Combined effects of earthworms and biochar on PAHs-contaminated soil remediation: A review

Shuyu Hou , Jue Wang , Jun Dai , Mohammed Boussafir , Chi Zhang

Soil Ecology Letters ›› 2023, Vol. 5 ›› Issue (2) : 220158

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Soil Ecology Letters ›› 2023, Vol. 5 ›› Issue (2) : 220158 DOI: 10.1007/s42832-022-0158-y
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REVIEW

Combined effects of earthworms and biochar on PAHs-contaminated soil remediation: A review

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Abstract

● Earthworm remove PAHs from soil by bioaccumulation and stimulating microbial degradation.

● Biochar can adsorb PAHs and promote microbial degradation in soil.

● Earthworm improve the adsorption process of biochar by bioturbation.

● Biochar reduce the vermiaccumulation and improve the decomposition of PAHs by earthworm.

Polycyclic aromatic hydrocarbons (PAHs) in soil pose a threat to the health of humans and other organisms due to their persistence. The remediation method of combined application of biochar and earthworms has received growing attention owing to its effectiveness in PAHs removal. However, the earthworm–biochar interaction and its influence on PAHs in soil has not been systematically reviewed. This review focuses on the effectiveness of combined application of earthworms and biochar in the remediation of PAHs-contaminated soils and the underlying mechanisms, including adsorption, bioaccumulation, and biodegradation. Earthworm–biochar interaction activates the functional microorganisms in soil and the PAHs-degrading microorganisms in earthworm guts, promoting PAHs biodegradation. This review provides a theoretical support for the combined application of biochar and earthworms in the remediation of PAHs-contaminated soils, points out the limitations of this remediation method, and finally shows the prospects for future research.

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Keywords

earthworm / biochar / soil / PAHs / combined effect

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Shuyu Hou, Jue Wang, Jun Dai, Mohammed Boussafir, Chi Zhang. Combined effects of earthworms and biochar on PAHs-contaminated soil remediation: A review. Soil Ecology Letters, 2023, 5(2): 220158 DOI:10.1007/s42832-022-0158-y

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References

[1]

Abdel-Shafy, H.I., Mansour, M.S.M., 2016. A review on polycyclic aromatic hydrocarbons: Source, environmental impact, effect on human health and remediation. Egyptian Journal of Petroleum25, 107–123.

[2]

Adetunji, A.T., Lewu, F.B., Mulidzi, R., Ncube, B., 2017. The biological activities of β-glucosidase, phosphatase and urease as soil quality indicators: a review. Journal of Soil Science and Plant Nutrition17, 794–807.

[3]

Ahmad, M., Rajapaksha, A.U., Lim, J.E., Zhang, M., Bolan, N., Mohan, D., Vithanage, M., Lee, S.S., Ok, Y.S., 2014. Biochar as a sorbent for contaminant management in soil and water: A review. Chemosphere99, 19–33.

[4]

Al-Maliki, S., Scullion, J., 2013. Interactions between earthworms and residues of differing quality affecting aggregate stability and microbial dynamics. Applied Soil Ecology64, 56–62.

[5]

Alexander, M. 1995. How toxic are toxic chemicals in soil?. Environmental Science & Technology29, 2713–2717.

[6]

Alexander, M., 2000. Aging, bioavailability, and overestimation of risk from environmental pollutants. Environmental Science & Technology34, 4259–4265.

[7]

Alkorta, I., Aizpurua, A., Riga, P., Albizu, I., Amezaga, I., Garbisu, C., 2003. Soil enzyme activities as biological indicators of soil health. Reviews on Environmental Health18, 65–73.

[8]

Ameloot, N., Graber, E.R., Verheijen, F.G.A., De Neve, S., 2013. Interactions between biochar stability and soil organisms: review and research needs. European Journal of Soil Science64, 379–390.

[9]

Amoah-Antwi, C., Kwiatkowska-Malina, J., Thornton, S.F., Fenton, O., Malina, G., Szara, E., 2020. Restoration of soil quality using biochar and brown coal waste: A review. Science of the Total Environment722, 137852.

[10]

Antoniadis, V., Shaheen, S.M., Levizou, E., Shahid, M., Niazi, N.K., Vithanage, M., Ok, Y.S., Bolan, N., Rinklebe, J., 2019. A critical prospective analysis of the potential toxicity of trace element regulation limits in soils worldwide: Are they protective concerning health risk assessments? – A review.. Environment International127, 819–847.

[11]

Anyanwu, I.N., Alo, M.N., Onyekwere, A.M., Crosse, J.D., Nworie, O., Chamba, E.B., 2018. Influence of biochar aged in acidic soil on ecosystem engineers and two tropical agricultural plants. Ecotoxicology and Environmental Safety153, 116–126.

[12]

Anyika, C., Abdul Majid, Z., Ibrahim, Z., Zakaria Mohamad, P., Yahya, A., 2014. The impact of biochars on sorption and biodegradation of polycyclic aromatic hydrocarbons in soils—a review. Environmental Science and Pollution Research International22, 3314–3341.

[13]

Arp, H.P.H., Lundstedt, S., Josefsson, S., Cornelissen, G., Enell, A., Allard, A.S., Kleja, D.B., 2014. Native oxy-PAHs, N-PACs, and PAHs in historically contaminated soils from Sweden, Belgium, and France: Their soil-porewater partitioning behavior, bioaccumulation in Enchytraeus crypticus, and bioavailability. Environmental Science & Technology48, 11187–11195.

[14]

Athmann, M., Kautz, T., Banfield, C., Bauke, S., Hoang, D.T.T., Lüsebrink, M., Pausch, J., Amelung, W., Kuzyakov, Y., Köpke, U., 2017. Six months of L. terrestris L. activity in root-formed biopores increases nutrient availability, microbial biomass and enzyme activity. Applied Soil Ecology120, 135–142.

[15]

Balmer, J.E., Hung, H., Yu, Y., Letcher, R.J., Muir, D.C.G., 2019. Sources and environmental fate of pyrogenic polycyclic aromatic hydrocarbons (PAHs) in the Arctic. Emerging Contaminants5, 128–142.

[16]

Barré, P., McKenzie, B.M., Hallett, P.D., 2009. Earthworms bring compacted and loose soil to a similar mechanical state. Soil Biology & Biochemistry41, 656–658.

[17]

Barrow, C.J., 2012. Biochar: Potential for countering land degradation and for improving agriculture. Applied Geography (Sevenoaks, England)34, 21–28.

[18]

Bauke, S.L., von Sperber, C., Siebers, N., Tamburini, F., Amelung, W., 2017. Biopore effects on phosphorus biogeochemistry in subsoils. Soil Biology & Biochemistry111, 157–165.

[19]

Beesley, L., Inneh, O.S., Norton, G.J., Moreno-Jimenez, E., Pardo, T., Clemente, R., Dawson, J.J.C., 2014. Assessing the influence of compost and biochar amendments on the mobility and toxicity of metals and arsenic in a naturally contaminated mine soil. Environmental Pollution186, 195–202.

[20]

Beesley, L., Moreno-Jiménez, E., Gomez-Eyles, J.L., 2010. Effects of biochar and greenwaste compost amendments on mobility, bioavailability and toxicity of inorganic and organic contaminants in a multi-element polluted soil. Environmental Pollution158, 2282–2287.

[21]

Belfroid, A., Van Den Berg, M., Seinen, W., Hermens, J., Van Gestel, K., 1995. Uptake bioavailability and elimination of hydrophobic compounds in earthworms (Eisenia andrei) in field-contaminated soil. Environmental Toxicology and Chemistry14, 605–612.

[22]

Bengough, A.G., Mullins, C.E., 1990. Mechanical impedance to root growth: a review of experimental techniques and root growth responses. Journal of Soil Science41, 341–358.

[23]

Bergknut, M., Sehlin, E., Lundstedt, S., Andersson, P.L., Haglund, P., Tysklind, M., 2007. Comparison of techniques for estimating PAH bioavailability: Uptake in Eisenia fetida, passive samplers and leaching using various solvents and additives. Environmental Pollution145, 154–160.

[24]

Bianco, F., Race, M., Papirio, S., Oleszczuk, P., Esposito, G., 2021. The addition of biochar as a sustainable strategy for the remediation of PAH–contaminated sediments. Chemosphere263, 128274.

[25]

Bielská, L., Škulcová, L., Neuwirthová, N., Cornelissen, G., Hale, S.E., 2018. Sorption, bioavailability and ecotoxic effects of hydrophobic organic compounds in biochar amended soils. Science of the Total Environment624, 78–86.

[26]

Binet, F., Fayolle, L., Pussard, M., 1998. Significance of earthworms in stimulating soil microbial activity. Biology and Fertility of Soils27, 79–84.

[27]

Birk, J.J., Steiner, C., Teixiera, W.C., Zech, W., Glaser, B., 2008. Microbial Response to Charcoal Amendments and Fertilization of a Highly Weathered Tropical Soil. Springer Netherlands: Dordrecht

[28]

Blanchart, E., 1992. Restoration by earthworms (megascolecidae) of the macroaggregate structure of a destructured savanna soil under field conditions. Soil Biology & Biochemistry24, 1587–1594.

[29]

Blanchart, E., Lavelle, P., Braudeau, E., Le Bissonnais, Y., Valentin, C., 1997. Regulation of soil structure by geophagous earthworm activities in humid savannas of Côte d’Ivoire. Soil Biology & Biochemistry29, 431–439.

[30]

Blanco-Canqui, H., 2017. Biochar and soil physical properties. Soil Science Society of America Journal81, 687–711.

[31]

Bolan, N.S., Baskaran, S., 1996. Characteristics of earthworm casts affecting herbicide sorption and movement. Biology and Fertility of Soils22, 367–372.

[32]

Bolan, N.S., Thangarajan, R., Seshadri, B., Jena, U., Das, K.C., Wang, H., Naidu, R., 2013. Landfills as a biorefinery to produce biomass and capture biogas. Bioresource Technology135, 578–587.

[33]

Bouché, M. B., 1977. Strategies lombriciennes. Ecological Bulletins25, 122–132.

[34]

Brändli, R.C., Hartnik, T., Henriksen, T., Cornelissen, G., 2008. Sorption of native polyaromatic hydrocarbons (PAH) to black carbon and amended activated carbon in soil. Chemosphere73, 1805–1810.

[35]

Brown, G.G., Barois, I., Lavelle, P., 2000. Regulation of soil organic matter dynamics and microbial activity in the drilosphere and the role of interactions with other edaphic functional domains. European Journal of Soil Biology36, 177–198.

[36]

Brown, G.G., Doube, B.M., 2004. Functional Interactions between Earthworms, Microorganisms, Organic Matter, and Plants. In: Edwards C A. Earthworm Ecology. CRC Press, Boca Ratonpp. 213–239.

[37]

Brussaard, L., 1997. Biodiversity and Ecosystem Functioning in Soil. Ambio26, 563–570.

[38]

Brussaard, L., de Ruiter, P.C., Brown, G.G., 2007. Soil biodiversity for agricultural sustainability. Agriculture, Ecosystems & Environment121, 233–244.

[39]

Buss, W., Graham, M.C., MacKinnon, G., Mašek, O., 2016. Strategies for producing biochars with minimum PAH contamination. Journal of Analytical and Applied Pyrolysis119, 24–30.

[40]

Buss, W., Mašek, O., 2014. Mobile organic compounds in biochar—a potential source of contamination—phytotoxic effects on cress seed (Lepidium sativum) germination. Journal of Environmental Management137, 111–119.

[41]

Cachada, A., Coelho, C., Gavina, A., Dias, A. C., Patinha, C., Reis, A. P., Ferreira Da Silva, E., Duarte, A. C., Pereira, R., 2018. Availability of polycyclic aromatic hydrocarbons to earthworms in urban soils and its implications for risk assessment. Chemosphere,191, 196–203.

[42]

Cantrell, K.B., Hunt, P.G., Uchimiya, M., Novak, J.M., Ro, K.S., 2012. Impact of pyrolysis temperature and manure source on physicochemical characteristics of biochar. Bioresource Technology107, 419–428.

[43]

Cao, J., Ji, D.G., Wang, C., 2015. Interaction between earthworms and arbuscular mycorrhizal fungi on the degradation of oxytetracycline in soils. Soil Biology & Biochemistry90, 283–292.

[44]

Cao, X.D., Ma, L.N., Liang, Y., Gao, B., Harris, W., 2011. Simultaneous immobilization of lead and atrazine in contaminated soils using dairy-manure biochar. Environmental Science & Technology45, 4884–4889.

[45]

Chan, K.Y., Van Zwieten, L., Meszaros, I., Downie, A., Joseph, S., 2008. Using poultry litter biochars as soil amendments. Soil Research (Collingwood, Vic.)46, 437–444.

[46]

Chen, B.L., Chen, Z.M., Lv, S.F., 2011a. A novel magnetic biochar efficiently sorbs organic pollutants and phosphate. Bioresource Technology102, 716–723.

[47]

Chen, B.L., Yuan, M.X., 2011. Enhanced sorption of polycyclic aromatic hydrocarbons by soil amended with biochar. Journal of Soils and Sediments11, 62–71.

[48]

Chen, B.L., Zhou, D.D., Zhu, L.Z., 2008. Transitional adsorption and partition of nonpolar and polar aromatic contaminants by biochars of pine needles with different pyrolytic temperatures. Environmental Science & Technology42, 5137–5143.

[49]

Chen, J.Y., Zhu, D.Q., Sun, C., 2007. Effect of heavy metals on the sorption of hydrophobic organic compounds to wood charcoal. Environmental Science & Technology41, 2536–2541.

[50]

Chen, X., Xia, X.H., Wang, X.L., Qiao, J.P., Chen, H.T., 2011b. A comparative study on sorption of perfluorooctane sulfonate (PFOS) by chars, ash and carbon nanotubes. Chemosphere83, 1313–1319.

[51]

Chen, Z.M., Chen, B.L., Chiou, C.T., 2012b. Fast and slow rates of naphthalene sorption to biochars produced at different temperatures. Environmental Science & Technology46, 11104–11111.

[52]

Chen, Z.M., Chen, B.L., Zhou, D.D., Chen, W., 2012a. Bisolute sorption and thermodynamic behavior of organic pollutants to biomass-derived biochars at two pyrolytic temperatures. Environmental Science & Technology46, 12476–12483.

[53]

Chi, J., Liu, H.Y., 2016. Effects of biochars derived from different pyrolysis temperatures on growth of Vallisneria spiralis and dissipation of polycyclic aromatic hydrocarbons in sediments. Ecological Engineering93, 199–206.

[54]

Chintala, R., Schumacher, T.E., Kumar, S., Malo, D.D., Rice, J.A., Bleakley, B., Chilom, G., Clay, D.E., Julson, J.L., Papiernik, S.K., Gu, Z.R., 2014. Molecular characterization of biochars and their influence on microbiological properties of soil. Journal of Hazardous Materials279, 244–256.

[55]

Chun, Y., Sheng, G.Y., Chiou, C.T., Xing, B.S., 2004. Compositions and sorptive properties of crop residue-derived chars. Environmental Science & Technology38, 4649–4655.

[56]

Contreras-Ramos, S.M., Álvarez-Bernal, D., Dendooven, L., 2006. Eisenia fetida increased removal of polycyclic aromatic hydrocarbons from soil. Environmental Pollution141, 396–401.

[57]

Contreras-Ramos, S.M., Álvarez-Bernal, D., Dendooven, L., 2008. Removal of polycyclic aromatic hydrocarbons from soil amended with biosolid or vermicompost in the presence of earthworms (Eisenia fetida). Soil Biology & Biochemistry40, 1954–1959.

[58]

Contreras-Ramos, S.M., Álvarez-Bernal, D., Dendooven, L., 2009. Characteristics of earthworms (Eisenia fetida) in PAHs contaminated soil amended with sewage sludge or vermicompost. Applied Soil Ecology41, 269–276.

[59]

Cornelissen, G., Gustafsson, Ö., Bucheli, T.D., Jonker, M.T.O., Koelmans, A.A., van Noort, P.C.M., 2005. Extensive sorption of organic compounds to black carbon, coal, and kerogen in sediments and soils: Mechanisms and consequences for distribution, bioaccumulation, and biodegradation. Environmental Science & Technology39, 6881–6895.

[60]

Cornish, P.S.N.E., 1993. Soil macrostructure and root growth of establishing seedlings. Plant and Soil151, 119–126.

[61]

Coutiño-González, E., Hernández-Carlos, B., Gutiérrez-Ortiz, R., Dendooven, L., 2010. The earthworm Eisenia fetida accelerates the removal of anthracene and 9, 10-anthraquinone, the most abundant degradation product, in soil. International Biodeterioration & Biodegradation64, 525–529.

[62]

Cox, L., Cecchi, A., Celis, R., Hermosín, M.C., Koskinen, W.C., Cornejo, J., 2001. Effect of exogenous carbon on movement of simazine and 2,4-D in soils. Soil Science Society of America Journal65, 1688–1695.

[63]

Cui, X.Y., Wang, H.L., Lou, L.P., Chen, Y.X., Yu, Y.L., Shi, J.Y., Xu, L., Khan, M.I., 2009. Sorption and genotoxicity of sediment-associated pentachlorophenol and pyrene influenced by crop residue ash. Journal of Soils and Sediments9, 604–612.

[64]

Curry, J.P., Schmidt, O., 2007. The feeding ecology of earthworms – A review. Pedobiologia50, 463–477.

[65]

de Jesus, J.H.F., Da, C., Cunha, G., Cardoso, E.M.C., Mangrich, A.S., Romão, L.P.C., 2017. Evaluation of waste biomasses and their biochars for removal of polycyclic aromatic hydrocarbons. Journal of Environmental Management200, 186–195.

[66]

de Resende, M.F., Brasil, T.F., Madari, B.E., Pereira Netto, A.D., Novotny, E.H., 2018. Polycyclic aromatic hydrocarbons in biochar amended soils: Long-term experiments in Brazilian tropical areas. Chemosphere200, 641–648.

[67]

Dendooven, L., Alvarez-Bernal, D., Contreras-Ramos, S.M., 2011. Earthworms, a means to accelerate removal of hydrocarbons (PAHs) from soil? A mini-review.. Pedobiologia54, S187–S192.

[68]

Deng, S.G., Zeng, D.F., 2017. Removal of phenanthrene in contaminated soil by combination of alfalfa, white-rot fungus, and earthworms. Environmental Science and Pollution Research International24, 7565–7571.

[69]

Denyes, M.J., Langlois, V.S., Rutter, A., Zeeb, B.A., 2012. The use of biochar to reduce soil PCB bioavailability to Cucurbita pepo and Eisenia fetida. Science of the Total Environment437, 76–82.

[70]

Dhaliwal, S.S., Singh, J., Taneja, P.K., Mandal, A., 2020. Remediation techniques for removal of heavy metals from the soil contaminated through different sources: a review. Environmental Science and Pollution Research International27, 1319–1333.

[71]

Diggs, D.L., Huderson, A.C., Harris, K.L., Myers, J.N., Banks, L.D., Rekhadevi, P.V., Niaz, M.S., Ramesh, A., 2011. Polycyclic aromatic hydrocarbons and digestive tract cancers: A perspective. Journal of Environmental Science and Health. Part C, Environmental Carcinogenesis & Ecotoxicology Reviews29, 324–357.

[72]

Ding, J., Yin, Y., Sun, A.Q., Lassen, S.B., Li, G., Zhu, D., Ke, X., 2019. Effects of biochar amendments on antibiotic resistome of the soil and collembolan gut. Journal of Hazardous Materials377, 186–194.

[73]

Ding, Z., Huang, J., Chi, J., 2021. Contribution of phenanthrene in different binding sites to its biodegradation in biochar-amended soils. Environmental Pollution273, 116481.

[74]

Domínguez, J., Edwards, C.A., 1997. Effects of stocking rate and moisture content on the growth and maturation of Eisenia andrei (Oligochaeta) in pig manure. Soil Biology & Biochemistry29, 743–746.

[75]

Don, A., Steinberg, B., Schöning, I., Pritsch, K., Joschko, M., Gleixner, G., Schulze, E.D., 2008. Organic carbon sequestration in earthworm burrows. Soil Biology & Biochemistry40, 1803–1812.

[76]

Downie, A., Crosky, A., Munroe, P., 2009. Physical Properties of Biochar, in: Lehmann, J. , Joseph, S., Eds. Biochar for Environmental Management, Earthscan, Londonpp. 13–32.

[77]

Drake, H.L., Horn, M.A., 2007. As the worm turns: The earthworm gut as a transient habitat for soil microbial biomes. Annual Review of Microbiology61, 169–189.

[78]

Eckmeier, E., Gerlach, R., Skjemstad, J.O., Ehrmann, O., Schmidt, M.W., 2007. Minor changes in soil organic carbon and charcoal concentrations detected in a temperate deciduous forest a year after an experimental slash-and-burn. Biogeosciences4, 377–383.

[79]

Eckmeier, E., Gerlach, R., Skjemstad, J.O., Ehrmann, O., Schmidt, M.W.I., 2007. Only small changes in soil organic carbon and charcoal concentrations found one year after experimental slash-and-burn in a temperate deciduous forest. Biogeosciences Discussions4, 595–614.

[80]

Edwards, C.A., 2004. Earthworm Ecology. Second ed. CRC Press, Boca Raton

[81]

Edwards, C.A., 2004. The importance of earthworms as key representatives of the soil fauna. In: Edwards, C.A., Ed. Earthworm Ecology, second ed. CRC Press, Boca Ratonpp. 3–11.

[82]

Edwards, C.A., Bohlen, P.L., 1996. Biology and Ecology of Earthworms, Third ed. Chapman & Hall, London

[83]

Edwards, C.A., Lofty, J.R., 1977. Biology of Earthworms. Chapman and Hall, London

[84]

Eijsackers, H., Van Gestel, C.A., De Jonge, S., Muijs, B., Slijkerman, D., 2001. Polycyclic aromatic hydrocarbon-polluted dredged peat sediments and earthworms: a mutual interference. Ecotoxicology (London, England)10, 35–50.

[85]

Emoyan, O.O., Akporido, S.O., Agbaire, P.O., 2018. Effects of soil pH, total organic carbon and texture on fate of polycyclic aromatic hydrocarbons (PAHs) in soils. Global NEST Journal20, 181–187.

[86]

Eom, I.C., Rast, C., Veber, A.M., Vasseur, P., 2007. Ecotoxicity of a polycyclic aromatic hydrocarbon (PAH)-contaminated soil. Ecotoxicology and Environmental Safety67, 190–205.

[87]

Fagervold, S.K., Chai, Y., Davis, J.W., Wilken, M., Cornelissen, G., Ghosh, U., 2010. Bioaccumulation of polychlorinated dibenzo-p-dioxins/dibenzofurans in E. fetida from floodplain soils and the effect of activated carbon amendment. Environmental Science & Technology44, 5546–5552.

[88]

Ferreira, T., Hansel, F.A., Maia, C.M.B.F., Guiotoku, M., Cunha, L., Brown, G.G., 2021. Earthworm-biochar interactions: A laboratory trial using Pontoscolex corethrurus. Science of the Total Environment777, 146147.

[89]

Fraser, P.M., Haynes, R.J., Williams, P.H., 1994. Effects of pasture improvement and intensive cultivation on microbial biomass, enzyme activities, and composition and size of earthworm populations. Biology and Fertility of Soils17, 185–190.

[90]

Freddo, A., Cai, C., Reid, B.J., 2012. Environmental contextualisation of potential toxic elements and polycyclic aromatic hydrocarbons in biochar. Environmental Pollution171, 18–24.

[91]

Fu, H.Y., Wei, C.H., Qu, X.L., Li, H., Zhu, D.Q., 2018. Strong binding of apolar hydrophobic organic contaminants by dissolved black carbon released from biochar: A mechanism of pseudomicelle partition and environmental implications. Environmental Pollution232, 402–410.

[92]

Fu, P., Yi, W.M., Bai, X.Y., Li, Z.H., Hu, S., Xiang, J., 2011. Effect of temperature on gas composition and char structural features of pyrolyzed agricultural residues. Bioresource Technology102, 8211–8219.

[93]

Gan, S., Lau, E.V., Ng, H.K., 2009. Remediation of soils contaminated with polycyclic aromatic hydrocarbons (PAHs). Journal of Hazardous Materials172, 532–549.

[94]

Garau, M., Sizmur, T., Coole, S., Castaldi, P., Garau, G., 2022. Impact of Eisenia fetida earthworms and biochar on potentially toxic element mobility and health of a contaminated soil. Science of the Total Environment806, 151255.

[95]

García, J. A., Fragoso, C., 2002. Growth, reproduction and activity of earthworms in degraded and amended tropical open mined soils: laboratory assays. Applied Soil Ecology,20( 1), 43–56.

[96]

García-Delgado, C., Alfaro-Barta, I., Eymar, E., 2015. Combination of biochar amendment and mycoremediation for polycyclic aromatic hydrocarbons immobilization and biodegradation in creosote-contaminated soil. Journal of Hazardous Materials285, 259–266.

[97]

Ghaffar, A., Ghosh, S., Li, F.F., Dong, X.D., Zhang, D., Wu, M., Li, H., Pan, B., 2015. Effect of biochar aging on surface characteristics and adsorption behavior of dialkyl phthalates. Environmental Pollution206, 502–509.

[98]

Glaser, B., Lehmann, J., Zech, W., 2002. Ameliorating physical and chemical properties of highly weathered soils in the tropics with charcoal: a review. Biology and Fertility of Soils35, 219–230.

[99]

Godlewska, P., Ok, Y.S., Oleszczuk, P., 2021. THE DARK SIDE OF BLACK GOLD: Ecotoxicological aspects of biochar and biochar-amended soils. Journal of Hazardous Materials403, 123833.

[100]

Godlewska, P., Oleszczuk, P., 2022. Effect of biomass addition before sewage sludge pyrolysis on the persistence and bioavailability of polycyclic aromatic hydrocarbons in biochar-amended soil. Chemical Engineering Journal429, 132143.

[101]

Gomez-Eyles, J.L., Sizmur, T., Collins, C.D., Hodson, M.E., 2011. Effects of biochar and the earthworm Eisenia fetida on the bioavailability of polycyclic aromatic hydrocarbons and potentially toxic elements. Environmental Pollution159, 616–622.

[102]

Gomez-Eyles, J.L., Yupanqui, C., Beckingham, B., Riedel, G., Gilmour, C., Ghosh, U., 2013. Evaluation of biochars and activated carbons for in situ remediation of sediments impacted with organics, mercury, and methylmercury. Environmental Science & Technology47, 13721–13729.

[103]

Gong, X.Q., Cai, L.L., Li, S.Y., Chang, S.X., Sun, X.Y., An, Z.F., 2018. Bamboo biochar amendment improves the growth and reproduction of Eisenia fetida and the quality of green waste vermicompost. Ecotoxicology and Environmental Safety156, 197–204.

[104]

Gonzaga, M.I.S., Mackowiak, C.L., Comerford, N.B., Moline, E.F.D.V., Shirley, J.P., Guimaraes, D.V., 2017. Pyrolysis methods impact biosolids-derived biochar composition, maize growth and nutrition. Soil & Tillage Research165, 59–65.

[105]

Goss, M.J., 1977. Effects of mechanical impedance on root growth in barley (Hordeum vulgare L.): I. effects on the elongation and branching of seminal root axes. Journal of Experimental Botany102, 96–111.

[106]

Goss, M.J., Russell, R.S., 1980. Effects of mechanical impedance on root growth in barley (Hordeum vulgare L.): III. OBSERVATIONS ON THE MECHANISM OF RESPONSE. Journal of Experimental Botany121, 577–588.

[107]

Gowri, S., Thangaraj, R., 2020. Studies on the toxic effects of agrochemical pesticide (Monocrotophos) on physiological and reproductive behavior of indigenous and exotic earthworm species. International Journal of Environmental Health Research30, 212–225.

[108]

Haimi, J., 2000. Decomposer animals and bioremediation of soils. Environmental Pollution107, 233–238.

[109]

Hale, S.E., Lehmann, J., Rutherford, D., Zimmerman, A.R., Bachmann, R.T., Shitumbanuma, V.O., Toole, A., Sundqvist, K.L., Arp, H.P.H., Cornelissen, G., 2012. Quantifying the total and bioavailable polycyclic aromatic hydrocarbons and dioxins in biochars. Environmental Science & Technology46, 2830–2838.

[110]

Hallam, J., Hodson, M.E., 2020. Impact of different earthworm ecotypes on water stable aggregates and soil water holding capacity. Biology and Fertility of Soils56, 607–617.

[111]

Hallam, J., Holden, J., Robinson, D.A., Hodson, M.E., 2021. Effects of winter wheat and endogeic earthworms on soil physical and hydraulic properties. Geoderma400, 115126.

[112]

Hartmann, R., 1996. Polycyclic aromatic hydrocarbons (PAHs) in forest soils: Critical evaluation of a new analytical procedure. International Journal of Environmental Analytical Chemistry62, 161–173.

[113]

Haynes, R.J., Fraser, P.M., Piercy, J.E., Tregurtha, R.J., 2003. Casts of Aporrectodea caliginosa (Savigny) and Lumbricus rubellus (Hoffmeister) differ in microbial activity, nutrient availability and aggregate stability. Pedobiologia47, 882–887.

[114]

Hernández-Castellanos, B., Ortíz-Ceballos, A., Martínez-Hernández, S., Noa-Carrazana, J.C., Luna-Guido, M., Dendooven, L., Contreras-Ramos, S.M., 2013. Removal of benzo(a)- pyrene from soil using an endogeic earthworm Pontoscolex corethrurus (Müller, 1857). Applied Soil Ecology70, 62–69.

[115]

Hernández-Castellanos, B., Zavala-Cru, J., Martinez-Hernández, S., Dendooven, L., Contreras-Ramos, S.M., Noa-Carrazana, J.C., Fragoso, C., Ortiz-Ceballos, A.I., 2013. Earthworm populations in an aged hydrocarbon contaminated soil. Research Journal of Environmental Sciences7, 27–37.

[116]

Hickman, Z.A., Reid, B.J., 2008. Earthworm assisted bioremediation of organic contaminants. Environment International34, 1072–1081.

[117]

Hilber, I., Bastos, A.C., Loureiro, S., Soja, G., Marsz, A., Cornelissen, G., Bucheli, T.D., 2017. The different faces of biochar: contamination risk versus remediation tool. Journal of Environmental Engineering and Landscape Management25, 86–104.

[118]

Hindell, R.P., McKenzie, B.M., Tisdall, J.M., 1997. Destabilization of soil during the production of earthworm (Lumbricidae) and artificial casts. Biology and Fertility of Soils24, 153–163.

[119]

Huang, C., Wang, W., Yue, S., Adeel, M., Qiao, Y., 2020. Role of biochar and Eisenia fetida on metal bioavailability and biochar effects on earthworm fitness. Environmental Pollution, 263(Pt A): 114586

[120]

Hund, K., Traunspurger, W., 1994. Ecotox-evaluation strategy for soil bioremediation exemplified for a PAH-contaminated site. Chemosphere29, 371–390.

[121]

IARC, 2021. Agents Classified by the IARC Monographs, Volumes 1–132

[122]

Inyang, M., Dickenson, E., 2015. The potential role of biochar in the removal of organic and microbial contaminants from potable and reuse water: A review. Chemosphere134, 232–240.

[123]

Jager, T., Baerselman, R., Dijkman, E., de Groot, A.C., Hogendoorn, E.A., de Jong, A., Kruitbosch, J.A., Peijnenburg, W.J., 2003. Availability of polycyclic aromatic hydrocarbons to earthworms (Eisenia andrei, Oligochaeta) in field-polluted soils and soil-sediment mixtures. Environmental Toxicology and Chemistry22, 767–775.

[124]

Jakob, L., Hartnik, T., Henriksen, T., Elmquist, M., Brändli, R.C., Hale, S.E., Cornelissen, G., 2012. PAH-sequestration capacity of granular and powder activated carbon amendments in soil, and their effects on earthworms and plants. Chemosphere88, 699–705.

[125]

James, G., Sabatini, D.A., Chiou, C.T., Rutherford, D., Scott, A.C., Karapanagioti, H.K., 2005. Evaluating phenanthrene sorption on various wood chars. Water Research39, 549–558.

[126]

Jin, J., Sun, K., Wu, F.C., Gao, B., Wang, Z.Y., Kang, M.J., Bai, Y.C., Zhao, Y., Liu, X.T., Xing, B.S., 2014. Single-solute and bi-solute sorption of phenanthrene and dibutyl phthalate by plant- and manure-derived biochars. Science of the Total Environment473–474, 308–316.

[127]

Jonker, M.T., Hoenderboom, A.M., Koelmans, A.A., 2004. Effects of sedimentary sootlike materials on bioaccumulation and sorption of polychlorinated biphenyls. Environmental Toxicology and Chemistry23, 2563–2570.

[128]

Jouquet, P., Podwojewski, P., Bottinelli, N., Mathieu, J., Ricoy, M., Orange, D., Toan, D.T., Valentin, C., 2008. Above-ground earthworm casts affect water runoff and soil erosion in Northern Vietnam. Catena74, 13–21.

[129]

Jung, C., Park, J.Y., Lim, K.H., Park, S., Heo, J., Her, N., Oh, J., Yun, S., Yoon, Y., 2013. Adsorption of selected endocrine disrupting compounds and pharmaceuticals on activated biochars. Journal of Hazardous Materials263, 702–710.

[130]

Juwarkar, A.A., Singh, S.K., Mudhoo, A., 2010. A comprehensive overview of elements in bioremediation. Reviews in Environmental Science and Biotechnology9, 215–288.

[131]

Kalinke, C., Oliveira, P.R., Oliveira, G.A., Mangrich, A.S., Marcolino-Junior, L.H., Bergamini, M.F., 2017. Activated biochar: Preparation, characterization and electroanalytical application in an alternative strategy of nickel determination. Analytica Chimica Acta983, 103–111.

[132]

Karhu, K., Mattila, T., Bergström, I., Regina, K., 2011. Biochar addition to agricultural soil increased CH4 uptake and water holding capacity – Results from a short-term pilot field study. Agriculture, Ecosystems & Environment140, 309–313.

[133]

Kavitha, B., Reddy, P.V.L., Kim, B., Lee, S.S., Pandey, S.K., Kim, K.H., 2018. Benefits and limitations of biochar amendment in agricultural soils: A review. Journal of Environmental Management227, 146–154.

[134]

Kelsey, J.W., Kottler, B.D., Alexander, M., 1997. Selective chemical extractants to predict bioavailability of soil-aged organic chemicals. Environmental Science & Technology31, 214–217.

[135]

Khadem, A., Raiesi, F., 2019. Response of soil alkaline phosphatase to biochar amendments: Changes in kinetic and thermodynamic characteristics. Geoderma337, 44–54.

[136]

Khalid, F.N.M., Klarup, D., 2015. The influence of sunlight and oxidative treatment on measured PAH concentrations in biochar. Environmental Science and Pollution Research International22, 12975–12981.

[137]

Khan, S., Wang, N., Reid, B.J., Freddo, A., Cai, C., 2013. Reduced bioaccumulation of PAHs by Lactuca satuva L. grown in contaminated soil amended with sewage sludge and sewage sludge derived biochar. Environmental Pollution175, 64–68.

[138]

Khorram, M.S., Zhang, Q., Lin, D.L., Zheng, Y., Fang, H., Yu, Y.L., 2016. Biochar: A review of its impact on pesticide behavior in soil environments and its potential applications. Journal of Environmental Sciences (China)44, 269–279.

[139]

Kim, J.H., Ok, Y.S., Choi, G.H., Park, B.J., 2015. Residual perfluorochemicals in the biochar from sewage sludge. Chemosphere134, 435–437.

[140]

Kończak, M., Gao, Y., Oleszczuk, P., 2019. Carbon dioxide as a carrier gas and biomass addition decrease the total and bioavailable polycyclic aromatic hydrocarbons in biochar produced from sewage sludge. Chemosphere228, 26–34.

[141]

Kong, L.L., Gao, Y.Y., Zhou, Q.X., Zhao, X.Y., Sun, Z.W., 2018. Biochar accelerates PAHs biodegradation in petroleum-polluted soil by biostimulation strategy. Journal of Hazardous Materials343, 276–284.

[142]

Kuppusamy, S., Thavamani, P., Venkateswarlu, K., Lee, Y.B., Naidu, R., Megharaj, M., 2017. Remediation approaches for polycyclic aromatic hydrocarbons (PAHs) contaminated soils: Technological constraints, emerging trends and future directions. Chemosphere168, 944–968.

[143]

Langlois, V.S., Rutter, A., Zeeb, B.A., 2011. Activated carbon immobilizes residual polychlorinated biphenyls in weathered contaminated soil. Journal of Environmental Quality40, 1130–1134.

[144]

Lavelle, P., 1981. Strategies de reproduction chez les vers de terre. Acta Ecologica Ecologia Generalis2, 117–133.

[145]

Lavelle, P., 1988. Earthworm activities and the soil system. Biology and Fertility of Soils6, 237–251.

[146]

Lavelle, P., Charpentier, F., Villenave, C., Rossi, J.P., Derouard, L., Pashanasi, B., Andre, J., Ponge, J.F., Bernier, N., 2004. Effects of Earthworms on Soil Organic Matter and Nutrient Dynamics at a Landscape Scale Over Decades. In: Edwards, C. A., ed. Earthworm Ecology, second edition. CRC Press, Boca Ratonpp. 145–160.

[147]

Lee, X.J., Ong, H.C., Gan, Y.Y., Chen, W.H., Mahlia, T.M.I., 2020. State of art review on conventional and advanced pyrolysis of macroalgae and microalgae for biochar, bio-oil and bio-syngas production. Energy Conversion and Management210, 112707.

[148]

Lehmann, J., 2007. A handful of carbon. Nature447, 143–144.

[149]

Lehmann, J., Gaunt, J., Rondon, M., 2006. Bio-char sequestration in terrestrial ecosystems – A review. Mitigation and Adaptation Strategies for Global Change11, 403–427.

[150]

Lehmann, J., Liang, B.Q., Solomon, D., Lerotic, M., Luizão, F., Kinyangi, J., Schäfer, T., Wirick, S., Jacobsen, C., 2005. Near-edge X-ray absorption fine structure (NEXAFS) spectroscopy for mapping nano-scale distribution of organic carbon forms in soil: Application to black carbon particles. Global Biogeochemical Cycles19, 1–12.

[151]

Lehmann, J., Pereira, D.S.J.J., Steiner, C., Nehls, T., Zech, W., Glaser, B., 2003. Nutrient availability and leaching in an archaeological Anthrosol and a Ferralsol of the Central Amazon basin: fertilizer, manure and charcoal amendments. Plant and Soil249, 343–357.

[152]

Lehmann, J., Rillig, M.C., Thies, J., Masiello, C.A., Hockaday, W.C., Crowley, D., 2011. Biochar effects on soil biota – A review. Soil Biology & Biochemistry43, 1812–1836.

[153]

Lehmann, J., Solomon, D., Kinyangi, J., Dathe, L., Wirick, S., Jacobsen, C., 2008. Spatial complexity of soil organic matter forms at nanometre scales. Nature Geoscience1, 238–242.

[154]

Leifeld, J., Fenner, S., Muller, M., 2007. Mobility of black carbon in drained peatland soils. Biogeosciences4, 425–432.

[155]

Li, B., Zhu, H.K., Sun, H.W., Xu, J.Y., 2017b. Effects of the amendment of biochars and carbon nanotubes on the bioavailability of hexabromocyclododecanes (HBCDs) in soil to ecologically different species of earthworms. Environmental Pollution222, 191–200.

[156]

Li, D., Alvarez, P.J.J., 2011. Avoidance, weight loss, and cocoon production assessment for Eisenia fetida exposed to C60 in soil. Environmental Toxicology and Chemistry30, 2542–2545.

[157]

Li, D., Hockaday, W.C., Masiello, C.A., Alvarez, P.J.J., 2011. Earthworm avoidance of biochar can be mitigated by wetting. Soil Biology & Biochemistry43, 1732–1737.

[158]

Li, H., Mahyoub, S.A.A., Liao, W.J., Xia, S.Q., Zhao, H.C., Guo, M.Y., Ma, P.S., 2017a. Effect of pyrolysis temperature on characteristics and aromatic contaminants adsorption behavior of magnetic biochar derived from pyrolysis oil distillation residue. Bioresource Technology223, 20–26.

[159]

Li, M., Liu, Q., Guo, L.J., Zhang, Y.P., Lou, Z.J., Wang, Y., Qian, G.R., 2013. Cu(II) removal from aqueous solution by Spartina alterniflora derived biochar. Bioresource Technology141, 83–88.

[160]

Li, X.N., Song, Y., Bian, Y.R., Gu, C.G., Yang, X.L., Wang, F., Jiang, X., 2020b. Insights into the mechanisms underlying efficient rhizodegradation of PAHs in biochar-amended soil: From microbial communities to soil metabolomics. Environment International144, 105995.

[161]

Li, Y.B., Wang, X., Sun, Z.J., 2020a. Ecotoxicological effects of petroleum-contaminated soil on the earthworm Eisenia fetida. Journal of Hazardous Materials393, 122384.

[162]

Liesch, A.M., Weyers, S.L., Gaskin, J.W., Das, K.C., 2010. Impact of two different biochars on earthworm growth and survival. Annals of Environmental Science (Boston, Mass.)4, 1–9.

[163]

Lin, Z., Li, X.M., Li, Y.T., Huang, D.Y., Dong, J., Li, F.B., 2012. Enhancement effect of two ecological earthworm species (Eisenia foetida and Amynthas robustus E. Perrier) on removal and degradation processes of soil DDT. Journal of Environmental Monitoring14, 1551–1558.

[164]

Ling, W., Xu, J., Gao, Y., 2005. Effects of dissolved organic matter from sewage sludge on the atrazine sorption by soils. Science in China. Series C, Life Sciences48, 57–66.

[165]

Liu, H., Wei, Y. F., Luo, J. M., Li, T., Wang, D., Luo, S. L., Crittenden, J. C. 2019. 3D hierarchical porous-structured biochar aerogel for rapid and efficient phenicol antibiotics removal from water. Chemical Engineering Journal (Lausanne, Switzerland: 1996)368, 639–648.

[166]

Liu, L., Chen, P., Sun, M. X., Shen, G. Q., Shang, G. F., 2015. Effect of biochar amendment on PAH dissipation and indigenous degradation bacteria in contaminated soil. Journal of soils and sediments15, 313–322.

[167]

Liu, S., Zhou, Q.X., Wang, Y.Y., 2011. Ecotoxicological responses of the earthworm Eisenia fetida exposed to soil contaminated with HHCB. Chemosphere83, 1080–1086.

[168]

Lu, X.X., Reible, D.D., Fleeger, J.W., 2004. Relative importance of ingested sediment versus pore water as uptake routes for PAHs to the deposit-feeding oligochaete Ilyodrilus templetoni. Archives of Environmental Contamination and Toxicology47, 207–214.

[169]

Lu, Y.F., Lu, M., 2015. Remediation of PAH-contaminated soil by the combination of tall fescue, arbuscular mycorrhizal fungus and epigeic earthworms. Journal of Hazardous Materials285, 1–34.

[170]

Luo, F., Song, J., Xia, W.X., Dong, M., Chen, M., Soudek, P., 2014. Characterization of contaminants and evaluation of the suitability for land application of maize and sludge biochars. Environmental Science and Pollution Research International21, 8707–8717.

[171]

Ma, W.C., Immerzeel, J., Bodt, J., 1995. Earthworm and food interactions on bioaccumulation and disappearance in soil of polycyclic aromatic hydrocarbons: studies on phenanthrene and fluoranthene. Ecotoxicology and Environmental Safety32, 226–232.

[172]

Major, J., Lehmann, J., Rondon, M., Goodale, C., 2010. Fate of soil-applied black carbon: downward migration, leaching and soil respiration. Global Change Biology16, 1366–1379.

[173]

Malev, O., Contin, M., Licen, S., Barbieri, P., De Nobili, M., 2016. Bioaccumulation of polycyclic aromatic hydrocarbons and survival of earthworms (Eisenia andrei) exposed to biochar amended soils. Environmental Science and Pollution Research International23, 3491–3502.

[174]

Malik, K.A., 1990. Use of activated charcoal for the preservation of anaerobic phototrophic and other sensitive bacteria by freeze-drying. Journal of Microbiological Methods12, 117–124.

[175]

Malińska, K., Zabochnicka-Świątek, M., Cáceres, R., Marfà, O., 2016. The effect of precomposted sewage sludge mixture amended with biochar on the growth and reproduction of Eisenia fetida during laboratory vermicomposting. Ecological Engineering90, 35–41.

[176]

Marchal, G., Smith, K.E.C., Rein, A., Winding, A., Wollensen de Jonge, L., Trapp, S., Karlson, U.G., 2013. Impact of activated carbon, biochar and compost on the desorption and mineralization of phenanthrene in soil. Environmental Pollution181, 200–210.

[177]

Marinari, S., Masciandaro, G., Ceccanti, B., Grego, S., 2000. Influence of organic and mineral fertilisers on soil biological and physical properties. Bioresource Technology72, 9–17.

[178]

Maroušek, J., Kolář, L., Vochozka, M., Stehel, V., Maroušková, A., 2018. Biochar reduces nitrate level in red beet. Environmental Science and Pollution Research International25, 18200–18203.

[179]

Martens, D.A., Johanson, J.B., Frankenberger, W.T. Jr, 1992. Production and persistence of soil enzymes with repeated addition of organic residues. Soil Science153, 53–61.

[180]

Mary, E.S., Aidan, M.K., Olaf, S., 2011. Distinct microbial and faunal communities and translocated carbon in Lumbricus terrestris drilospheres. Soil Biology & Biochemistry46, 155–162.

[181]

Matscheko, N., Lundstedt, S., Svensson, L., Harju, M., Tysklind, M., 2002. Accumulation and elimination of 16 polycyclic aromatic compounds in the earthworm (Eisenia fetida). Environmental Toxicology and Chemistry21, 1724–1729.

[182]

Mayer, P., Fernqvist, M.M., Christensen, P.S., Karlson, U., Trapp, S., 2007. Enhanced diffusion of polycyclic aromatic hydrocarbons in artificial and natural aqueous solutions. Environmental Science & Technology41, 6148–6155.

[183]

Menzie, C.A., Potocki, B.B., Santodonato, J., 1992. Exposure to carcinogenic PAHs in the environment. Environmental Science & Technology26, 1278–1284.

[184]

Michael, J., Jürgen, S., Karl-Josef, M., 1997. The inoculation of Lumbricus terrestris L. in an acidic spruce forest after liming and its influence on soil properties. Soil Biology & Biochemistry29, 677–679.

[185]

Miltner, A., Bombach, P., Schmidt-Brücken, B., Kästner, M., 2012. SOM genesis: microbial biomass as a significant source. Biogeochemistry111, 41–55.

[186]

Moon, Y., Yim, U., Kim, H., Kim, Y., Shin, W.S., Hwang, I., 2013. Toxicity and bioaccumulation of petroleum mixtures with alkyl PAHs in earthworms. Human and Ecological Risk Assessment19, 819–835.

[187]

Moreno-Castilla, C., Ferro-Garcia, M.A., Joly, J.P., Bautista-Toledo, I., Carrasco-Marin, F., Rivera-Utrilla, J., 1995. Activated carbon surface modifications by nitric acid, hydrogen peroxide, and ammonium peroxydisulfate treatments. Langmuir11, 4386–4392.

[188]

Natal-da-Luz, T., Lee, I., Verweij, R.A., Morais, P.V., Van Velzen, M.J.M., Sousa, J.P., Van Gestel, C.A.M., 2012. Influence of earthworm activity on microbial communities related with the degradation of persistent pollutants. Environmental Toxicology and Chemistry31, 794–803.

[189]

Nguyen, B.T., Lehmann, J., Kinyangi, J., Smernik, R., Riha, S.J., Engelhard, M.H., 2008. Long-term black carbon dynamics in cultivated soil. Biogeochemistry89, 163–176.

[190]

Noguera, D., Rondón, M., Laossi, K., Hoyos, V., Lavelle, P., Cruz, D.C., Maria, H., Barot, S., 2010. Contrasted effect of biochar and earthworms on rice growth and resource allocation in different soils. Soil Biology & Biochemistry42, 1017–1027.

[191]

Northcott, G.L., Jones, K.C., 2001. Partitioning, extractability, and formation of nonextractable PAH residues in soil. 1. Compound differences in aging and sequestration. Environmental Science & Technology35, 1103–1110.

[192]

Nsamba, H.K., Hale, S.E., Cornelissen, G., Bachmann, R.T., 2015. Sustainable technologies for small-scale biochar production—A review. Journal of Sustainable Bioenergy Systems5, 10–31.

[193]

Oleszczuk, P., Kołtowski, M., 2017. Effect of co-application of nano-zero valent iron and biochar on the total and freely dissolved polycyclic aromatic hydrocarbons removal and toxicity of contaminated soils. Chemosphere168, 1467–1476.

[194]

Oni, B.A., Oziegbe, O., Olawole, O.O., 2019. Significance of biochar application to the environment and economy. Annals of Agricultural Science64, 222–236.

[195]

Owojori, O.J., Reinecke, A.J., 2010. Effects of natural (flooding and drought) and anthropogenic (copper and salinity) stressors on the earthworm Aporrectodea caliginosa under field conditions. Applied Soil Ecology44, 156–163.

[196]

Pagenkemper, S.K., Athmann, M., Uteau, D., Kautz, T., Peth, St., Horn, R., 2015. The effect of earthworm activity on soil bioporosity – Investigated with X-ray computed tomography and endoscopy. Soil & Tillage Research146, 79–88.

[197]

Palansooriya, K.N., Wong, J.T.F., Hashimoto, Y., Huang, L., Rinklebe, J., Chang, S.X., Bolan, N., Wang, H.L., Ok, Y.S., 2019. Response of microbial communities to biochar-amended soils: a critical review. Biochar1, 1–20.

[198]

Park, J.H., Feng, Y., Ji, P., Voice, T.C., Boyd, S.A., 2003. Assessment of bioavailability of soil-sorbed atrazine. Applied and Environmental Microbiology69, 3288–3298.

[199]

Parrish, Z.D., White, J.C., Isleyen, M., Gent, M.P.N., Iannucci-Berger, W., Eitzer, B.D., Kelsey, J.W., Mattina, M.I., 2006. Accumulation of weathered polycyclic aromatic hydrocarbons (PAHs) by plant and earthworm species. Chemosphere64, 609–618.

[200]

Parthasarathi, K., Ranganathan, L.S., 2000. Aging effect on enzyme activities in pressmud vermicasts of Lampito mauritii (Kinberg) and Eudrilus eugeniae (Kinberg). Biology and Fertility of Soils30, 347–350.

[201]

Passioura, J.B., 2002. Environmental biology and crop improvement. Functional Plant Biology29, 537–546.

[202]

Paz-Ferreiro, J., Fu, S., Méndez, A., Gascó, G., 2014. Interactive effects of biochar and the earthworm Pontoscolex corethrurus on plant productivity and soil enzyme activities. Journal of Soils and Sediments14, 483–494.

[203]

Paz-Ferreiro, J., Liang, C.F., Fu, S.L., Mendez, A., Gasco, G., Hui, D.F., 2015. The effect of biochar and its interaction with the earthworm Pontoscolex corethrurus on soil microbial community structure in tropical soils. PLoS One10, e124891.

[204]

Paz-Ferreiro, J., Shenglei, F., Mendez, A., Gasco, G., 2014. Interactive effects of biochar and the earthworm Pontoscolex corethrurus on plant productivity and soil enzyme activities. Journal of Soils and Sediments14, 483–494.

[205]

Peng, X., Deng, Y., Peng, Y., Yue, K., 2018. Effects of biochar addition on toxic element concentrations in plants: A meta-analysis. Science of the Total Environment616–617, 970–977.

[206]

Perego, C., Bosetti, A., 2011. Biomass to fuels: The role of zeolite and mesoporous materials. Microporous and Mesoporous Materials144, 28–39.

[207]

Pignatello, J.J., Xing, B., 1995. Mechanisms of slow sorption of organic chemicals to natural particles. Environmental Science & Technology30, 1–11.

[208]

Pižl, V., Nováková, A., 2003. Interactions between microfungi and Eisenia andrei (Oligochaeta) during cattle manure vermicomposting. Pedobiologia47, 895–899.

[209]

Poluszyńska, J., Jarosz-Krzemińska, E., Helios-Rybicka, E., 2017. Studying the effects of two various methods of composting on the degradation levels of polycyclic aromatic hydrocarbons (PAHs) in sewage sludge. Water, Air, and Soil Pollution228, 1–10.

[210]

Qi, Y.C., Chen, W., 2010. Comparison of earthworm bioaccumulation between readily desorbable and desorption-resistant naphthalene: Implications for biouptake routes. Environmental Science & Technology44, 323–328.

[211]

Qian, L.B., Chen, B.L., 2013. Interactions of aluminum with biochars and oxidized biochars: Implications for the biochar aging process. Journal of Agricultural and Food Chemistry62, 373–380.

[212]

Quilliam, R.S., Rangecroft, S., Emmett, B.A., Deluca, T.H., Jones, D.L., 2013. Is biochar a source or sink for polycyclic aromatic hydrocarbon (PAH) compounds in agricultural soils? Global Change Biology. Bioenergy5, 96–103.

[213]

Ren, X. W., Tang, J. C., Wang, L., Sun, H. W., 2021. Combined effects of microplastics and biochar on the removal of polycyclic aromatic hydrocarbons and phthalate esters and its potential microbial ecological mechanism. Frontiers in Microbiology12, 647766.

[214]

Ren, X.Y., Zeng, G.M., Tang, L., Wang, J.J., Wan, J., Feng, H.P., Song, B., Huang, C., Tang, X., 2018. Effect of exogenous carbonaceous materials on the bioavailability of organic pollutants and their ecological risks. Soil Biology & Biochemistry116, 70–81.

[215]

Rey-Salgueiro, L., Omil, B., Merino, A., Martínez-Carballo, E., Simal-Gándara, J., 2016. Organic pollutants profiling of wood ashes from biomass power plants linked to the ash characteristics. Science of the Total Environment544, 535–543.

[216]

Rhodes, A.H., Carlin, A., Semple, K.T., 2008. Impact of black carbon in the extraction and mineralization of phenanthrene in soil. Environmental Science & Technology42, 740–745.

[217]

Rhodes, A.H., McAllister, L.E., Chen, R.R., Semple, K.T., 2010. Impact of activated charcoal on the mineralisation of 14C-phenanthrene in soils. Chemosphere79, 463–469.

[218]

Rodrigues, D.F., Jaisi, D.P., Elimelech, M., 2013. Toxicity of functionalized single-walled carbon nanotubes on soil microbial communities: Implications for nutrient cycling in soil. Environmental Science & Technology47, 625–633.

[219]

Rodriguez-Campos, J., Dendooven, L., Alvarez-Bernal, D., Contreras-Ramos, S.M., 2014. Potential of earthworms to accelerate removal of organic contaminants from soil: A review. Applied Soil Ecology79, 10–25.

[220]

Rodriguez-Campos, J., Perales-Garcia, A., Hernandez-Carballo, J., Martinez-Rabelo, F., Hernández-Castellanos, B., Barois, I., Contreras-Ramos, S.M., 2019. Bioremediation of soil contaminated by hydrocarbons with the combination of three technologies: bioaugmentation, phytoremediation, and vermiremediation. Journal of Soils and Sediments19, 1981–1994.

[221]

Rorat, A., Wloka, D., Grobelak, A., Grosser, A., Sosnecka, A., Milczarek, M., Jelonek, P., Vandenbulcke, F., Kacprzak, M., 2017. Vermiremediation of polycyclic aromatic hydrocarbons and heavy metals in sewage sludge composting process. Journal of Environmental Management187, 347–353.

[222]

Sadegh-Zadeh, F., Wahid, S.A., Jalili, B., 2017. Sorption, degradation and leaching of pesticides in soils amended with organic matter: A review. Advances in Environmental Technology3, 119–132.

[223]

Sanchez-Hernandez, J.C., 2018. Biochar activation with exoenzymes induced by earthworms: A novel functional strategy for soil quality promotion. Journal of Hazardous Materials350, 136–143.

[224]

Sanchez-Hernandez, J.C., Ro, K.S., Díaz, F.J., 2019. Biochar and earthworms working in tandem: Research opportunities for soil bioremediation. Science of the Total Environment688, 574–583.

[225]

Sandhu, S.S., Ussiri, D.A.N., Kumar, S., Chintala, R., Papiernik, S.K., Malo, D.D., Schumacher, T.E., 2017. Analyzing the impacts of three types of biochar on soil carbon fractions and physiochemical properties in a corn-soybean rotation. Chemosphere184, 473–481.

[226]

Schmidt, N., Boll, E.S., Malmquist, L.M.V., Christensen, J.H., 2017. PAH metabolism in the earthworm Eisenia fetida - identification of phase II metabolites of phenanthrene and pyrene. International Journal of Environmental Analytical Chemistry97, 1151–1162.

[227]

Schreck, E., Geret, F., Gontier, L., Treilhou, M., 2008. Neurotoxic effect and metabolic responses induced by a mixture of six pesticides on the earthworm Aporrectodea caliginosa nocturna. Chemosphere71, 1832–1839.

[228]

Scullion, J., 2006. Remediating polluted soils. Naturwissenschaften93, 51–65.

[229]

Shan, J., Brune, A., Ji, R., 2010. Selective digestion of the proteinaceous component of humic substances by the geophagous earthworms Metaphire guillelmi and Amynthas corrugatus. Soil Biology 1 Biochemistry42( 9), 1455–1462.

[230]

Shan, J., Liu, J., Wang, Y.F., Yan, X.Y., Guo, H.Y., Li, X.Z., Ji, R., 2013. Digestion and residue stabilization of bacterial and fungal cells, protein, peptidoglycan, and chitin by the geophagous earthworm Metaphire guillelmi. Soil Biology & Biochemistry64, 9–17.

[231]

Shan, J., Wang, Y.F., Gu, J.Q., Zhou, W.Q., Ji, R., Yan, X.Y., 2014. Effects of biochar and the geophagous earthworm Metaphire guillelmi on fate of 14C-catechol in an agricultural soil. Chemosphere107, 109–114.

[232]

Sheng, Y.Q., Zhu, L.Z., 2018. Biochar alters microbial community and carbon sequestration potential across different soil pH. Science of the Total Environment622–623, 1391–1399.

[233]

Shi, Z.M., Liu, J.H., Tang, Z.W., Zhao, Y.H., Wang, C.Y., 2020. Vermiremediation of organically contaminated soils: Concepts, current status, and future perspectives. Applied Soil Ecology147, 103377.

[234]

Shi, Z.M., Xu, L., Hu, F., 2014. A hierarchic method for studying the distribution of phenanthrene in Eisenia fetida. Pedosphere24, 743–752.

[235]

Siedt, M., Schäffer, A., Smith, K.E.C., Nabel, M., Roß-Nickoll, M., van Dongen, J.T., 2021. Comparing straw, compost, and biochar regarding their suitability as agricultural soil amendments to affect soil structure, nutrient leaching, microbial communities, and the fate of pesticides. Science of the Total Environment751, 141607.

[236]

Silvani, L., Hjartardottir, S., Bielská, L., Škulcová, L., Cornelissen, G., Nizzetto, L., Hale, S.E. 2019. Can polyethylene passive samplers predict polychlorinated biphenyls (PCBs) uptake by earthworms and turnips in a biochar amended soil?. Science of the Total Environment662, 873–880.

[237]

Simmers, J.W., Rhett, R.G., Kay, S.H., Marquenie, J.M., 1986. Bioassay and biomonitoring assessments of contaminant mobility from dredged material. Science of the Total Environment56, 173–182.

[238]

Simpson, A.J., Simpson, M.J., Smith, E., Kelleher, B.P. 2007. Microbially derived inputs to soil organic matter: Are current estimates too low?. Environmental Science & Technology41, 8070–8076.

[239]

Sims, R.C., Overcash, M.R., 1983. Fate of polynuclear aromatic compounds (PNAs) in soil-plant systems. Residue Reviews88, 1–68.

[240]

Singer, A.C., Jury, W., Luepromchai, E., Yahng, C.S., Crowley, D.E., 2001. Contribution of earthworms to PCB bioremediation. Soil Biology & Biochemistry33, 765–776.

[241]

Singleton, D.R., Hendrix, P.F., Coleman, D.C., Whitman, W.B., 2003. Identification of uncultured bacteria tightly associated with the intestine of the earthworm Lumbricus rubellus (Lumbricidae; Oligochaeta). Soil Biology & Biochemistry35, 1547–1555.

[242]

Sinha, R.K., Chauhan, K., Valani, D., Chandran, V., Soni, B.K., Patel, V., 2010. Earthworms: Charles Darwin’s ‘Unheralded Soldiers of Mankind’: Protective & Productive for Man & Environment. Journal of Environmental Protection1, 251–260.

[243]

Sivaram, A.K., Logeshwaran, P., Lockington, R., Naidu, R., Megharaj, M., 2019. Phytoremediation efficacy assessment of polycyclic aromatic hydrocarbons contaminated soils using garden pea (Pisum sativum) and earthworms (Eisenia fetida). Chemosphere229, 227–235.

[244]

Skjemstad, J.O., Clarke, P., Taylor, J.A., Oades, J.M., McClure, S.G., 1996. The chemistry and nature of protected carbon in soil. Soil Research (Collingwood, Vic.)34, 251–271.

[245]

Spokas, K.A., Novak, J.M., Stewart, C.E., Cantrell, K.B., Uchimiya, M., DuSaire, M.G., Ro, K.S., 2011. Qualitative analysis of volatile organic compounds on biochar. Chemosphere85, 869–882.

[246]

Sri Shalini, S., Palanivelu, K., Ramachandran, A., Raghavan, V., 2020. Biochar from biomass waste as a renewable carbon material for climate change mitigation in reducing greenhouse gas emissions — a review. Biomass Conversion and Biorefinery (5), 1–21.

[247]

Suliman, W., Harsh, J.B., Abu-Lail, N.I., Fortuna, A.M., Dallmeyer, I., Garcia-Pérez, M., 2017. The role of biochar porosity and surface functionality in augmenting hydrologic properties of a sandy soil. Science of the Total Environment574, 139–147.

[248]

Sun, H.W., Li, J.M., Wang, C.P., Wang, L., Wang, Y.Y., 2011. Enhanced microbial removal of pyrene in soils in the presence of earthworms. Soil & Sediment Contamination20, 617–630.

[249]

Sun, X., Han, X.G., Ping, F., Zhang, L., Zhang, K.S., Chen, M., Wu, W.X., 2018. Effect of rice-straw biochar on nitrous oxide emissions from paddy soils under elevated CO2 and temperature. Science of the Total Environment628–629, 1009–1016.

[250]

Tammeorg, P., Parviainen, T., Nuutinen, V., Simojoki, A., Vaara, E., Helenius, J., 2014. Effects of biochar on earthworms in arable soil: avoidance test and field trial in boreal loamy sand. Agriculture, Ecosystems & Environment191, 150–157.

[251]

Tan, X.F., Liu, Y.G., Zeng, G.M., Wang, X., Hu, X.J., Gu, Y.L., Yang, Z.Z., 2015. Application of biochar for the removal of pollutants from aqueous solutions. Chemosphere125, 70–85.

[252]

Tang, J.C., Lv, H.H., Gong, Y.Y., Huang, Y., 2015. Preparation and characterization of a novel graphene/biochar composite for aqueous phenanthrene and mercury removal. Bioresource Technology196, 355–363.

[253]

Tang, J.X., Carroquino, M.J., Robertson, B.K., Alexander, M., 1998. Combined effect of sequestration and bioremediation in reducing the bioavailability of polycyclic aromatic hydrocarbons in soil. Environmental Science & Technology32, 3586–3590.

[254]

Tejada, M., Masciandaro, G., 2011. Application of organic wastes on a benzo(a)pyrene polluted soil. Response of soil biochemical properties and role of Eisenia fetida. Ecotoxicology and Environmental Safety74, 668–674.

[255]

Tharakan, J., Tomlinson, D., Addagada, A., Shafagati, A., 2006. Biotransformation of PCBs in contaminated sludge: Potential for novel biological technologies. Engineering in Life Sciences6, 43–50.

[256]

Thies, J.E., Rillig, M.C., 2009. Characteristics of biochar: biological properties, in: Lehmann, J., Joseph, S., Eds. Biochar for Environmental Management. Earthscan, Londonpp. 85–105.

[257]

Tisdall, J., Oades, M., 1982. Organic matter and water-stable aggregates in soils. Journal of Soil Science33, 141–163.

[258]

Tiunov, A.V., Scheu, S., 1999. Microbial respiration, biomass, biovolume and nutrient status in burrow walls of Lumbricus terrestris L. (Lumbricidae). Soil Biology & Biochemistry31, 2039–2048.

[259]

Toková, L., Igaz, D., Horák, J., Aydin, E., 2020. Effect of biochar application and re-application on soil bulk density, porosity, saturated hydraulic conductivity, water content and soil water availability in a Silty Loam Haplic Luvisol. Agronomy (Basel)10, 1005.

[260]

Tomczyk, B., Siatecka, A., Jędruchniewicz, K., Sochacka, A., Bogusz, A., Oleszczuk, P., 2020. Polycyclic aromatic hydrocarbons (PAHs) persistence, bioavailability and toxicity in sewage sludge- or sewage sludge-derived biochar-amended soil. The Science of the total environment747, 141123.

[261]

Tondoh, J.E., Dimobe, K., Guéi, A.M., Adahe, L., Baidai, Y., N’Dri, J.K., Forkuor, G. 2019. Soil health changes over a 25-year chronosequence from forest to plantations in rubber tree (Hevea brasiliensis) landscapes in Southern Côte d’Ivoire: Do earthworms play a role?. Frontiers in Environmental Science7, 73.

[262]

Topoliantz, S., Ponge, J., 2003. Burrowing activity of the geophagous earthworm Pontoscolex corethrurus (Oligochaeta: Glossoscolecidae) in the presence of charcoal. Applied Soil Ecology23, 267–271.

[263]

Topoliantz, S.X.E., Ponge, J.F., Arrouays, D., Ballof, S., Lavelle, P., 2002. Effect of organic manure and the endogeic earthworm Pontoscolex corethrurus (Oligochaeta: Glossoscolecidae) on soil fertility and bean production. Biology and Fertility of Soils36, 313–319.

[264]

Tran, N.H., Urase, T., Ngo, H.H., Hu, J.Y., Ong, S.L., 2013. Insight into metabolic and cometabolic activities of autotrophic and heterotrophic microorganisms in the biodegradation of emerging trace organic contaminants. Bioresource Technology146, 721–731.

[265]

Treseder, K.K., Allen, M.F., 2002. Direct nitrogen and phosphorus limitation of arbuscular mycorrhizal fungi: A model and field test. New Phytologist155, 507–515.

[266]

Tripathi, G., Bhardwaj, P., 2004. Comparative studies on biomass production, life cycles and composting efficiency of Eisenia fetida (Savigny) and Lampito mauritii (Kinberg). Bioresource Technology92, 275–283.

[267]

Tripathi, M., Sahu, J.N., Ganesan, P., 2016. Effect of process parameters on production of biochar from biomass waste through pyrolysis: A review. Renewable & Sustainable Energy Reviews55, 467–481.

[268]

Tsai, W.T., Chang, C.Y., Lee, S.L., 1997. Preparation and characterization of activated carbons from corn cob. Carbon35, 1198–1200.

[269]

Ukalska-Jaruga, A., Debaene, G., Smreczak, B., 2020. Dissipation and sorption processes of polycyclic aromatic hydrocarbons (PAHs) to organic matter in soils amended by exogenous rich-carbon material. Journal of Soils and Sediments20, 836–849.

[270]

Uteau, D., Pagenkemper, S.K., Peth, S., Horn, R., 2013. Root and time dependent soil structure formation and its influence on gas transport in the subsoil. Soil & Tillage Research132, 69–76.

[271]

Van Groenigen, J.W., Van Groenigen, K.J., Koopmans, G.F., Stokkermans, L., Vos, H.M.J., Lubbers, I.M., 2019. How fertile are earthworm casts? A meta-analysis.. Geoderma338, 525–535.

[272]

Van Zwieten, L., Kimber, S., Morris, S., Chan, K.Y., Downie, A., Rust, J., Joseph, S., Cowie, A., 2010. Effects of biochar from slow pyrolysis of papermill waste on agronomic performance and soil fertility. Plant and Soil327, 235–246.

[273]

Verma, A., Ali, D., Farooq, M., Pant, A.B., Ray, R.S., Hans, R.K., 2011. Expression and inducibility of endosulfan metabolizing gene in Rhodococcus strain isolated from earthworm gut microflora for its application in bioremediation. Bioresource Technology102, 2979–2984.

[274]

Vogel, T.M., Grbic-Galic, D., 1986. Incorporation of oxygen from water into toluene and benzene during anaerobic fermentative transformation. Applied and Environmental Microbiology52, 200–202.

[275]

Wang, B., Gao, B., Fang, J., 2017a. Recent advances in engineered biochar productions and applications. Critical Reviews in Environmental Science and Technology47, 2158–2207.

[276]

Wang, C.Y., Wang, Y.D., Herath, H.M.S.K., 2017b. Polycyclic aromatic hydrocarbons (PAHs) in biochar – Their formation, occurrence and analysis: A review. Organic Geochemistry114, 1–11.

[277]

Wang, D., Jiang, P.K., Zhang, H.B., Yuan, W.Q., 2020a. Biochar production and applications in agro and forestry systems: A review. Science of the Total Environment723, 137775.

[278]

Wang, F., Ji, R., Jiang, Z.W., Chen, W., 2014. Species-dependent effects of biochar amendment on bioaccumulation of atrazine in earthworms. Environmental Pollution186, 241–247.

[279]

Wang, H.T., Ding, J., Chi, Q.Q., Li, G., Pu, Q., Xiao, Z.F., Xue, X.M., 2020b. The effect of biochar on soil-plant-earthworm-bacteria system in metal (loid) contaminated soil. Environmental Pollution263, 114610.

[280]

Wang, J., Shi, L., Zhai, L.L., Zhang, H.W., Wang, S.X., Zou, J.W., Shen, Z.G., Lian, C.L., Chen, Y.H., 2021. Analysis of the long-term effectiveness of biochar immobilization remediation on heavy metal contaminated soil and the potential environmental factors weakening the remediation effect: A review. Ecotoxicology and Environmental Safety207, 111261.

[281]

Wang, J., Taylor, A., Xu, C.Y., Schlenk, D., Gan, J., 2018. Evaluation of different methods for assessing bioavailability of DDT residues during soil remediation. Environmental Pollution238, 462–470.

[282]

Wang, T.T., Cheng, J., Liu, X.J., Jiang, W., Zhang, C.L., Yu, X.Y., 2012. Effect of biochar amendment on the bioavailability of pesticide chlorantraniliprole in soil to earthworm. Ecotoxicology and Environmental Safety83, 96–101.

[283]

Wang, X.L., Sato, T., Xing, B.S., 2006. Competitive sorption of pyrene on wood chars. Environmental Science & Technology40, 3267–3272.

[284]

Warnock, D.D., Lehmann, J., Kuyper, T.W., Rillig, M.C., 2007. Mycorrhizal responses to biochar in soil – concepts and mechanisms. Plant and Soil300, 9–20.

[285]

Warnock, D. D., Mummey, D. L., McBride, B., Major, J., Lehmann, J., Rillig, M. C., 2010. Influences of non-herbaceous biochar on arbuscular mycorrhizal fungal abundances in roots and soils: Results from growth-chamber and field experiments. Applied Soil Ecology46( 3), 450–456.

[286]

Wassenberg, D.M., Di Giulio, R.T., 2004. Synergistic embryotoxicity of polycyclic aromatic hydrocarbon aryl hydrocarbon receptor agonists with cytochrome P4501A inhibitors in Fundulus heteroclitus. Environmental Health Perspectives112, 1658–1664.

[287]

Weber, W.J.Jr, McGinley, P.M., Katz, L.E., 1992. A distributed reactivity model for sorption by soils and sediments. 1. Conceptual basis and equilibrium assessments. Environmental Science & Technology26, 1955–1962.

[288]

Weidemann, E., Buss, W., Edo, M., Mašek, O., Jansson, S., 2018. Influence of pyrolysis temperature and production unit on formation of selected PAHs, oxy-PAHs, N-PACs, PCDDs, and PCDFs in biochar - a screening study. Environmental Science and Pollution Research International25, 3933–3940.

[289]

Weyers, S.L., Spokas, K.A., 2011. Impact of biochar on earthworm populations: A review. Applied and Environmental Soil Science2011, 1–12.

[290]

Wheelock, C.E., Phillips, B.M., Anderson, B.S., Miller, J.L., Miller, M.J., Hammock, B.D., 2008. Applications of carboxylesterase activity in environmental monitoring and toxicity identification evaluations (TIEs). Reviews of Environmental Contamination and Toxicology195, 117–178.

[291]

Widada, J., Nojiri, H., Kasuga, K., Yoshida, T., Habe, H., Omori, T., 2002. Molecular detection and diversity of polycyclic aromatic hydrocarbon-degrading bacteria isolated from geographically diverse sites. Applied Microbiology and Biotechnology58, 202–209.

[292]

Wilcke, W., 2000. SYNOPSIS polycyclic aromatic hydrocarbons (PAHs) in soil — a review. Journal of Plant Nutrition and Soil Science163, 229–248.

[293]

Wild, S.R., Jones, K.C., 1995. Polynuclear aromatic hydrocarbons in the United Kingdom environment: a preliminary source inventory and budget. Environmental Pollution88, 91–108.

[294]

Wilson, S.C., Jones, K.C., 1993. Bioremediation of soil contaminated with polynuclear aromatic hydrocarbons (PAHs): A review. Environmental Pollution81, 229–249.

[295]

Wu, S.J., Wu, E.M., Qiu, L.Q., Zhong, W.H., Chen, J.M., 2011. Effects of phenanthrene on the mortality, growth, and anti-oxidant system of earthworms (Eisenia fetida) under laboratory Chenconditions. Chemosphere83, 429–434.

[296]

Xiong, B.J., Zhang, Y.C., Hou, Y.W., Arp, H.P.H., Reid, B.J., Cai, C., 2017. Enhanced biodegradation of PAHs in historically contaminated soil by M. gilvum inoculated biochar. Chemosphere182, 316–324.

[297]

Xu, J., Chen, X., Li, M.T., 2018. Present situation and evaluation of contaminated soil disposal technique. IOP Conference Series. Earth and Environmental Science178, 1–4.

[298]

Xu, R.K., Xiao, S.C., Yuan, J.H., Zhao, A.Z., 2011. Adsorption of methyl violet from aqueous solutions by the biochars derived from crop residues. Bioresource Technology102, v10293–v10298.

[299]

Xu, X.B., Shi, Y.J., Lu, Y.L., Zheng, X.Q., Ritchie, R.J., 2015. Growth inhibition and altered gene transcript levels in earthworms (Eisenia fetida) exposed to 2,2′,4,4′-tetrabromodiphenyl ether. Archives of Environmental Contamination and Toxicology69, 1–7.

[300]

Yamato, M. G. E. T., Okimori, Y., Wibowo, I. F., Anshori, S., Ogawa, M., 2006. Effects of the application of charred bark of Acacia mangium on the yield of maize, cowpea and peanut, and soil chemical properties in South Sumatra, Indonesia. Soil Science and Plant Nutrition (Tokyo),52( 4), 489–495.

[301]

Yang, K., Yang, J.J., Jiang, Y., Wu, W.H., Lin, D.H., 2016. Correlations and adsorption mechanisms of aromatic compounds on a high heat temperature treated bamboo biochar. Environmental Pollution210, 57–64.

[302]

Yang, X.N., Chen, Z.F., Wu, Q.H., Xu, M.Y., 2018. Enhanced phenanthrene degradation in river sediments using a combination of biochar and nitrate. Science of the Total Environment619–620, 600–605.

[303]

Ye, S.J., Zeng, G.M., Wu, H.P., Liang, J., Zhang, C., Dai, J., Xiong, W.P., Song, B., Wu, S.H., Yu, J.F., 2019. The effects of activated biochar addition on remediation efficiency of co-composting with contaminated wetland soil. Resources, Conservation and Recycling140, 278–285.

[304]

Ye, S.J., Zeng, G.M., Wu, H.P., Zhang, C., Dai, J., Liang, J., Yu, J.F., Ren, X.Y., Yi, H., Cheng, M., Zhang, C., 2017. Biological technologies for the remediation of co-contaminated soil. Critical Reviews in Biotechnology37, 1062–1076.

[305]

Zavala-Cruz, J., Trujillo-Capistran, F., Ortiz-Ceballos, G.C., Ortiz-Ceballos, A.I., 2014. Tropical endogeic earthworm population in a pollution gradient with weathered crude oil. Research Journal of Environmental Sciences7, 15–26.

[306]

Zeb, A., Li, S., Wu, J.N., Lian, J.P., Liu, W.T., Sun, Y.B., 2020. Insights into the mechanisms underlying the remediation potential of earthworms in contaminated soil: A critical review of research progress and prospects. Science of the Total Environment740, 140145.

[307]

Zhang, B.G., Li, G.T., Shen, T.S., Wang, J.K., Sun, Z., 2000. Changes in microbial biomass C, N, and P and enzyme activities in soil incubated with the earthworms Metaphire guillelmi or Eisenia fetida. Soil Biology & Biochemistry32, 2055–2062.

[308]

Zhang, G.X., Guo, X.F., Zhu, Y.E., Liu, X.T., Han, Z.W., Sun, K., Ji, L., He, Q.S., Han, L.F., 2018a. The effects of different biochars on microbial quantity, microbial community shift, enzyme activity, and biodegradation of polycyclic aromatic hydrocarbons in soil. Geoderma328, 100–108.

[309]

Zhang, H.H., Lin, K.D., Wang, H.L., Gan, J., 2010. Effect of Pinus radiata derived biochars on soil sorption and desorption of phenanthrene. Environmental Pollution158, 2821–2825.

[310]

Zhang, K., Chen, B.L., Mao, J.F., Zhu, L.Z., Xing, B.S., 2018b. Water clusters contributed to molecular interactions of ionizable organic pollutants with aromatized biochar via π-PAHB: Sorption experiments and DFT calculations. Environmental Pollution240, 342–352.

[311]

Zhang, Q.M., Saleem, M., Wang, C.X., 2019. Effects of biochar on the earthworm (Eisenia foetida) in soil contaminated with and/or without pesticide mesotrione. Science of the Total Environment671, 52–58.

[312]

Zhang, R.K., Zhou, Z.Q., Zhu, W.T., 2020. Evaluating the effects of the tebuconazole on the earthworm, Eisenia fetida by H-1 NMR-Based untargeted metabolomics and mRNA assay. Ecotoxicology and Environmental Safety194, 110370.

[313]

Zhang, W.H., Zhuang, L.W., Yuan, Y., Tong, L.Z., Tsang, D.C.W., 2011. Enhancement of phenanthrene adsorption on a clayey soil and clay minerals by coexisting lead or cadmium. Chemosphere83, 302–310.

[314]

Zhou, Z.L., Shi, D.J., Qiu, Y.P., Sheng, D., 2010. Sorptive domains of pine chars as probed by benzene and nitrobenzene. Environmental Pollution158, 201–206.

[315]

Zhu, D.Q., Pignatello, J.J., 2005. Characterization of aromatic compound sorptive interactions with black carbon (charcoal) assisted by graphite as a model. Environmental Science & Technology39, 2033–2041.

[316]

Zhu, X.M., Chen, B.L., Zhu, L.Z., Xing, B.S., 2017. Effects and mechanisms of biochar-microbe interactions in soil improvement and pollution remediation: A review. Environmental Pollution227, 98–115.

[317]

Zhu, X.M., Wang, Y.S., Zhang, Y.C., Chen, B.L., 2018. Reduced bioavailability and plant uptake of polycyclic aromatic hydrocarbons from soil slurry amended with biochars pyrolyzed under various temperatures. Environmental Science and Pollution Research International25, 16991–17001.

[318]

Zielińska, A., Oleszczuk, P., 2016. Effect of pyrolysis temperatures on freely dissolved polycyclic aromatic hydrocarbon (PAH) concentrations in sewage sludge-derived biochars. Chemosphere153, 68–74.

[319]

Zou, S.W., Anders, K.M., Ferguson, J.F., 2000. Biostimulation and bioaugmentation of anaerobic pentachlorophenol degradation in contaminated soils. Bioremediation Journal4, 19–25.

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