数字农科院2.0

Removal mechanisms of slag against potentially toxic elements in soil and plants for sustainable agriculture development: A critical review

文献类型: 外文期刊

作者: Mehmood Sajid;Wang Xiukang;Ahmed Waqas;Imtiaz Muhammad;Ditta Allah;Rizwan Muhammad;Irshad Sana;Bashir Saqib;Saeed Qudsia;Mustafa Adnan;Li Weidong

作者机构:

关键词: Immobilization; Plant; Potentially toxic elements; Slag; Tolerance

期刊名称: Sustainability (Switzerland)

ISSN: 2071-1050

年卷期: 2021 年 13 卷 9 期

页码:

收录情况: JCR(2021版)

摘要: Potentially toxic element (PTE) pollution is a major abiotic stress, which reduces plant growth and affects food quality by entering the food chain, and ultimately poses hazards to human health. Currently, the use of slag in PTE-contaminated soils has been reported to reduce PTEs and toxicity in plants. This review highlights the role of slag used as a fertilizer for better crop production and sustainable agricultural development. The application of slag increased the growth, yield, and quality of crops under PTE toxicity. The mechanisms followed by slag are the immobilization of PTEs in the soil, enhancement of soil pH, changes in the redox state of PTEs, and positive changes in soil physicochemical and biological properties under PTE toxicity. Nevertheless, these processes are influenced by the plant species, growth conditions, imposition length of stress, and type of slag used. The current review provides an insight into improving plant tolerance to PTE toxicity by slag-based fertilizer application and highlights the theoretical basis for applying slag in PTE-contaminated environments worldwide. © 2021 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https:// creativecommons.org/licenses/by/ 4.0/).

分类号:

  • 相关文献

[1]The branchless gene Clbl in watermelon encoding a TERMINAL FLOWER 1 protein regulates the number of lateral branches. Dou J., Yang H., Sun D., Yang S., Sun S., Zhao S., Lu X., Zhu H., Liu D., Ma C., Liu W., Yang L.. 2022

[2]Genome-wide identification studies – A primer to explore new genes in plant species. Safder I., Shao G., Sheng Z., Hu P., Tang S.. 2022

[3]A reciprocal inhibitory module for Pi and iron signaling. Guo M., Ruan W., Zhang Y., Zhang Y., Wang X., Guo Z., Wang L., Zhou T., Paz-Ares J., Yi K.. 2022

[4]Leaching Behavior Of Pb And C.d And Transformation Of T heir Speciation In Co-Contaminated Soil Receiving Different Passivators. Mehmood, S, Imtiaz, M, Bashir, S, Rizwan, M, Irshad, S, Yuvaraja, G, Ikram, M, Aziz, O, Ditta, A, Rehman, SU, Shakeel, Q, Mumtaz, MA, Ahmed, W, Mahmood, S, Chen, DY, Tu, SX. 2019

[5]Comparative Effects Of Biochar, Slag A.nd Ferrous-Mn Ore On L ead And Cadmium Immobilization In Soil. Mehmood, S, Rizwan, M, Bashir, S, Ditta, A, Aziz, O, Yong, LZ, Dai, ZH, Akmal, M, Ahmed, W, Adeel, M, Imtiaz, M, Tu, SX. 2018

[6]Geographical Variation In Arsenic, Cadmium, A.nd Lead Of Soils A nd Rice In The Major Rice Producing Regions Of China. Mu, Tingting,Mu, Tingting,Wang, Zhaoyang,Ouyang, Younan,Li, Zhu,Luo, Yongming,Hou, Jinyu,Jiang, Jinping,Zhou, Tong,Zhu, Dong,Wu, Tuozheng,Wu, Longhua,Christie, Peter. 2019

[7]Multivariable Cokriging Prediction And Source A.nalysis Of Potentially Toxic E lements (Cr, Cu, Cd, Pb, And Zn) In Surface Sediments From Dongting Lake, China. Wang, LQ, Dai, LJ, Li, LF, Liang, T. 2018

[8]Potential Sources And Associated Risk A.ssessment Of Potentially Toxic E lements In Paddy Soils Of A Combined Urban And Rural Area. Chai, YJ, Li, Y, Chen, XL, Zhang, J, Christie, P, Chow, KL, Ai, C, Shan, SD. 2019

[9]Comparative Analysis Of Tolerant And Susceptible Citrus Reveals The Role Of Methyl Salicylate Signaling In The Response To Huanglongbing. Chen, Shanchun,Xu, Lanzhen,Peng, Aihong,He, Yongrui,Wu, Liu,Peng, Aihong,Wen, Qingli,Xie, Zhu,He, Yongrui,Zou, Xiuping,Chen, Shanchun,Xu, Lanzhen,Xie, Zhu,Wu, Liu,Bai, Xiaojing,Wen, Qingli,Xie, Zhu,Zou, Xiuping,Peng, Aihong,Wu, Liu,Bai, Xiaojing,Zou, Xiuping,Wen, Qingli,Chen, Shanchun,Bai, Xiaojing,He, Yongrui,Xu, Lanzhen. 2019

[10]Differential Cobalt-Induced Effects On Plant G.rowth, Ultrastructural Modifications, And A ntioxidative Response Among Four Brassica Napus (L.) Cultivars. Gill, R. A.,Islam, F.,Mwamba, T. M.,Zhang, N.,ul Hassan, Z.,Gill, R. A.,Zhou, W. J.,Ali, S.,Lv, M. T.,Ali, S.. 2018

[11]Genetic Dissection Of Qtl Against P.hosphate Deficiency In The H ybrid Rice 'Xieyou9308'. Wu, Weiming,Zhang, Yingxin,Cheng, Shihua,Shen, Xihong,Zhang, Yingxin,Anis, Galal Bakr,Cao, Liyong,Anis, Galal Bakr,Yu, Ning,Zhan, Xiaodeng,Wu, Weiming,Shen, Xihong,Wang, Ruci,Cao, Liyong,Cheng, Shihua,Zhan, Xiaodeng. 2018

[12]Comparative Proteomic Analysis Of Two S.esame Genotypes With Contrasting S alinity Tolerance In Response To Salt Stress. Li, Donghua,Gong, Huihui,Liu, Aili,Zhang, Yujuan,Zhang, Yujuan,Zhou, Rong,Dossa, Komivi,Dossa, Komivi,Wei, Mengyuan,Wang, Linhai,You, Jun,Zhang, Yanxin,Zhang, Xiurong. 2019

[13]Malonylome Analysis In Developing Rice (.Oryza Saliva) Seeds Suggesting T hat Protein Lysine Malonylation Is Well-Conserved And Overlaps With Acetylation And Succinylation Substantially. Peng, Xiaojun,Peng, Zhaohua,Mujahid, Hana,Meng, Xiaoxi,Wang, Cailin,Xing, Shihai. 2018

[14]Copper Accumulation, Subcellular Partitioning And P.hysiological And Molecular Responses I n Relation To Different Copper Tolerance In Apple Rootstocks. Du, Jiayi,Wan, Huixue,Lyu, Deguo,He, Jiali,Wan, Huixue,Du, Jiayi,Lyu, Deguo,He, Jiali,Li, Huifeng. 2019

[15]Integration Of Cadmium Accumulation, Subcellular D.istribution, And Physiological Responses T o Understand Cadmium Tolerance In Apple Rootstocks. Wan, Huixue,Wan, Huixue,Zhou, Jiangtao,Zhou, Jiangtao,Lyu, Deguo,He, Jiali,He, Jiali,Lyu, Deguo,Li, Huifeng. 2017

[16]Heterologous Expression Of Three Camellia S.inensis Small Heat Shock P rotein Genes Confers Temperature Stress Tolerance In Yeast And Arabidopsis Thaliana. Zhu, Xujun,Xin, Huahong,Li, Xinghui,Li, Qinghui,Chen, Xuan,Zou, Zhongwei,Wang, Mingle. 2017

[17]The Role Of Gibberellin Synthase G.ene Ghga2Ox1 In Upland C otton (Gossypium Hirsutum L.) Responses To Drought And Salt Stress. Yan, Gen-Tu,Zhou, Hong,Xu, Qing-Hua,Wang, Ning,Shi, Jian-Bin. 2019

[18]Interactions Between Nanoparticles And Plants: P.hytotoxicity And Defense Mechanisms. Yang, J, Cao, WD, Rui, YK. 2017

[19]Extended Biotic Ligand Model For P.redicting Combined Cu-Zn Toxicity T o Wheat (Triticum Aestivum L.): Incorporating The Effects Of Concentration Ratio, Major Cations And Ph. Wang, XD, Ji, DX, Chen, XL, Ma, YB, Yang, JX, Ma, JX, Li, XX. 2017

[20]Transcriptome Profiling, Biochemical And Physiological Analyses Provide New Insights Towards Drought Tolerance In Nicotiana Tabacum L.. Khan, RY, Zhou, PL, Ma, XH, Zhou, L, Wu, YH, Ullah, Z, Wang, SS. 2019

作者其他论文 更多>>