Research progress and application prospect of anaerobic biological phosphorus removal
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Abstract
Anaerobic biological phosphorus removal has proposed a new direction for the removal of phosphorus from wastewater, and the discovery of phosphate reduction makes people have a more comprehensive understanding of microbial phosphorus cycling. Here, from the perspective of thermodynamics, the bioreduction reaction of phosphate was analyzed and its mechanism was discussed. The research progress of phosphate reduction and the application prospects of anaerobic biological phosphorus removal from wastewater were introduced, pointing out the situation and guiding the further research in this field.
Keywords
Phosphate reduction Thermodynamics analysis Phosphine Anaerobic biological phosphorus removalNotes
Funding
This study was funded by the National Natural Science Foundation of China (21477027), and the Program for Guangzhou University Graduate Innovative Research (2017GDJC-M40).
Compliance with ethical standards
Conflict of interest
The authors declare that they have no competing interests.
Ethical approval
This article does not contain any studies with human participants or animals performed by any of the authors.
References
- Brdjanovic D, Van Loosdrecht MC, Hooijmans CM, Alaerts GJ, Heijnen JJ (2015) Minimal aerobic sludge retention time in biological phosphorus removal systems[J]. Biotechnol Bioeng 60(3):326–332Google Scholar
- Cao JP, Zhang CS, Zhao LM, Rong HW, Wei W, Liu T (2017) Relationships of inorganic phosphorus sources and enzymes activities to phosphine production from anaerobic activated sludge[J]. China Water Wastewater 33(1):110–113 (In Chinese)Google Scholar
- Dévai I, Felföldy L, Wittner I, Plósz S (1988) Detection of phosphine: new aspects of the phosphorus cycle in the hydrosphere[J]. Nature 333(6171):343–345Google Scholar
- Ding LL, Zhu YX, Liang HW, Wang Q, Mo WH, Ren HQ, Wang XR (2005) Distribution of phosphine and phosphorus balance in a full-scale UASB system[J]. J Nanjing U(Nat Sci), 41(06): 620–626 (In Chinese)Google Scholar
- Gassmann G, Glindemann D (1993) Phosphane (PH3) in the biosphere[J]. Angew Chem Int Ed 32(5):761–763Google Scholar
- Geng JJ, Qiao S, Zhang R, Wang XR, Wang Q (2007) Precursors for phosphine formation in nature[J]. J Nanjing U(Nat Sci), 43(4): 338–344 (In Chinese)Google Scholar
- Gonzalezgil G, Holliger C (2011) Dynamics of microbial community structure of and enhanced biological phosphorus removal by aerobic granules cultivated on propionate or acetate[J]. Appl Environ Microbio 77(22):8041–8051Google Scholar
- Guo XL, Zheng P, Mei LL (2005) Screening for the phosphate reducer and study on their dephosphorization conditions[J]. Acta Sci Circumst, 25(02): 238–241 (In Chinese)Google Scholar
- Iverson WP (1968) Corrosion of iron and formation of iron phosphide by Desulfovibrio desulfuricans[J]. Nature 217(5135):1265–1267Google Scholar
- Jabari P, Munz G, Oleszkiewicz JA (2014) Selection of denitrifying phosphorous accumulating organisms in IFAS systems: comparison of nitrite with nitrate as an electron acceptor.[J]. Chemosphere 109:20–27Google Scholar
- Jenkins RO, Morris TA, Craig PJ, Ritchie AW, Ostah N (2000) Phosphine generation by mixed and monoseptic-cultures of anaerobic bacteria[J]. Sci Total Environ 250(1–3):73–81Google Scholar
- Li JY (2008) Fundamental research on the anaerobic biological phosphorus removal from wastewater[D]. Zhejiang U (In Chinese)Google Scholar
- Liu ZP, Jia SF, Wang BJ, Liu SJ (2004) Differences in phosphine contents of various environment samples and the effecting factors[J]. Acta Sci Circumst, 24(05): 852–857 (In Chinese)Google Scholar
- Liu ZP, Wang BJ, Jia SF, Liu SJ (2006) Relationships between phosphine content of samples and their microbial populations and enzyme activities[J]. Acta Microbiol Sin, 46(04): 608–612 (In Chinese)Google Scholar
- Liu Y, Zhou J, Li XP, Zhang YS, Xiao L (2013) Transformation of phosphorus forms during construction of phosphate reduction system[J]. China Water Wastewater, 29(13): 105–108 (In Chinese)Google Scholar
- Liu T, Chang B, Wu K (2016a) The performance of phosphate removal using aluminium-manganese bimetal oxide coated zeolite: batch and dynamic adsorption studies[J]. Desalination Water Treat 57(9):4220–4233Google Scholar
- Liu H, Yang Y, Ge Y, Zhao L, Long S, Zhang R (2016b) Interaction between common antibiotics and a Shewanella strain isolated from an enhanced biological phosphorus removal activated sludge system[J]. Bioresour Technol 222:114–122Google Scholar
- Lochmatter S, Gonzalez-Gil G, Holliger C (2013) Optimized aeration strategies for nitrogen and phosphorus removal with aerobic granular sludge[J]. Water Res 47(16):6187–6197Google Scholar
- Luo QR (2013) The factor of anaerobic dephosphorization process and the screening of bacteria[J]. Energy Energy Conserv 4:64–66 (In Chinese)Google Scholar
- Massey MS, Ippolito JA, Davis JG, Sheffield RE (2010) Macroscopic and microscopic variation in recovered magnesium phosphate materials: implications for phosphorus removal processes and product re-use.[J]. Bioresour Technol 101(3):877–885Google Scholar
- Nittami T, Mukai M, Uematsu K, Yoon LW, Schroeder S, Chua ASM, Fukuda J, Fujita M, Seviour RJ (2017) Effects of different carbon sources on enhanced biological phosphorus removal and “Candidatus Accumulibacter” community composition under continuous aerobic condition[J]. Appl Microbiol Biotechnol 101(23–24):8607–8619Google Scholar
- Oladoja NA, Ololade IA, Adesina AO, Adelagun ROA, Sani YM (2013) Appraisal of gastropod shell as calcium ion source for phosphate removal and recovery in calcium phosphate minerals crystallization procedure[J]. Chem Eng Res Design 91(5):810–818Google Scholar
- Qiu G, Song Y, Zeng P, Xiao S, Duan L (2011) Phosphorus recovery from fosfomycin pharmaceutical wastewater by wet air oxidation and phosphate crystallization.[J]. Chemosphere 84(2):241–246Google Scholar
- Roels J, Van LH, Verstraete W (2002) Determination of phosphine in biogas and sludge at ppt-levels with gas chromatography-thermionic specific detection[J]. J Chromatogr 952:229–237Google Scholar
- Rutishauser BV, Bachofen R (1999) Phosphine formation from sewage sludge cultures[J]. Anaerobe 5:525–531Google Scholar
- Sun L (2012) Study on mechanism and process of the phosphine released[D]. Guangzhou U (In Chinese)Google Scholar
- Sun J, Yang Q, Wang D, Wang S, Chen F, Zhong Y, Yi K, Yao F, Jiang C, Li S (2017) Nickel toxicity to the performance and microbial community of enhanced biological phosphorus removal system[J]. Chem Eng J 313:415–423Google Scholar
- Wan JB, Deng M, He HY, Tang AP (2013) Factors influencing release of phosphine in piggery wastewater[J]. China Water Wastewater, 29(23): 117–120 (In Chinese)Google Scholar
- Wang Y, Jiang F, Zhang Z, Xing M, Lu Z, Wu M, Yang J, Peng Y (2010) The long-term effect of carbon source on the competition between polyphosphorus accumulating organisms and glycogen accumulating organism in a continuous plug-flow anaerobic/aerobic (A/O) process.[J]. Bioresour Technol 101(1):98–104Google Scholar
- Wang JF, Niu XJ, Ma JL, Lu MQ (2015) Conversion of phosphorus to phosphine by microbial deoxidization under anaerobic conditions [J]. Microbiol China, 42(01): 34–41 (In Chinese)Google Scholar
- Wei W (2010) Research on release of phosphine in wastewater treatment[D]. Guangzhou U (In Chinese)Google Scholar
- Wu K, Liu T, Ma C, Chang B, Chen R, Wang X (2014) The role of Mn oxide doping in phosphate removal by Al-based bimetal oxides: adsorption behaviors and mechanisms[J]. Environ Sci Pollut Res Int 21(1):620–630Google Scholar
- You LL, Zong HB, Zhang SF, Yin GY, Li T, Hou LJ (2013) Distribution of matrix-bound phosphine in surface sediments of Jinpu Bay[J]. Environ Sci, 34(10): 3804–3809 (In Chinese)Google Scholar
- Yuan Q, Oleszkiewicz J (2010) Selection and enrichment of denitrifying phosphorus accumulating organisms in activated sludge[J]. Desalination Water Treat 22(1–3):72–77Google Scholar
- Zeng W, Li L, Yang YY, Wang XD, Peng YZ (2011) Denitrifying phosphorus removal and impact of nitrite accumulation on phosphorus removal in a continuous anaerobic-anoxic-aerobic (A2O) process treating domestic wastewater.[J]. Enzym Microb Technol 48(2):134–142Google Scholar
- Zhang PL (2011) Study on anaerobe phosphorus removal and the structure property of microbial community[D]. Guangzhou U (In Chinese)Google Scholar
- Zhang CS, Zhang KF, Wei W, Rong HW, Liu T (2010) Release rule of phosphine in anaerobic sequencing batch process[J]. China Water Wastewater, 26(11): 53–55 (In Chinese)Google Scholar
- Zhang CS, Zhang KF, Sun L, Rong HW, Liu T (2013) Effect of carbon sources on phosphine production from anaerobic activated sludge[J]. China Water Wastewater, 29(15): 103–106 (In Chinese)Google Scholar
- Zhang M, Peng Y, Wang C, Wang C, Zhao W, Zeng W (2016) Optimization denitrifying phosphorus removal at different hydraulic retention times in a novel anaerobic anoxic oxic-biological contact oxidation process[J]. Biochem Eng J 106:26–36Google Scholar
- Zhao LM (2017) Study on operational efficiency and microbial communities during different culture stage of the anaerobic phosphine released system[D]. Guangzhou U (In Chinese)Google Scholar
- Zhao Y, Chen H, Yan Q (2017) Enhanced phosphate removal during the simultaneous adsorption of phosphate and Ni2+ from electroless nickel wastewater by calcium silicate hydrate (CSH)[J]. Environ Technol Innov 8:141–149Google Scholar
- Zhou KQ, Liu H, Sun YF, Zhou YP, Liu JP (2007) Screening the phosphate reducer deoxidizing total phosphate into PH3 and the identification of the functional bacteria[J]. Ecol Environ, 16(06): 1669–1673 (In Chinese)Google Scholar
- Zhu YX, Ding LL, Ren HQ, Wang XR (2005) Fate of matrix-bound phosphine during acidification with anaerobic bacteria[J]. Environ Sci, 26(04): 139–142 (In Chinese)Google Scholar