一、期刊论文 

 [1]Wu, Huayong, Adams, Jonathan M., Shi, Yu, Li, Yuntao, Song, Xiaodong, Zhao, Xiaorui, Chu, Haiyan, Zhang, Gan-Lin. 2020. Depth-Dependent Patterns of Bacterial Communities and Assembly Processes in a Typical Red Soil Critical Zone. Geomicrobiology Journal, 37: 201-212. 

[2]Song XD, Liu F, Wu HY, Cao Q, Zhong C, Yang JL, Li DC, Zhao YG, Zhang GL. 2020. Effects of long-term K fertilization on soil available potassium in East China. Catena, 188: 104412. 

[3]Song XD, Wu HY, Ju B, Liu F, Yang F, Li DC, Zhao YG, Yang JL, Zhang GL, 2020. Pedoclimatic zone-based three-dimensional soil organic carbon mapping in China. Geoderma, 363: 114145. 

[4]Cao Q, Song XD, Wu HY, Gao L, Liu F, Yang SH, Zhang, GL, 2020. Mapping the response of volumetric soil water content to 1 an intense rainfall event at the field scale using GPR. Journal of Hydrology, 583: 124605. 

[5]Song XD, Wu HY, Hallett PD, Pan XC, Hu XF, Cao Q, Zhao XR, Zhang GL, 2020. Paleotopography continues to drive surface to deep-layer interactions in a subtropical Critical Zone Observatory. Journal of Applied Geophysics, 175: 103987. 

[6]Liu Feng, Rossiter David G., Song Xiaodong, Zhang Gan-Lin, Wu Huayong, Zhao Yuguo, 2020. An approach for broad-scale predictive soil properties mapping in low-relief areas based on responses to solar radiation. Soil Sci. Soc. Am. J., 84: 144-162. 

[7]Chen, Songchao, Liang, Zongzheng, Webster, Richard, Zhang, Ganlin, Zhou, Yin, Teng, Hongfen, Hu, Bifeng, Arrouays, Dominique, Shi, Zhou. 2019. A high-resolution map of soil pH in China made by hybrid modelling of sparse soil data and environmental covariates and its implications for pollution. Science of the Total Environment, 655: 273-283. 

[8]Wu, Huayong, Song, Xiaodong, Zhao, Xiaorui, Peng, Xinhua, Zhou, Hu, Hallett, Paul D., Hodson, Mark E., Zhang, Gan-Lin. 2019. Accumulation of nitrate and dissolved organic nitrogen at depth in a red soil Critical Zone. Geoderma, 337: 1175-1185. 

[9]Zhao, Xiao-Rui, Wu, Hua-Yong, Song, Xiao-Dong, Yang, Shun-Hua, Dong, Yue, Yang, Jin-Ling, Zhang, Gan-Lin. 2019. Intra-horizon differentiation of the bacterial community and its co-occurrence network in a typical Plinthic horizon. Science of the Total Environment, 678: 692-701. 

[10]Lu Yuan-Yuan, Liu Feng, Zhao Yu-Guo, Song Xiao-Dong, Zhang Gan-Lin. 2019. An integrated method of selecting environmental covariates for predictive soil depth mapping. Journal of Integrative Agriculture, 18: 301-315. 

[11]Yang, Shun-Hua, Liu, Feng, Song, Xiao-Dong, Lu, Yuan-Yuan, Li, De-Cheng, Zhao, Yu-Guo, Zhang, Gan-Lin. 2019. Mapping topsoil electrical conductivity by a mixed geographically weighted regression kriging: A case study in the Heihe River Basin, northwest China. Ecological Indicators, 102: 252-264. 

[12]Song, Xiao-Dong, Wu, Hua-Yong, Liu, Feng, Tian, Jian, Cao, Qi, Yang, Shun-Hua, Peng, Xin-Hua, Zhang, Gan-Lin. 2019. Three-Dimensional Mapping of Organic Carbon using Piecewise Depth Functions in the Red Soil Critical Zone Observatory. Soil Science Society of America Journal, 83: 687-696. 

[13]Yang, Jin-Ling, Zhang, Gan-Lin. 2019. Si cycling and isotope fractionation: Implications on weathering and soil formation processes in a typical subtropical area. Geoderma, 337: 479-490. 

[14]Liu, S., Zhang, Z. B., Li, D. M., Hallett, P. D., Zhang, G. L., Peng, X. H. 2019. Temporal dynamics and vertical distribution of newly-derived carbon from a C-3/C-4 conversion in an Ultisol after 30-yr fertilization. Geoderma, 337: 1077-1085. 

[15]Zeng, R., Rossiter, D. G., Zhang, G. L. 2019. How compatible are numerical classifications based on whole-profile vis-NIR spectra and the Chinese Soil Taxonomy? European Journal of Soil Science, 70: 54-65. 

[16]Zhang, Ganlin, Zhu, Yongguan, Shao, Ming'an. 2019. Understanding sustainability of soil and water resources in a critical zone perspective. Science China-Earth Sciences, 62: 1716-1718. 

[17]Wu, Huayong, Song, Xiaodong, Zhao, Xiaorui, Zhang, Gan-Lin. 2019. Conversion from Upland to Paddy Field Intensifies Human Impacts on Element Behavior through Regolith. Vadose Zone Journal, 18. 

[18]Hu, Xue-Feng, Zhao, Jing-Long, Zhang, Pei-Feng, Xue, Yong, An, Bo-Nian, Huang, Fang, Yu, Hui-Min, Zhang, Gan-Lin, Liu, Xiang-Jun. 2019. Fe isotopic composition of the Quaternary Red Clay in subtropical Southeast China: Redoxic Fe mobility and its paleoenvironmental implications. Chemical Geology, 524: 356-367. 

[19] Song, Xiao-Dong, Yang, Jian-Yi, Zhao, Ming-Song, Zhang, Gan-Lin, Liu, Feng, Wu, Hua-Yong. 2019. Heuristic cellular automaton model for simulating soil organic carbon under land use and climate change: A case study in eastern China. Agriculture Ecosystems & Environment, 269: 156-166. 

[20] Song, Xiao-Dong, Yang, Fan, Ju, Bing, Li, De-Cheng, Zhao, Yu-Guo, Yang, Jin-Ling, Zhang, Gan-Lin. 2018. The influence of the conversion of grassland to cropland on changes in soil organic carbon and total nitrogen stocks in the Songnen Plain of Northeast China. Catena, 171: 588-601. 

[21]Yang, Jin-Ling, Zhang, Gan-Lin. 2018. Silicon cycling by plant and its effects on soil Si translocation in a typical subtropical area. Geoderma, 310: 89-98. 

[22]Huang, Lai-Ming, Jia, Xiao-Xu, Zhang, Gan-Lin, Thompson, Aaron, Huang, Fang, Shao, Min-An, Chen, Liu-Mei. 2018. Variations and controls of iron oxides and isotope compositions during paddy soil evolution over a millennial time scale. Chemical Geology, 476: 340-351. 

[23] Huang, Lai-Ming, Shao, Min-An, Huang, Fang, Zhang, Gan-Lin. 2018. Effects of human activities on pedogenesis and iron dynamics in paddy soils developed on Quaternary red clays. Catena, 166: 78-88. 

[24] Zhao, Yongcun, Wang, Meiyan, Hu, Shuijin, Zhang, Xudong, Ouyang, Zhu, Zhang, Ganlin, Huang, Biao, Zhao, Shiwei, Wu, Jinshui, Xie, Deti, Zhu, Bo, Yu, Dongsheng, Pan, Xianzhang, Xu, Shengxiang, Shi, Xuezheng. 2018. Economics- and policy-driven organic carbon input enhancement dominates soil organic carbon accumulation in Chinese croplands. PNAS, 115: 4045-4050. 

[25]Zhang Gan-lin, Liu Feng, Song Xiao-dong. 2017. Recent progress and future prospect of digital soil mapping: A review. Journal of Integrative Agriculture, 16: 2871-2885. 

[26]Huang, Lai-Ming, Jia, Xiao-Xu, Zhang, Gan-Lin, Shao, Min-An. 2017. Soil organic phosphorus transformation during ecosystem development: A review. Plant and Soil, 417: 17-42. 

[27]Rossiter, David G., Zeng, Rong, Zhang, Gan-Lin. 2017. Accounting for taxonomic distance in accuracy assessment of soil class predictions. Geoderma, 292: 118-127. 

[28]Sun, Xiao-Lin, Wang, Hui-Li, Zhao, Yu-Guo, Zhang, Chaosheng, Zhang, Gan-Lin. 2017. Digital soil mapping based on wavelet decomposed components of environmental covariates. Geoderma, 303: 118-132. 

[29]Yang, Ren-Min, Yang, Fan, Yang, Fei, Huang, Lai-Ming, Liu, Feng, Yang, Jin-Ling, Zhao, Yu-Guo, Li, De-Cheng, Zhang, Gan-Lin. 2017. Pedogenic knowledge-aided modelling of soil inorganic carbon stocks in an alpine environment. Science of the Total Environment, 599: 1445-1453. 

[30]Zeng, Rong, Rossiter, David G., Yang, Fan, Li, De-Cheng, Zhao, Yu-Guo, Zhang, Gan-Lin. 2017. How accurately can soil classes be allocated based on spectrally predicted physio-chemical properties? Geoderma, 303: 78-84. 

二．专著 

张甘霖（总主编），中国土系志，2017，2020，科学出版社