CN104817192A - Mixed biochemical water purifying agent and application thereof in sewage treatment - Google Patents
Mixed biochemical water purifying agent and application thereof in sewage treatment Download PDFInfo
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Abstract
The invention relates to the technical field of sewage treatment, particularly a mixed biochemical water purifying agent and application thereof in sewage treatment. The biochemical water purifying agent compounded from a TP1-TP2-HH mixed bacterium solution and a liquid nano polyaluminum chloride can completely adsorb and precipitate suspended substances in the sewage, so that the sewage is free of the suspended substances; and the nano polyaluminum chloride with high adsorption capacity can effectively remove rust, silt, peculiar smell and other pollutants in water. The mixed biochemical water purifying agent has the characteristics of high efficiency, no pollution, low sewage treatment cost, high dirt removal rate (up to 98.5%), high solid content removal rate (up to 95.5%) and high oil content removal rate (up to 99.3%); all the indexes can reach or exceed the national standard; and thus, the mixed biochemical water purifying agent is very suitable for wide popularization and use in domestic sewage or oilfield recovered sewage treatment.
Description
Technical field
The present invention relates to technical field of sewage, specifically a kind of mixed biology chemistry water purification agent and the application in sewage disposal thereof.
Background technology
China's existing sewage disposal many employings chemical materials or mineral acid extraction technology, the method such as stimulator, sterilant is added as adopted Tai-Ace S 150, or adopt chlorinated lime to be combined with alkali, alum, but fast degradation organism and objectionable impurities can not be realized to purify improvement water quality, safeguard the water body environment eubiosis.
The water purification agent of current microorganism and nano material, its Water clarifying mechanism is as follows:
One, microbial water-purifying agent Water clarifying mechanism
1, microbial flocculation
The flocculation mechanism of current microbial flocculant mainly contains pod membrane theory, thalline outer fiber element fibril theory, charge neutrality effect, hydrophobic theory and extracellular polymeric bridge formation theory.Pod membrane theory thinks that cell defines stickiness pod membrane in process of growth, and it can cohere particle makes it to form flocs unit; Cellulose fibril theory thinks that the fibril outside thalline participates in flocculation directly, and particle is connected together, and forms flocs unit; Hydrophobic theory thinks that the adhesion of the hydrophobic interaction of particle and cell surface to bacterium is extremely important; Extracellular polymeric bridge formation theory thinks that the polymkeric substance outside bacterial body is the basic substance that flocculation produces, and these materials and Interaction between particles result in flocculation.No matter which kind of theory, the effect between microbial flocculant and particulate matter can be summed up as four kinds, i.e. charge neutrality effect, bridge linking effect, chemical bond and net are caught volume and swept effect.
(1) charge neutrality effect
Biological flocculant is generally charged biomacromolecule, can, by means of the particle generation charge neutrality effect with opposite charges in ionic linkage, hydrogen bond etc. and water, make micelle de-steady.
(2) bridge linking effect
Biological flocculant macromole simultaneously in conjunction with multiple suspended particles, can form flco by bridge formation mode by means of ionic linkage, hydrogen bond and Van der Waals force.
(3) chemical bond
Biological flocculant some active group macromolecular, as-chemical bonds can be there is with particle surface, as hydrogen bond, surface complexation etc. in OH ,-COO etc.
(4) net is caught volume and is swept effect
Due to flocculation agent and flocs unit subsiding movement in flocculation process, motion and incorgruous motion in the same way, will be flocculated material and flocs unit net is caught and volume sweeps up, to remove pollutent.
2, microbiological deterioration
Microbial treatment water pollutions is utilized to be the pollution treatment technology of the advanced person of current international popular.The gene of microbiological deterioration organic pollutant is usually relevant with plasmid in cell.Oil degradation plasmid, industrial pollutants are found that there is as dissimilation plasmid, the nylon oligomer dissimilation plasmid of chlordiphenyl, preventing from heavy metal ion.Also different dissimilation plasmid can be combined on a kind of bacterial strain, become the bacterial classification with several functions degradation capability.
(1) degraded of sewage PetroChina Company Limited.
Petroleum microorganism comprises aerobic hydrocarbon oxidation bacteria, anerobe and facultative anaerobe, using petroleum hydrocarbon as growth substrate, and produces hydrogenase, desaturase etc. to degrade alkane by metabolism.
Microorganism panning oil mode: one be microorganism by secreting surfactant, promote that profit dissolves each other, make microorganism itself close to oil, the hydro carbons that is dissolved in water of picked-up; Two is make cell form hydrophobic surface by microorganism pili or surface of cell membrane lipid and hydrophobin and be attached on many oil droplets larger than cell, directly contacts, absorbs; Three is that microorganism produces a large amount of emulsifying agent, makes oil droplet be emulsified into a lot of fine particle, increase oil droplet can utilize area, molten to those vacations, intend molten or parcel the effect of hydro carbons particle, absorb.
Microbiological deterioration oil approach: microorganism mainly comprises aerobic degradation and anaerobic degradation two kinds of approach to the degraded of oil.Aerobic degradation straight-chain paraffin, has single terminal oxidized, beginning in carbochain, diterminal oxidation, and carbochain two all carries out being oxidized, secondary terminal oxidized, and in carbochain, end second carbochain starts and twoly add oxidation.The degraded of cyclic alkane must make loop chain rupture.Anaerobic degradation mainly carrys out degraded oil using vitriol, nitrate, iron, manganese and carbonic acid gas etc. as electron acceptor(EA).
Oil degradation after product: primary product has organic acid as formic acid, acetic acid etc.; Gas is as carbonic acid gas, hydrogen, methane etc.; Solvent is as alcohols, ketone, aldehydes; Tensio-active agent is as glycolipid etc.Oil is after degraded, and oil property improves, and oilwater viscosity ratio reduces, and improves crude oil flow condition.The enzyme produced in degradation process and tensio-active agent, can change wettability of rock surface.Produce organic acid and can dissolve part rock, expand rate of permeation.The gas dissolving produced, in oil, increases sand pressure, reduces viscosity of crude, can improve per-well production, improves crude oil recovery ratio.
(2) to other contaminant degradations and process in sewage
The degraded of starch, protein, fat, fiber.The degraded of these materials, the amylase produced respectively by microorganism, proteolytic enzyme, lipase, cellulase carry out.Utilize combination bacterial classification to administer lake sewage, monitoring result shows, lake water quality all took a favorable turn in one month.
Two, the Water clarifying mechanism of nano-substance
Nanoparticle has large specific surface area, is also the adsorbing major reason of nanoparticle.A good sorbent material, must meet specific surface area large, the conditions such as inside has the micro channel of network structure, and loading capacity is large, and the diameter of the specific surface area of particle and particle is inversely proportional to.Particle dia is reduced to nano level, can cause increasing sharply of specific surface area, and as when particle diameter is 10nm, specific surface area is 90m
2/ g; When particle diameter is 5nm, specific surface area is 180m
2/ g; When particle diameter drops to 2nm, specific surface area is surged to 450m
2/ g.Because nano aluminum ion has huge specific surface area, many active centre are there is, make it have extremely strong adsorptive power, no matter be heavy metal ion or Sauerstoffatom or the organic substance such as oxyradical and oil impelling corruption, all have and extremely strong grab prisoner's ability, the impurity in waste water and peculiar smell can be removed rapidly.
Its adsorptive power of Performances of Novel Nano-Porous meter level water purification agent is 10 ~ 20 times of common water purification agent aluminum chloride.Therefore, suspended substance in sewage can adsorb and precipitate by completely, first to make in water, not containing suspended substance, then to adopt the refining plant of nano-magnetic material, fiber and gac, can effectively except pollutents such as iron rust, silt and the peculiar smell in anhydrating.
Chinese invention patent CN201010146825.6, disclose the method and device thereof that utilize nano material purifying sewage quickly, the method adds nano material as adjacent oxybenzene subunit Ursol D in sewage, be added with the whiteruss etc. of adjacent oxybenzene subunit Ursol D, but need to add Water purification medicament as molysite toward heavy dose in sewage, aluminium salt etc., Water purification medicament is at formation alumen ustum, while impurity in absorption effluent, also the nano material added has been adsorbed above, when sludge density is less than the density of water, namely mud float, because the speed of Mud up-floating is faster than the speed of sinking, the rapid separation of mud can be realized.
Chinese invention patent CN200810230646.3: disclose the purification of water quality microbial inoculum and preparation method produced with multiple bacteria compound fermentation, but need stalk to be raw material, access multi-cultur es seed liquor and stalk fermentation substratum and concentrated nitrifier liquid, obtained purification of water quality microbial inoculum.
At present, report is not yet had to have the mixed bacteria liquid of water purification ability and have the strong mixed biology chemistry water purification agent adsorbing the Nanocomposites of energy, those skilled in the art are necessary to develop a kind of high adsorption capacity, can realize fast degradation organism and objectionable impurities purifies the water purification agent improveing water quality.
Summary of the invention
Object of the present invention is exactly the deficiency in order to overcome existing technology of waste water control, provides a kind of mixed biology chemistry water purification agent, can not realize fast degradation organism and objectionable impurities purifies the problem improveing water quality during to solve existing waste water control.
In order to solve the problems of the technologies described above, the present invention is solved by following technical proposals:
A kind of mixed biology chemistry water purification agent, comprise mixed bacteria liquid TP1, TP2, the HH with water purification ability and the nanoparticle liquid nanometer polymerize aluminum chloride with strong absorption energy, the weight ratio of this mixed bacteria liquid and nanoparticle is 2 ~ 4:6 ~ 8, preferred 3:7.
Adopt the present invention of technique scheme compared with prior art: by there is mixed bacteria liquid TP1, TP2, HH of water purification ability and there is the composite biological chemistry water purification agent of the nanoparticle liquid nanometer polymerize aluminum chloride of strong adsorptive power, suspended substance in sewage can be adsorbed completely and precipitate, first make in sewage not containing suspended substance; Then the nano polyaluminium chloride that adsorptive power is very strong is adopted, can effectively except pollutents such as iron rust, silt and the peculiar smell in anhydrating, soil removal efficiency can reach 98.5%, solid content clearance can reach 95.9%, oleaginousness clearance can reach more than 99.3%, and indices all can reach or exceed national standard.
Preferred version of the present invention is as follows:
In described mixed bacteria liquid, the weight ratio of TP1:TP2:HH is 0.5 ~ 1.5:0.5 ~ 1.5:0.5 ~ 2, preferred 1:1:1.
In the substratum of mixed bacteria liquid, each weight percentages of components is: NH
4cl is 0.3 ~ 0.7%, K
2hPO
4be 0.3 ~ 0.7%, KH
2pO
4be 0.04 ~ 0.08%, MgCl
2be 0.01 ~ 0.04%, liquid wax is 1 ~ 3%, yeast extract paste is 0.03 ~ 0.007%, all the other are water.
In the substratum of mixed bacteria liquid, each weight percentages of components is: NH
4cl is 0.5%, K
2hPO
4be 0.5%, KH
2pO
4be 0.06%, MgCl
2be 0.025%, liquid wax is 2%, yeast extract paste is 0.005%, all the other are water.
The pH value of the substratum of mixed bacteria liquid is 7.1 ~ 7.6, preferably 7.2 ~ 7.4.
Another object of the present invention is to provide the application of a kind of mixed biology chemistry water purification agent in sewage disposal, the preferred sanitary sewage of described sewage or oilfield produced waste water.
Preferred version of the present invention is as follows:
The detection method of described oilfield produced waste water suspended solids content comprises the steps:
1), by filter membrane put into distilled water and soak 30min, and with distilling washing 3 ~ 4 times.
2), take out filter membrane put in an oven, dry 30min at 90 DEG C, put into moisture eliminator after taking-up and be chilled to room temperature, weigh.
3), by the 2nd article of repetitive operation, until constant weight.
4), the filter membrane water-wet of constant weight is installed on millipore filter.
5), will load in microporous membrane filtration tester for surveying water sample.
6), open vacuum pump switch, start to filter water sample.
7), with tweezers from filter, take out filter membrane and dry, rinsing filter membrane till filtrate is colourless with sherwood oil.
8), again by the 2nd, 3 article of step operation.
9), suspended solids content is calculated according to the following formula.
C={(A-B)×10
3}÷V
In formula: C-suspended solids content, mg/L;
Filter membrane quality after A-test, g;
B-experiment front filter quality, g;
V-volume of water sample, L.
The detection method of described oilfield produced waste water oleaginousness comprises the steps:
1), water sampling 500ml moves in separating funnel, adds the 5ml vitriol oil (suppress living microorganisms and prevent solution alkaline emulsification) and 10g sodium-chlor.
2), with 10ml sherwood oil wash sampling bottle, and this washing lotion is poured in separating funnel, fully concussion 2 minutes, stratification; Lower floor's water sample is put into former sampling bottle, and upper strata sherwood oil is put into the funnel filling anhydrous sodium sulphate and is filtered, and filtrate collection is in 25ml volumetric flask.
3), repeating step 2) operation.
4) be, with sherwood oil reference liquid, the absorbancy of the extraction liquid after 430nm place measures the non-dosing of water sample and dosing, and on typical curve, find corresponding oleaginousness.
Stir after water sample dosing in step 4), adopt mode first quick and back slow, quick 600r/min stirs 2 minutes, and middling speed 200r/min stirs 5 minutes, and 60r/min stirs 5 minutes at a slow speed.
The detection method of described oilfield produced waste water soil removal efficiency comprises the steps: the change of measuring the absorbancy before and after sewage dosing with 754 ultraviolet spectrophotometers, determines soil removal efficiency.
HH in the present invention, bacterium numbering: 1.2362, Classification And Nomenclature: HH rhodococcus Rhodococcus erythropolis, buys in Beijing Institute of Microorganism, Academia Sinica in 2013-8-12.
TP1, bacterium numbering: 1.6510, Classification And Nomenclature: Bacillus licheniformis Bacillus licheniformis, buys in Beijing Institute of Microorganism, Academia Sinica in 2014-9-6.
TP2, bacterium numbering: 1.7461, Classification And Nomenclature: Bacillus licheniformis Bacillus licheniformis, buys in Beijing Institute of Microorganism, Academia Sinica in 2014-9-6.
Embodiment
Below in conjunction with embodiment, the present invention is further elaborated, but embodiment does not form any restriction to the present invention.
Embodiment 1
A kind of mixed biology chemistry water purification agent, be made up of mixed bacteria liquid TP1, TP2, the HH with water purification ability and the nanoparticle liquid nanometer polymerize aluminum chloride with strong absorption energy, the weight ratio of this mixed bacteria liquid and nanoparticle is 3:7.
Wherein in mixed bacteria liquid, the weight ratio of TP1:TP2:HH is 1:1:1.
In the substratum of this mixed bacteria liquid, each weight percentages of components is: NH
4cl is 0.5%, K
2hPO
4be 0.5%, KH
2pO
4be 0.06%, MgCl
2be 0.025%, liquid wax is 2%, yeast extract paste is 0.005%, all the other are water.
Further, the pH value of the substratum of mixed bacteria liquid is 7.2 ~ 7.4.
The present invention also provides the application of a kind of mixed biology chemistry water purification agent in sewage disposal, and this sewage is oilfield produced waste water.
After adopting the mixed biology chemistry water purification agent process oilfield produced waste water of embodiment 1, the situation detecting sewage by suspended solids content, oil content of wastewater and soil removal efficiency is as follows:
1, the detection of suspended solids content:
The detection method step of this oilfield produced waste water suspended solids content is as follows:
1), by filter membrane put into distilled water and soak 30min, and with distilling washing 3 ~ 4 times.
2), take out filter membrane put in an oven, dry 30min at 90 DEG C, put into moisture eliminator after taking-up and be chilled to room temperature, weigh.
3), by the 2nd article of repetitive operation, until constant weight, second weighing difference is less than 0.2mg.
4), the filter membrane water-wet of constant weight is installed on millipore filter.
5), will load in microporous membrane filtration tester for surveying water sample.
6), open vacuum pump switch, start to filter water sample.
7), with tweezers from filter, take out filter membrane and dry, rinsing filter membrane till filtrate is colourless with sherwood oil.
8), again by the 2nd, 3 article of step operation.
9), suspended solids content is calculated according to the following formula.
C={(A-B)×10
3}÷V
In formula: C-suspended solids content, mg/L.
Filter membrane quality after A-test, g.
B-experiment front filter quality, g.
V-volume of water sample, L.
2, the detection of oil content of wastewater:
The detection method step of this oilfield produced waste water oleaginousness is as follows:
1), water sampling 500ml moves in separating funnel, and add the 5ml vitriol oil, this vitriol oil is for suppressing living microorganisms and preventing solution alkaline emulsification, and 10g sodium-chlor.
2), with 10ml sherwood oil wash sampling bottle, and this washing lotion is poured in separating funnel, fully concussion 2 minutes, stratification; Lower floor's water sample is put into former sampling bottle, and upper strata sherwood oil is put into the funnel filling anhydrous sodium sulphate and is filtered, and filtrate collection is in 25ml volumetric flask.
3), repeating step 2) operation.
4) be, with sherwood oil reference liquid, the absorbancy of the extraction liquid after 430nm place measures the non-dosing of water sample and dosing, and on typical curve, find corresponding oleaginousness.
Stir after water sample dosing in step 4), adopt mode first quick and back slow, quick 600r/min stirs 2 minutes, and middling speed 200r/min stirs 5 minutes, and 60r/min stirs 5 minutes at a slow speed.
3, the detection of sewage soil removal efficiency:
The detection method step of this oilfield produced waste water soil removal efficiency is as follows:
Measure the change of the absorbancy before and after sewage dosing with 754 ultraviolet spectrophotometers, determine that soil removal efficiency is 98.5%.
Embodiment 2
Embodiment 2 is with the difference of embodiment 1:
The weight ratio of this mixed bacteria liquid and nanoparticle is 2:8.
Wherein in mixed bacteria liquid, the weight ratio of TP1:TP2:HH is 0.5:0.5:2.
In the substratum of this mixed bacteria liquid, each weight percentages of components is: NH
4cl is 0.3%, K
2hPO
4be 0.3%, KH
2pO
4be 0.08%, MgCl
2be 0.04%, liquid wax is 1%, yeast extract paste is 0.003%, all the other are water.
Further, the pH value of the substratum of mixed bacteria liquid is 7.1 ~ 7.3.
The suspended solids content of detection oilfield produced waste water detected according to embodiment 1 method is 94.8%, oil content of wastewater be 99.2% and soil removal efficiency be 97.3%.
Embodiment 3
Embodiment 3 is with the difference of embodiment 1:
The weight ratio of this mixed bacteria liquid and nanoparticle is 4:6.
Wherein in mixed bacteria liquid, the weight ratio of TP1:TP2:HH is 1.5:1.5:0.5.
In the substratum of this mixed bacteria liquid, each weight percentages of components is: NH
4cl is 0.7%, K
2hPO
4be 0.7%, KH
2pO
4be 0.04%, MgCl
2be 0.01%, liquid wax is 3%, yeast extract paste is 0.007%, all the other are water.
Further, the pH value of the substratum of mixed bacteria liquid is 7.4 ~ 7.6.
The suspended solids content of detection oilfield produced waste water detected according to embodiment 1 method is 83%, oil content of wastewater be 90% and soil removal efficiency be 93%.
In addition, adopt the mixed biology chemistry water purification agent of embodiment 1 to 3 when processing sanitary sewage, within final waste water COD concentration is reduced to 40mg/L, far below discharging standards.The mensuration of COD connects Hua Da ground development in science and technology company limited 5B-3B(H with Beijing) COD multi-parameter mensuration.
Mixed biology of the present invention chemistry water purification agent, soil removal efficiency can reach 98.5%, solid content clearance can reach 95.9%, oleaginousness clearance can reach 99.3%.Indices all can reach or exceed national standard.The few 20-30% of medicine of amount ratio prior art.
Those skilled in the art do not depart from essence of the present invention and spirit, kinds of schemes can be had to realize the present invention, the foregoing is only the better feasible embodiment of the present invention, not thereby interest field of the present invention is limited to, the equivalence change that all utilizations description of the present invention is done, is all contained within interest field of the present invention.
Claims (10)
1. a mixed biology chemistry water purification agent, comprise mixed bacteria liquid TP1, TP2, the HH with water purification ability and the nanoparticle liquid nanometer polymerize aluminum chloride with strong absorption energy, the weight ratio of this mixed bacteria liquid and nanoparticle is 2 ~ 4:6 ~ 8, preferred 3:7.
2. mixed biology chemistry water purification agent according to claim 1, is characterized in that: in described mixed bacteria liquid, the weight ratio of TP1:TP2:HH is 0.5 ~ 1.5:0.5 ~ 1.5:0.5 ~ 2, preferred 1:1:1.
3. mixed biology chemistry water purification agent according to claim 1 and 2, is characterized in that: in the substratum of mixed bacteria liquid, each weight percentages of components is: NH
4cl is 0.3 ~ 0.7%, K
2hPO
4be 0.3 ~ 0.7%, KH
2pO
4be 0.04 ~ 0.08%, MgCl
2be 0.01 ~ 0.04%, liquid wax is 1 ~ 3%, yeast extract paste is 0.03 ~ 0.007%, all the other are water.
4. mixed biology chemistry water purification agent according to claim 3, is characterized in that: in the substratum of mixed bacteria liquid, each weight percentages of components is: NH
4cl is 0.5%, K
2hPO
4be 0.5%, KH
2pO
4be 0.06%, MgCl
2be 0.025%, liquid wax is 2%, yeast extract paste is 0.005%, all the other are water.
5. mixed biology according to claim 4 chemistry water purification agent, is characterized in that: the pH value of the substratum of mixed bacteria liquid is 7.1 ~ 7.6, preferably 7.2 ~ 7.4.
6. the application of mixed biology chemistry water purification agent in sewage disposal in claim 1 to 5 described in any one, the preferred sanitary sewage of described sewage or oilfield produced waste water.
7. the application of mixed biology chemistry water purification agent in sewage disposal described in claim 6, is characterized in that: the detection method of described oilfield produced waste water suspended solids content comprises the steps:
1), by filter membrane put into distilled water and soak 30min, and with distilling washing 3 ~ 4 times;
2), take out filter membrane put in an oven, dry 30min at 90 DEG C, put into moisture eliminator after taking-up and be chilled to room temperature, weigh;
3), by the 2nd article of repetitive operation, until constant weight;
4), the filter membrane water-wet of constant weight is installed on millipore filter;
5), will load in microporous membrane filtration tester for surveying water sample;
6), open vacuum pump switch, start to filter water sample;
7), with tweezers from filter, take out filter membrane and dry, rinsing filter membrane till filtrate is colourless with sherwood oil;
8), again by the 2nd, 3 article of step operation;
9), suspended solids content is calculated according to the following formula;
C={(A-B)×10
3}÷V
In formula: C-suspended solids content, mg/L;
Filter membrane quality after A-test, g;
B-experiment front filter quality, g;
V-volume of water sample, L.
8. the application of mixed biology chemistry water purification agent according to claim 6 in sewage disposal, is characterized in that: the detection method of described oilfield produced waste water oleaginousness comprises the steps:
1), water sampling 500ml moves in separating funnel, adds the 5ml vitriol oil (suppress living microorganisms and prevent solution alkaline emulsification) and 10g sodium-chlor (be used for demineralized water, make calcium become calcium chloride precipitation);
2), with 10ml sherwood oil wash sampling bottle, and this washing lotion is poured in separating funnel, fully concussion 2 minutes, stratification; Lower floor's water sample is put into former sampling bottle, and upper strata sherwood oil is put into the funnel filling anhydrous sodium sulphate and is filtered, and filtrate collection is in 25ml volumetric flask;
3), repeating step 2) operation;
4) be, with sherwood oil reference liquid, the absorbancy of the extraction liquid after 430nm place measures the non-dosing of water sample and dosing, and on typical curve, find corresponding oleaginousness.
9. the application of mixed biology chemistry water purification agent according to claim 8 in sewage disposal, it is characterized in that: stir after water sample dosing in step 4), adopt mode first quick and back slow, quick 600r/min stirs 2 minutes, middling speed 200r/min stirs 5 minutes, and 60r/min stirs 5 minutes at a slow speed.
10. the application of mixed biology chemistry water purification agent according to claim 6 in sewage disposal, it is characterized in that: the detection method of described oilfield produced waste water soil removal efficiency comprises the steps: to measure with 754 ultraviolet spectrophotometers the change of the absorbancy before and after sewage dosing, detect soil removal efficiency.
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CN106082447A (en) * | 2016-06-20 | 2016-11-09 | 常州大学 | A kind of new method utilizing Thermophilic Bacteria complex biological strengthening microbial inoculum to process high temperature oil extraction-generated waste water |
CN108217775A (en) * | 2018-02-05 | 2018-06-29 | 合肥市联任科技有限公司 | A kind of chlorine-contained wastewater inorganic agent and preparation method thereof |
CN109650598A (en) * | 2019-01-30 | 2019-04-19 | 济南市琦泉热电有限责任公司 | The method of power plant effluent technique of zero discharge |
CN109758914A (en) * | 2019-03-12 | 2019-05-17 | 浙江科技学院 | A method of antibiotic ultra-filtration and separation efficiency is improved using sludge extracellular polymeric |
CN109758914B (en) * | 2019-03-12 | 2021-05-25 | 浙江科技学院 | Method for improving antibiotic ultrafiltration separation efficiency by using sludge extracellular polymer |
CN111439865A (en) * | 2020-04-07 | 2020-07-24 | 中国科学院生态环境研究中心 | Defluorination method for coal gas wastewater |
CN111439865B (en) * | 2020-04-07 | 2022-02-25 | 中国科学院生态环境研究中心 | Defluorination method for coal gas wastewater |
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