic matter and the water sample of soil sample by the national standard analysis;
H, according to analog reslt, calculate simulating pollution output quantity and target test site pollutant output total amount.
2. simulation experiment method according to claim 1, it is characterized in that: described column casing (1) is sectional combination structure, is connected with bolt seal by flange between each section; Each section of described column casing (1) is respectively equipped with observes thieff hatch (11); Described observation thieff hatch (11) diameter is 15-25mm.
3. simulation experiment method according to claim 1 is characterized in that: two groups of above column casings (1) be arranged in parallel on described substrate water tank (4).
4. simulation experiment method according to claim 2, it is characterized in that: the diameter of described column casing (1) is 180-220mm, the single hop height is 150-450mm, wall thickness 8-12mm.
5. simulation experiment method according to claim 2, it is characterized in that: the observation thieff hatch (11) of each section is more than two, and pitch of holes is 7-15cm; Observing thieff hatch (11) vertically is staggered.
6. according to claim 2 or 5 described simulation experiment methods, is characterized in that: on the stopper of described observation thieff hatch (11), mozzle is set, variable valve is set on mozzle; Described draft-tube diameter is the 6-10mm transparent pipe, to facilitate the water level of observing in column casing.
7. according to claim 1 or 3 described simulation experiment methods, is characterized in that: isolation core (3) is set, isolation core (3) and column casing (1) inwall wringing fit between described substrate water tank (6) and column casing (1); Described isolation core (3) inner pore aperture is 15-60 μ m.
8. simulation experiment method according to claim 1, it is characterized in that: described simulating pollution output quantity is calculated as follows:
W fFor a certain column casing (1) section pollutant output quantity, the mg of unit;
C fFor a certain column casing (1) section pollutant output concentration, the mg/l of unit;
Q fFor a certain column casing (1) the section output water yield, units/ml.
9. simulation experiment method according to claim 1, it is characterized in that: described target test site pollutant output total amount, according to this regional soil types Land-Use difference analog reslt, according to elevation segmentation statistics, the output total amount is calculated with following formula:
Figure 931129DEST_PATH_IMAGE002
W is Lakesides soil pollutant output total amount in lake water fluctuation process, unit: t
A is column casing (1) sectional area, unit: m 2
N is that sample soil gathers hierarchy number
M is the soil types number of sample soil
L is the land use pattern number of sample soil
I is the i layer soil of sample penus when sampling
J is that the sample penus is in j kind soil types
K is that the sample penus is in k kind Land-Use
C is the pollutant output concentration in institute's water sampling, unit: mg/L
Q is the output water yield of institute's water sampling, unit: L
B is institute's water sampling in substrate water tank (4)
S is the soil types and the land area of utilizing mode, unit: hm of certain earth pillar representative 2
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