[1]Cloning and characterization of a novel CBL-interacting protein kinase from maize. Zheng, Jun,Wang, Guoying,Zheng, Jun,Wang, Guoying,Zhao, Jinfeng,Zhao, Jinfeng,Sun, Zhenfei,Guo, Xiying,Dong, Zhigang,Huai, Junling,Gou, Mingyue,He, Junguang,Jin, Yongsheng,Wang, Jianhua,Zhao, Jinfeng,Sun, Zhenfei,Guo, Xiying,Dong, Zhigang,Huai, Junling,Gou, Mingyue,He, Junguang,Jin, Yongsheng,Wang, Jianhua.

[2]ZmCIPK21, A Maize CBL-Interacting Kinase, Enhances Salt Stress Tolerance in Arabidopsis thaliana. Chen, Xunji,Zhang, Fan,Wang, Bo,Wang, Jianhua,Chen, Xunji,Zhang, Fan,Wang, Bo,Zheng, Jun,Chen, Xunji,Huang, Quansheng. 2014

[3]Molecular characterization of GmNHX2, a Na+/H+ antiporter gene homolog from soybean, and its heterologous expression to improve salt tolerance in Arabidopsis. Zhou GuoAn,Guan RongXia,Li YingHui,Chang RuZhen,Qiu LiJuan. 2009

[4]Overexpression of a putative maize calcineurin B-like protein in Arabidopsis confers salt tolerance. Wang, Maoyan,Gu, Dan,Liu, Tingsong,Wang, Zhaoqiang,Guo, Xiying,Hou, Wei,Bai, Yunfeng,Chen, Xiaoping,Wang, Guoying.

[5]Salt gradient-driven adaptation in okra: uncovering mechanisms of tolerance and growth regulation. Xi Yang,Jiuxing He,Lifeng Xu,Meng Kong,Qiuyan Huo,Jiqing Song,Wei Han,Guohua Lv. 2025

[6]植物中CBL-CIPK途径转导特异Ca~(2+)信号的分子机制. 张成伟,王天宇,黎裕. 2010

[7]植物CBL基因家族的研究进展. 董连红,史素娟,S M Nuruzzaman Manik,苏玉龙,刘朝科,冯祥国,胡晓明,王倩,刘好宝. 2015

[8]水稻OsCIPK10基因的克隆和功能分析. 章俊丽,杨鵾,张玉满,颜永胜,赵志强,方荣祥,孙宗修,傅亚萍,陈晓英. 2009

[9]玉米ZmCBL5基因的克隆及功能分析. 淮俊玲,王国英,郑军. 2011

[10]玉米ZmCIPK24-2基因在盐胁迫应答中的功能研究. 李健,王逸茹,张凌霄,孙明昊,秦阳,郑军. 2020

[11]Mechanisms and Physiological Roles of the CBL-CIPK Networking System in Arabidopsis thaliana. Mao, Jingjing,Manik, S. M. Nuruzzaman,Shi, Sujuan,Chao, Jiangtao,Wang, Qian,Liu, Haobao,Shi, Sujuan,Jin, Yirong. 2016

[12]Ghcipk6Aincreases Salt Tolerance In Transgenic Upland Cotton By Involving In Ros Scavenging And Mapk Signaling Pathways. Su, Y, Guo, AH, Huang, Y, Wang, YM, Hua, JP. 2020

[13]Expression of tomato SlTIP2;2 enhances the tolerance to salt stress in the transgenic Arabidopsis and interacts with target proteins. Xin, Shichao,Yu, Guohong,Qiang, Xiaojing,Xu, Na,Cheng, Xianguo,Sun, Linlin.

[14]Foliar Application of Melatonin Positively Affects the Physio-Biochemical Characteristics of Cotton (Gossypium hirsutum L.) under the Combined Effects of Low Temperature and Salinity Stress. Yuanyuan Fu,Lang Xin,Abdoul Kader Mounkaila Hamani,Weihao Sun,Hongbo Wang,Abubakar Sunusi Amin,Xingpeng Wang,Anzhen Qin,Yang Gao. 2023

[15]TaPUB15 , a U‐Box E3 ubiquitin ligase gene from wheat, enhances salt tolerance in rice. 李巧茹,,李波,,王景一,,昌小平,,毛新国,,景蕊莲. 2020

[16]Exogenous melatonin application improves resistance to high manganese stress through regulating reactive oxygen species scavenging and ion homeostasis in tobacco. Gao, Hongsheng,Huang, Lunzeng,Gong, Zijian,Wang, Xueting,Qiao, Xuqiang,Xiao, Fang,Yang, Yuting,Yu, Bohui,Guo, Xiaotong,Yu, Chunyan,Zhang, Hongxia. 2022

[17]Nitrogen supply affects ion homeostasis by modifying root Casparian strip formation through the miR528-LAC3 module in maize. Guo, Yu,Wang, Yafei,Chen, Huan,Du, Qingguo,Wang, Zhonghua,Gong, Xiaoping,Sun, Qing,Li, Wen-Xue. 2023

[18]Bacillus amyloliquefaciens strain Q1 inoculation enhances salt tolerance of barley seedlings by maintaining the photosynthetic capacity and intracellular Na+/K+ homeostasis. Liu, Hongjiang,Amoanimaa-Dede, Hanna,Zhang, Yanli,Wu, Xiaojian,Deng, Fenglin,Qin, Yuan,Qiu, Haiping,Ouyang, Younan,Wang, Yanli,Zeng, Fanrong. 2024

[19]Energy metabolism, antioxidant defense system, metal transport, and ion homeostasis are key contributors to Cd tolerance in SSSL derived from wild rice. Humera Ashraf,Fozia Ghouri,Lixia Sun,Weiwei Xia,Sawaira Ashraf,Muhammad Zahid Ashraf,Xuelin Fu,Shafaqat Ali,Muhammad Qasim Shahid. 2024

[20]Root-centered sodium sequestration and transcriptomic regulation under salt and alkali stress in wild soybean (Glycine soja). Wang, Meng,Qu, Yingyu,Lu, Xueli,Gillani, Syeda Wajeeha,Song, Yiru,Bai, Yu,Li, Yiqiang,Zhang, Chengsheng,Xu, Zongchang,Meng, Chen. 2025