• 综述 •
陈冠益, 韩克旋, 刘彩霞, 旦增, 布多. 污泥中重金属处理方法[J]. 化学进展, 2021, 33(6): 998-1009.
Guanyi Chen, Kexuan Han, Caixia Liu, Zeng Dan, Duo Bu. Removing Heavy Metals from Sludge[J]. Progress in Chemistry, 2021, 33(6): 998-1009.
污泥特别是燃煤电厂脱硫废水污泥中的重金属严重超标,属于危险固体废物。据统计,我国市政污泥年产量已经突破5000万吨,脱硫废水污泥每年产量更是高达9000万吨,如果不进行妥当的重金属处置,会造成严重的二次污染和环境健康风险。本文介绍了污泥处理的国内外现状和污泥重金属的测定及评价方法,并从原理、反应装置、研究进展和热点等方面详细总结了化学法、电动法、生物法、热处理法和稳定化法的优缺点,阐明了各种方法中的现存问题和发展前景,最后对多方法联合方案提出了前景展望。
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The source of sludge | Water content(%) | Organic content(%) | pH | Ash(%) |
---|---|---|---|---|
Sewage Sludge | 40~80 | 65~81 | 6.5~7 | 15~19 |
Flue Gas Desulfurization Wastewater Sludge | 10~15 | 24~28 | 6.9~7.5 | 72~76 |
Dyeing Waste Water Sludge | 80~83 | 31~64 | 7.0~7.5 | |
Petrochemical Wastewater Sludge | 40~50 | 8.5~9 | 8~13 | |
Electroplating Sludge | 70~80 | 7~8 |
Igeo level | Igeo value | Contamination level |
---|---|---|
0 | Igeo≤0 | Practically uncontaminated |
1 | 0<Igeo≤1 | Uncontaminated to moderately contaminated |
2 | 1<Igeo≤2 | Moderately contaminated |
3 | 2<Igeo≤3 | Moderately to strongly contaminated |
4 | 3<Igeo≤4 | Strongly contaminated |
5 | 4<Igeo≤5 | Strongly to extremely contaminated |
6 | 5<Igeo | Extremely contaminated |
Grade | Er | Grades of ecological risk of single metal | RI | Grades of potential ecological risk of the environment |
---|---|---|---|---|
A | Er≤40 | Low risk(LR) | RI<150 | Low risk(LR) |
B | 40≤Er<80 | Moderate risk(MR) | 150≤RI<300 | Moderate risk(MR) |
C | 80≤Er<160 | Considerable risk(CR) | 150≤RI<300 | Considerable risk(CR) |
D | 160≤Er<320 | High risk(HR) | RI>320 | Very high risk(VHR) |
E | Er≥320 | Very high risk(VHR) |
Agents | The source of sludge | Dosage | Mechanism | Remove rate |
---|---|---|---|---|
Citric Acid | Electroplating Sludge | 0.5 mol·kg-1(0.5 mol·L-1*1000 mL·kg-1) | Decrease of pH values | Cr 69%, Cu 57% |
Nitric Acid(HNO3) | Electroplating Sludge | 1 mol·kg-1(1 mol·L-1*1000 mL·kg-1) | Decrease of pH values | Cr 76%, Cu 33% |
Perhydrol(H2O2) + Nitric Acid(HNO3) | Electroplating Sludge | 1 mol·kg-1(1 mol·L-1*1000 mL·kg-1) | Decrease of pH values and increase of oxidation-reduction potential | Cr 84%, Cu 77% |
Ethylene Diamine Tetraacetic Acid(EDTA) +Citric Acid | Sewage Sludge | CEDTA=0.125 mol·L-1, CCA=0.6 mol·L-1 | Chelation and decrease of pH values | Cu 39%, Zn 42% Cd 24%, Pb 44% |
Citric Acid | Sewage Sludge and Soil(1∶1) | 0.1 mol·kg-1 (1 mol·L-1*0.1 L·kg-1) | Decrease of pH values | Cr 49%, Cu 50% Zn 90%, Cd 74% Pb 87% |
Ethylene Diamine Tetraacetic Acid(EDTA) | Sewage Sludge and Soil(1∶1) | 0.0125 mol·kg-1 (0.125 mol·L-1*0.1 L·kg-1) | Chelation | Cr 49%, Cu 39% Cd 43%, Pb 48% |
Polyepoxysuccinic Acid (PESA) | 0.12 kg·kg-1(30 g·L-1*0.004 L·kg-1,pH=6) | Chelation | Hg 63% | |
Acrylic Acid-Maleic Anhydride Copolymers | 0.1 kg·kg-1(30 g·L-1*0.0033 L·kg-1,pH=9) | Chelation | Hg 28% | |
Polyepoxysuccinic Acid (PESA) | Manganese Slag | 0.1 kg·kg-1(pH=4) | Chelation | Cr 95% |
Aspartic acid | Sewage Sludge | 0.09 kg·kg-1, pH=3 | Chelation | Cu 43%, Zn 69% Ni 66% |
N,N-bis(carboxymethyl) glutamic acid(GLDA) | Electroplating Sludge | 0.6 kg·kg-1, pH=4 | Chelation | Cu 84%, Cd 89% Ni 82% |
Pretreatment | The source of sludge | Mechanism | Experimental condition | Remove Rate | Power Consumption (kW·h·kg-1) |
---|---|---|---|---|---|
Deionized Water | Sewage Sludge + Soil | Electromigration,electrodialysis and electrophoresis. | 2 V·cm-1, 150 h | Cu 1% Pb 2% | 0.40 |
Polyepoxysuccinic Acid(PESA) | Application of PASP as anode working fluid can slow down corrosion of uninduced steel electrodes | 2 V·cm-1, 150 h | Cu 46% Pb 33% | 0.83 | |
Citric Acid | Citric acid transformed residual fraction heavy metal into unstable fraction. | 2 V·cm-1, 150 h | Cu 16% Pb 22% | 0.82 | |
Polyepoxysuccinic Acid(PESA) + Citric Acid | PASP and citric acid enhanced chelation effect. | 2 V·cm-1, 150 h | Cu 18% Pb 29% | 1.35 | |
Deionized Water | Sewage Sludge | Electromigration,electrodialysis and electrophoresis. | 1.5 V·cm-1, pH=6, 5 d | Pb 28% | |
Ammonia | Sewage Sludge | Ammonia increased the proportion of acid soluble fraction heavy metals. | Vammonia:Vwater:Vsludge= 0.4∶1∶4 | Cu 66% Pb 41% Zn 81% | 1.1 |
Ethylenediamine | Addition of ethylenediamine does not affect sludge acidification and current density. | Vammonia:Vwater:Vsludge=0.2∶1∶4 | Cu 65% Pb 53% Zn 82% | 1.2 | |
Magnetization | Sewage Sludge | The applied magnetic field produces a greater current density | 2 V·cm-1, 9.5 mT, 15 g·L-1, 6 h | Cd 97% Pb 28% Zn 89% | 0.07 |
Rhamnolipid | Sewage Sludge | Rhamnolipid has strong functional groups to form mobile heavy metal complexes and it can reduce the surface tension and increase heavy metals solubility | 2 V·cm-1, 192 h, 2 g·L-1 | Cu 56% Pb 52% Zn 74% Cr 64% | 0.06 |
Sodium nitrate(NaNO3) | Municipal Sludge | Addition of NaNO3 effect the current density and pH. | 2.0 mA/cm2, 132 h | Cu 83% Ni 75% | 2.39 |
Microbial strain | The Source of Sludge | Substrate | Dosage | Removal Rate |
---|---|---|---|---|
Thiobacteria | Sewage Sludge | Sulfur(7.5 g/L) +FeSO4·7H2O(2.5 g/L) | 10% | Cd 96% |
Thiobacteria | Sewage sludge | Sulfur(10 g/L) | 5% | Cu 58%, Zn 63% Cd 48%, Cr 38% |
FeSO4(10 g/L) | 5% | Cu 90%, Zn 60% Cd 60%, Cr 58% | ||
Thiobacillus Acidophilus | Sewage sludge | Na2S2O3(10 g/L) | 10% | Cu 67%, Zn 89% Cd 82%, Ni 67% |
Thermophilic Sulfur-oxidizing Bacteria | Sewage sludge | Sulfur(2 g/L) | 2% | Cu 41%, Zn 61% Ni 48%, Mn 99% |
Acidithiobacillus thiooxidans TS6 and Acidothiobacillus ferrooxidans LX5 | Municipal sewage sludge | Sulfur(2 g·L-1) + Fe(2 g·L-1) | 10% | Cu 85%, Cr 40% |
Thiobacillus Acidophilus | Sewage sludge | Sulfur(8 g/L) +FeSO4 | 10% | Cu 94%, Zn 95% Cr 85%, Ni 86% Pb 89% |
Thiobacillus acidophilu | Sewage sludge | FeSO4·7H2O(20 g/L) +H2SO4(20 mL/L) | 10% | Cu 91%, Zn 99% Cr 83%, Ni 87% Pb 52% |
The Source of Sludge | Final temperature | Time | Increase of residue fraction of heavy metals | ||||||
---|---|---|---|---|---|---|---|---|---|
Cr | Mn | Ni | Cu | Zn | Cd | Pb | |||
Sewage sludge | 140 ℃ | 8 h | 2% | - | - | 3% | 8% | 5% | 1% |
Dewatered Sewage sludge | 190 ℃ | - | - | - | - | 19% | 87% | 25% | 0% |
Acidic Sludge | 160 ℃(Hydrothermal Treatment) +600 ℃(Pyrolysis) | - | - | - | 20% | - | 24% | - | - |
Alkaline Sludge | 13% | - | - | 2% | - | - | |||
Mixed Sludge | 9% | 11% | 1% | 34% | 13% | - | - | ||
Sewage sludge | 220 ℃ | - | 18% | 21% | 40% | 18% | 9% | - | - |
Anaerobic Digested Sludge | 170 ℃ | 1 h | 8% | - | 11% | 7% | 4% | 2% | 5% |
Digested Sludge | 200 ℃(Hydrothermal Treatment) +950 ℃(Pyrolysis) | 0.5 h+0.5 h | 52% | 29% | 22% | 43% | 29% | 20% | 28% |
Anaerobic Digested Sludge | 280 ℃ | 1 h | 6% | - | 17% | 7% | 3% | 0% | 22% |
The Source of Sludge | Agent | Dosage | Remove rate | ||||||
---|---|---|---|---|---|---|---|---|---|
Cr | Mn | Ni | Cu | Zn | Cd | Pb | |||
Dewatered Sewage Sludge | FeSO4·7H2O | 15% | 2% | 12% | 10% | 17% | 7% | - | 6% |
Residual Activated Sludge | Na2S | 50mg/L | - | 53% | 41% | 51% | 51% | 94% | 35% |
Dewatered Sewage Sludge | (NH4)2S | 2% | - | - | 8% | 5% | 5% | - | - |
Sewage Sludge | Na2S·9H2O | 10% | - | - | 17% | 20% | 0% | - | - |
Sewage Sludge and Soil | Lime | 2% | - | - | 0% | 1% | 0% | - | 2% |
Lime + Cow Dung | 2% | - | - | 2% | 1% | 4% | - | 2% |
Method | Influencing Factor | Advantage | Disadvantage | Scope of Application |
---|---|---|---|---|
Chemical Process | Agent, Fraction of Metal | Strong Adaptability | Secondary Pollution | Sludge with high content of heavy metals |
Electrokinetic Treatment | Microbial Strain, Properties of Sludge, Temperature, pH | Low Cost, Low efficiency | Special Reactor, Strict conditions | Sludge that suitable for specific strain growth. |
Bioleaching Process | Temperature, Fraction of Metal | High removal rate, Environment-friendly | Strict conditions, High cost | Sludge with high content of organic material |
Thermal Treatment | Agent, Properties and Fraction of Metal | Low Cost, Short Time | High cost | Sludge with high proportion of unstable fraction heavy metals |
Stabilization | Properties of Sludge, pH | High efficiency, Less influence on sludge | Hidden danger of heavy metal re-release | Sludge with high proportion of unstable fraction heavy metals |
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