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Immobilization of NZVI in polydopamine surface-modified biochar for adsorption and degradation of tetracycline in aqueous solution

  • Xiangyu Wang
  • Weitao Lian
  • Xin Sun
  • Jun Ma
  • Ping Ning
Research Article
Part of the following topical collections:
  1. Special Issue—Bio-based Technologies for Resource Recovery

Abstract

Polydopamine/NZVI@biochar composite (PDA/NZVI@BC) with high removal efficiency of tetracycline (TC) in aqueous solutions was successfully synthesized. The resultant composite demonstrated high reactivity, excellent stability and reusability over the reaction course. Such excellent performance can be attributed to the presence of the huge surface area on biochar (BC), which could enhance NZVI dispersion and prolong its longevity. The carbonyl group contained on the surface of biochar could combine with the amino group on polydopamine(PDA). The hydroxyl groups in PDA is able to enhance the dispersion and loading of NZVI on BC. Being modified by PDA, the hydrophilicity of biochar was improved. Among BC, pristine NZVI and PDA/NZVI@BC, PDA/ NZVI@BC exhibited the highest activity for removal of TC. Compared with NZVI, the removal efficiency of TC could be increased by 55.9% by using PDA/NZVI@BC under the same conditions. The optimal modification time of PDA was 8h, and the ratio of NZVI to BC was 1:2. In addition, the possible degradation mechanism of TC was proposed, which was based on the analysis of degraded products by LC-MS. Different important factors impacting on TC removal (including mass ratio of NZVI to BC/PDA, initial concentration, pH value and the initial temperature of the solution) were investigated as well. Overall, this study provides a promising alternative material and environmental pollution management option for antibiotic wastewater treatment.

Keywords

Biochar Polydopamine NZVI Modification Tetracycline 

Notes

Acknowledgements

This research was supported by the National Nature Science Foundation of China (Grant Nos. 51368025 and 51068011).

Supplementary material

11783_2018_1066_MOESM1_ESM.pdf (365 kb)
Supplementary material, approximately 365 KB.

References

  1. An B, Liang Q, Zhao D (2011). Removal of arsenic(V) from spent ion exchange brine using a new class of starch-bridged magnetite nanoparticles. Water Research, 45(5): 1961–1972CrossRefGoogle Scholar
  2. Arshadi M, Abdolmaleki M K, Mousavinia F, Foroughifard S, Karimzadeh A (2017). Nano modification of NZVI with an aquatic plant Azolla filiculoides to remove Pb(II) and Hg(II) from water: Aging time and mechanism study. Journal of Colloid and Interface Science, 486: 296–308CrossRefGoogle Scholar
  3. Arshadi M, Soleymanzadeh M, Salvacion J W, SalimiVahid F (2014). Nanoscale Zero-Valent Iron (NZVI) supported on sineguelas waste for Pb(II) removal from aqueous solution: Kinetics, thermodynamic and mechanism. Journal of Colloid and Interface Science, 426: 241–251CrossRefGoogle Scholar
  4. Cai Z, Fu J, Du P, Zhao X, Hao X, Liu W, Zhao D (2018). Reduction of nitrobenzene in aqueous and soil phases using carboxymethyl cellulose stabilized zero-valent iron nanoparticles. Chemical Engineering Journal, 332: 227–236CrossRefGoogle Scholar
  5. Cao M, Wang L, Ai Z, Zhang L (2015). Efficient remediation of pentachlorophenol contaminated soil with tetrapolyphosphate washing and subsequent ZVI/Air treatment. Journal of Hazardous Materials, 292: 27–33CrossRefGoogle Scholar
  6. Chen S S, Hsu B C, Hung LW (2008). Chromate reduction by waste iron from electroplating wastewater using plug flow reactor. Journal of Hazardous Materials, 152(3): 1092–1097CrossRefGoogle Scholar
  7. Chen WR, Huang C H (2009). Transformation of tetracyclines mediated by Mn(II) and Cu(II) ions in the presence of oxygen. Environmental Science & Technology, 43(2): 401–407CrossRefGoogle Scholar
  8. Daghrir R, Drogui P (2013). Tetracycline antibiotics in the environment: A review. Environmental Chemistry Letters, 11(3): 209–227CrossRefGoogle Scholar
  9. Ding Y H, Floren M, Tan W (2016). Mussel-inspired polydopamine for bio-surface functionalization. Biosurface and Biotribology, 2(4): 121–136CrossRefGoogle Scholar
  10. Dong H, Deng J, Xie Y, Zhang C, Jiang Z, Cheng Y, Hou K, Zeng G (2017). Stabilization of nanoscale zero-valent iron (nZVI) with modified biochar for Cr(VI) removal from aqueous solution. Journal of Hazardous Materials, 332: 79–86CrossRefGoogle Scholar
  11. Dong H, Xie Y, Zeng G, Tang L, Liang J, He Q, Zhao F, Zeng Y, Wu Y (2016). The dual effects of carboxymethyl cellulose on the colloidal stability and toxicity of nanoscale zero-valent iron. Chemosphere, 144: 1682–1689CrossRefGoogle Scholar
  12. Feng J, Zhu B W, Lim T T (2008). Reduction of chlorinated methanes with nano-scale Fe particles: Effects of amphiphiles on the dechlorination reaction and two-parameter regression for kinetic prediction. Chemosphere, 73(11): 1817–1823CrossRefGoogle Scholar
  13. Ghauch A, Tuqan A, Assi H A (2009). Antibiotic removal from water: elimination of amoxicillin and ampicillin by microscale and nanoscale iron particles. Environmental Pollution, 157(5): 1626–1635CrossRefGoogle Scholar
  14. Guan X, Sun Y, Qin H, Li J, Lo I M, He D, Dong H (2015). The limitations of applying zero-valent iron technology in contaminants sequestration and the corresponding countermeasures: The development in zero-valent iron technology in the last two decades (1994–2014). Water Research, 75: 224–248CrossRefGoogle Scholar
  15. He F, Zhao D (2008). Hydrodechlorination of trichloroethene using stabilized Fe-Pd nanoparticles: Reaction mechanism and effects of stabilizers, catalysts and reaction conditions. Applied Catalysis B: Environmental, 84(3-4): 533–540CrossRefGoogle Scholar
  16. Hsieh W P, Pan J R, Huang C, Su Y C, Juang Y J (2010). Enhance the photocatalytic activity for the degradation of organic contaminants in water by incorporating TiO2 with zero-valent iron. Science of the Total Environment, 408(3): 672–679CrossRefGoogle Scholar
  17. Jeong J, Song W, Cooper W J, Jung J, Greaves J (2010). Degradation of tetracycline antibiotics: Mechanisms and kinetic studies for advanced oxidation/reduction processes. Chemosphere, 78(5): 533–540CrossRefGoogle Scholar
  18. Jiang J, Zhu L, Zhu L, Zhang H, Zhu B, Xu Y (2013). Antifouling and antimicrobial polymer membranes based on bioinspired polydopamine and strong hydrogen-bonded poly(N-vinyl pyrrolidone). ACS Applied Materials & Interfaces, 5(24): 12895–12904CrossRefGoogle Scholar
  19. Lee H, Dellatore S M, Miller W M, Messersmith P B (2007). Musselinspired surface chemistry for multifunctional coatings. Science, 318 (5849): 426–430Google Scholar
  20. Li J, Bao H, Xiong X, Sun Y, Guan X (2015a). Effective Sb(V) immobilization from water by zero-valent iron with weak magnetic field. Separation and Purification Technology, 151: 276–283CrossRefGoogle Scholar
  21. Li R, Jin X, Megharaj M, Naidu R, Chen Z (2015b). Heterogeneous Fenton oxidation of 2,4-dichlorophenol using iron-based nanoparticles and persulfate system. Chemical Engineering Journal, 264: 587–594CrossRefGoogle Scholar
  22. Li Y, Cheng W, Sheng G, Li J, Dong H, Chen Y, Zhu L (2015c). Synergetic effect of a pillared bentonite support on Se(VI) removal by nanoscale zero valent iron. Applied Catalysis B: Environmental, 174–175: 329–335CrossRefGoogle Scholar
  23. Loget G, Yoo J E, Mazare A, Wang L, Schmuki P (2015). Highly controlled coating of biomimetic polydopamine in TiO2 nanotubes. Electrochemistry Communications, 52: 41–44CrossRefGoogle Scholar
  24. Lyu H, Zhao H, Tang J, Gong Y, Huang Y, Wu Q, Gao B (2018). Immobilization of hexavalent chromium in contaminated soils using biochar supported nanoscale iron sulfide composite. Chemosphere, 194: 360–369CrossRefGoogle Scholar
  25. Rodriguez-Mozaz S, Chamorro S, Marti E, Huerta B, Gros M, Sànchez-Melsió A, Borrego C M, Barceló D, Balcázar J L (2015). Occurrence of antibiotics and antibiotic resistance genes in hospital and urban wastewaters and their impact on the receiving river. Water Research, 69: 234–242CrossRefGoogle Scholar
  26. Sarmah A K, Meyer M T, Boxall A B (2006). A global perspective on the use, sales, exposure pathways, occurrence, fate and effects of veterinary antibiotics (VAs) in the environment. Chemosphere, 65(5): 725–759CrossRefGoogle Scholar
  27. Sever M J, Weisser J T, Monahan J, Srinivasan S, Wilker J J (2004). Metal-mediated cross-linking in the generation of a marine-mussel adhesive. Angewandte Chemie, 116: 43(4): 448–450CrossRefGoogle Scholar
  28. Shao B, Liu L F, Yang F L, Shan D N, Yuan H (2012). Membrane modification using polydopamine and/or PDA coated TiO2 nano particles for wastewater treatment. Procedia Engineering, 44: 1431–1432CrossRefGoogle Scholar
  29. Shen W, Mu Y, Wang B, Ai Z H, Zhang L Z (2017). Enhanced aerobic degradation of 4-chlorophenol with iron-nickel nanoparticles. Applied Surface Science, 393: 316–324CrossRefGoogle Scholar
  30. Shi L N, Zhang X, Chen Z L (2011). Removal of chromium (VI) from wastewater using bentonite-supported nanoscale zero-valent iron. Water Research, 45(2): 886–892CrossRefGoogle Scholar
  31. Su H, Fang Z, Tsang P E, Fang J, Zhao D (2016b). Stabilisation of nanoscale zero-valent iron with biochar for enhanced transport and in-situ remediation of hexavalent chromium in soil. Environmental Pollution, 214: 94–100CrossRefGoogle Scholar
  32. Su H, Fang Z, Tsang P E, Zheng L, Cheng W, Fang J, Zhao D (2016a). Remediation of hexavalent chromium contaminated soil by biocharsupported zero-valent iron nanoparticles. Journal of Hazardous Materials, 318: 533–540CrossRefGoogle Scholar
  33. Su J, Lin S, Chen Z, Megharaj M, Naidu R (2011). Dechlorination of pchlorophenol from aqueous solution using bentonite supported Fe/Pd nanoparticles: Synthesis, characterization and kinetics. Desalination, 280(1-3): 167–173CrossRefGoogle Scholar
  34. Wang X, Chen C, Liu H, Ma J (2008). Preparation and characterization of PAA/PVDF membrane-immobilized Pd/Fe nanoparticles for dechlorination of trichloroacetic acid. Water Research, 42(18): 4656–4664CrossRefGoogle Scholar
  35. Xi Z Y, Xu Y Y, Zhu L P, Wang Y, Zhu B K (2009). A facile method of surface modification for hydrophobic polymer membranes based on the adhesive behavior of poly(DOPA) and poly(dopamine). Journal of Membrane Science, 327(1-2): 244–253CrossRefGoogle Scholar
  36. Yang K, Yue Q, Han W, Kong J, Gao B, Zhao P, Duan L (2015). Effect of novel sludge and coal cinder ceramic media in combined anaerobic–aerobic bio-filter for tetracycline wastewater treatment at low temperature. Chemical Engineering Journal, 277: 130–139CrossRefGoogle Scholar
  37. Yang L, Phua S L, Teo J K H, Toh C L, Lau S K, Ma J, Lu X (2011). A biomimetic approach to enhancing interfacial interactions: polydopamine-coated clay as reinforcement for epoxy resin. ACS Applied Materials & Interfaces, 3(8): 3026–3032CrossRefGoogle Scholar
  38. Yin W, Wu J, Li P, Lin G, Wang X, Zhu B, Yang B (2012a). Reductive transformation of pentachloronitrobenzene by zero-valent iron and mixed anaerobic culture. Chemical Engineering Journal, 210: 309–315CrossRefGoogle Scholar
  39. Yin W, Wu J, Li P, Wang X, Zhu N, Wu P, Yang B (2012b). Experimental study of zero-valent iron induced nitrobenzene reduction in groundwater: The effects of pH, iron dosage, oxygen and common dissolved anions. Chemical Engineering Journal, 184: 198–204CrossRefGoogle Scholar
  40. Yu J, Kan Y, Rapp M, Danner E, Wei W, Das S, Miller D R, Chen Y, Waite J H, Israelachvili J N (2013). Adaptive hydrophobic and hydrophilic interactions of mussel foot proteins with organic thin films. Proceedings of the National Academy of Sciences of the United States of America, 110(39): 15680–15685CrossRefGoogle Scholar
  41. Zabihi Z, Araghi H (2016a). Effect of functional groups on thermal conductivity of graphene/paraffin nanocomposite. Physics Letters, 380(45): 3828–3831CrossRefGoogle Scholar
  42. Zabihi Z, Araghi H (2016b). Monte Carlo simulations of effective electrical conductivity of graphene/poly(methyl methacrylate) nanocomposite: Landauer-Buttiker approach. Synthetic Metals, 217: 87–93CrossRefGoogle Scholar
  43. Zhu H, Jia Y, Wu X, Wang H (2009). Removal of arsenic from water by supported nano zero-valent iron on activated carbon. Journal of Hazardous Materials, 172(2-3): 1591–1596CrossRefGoogle Scholar

Copyright information

© Higher Education Press and Springer-Verlag GmbH Germany, part of Springer Nature 2018

Authors and Affiliations

  • Xiangyu Wang
    • 1
  • Weitao Lian
    • 1
  • Xin Sun
    • 1
  • Jun Ma
    • 2
  • Ping Ning
    • 1
  1. 1.Faculty of Environmental Science and EngineeringKunming University of Science and TechnologyKunmingChina
  2. 2.School of Municipal and Environmental Engineering, State Key Laboratory of Urban Water Resources and EnvironmentHarbin Institute of TechnologyHarbinChina

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