[1] Tian, J., Li, Z., Wang, L., Qiu, D., Zhang, X., Xin, X., Cai, X., Lei, B. (2021). Metabolic signatures for safety assessment of low-level cadmium exposure on human osteoblast-like cells. Ecotoxicology and environmental safety, 207, 111257.
[2] Mar, S.S. (2012). Characterization of phosphate rocks/fertilizers and their effects on Cd uptake by Komatsuna (Brassica rapa var. perviridis) and spinach (Spinacea oleracea) grown on melanudand and haplaquept. Tokyo University of Agriculture and Technology.
[3] Niad, M., Zarei, S. (2020). Application of fuzzy modeling and response surface methodology for optimization of cadmium uptake by colpomenia sinosa. Advances in environmental technology, 6(1), 31–36.
[4] Safari, Y., Karimi, M. (2019). Environmental risk assessment and source apportionment of heavy metals in soils and natural plants surrounding a cement factory in NE Iran. Advances in environmental technology, 5(4), 221–227.
[5] Knox, A.S., Kaplan, D.I., Paller, M.H. (2006). Phosphate sources and their suitability for remediation of contaminated soils. Science of the total environment, 357(1–3), 271–279.
[6] Beggi, F., Hamidou, F., Hash, C. T., Buerkert, A. (2016). Effects of early mycorrhization and colonized root length on low‐soil‐phosphorus resistance of West African pearl millet. Journal of plant nutrition and soil science, 179(4), 466-471.
[7] Yoon, J.K., Cao, X., Ma, L.Q. (2007). Application methods affect phosphorus‐induced lead immobilization from a contaminated soil. Journal of environmental quality, 36(2), 373–378.
[8] Rasool, B., Ramzani, P. M. A., Zubair, M., Khan, M. A., Lewińska, K., Turan, V., Iqbal, M. (2021). Impacts of oxalic acid-activated phosphate rock and root-induced changes on Pb bioavailability in the rhizosphere and its distribution in mung bean plant. Environmental pollution, 280, 116903.
[9] Abbaspour, A., Golchin, A. (2011). Immobilization of heavy metals in a contaminated soil in Iran using di-ammonium phosphate, vermicompost and zeolite. Environmental earth sciences, 63(5), 935–943.
[10] Azeem, M., Ali, A., Jeyasundar, P. G. S. A., Li, Y., Abdelrahman, H., Latif, A., Zhang, Z. (2021). Bone-derived biochar improved soil quality and reduced Cd and Zn phytoavailability in a multi-metal contaminated mining soil. Environmental pollution, 277, 116800.
[11] Wang, Y., Huang, J., Gao, Y. (2012). Arbuscular mycorrhizal colonization alters subcellular distribution and chemical forms of cadmium in Medicago sativa L. and resists cadmium toxicity. PLoS One, 7(11), e48669.
[12] Yao, Q., Yang, R., Long, L., Zhu, H. (2014). Phosphate application enhances the resistance of arbuscular mycorrhizae in clover plants to cadmium via polyphosphate accumulation in fungal hyphae. Environmental and experimental botany, 108, 63–70
[13] You, Y., Wang, L., Ju, C., Wang, G., Ma, F., Wang, Y., Yang, D. (2021). Effects of arbuscular mycorrhizal fungi on the growth and toxic element uptake of Phragmites australis (Cav.) Trin. ex Steud under zinc/cadmium stress. Ecotoxicology and environmental safety, 213, 112023.
[14] Yazici, M.A., Asif, M., Tutus, Y., Ortas, I., Ozturk, L., Lambers, H., Cakmak, I. (2021). Reduced root mycorrhizal colonization as affected by phosphorus fertilization is responsible for high cadmium accumulation in wheat. Plant and soil, 468(1), 19–35.
[15] USDA, N. (2010). Keys to soil taxonomy. Soil Survey Staff, Washington.
[16] Dane, J. H., Topp, C. G. (Eds.). (2020). Methods of soil analysis, Part 4: Physical methods (Vol. 20). John Wiley and Sons
[17] Sparks, D. L., Page, A. L., Helmke, P. A., Loeppert, R. H. (Eds.). (2020). Methods of soil analysis, part 3: Chemical methods (Vol. 14). John Wiley and Sons.
[18] Sims, J. T. (2000). Soil test phosphorus: Olsen P. Methods of phosphorus analysis for soils, sediments, residuals, and waters. Southern cooperative series bulletin No. 396.
[19] Giovannetti, M., Mosse, B. (1980). An evaluation of techniques for measuring vesicular arbuscular mycorrhizal infection in roots. New phytologist, 489-500.
[20] Duineveld, B.M., Rosado, A.S., van Elsas, J.D., van Veen, J.A. (1998). Analysis of the dynamics of bacterial communities in the rhizosphere of the chrysanthemum via denaturing gradient gel electrophoresis and substrate utilization patterns. Applied and environmental microbiology, 64 12), 4950–4957.
[21] McLaughlin, M.J., Tiller, K.G., Smart, M.K. (1997). Speciation of cadmium in soil solutions of saline/sodic soils and relationship with cadmium concentrations in potato tubers (Solanum tuberosum L.). Soil research, 35(1), 183–198.
[22] Gustafsson, J.P. (2010). Visual MINTEQ ver. 3.0. Http://Www2. Lwr. Kth. Se/English/OurSoftware/Vminteq/Index. Htm
[23] Zhang, H., Tang, J., Wang, L., Liu, J., Gurav, R.G., Sun, K. (2016). A novel bioremediation strategy for petroleum hydrocarbon pollutants using salt tolerant Corynebacterium variabile HRJ4 and biochar. Journal of environmental sciences, 47, 7–13.
[24] Sarker, A., Kashem, M.A., Osman, K.T. (2014). Phosphorus availability, uptake and dry matter yield of Indian spinach (Basella alba L.) to lime and phosphorus fertilization in an acidic soil. Open Journal of Soil Science, 4(1), 42–46.
[25] McBride, M.B. (1994). Environmental chemistry of soils Oxford University Press. New York.
[26] Dheri, G.S., Singh Brar, M., Malhi, S.S. (2007). Influence of phosphorus application on growth and cadmium uptake of spinach in two cadmium‐contaminated soils. Journal of plant nutrition and soil science, 170(4), 495–499.
[27] Xiao, Y., Liu, M., Chen, L., Ji, L., Zhao, Z., Wang, L., Wei, L., Zhang, Y. (2020). Growth and elemental uptake of Trifolium repens in response to biochar addition, arbuscular mycorrhizal fungi and phosphorus fertilizer applications in low-Cd-polluted soils. Environmental pollution, 260, 113761.
[28] Sneddon, I.R., Orueetxebarria, M., Hodson, M.E., Schofield, P.F., Valsami-Jones, E. (2006). Use of bone meal amendments to immobilise Pb, Zn and Cd in soil: a leaching column study. Environmental pollution, 144(3), 816–825.
[29] Lu, K., Yang, X., Gielen, G., Bolan, N., Ok, Y.S., Niazi, N.K., Xu, S., Yuan, G., Chen, X., Zhang, X., Liu, D., Song, Z., Liu, X., Wang, H. (2017). Effect of bamboo and rice straw biochars on the mobility and redistribution of heavy metals (Cd, Cu, Pb and Zn) in contaminated soil. Journal of environmental management, 186, 285–292.
[30] Abbas, T., Rizwan, M., Ali, S., Zia-ur-Rehman, M., Qayyum, M.F., Abbas, F., Hannan, F., Rinklebe, J., Ok, Y. S. (2017). Effect of biochar on cadmium bioavailability and uptake in wheat (Triticum aestivum L.) grown in a soil with aged contamination. Ecotoxicology and environmental safety, 140, 37–47.
[31] Ferrol, N., Tamayo, E., Vargas, P. (2016). The heavy metal paradox in arbuscular mycorrhizas: from mechanisms to biotechnological applications. Journal of experimental botany, 67(22):6253-6265.
[32] Chen, B., Nayuki, K., Kuga, Y., Zhang, X., Wu, S., Ohtomo, R. (2018). Uptake and intraradical immobilization of cadmium by arbuscular mycorrhizal fungi as revealed by a stable isotope tracer and synchrotron radiation μX-ray fluorescence analysis. Microbes and environments, 33(3):257-263.
[33] Cui, G., Ai, S., Chen, K., Wang, X. (2019). Arbuscular mycorrhiza augments cadmium tolerance in soybean by altering accumulation and partitioning of nutrient elements, and related gene expression. Ecotoxicology and environmental safety, 171, 231–239.
[34] Lindsay, W. L. (1979). Chemical equilibria in soils. John Wiley and Sons Ltd.
[35] Peng, S., Eissenstat, D.M., Graham, J.H., Williams, K., Hodge, N.C. (1993). Growth depression in mycorrhizal citrus at high-phosphorus supply (analysis of carbon costs). Plant physiology, 101(3), 1063–1071.
[36] Jifon, J.L., Graham, J.H., Drouillard, D.L., Syvertsen, J.P. (2002). Growth depression of mycorrhizal Citrus seedlings grown at high phosphorus supply is mitigated by elevated CO2. New phytologist, 153(1), 133–142.
[37] Raklami, A., Tahiri, A., Bechtaoui, N., Pajuelo, E., Baslam, M., Meddich, A., Oufdou, K. (2021). Restoring the plant productivity of heavy metal-contaminated soil using phosphate sludge, marble waste, and beneficial microorganisms. Journal of environmental sciences, 99, 210–221.
[38] Jin, C., Nan, Z., Wang, H., Li, X., Zhou, J., Yao, X., Jin, P. (2018), Effect of Cd stress on the bioavailability of Cd and other mineral nutrition elements in broad bean grown in a loess subsoil amended with municipal sludge compost. Environmental science and pollution research, 25(8), 7418–7432.
[39] Brown, S., Christensen, B., Lombi, E., McLaughlin, M., McGrath, S., Colpaert, J., Vangronsveld, J. (2005). An inter-laboratory study to test the ability of amendments to reduce the availability of Cd, Pb, and Zn in situ. Environmental pollution, 138(1), 34–45.
[40] Janoušková, M., Vosátka, M., Rossi, L., Lugon-Moulin, N. (2007). Effects of arbuscular mycorrhizal inoculation on cadmium accumulation by different tobacco (Nicotiana tabacum L.) types. Applied soil ecology, 35(3), 502–510.
[41] aghaie, A.H., Aghili, F., Jafarinia, R. (2019). Soil-indigenous arbuscular mycorrhizal fungi and zeolite addition to soil synergistically increase grain yield and reduce cadmium uptake of bread wheat (through improved nitrogen and phosphorus nutrition and immobilization of Cd in roots). Environmental science and pollution research, 26(30), 30794–30807.
[42] Zhong, W., Li, J., Chen, Y., Shu, W., Liao, B. (2012). A study on the effects of lead, cadmium and phosphorus on the lead and cadmium uptake efficacy of Viola baoshanensis inoculated with arbuscular mycorrhizal fungi. Journal of environmental monitoring, 14(9), 2497–2504.
[43] Andrade, S.A.L., Abreu, C.A., De Abreu, M.F., Silveira, A.P.D. (2004). Influence of lead additions on arbuscular mycorrhiza and Rhizobium symbioses under soybean plants. Applied soil ecology, 26(2), 123–131.
[44] Hijikata, N., Murase, M., Tani, C., Ohtomo, R., Osaki, M., Ezawa, T. (2010). Polyphosphate has a central role in the rapid and massive accumulation of phosphorus in extraradical mycelium of an arbuscular mycorrhizal fungus. New phytologist, 186(2), 285–289.