第一作者论文：

1.         Zhang, S., Y.-X. Zhang, and K.-M. Ma. 2020. Fine-scale variation of a keystone interaction: aphid-tending ants show stronger anti-herbivory effects on small leaves. Arthropod-Plant Interactions 14:357-361.

2.         Zhang, S., Y. Zhang, and K. Ma. 2017a. The association of leaf lifespan and background insect herbivory at the interspecific level. Ecology 98:425-432.

3.         Zhang, S., Y. Zhang, and K. Ma. 2017b. A re-evaluation of hemispheric asymmetries in herbivory: a response to Kozlov & Klemola 2017. Journal of Ecology 105:1575-1579.

4.         Zhang, S., Y. Zhang, and K. Ma. 2016. Latitudinal variation in herbivory: hemispheric asymmetries and the role of climatic drivers. Journal of Ecology 104:1089-1095.

5.         Zhang, S., Y. Zhang, and K. Ma. 2015a. The equal effectiveness of different defensive strategies. Scientific Reports 5:13049.

6.         Zhang, S., Y. Zhang, and K. Ma. 2015b. Mixed effects of ant–aphid mutualism on plants across different spatial scales. Basic and Applied Ecology 16:452-459.

7.         Zhang, S., Y. Zhang, and K. Ma. 2015c. Mutualism with aphids affects the trophic position, abundance of ants and herbivory along an elevational gradient. Ecosphere 6:art253.

8.         Zhang, S., Y. X. Zhang, and K. M. Ma. 2013. The Ecological Effects of Ant-Aphid Mutualism on Plants at a Large Spatial Scale. Sociobiology 60:236-241.

9.         Zhang, S., Y. Zhang, and K. Ma. 2012a. Disruption of ant-aphid mutualism in canopy enhances the abundance of beetles on the forest floor. PLoS ONE 7:e35468.

10.      Zhang, S., Y. Zhang, and K. Ma. 2012b. The ecological effects of the ant–hemipteran mutualism: A meta-analysis. Basic and Applied Ecology 13:116-124.

11.      Zhang, S., Y. X. Zhang, and K. M. Ma. 2012c. Different-sized oak trees are equally protected by the aphid-tending ants. Arthropod-Plant Interactions 6:307-314.

       部分合作论文

1.         Moreira, X., L. Abdala-Roberts, A. Galmán, A. W. Bartlow, J. C. Berny-Mier y Teran, E. Carrari, F. Covelo, M. de la Fuente, S. Ferrenberg, N. M. Fyllas, Y. Hoshika, S. R. Lee, R. J. Marquis, M. Nakamura, C. S. Nell, M. B. Pesendorfer, M. A. Steele, C. Vázquez-González, S. Zhang, and S. Rasmann. 2020. Ontogenetic consistency in oak defence syndromes. Journal of Ecology, in press.

2.         He, X., E. Hou, G. F. Veen, M. D. F. Ellwood, P. Dijkstra, X. Sui, S. Zhang, D. Wen, and C. Chu. 2020. Soil microbial biomass increases along elevational gradients in the tropics and subtropics but not elsewhere. Global Ecology and Biogeography 29:345-354.

3.         Song, B., L. Sun, S. Lev-Yadun, A. T. Moles, S. Zhang, X. Jiang, Y. Gao, Q. Xu, and H. Sun. 2020. Plants are more likely to be spiny at mid-elevations in the Qinghai-Tibetan Plateau, south-western China. Journal of Biogeography 47:250-260.

4.         Galmán, A., L. Abdala-Roberts, S. Zhang, J. C. Berny-Mier y Teran, S. Rasmann, and X. Moreira. 2018. A global analysis of elevational gradients in leaf herbivory and its underlying drivers: Effects of plant growth form, leaf habit and climatic correlates. Journal of Ecology 106:413-421.

5.         Xu, G. R., Y. H. Lin, S. Zhang, Y. X. Zhang, G. X. Li, and K. M. Ma. 2017. Shifting mechanisms of elevational diversity and biomass patterns in soil invertebrates at treeline. Soil Biology & Biochemistry 113:80-88.

6.         Xu, G. R., S. Zhang, Y. H. Lin, and K. M. Ma. 2015. Context dependency of the density-body mass relationship in litter invertebrates along an elevational gradient. Soil Biology & Biochemistry 88:323-332.