[1]土壤汞生物可给性的影响因素研究-基于体外模拟(in vitro)法. 郑顺安,韩允垒,刘代丽,倪润祥,吴泽嬴,师荣光. 2019

[2]太原市汾河流域五大粮食作物污染监测评价. 王存宝,宁安荣,常晓冰,武九昆. 1993

[3]Two-step modification (sodium dodecylbenzene sulfonate composites acid-base) of sepiolite (SDBS/ABsep) and its performance for remediation of Cd contaminated water and soil. Ge Gao,Sha Xie,Shunan Zheng,Yingming Xu,Yuebing Sun. 2022

[4]Evaluation of Biochar, Sepiolite, and Their Composites for Immobilization Remediation of Cadmium Contamination Soil: Insights From Batch Experiments and Field Trials. Chao Wang,Shan Gao,Tao Sun,Shihang Wu,Yuebing Sun,Hongtao Jia. 2025

[5]Prediction model for mercury transfer from soil to corn grain and its cross-species extrapolation. Hu Hai-yan,Li Zhao-jun,Feng Yao,Liu Yuan-wang,Xue Jian-ming,Davis, Murray,Liang Yong-Chao. 2016

[6]Determination of trace mercury in rice by microwave digestion-hydride generation-atomic fluorescence spectrometry. Mou, RX,Chen, MX,Zhu, ZW,Chen, N. 2004

[7]High-efficiency remediation of Hg and Cd co-contaminated paddy soils by Fe-Mn oxide modified biochar and its microbial community responses. Sun, Tong,Gao, Ge,Yang, Wenhao,Sun, Yuebing,Huang, Qingqing,Wang, Lin,Liang, Xuefeng. 2024

[8]Multiscale investigation of oxidative aging on thiol–functionalized montmorillonite: Correlating structural and chemical degradation to the reduced affinity for Hg(II) and MeHg. Ning Wang,Penggang Pei,Ge Gao,Yundi Kan,Linna Zhou,Bozhen Yu,Yuebing Sun. 2026

[9]Biogas residue biochar still had ecological risks to the ultisol: evidence from soil bacterial communities, organic carbon structures, and mineralization. Cong, Ping,Zheng, Xuebo,Han, Lanfang,Chen, Liying,Zhang, Jintao,Song, Wenjing,Dong, Jianxin,Ma, Xiaogang. 2022

[10]Effect of Ensiling Density and Storage Temperature on Fermentation Quality, Bacterial Community, and Nitrate Concentration of Sorghum-Sudangrass Silage. Chunsheng Bai,Gang Pan,Ruoxuan Leng,Wenhua Ni,Jiyun Yang,Juanjuan Sun,Zhu Yu,Zhigang Liu,Yanlin Xue. 2022

[11]Insight into the diversity and application characters of endophytes in ramie (Boehmeria nivea L. Gaud). Xiaomin Xu,Guang Li,Yaoren Zhang,Xin Wang,Zihan Wang,Xueqing Wu,Yanzhou Wang,Touming Liu,Siyuan Zhu. 2025

[12]Phosphorus Adsorption and Bioavailability in a Paddy Soil Amended with Pig Manure Compost and Decaying Rice Straw. Liang, Yongchao,Guo, Bin,Liang, Yongchao,Li, Zhaojun,Han, Fengxiang. 2009

[13]Effects of organic amendments on soil carbon sequestration in paddy fields of subtropical China. Xu, Minggang,Wang, Xiujun,Wang, Xiujun,Huang, Qinhai,Nie, Jun,Li, Zuzhang,Li, Shuanglai,Hwang, Seon Woong,Lee, Kyeong Bo. 2012

[14]The bioaccumulation of Cd in rice grains in paddy soils as affected and predicted by soil properties. Ye, Xinxin,Wu, Liang,Sun, Bo,Ye, Xinxin,Li, Hongying,Ma, Yibing,Wu, Liang. 2014

[15]Predictive Model for Phosphorus Accumulation in Paddy Soils with Long-Term Inorganic Fertilization. Li, J. M.,Liu, J.,Xu, M. G.,Ma, Y. B.,Li, J. M.,Gao, J. S.. 2012

[16]Effects of rice straw incorporation and tillage depth on soil puddlability and mechanical properties during rice growth period. Yao, Shuihong,Teng, Xiaolong,Zhang, Bin.

[17]Cropping systems affect paddy soil organic carbon and total nitrogen stocks (in rice-garlic and rice-fava systems) in temperate region of southern China. Zhang, Tao,Liu, Hongbin,Zhai, Limei,Zhang, Dan,Wang, Hongyuan,Chen, Anqiang,Lei, Baokun,Liu, Jian.

[18]Oxidation of elemental sulfur in paddy soils as influenced by flooded condition and plant growth in pot experiment. Zhou, W,Wan, M,He, P,Li, ST,Lin, B. 2002

[19]Testing the modified Rothamsted Carbon Model for paddy soils against the results from long-term experiments in southern China. Xu, Minggang,Jiang, Guiying,Shirato, Yasuhito,Yagasaki, Yasumi,Huang, Qinghai,Li, Zuzhang,Nie, Jun,Shi, Xiaojun. 2013

[20]The potential of green manure to increase soil carbon sequestration and reduce the yield-scaled carbon footprint of rice production in southern China. Song juan GAO,Shun LI,Guo peng ZHOU,Wei dong CAO. 2023