[1]Crispr Editing In Biological And B.iomedical Investigation. Huang, JJ, Wang, YF, Zhao, JG. 2018

[2]Plant base editing and prime editing: The current status and future perspectives. Li, Jingying,Zhang, Chen,He, Yubing,Li, Shaoya,Yan, Lei,Li, Yucai,Zhu, Ziwei,Xia, Lanqin. 2023

[3]The advancements, challenges, and future implications of the CRISPR/Cas9 system in swine research. Jinfu Zhang,Emmanuel M. Khazalwa,Hussein M. Abkallo,Yuan Zhou,Xiongwei Nie,Jinxue Ruan,Changzhi Zhao,Jieru Wang,Jing Xu,Xinyun Li,Shuhong Zhao,Erwei Zuo,Lucilla Steinaa,Shengsong Xie. 2021

[4]Novel Plant Breeding Techniques Shake Hands with Cereals to Increase Production. Muhammad Haroon,Xiukang Wang,Rabail Afzal,Muhammad Mubashar Zafar,Fahad Idrees,Maria Batool,Abdul Saboor Khan,Muhammad Imran. 2022

[5]A New Era in Herbicide-Tolerant Crops Development by Targeted Genome Editing. Gokul Gosavi,Bin Ren,Xiangjiu Li,Xueping Zhou,Carl Spetz,Huanbin Zhou. 2022

[6]High-Throughput Base Editing-Mediated Artificial Evolution Streamlines Trait Gene Identification in Rice. Yan F.,Yu M.,Wang M.,Zhou H.. 2023

[7]Advances in CRISPR/Cas gene therapy for inborn errors of immunity. Xinyi Liu,Guanglei Li,Yin Liu,Fuling Zhou,Xingxu Huang,Kui Li. 2023

[8]Discovery of deaminase functions by structure-based protein clustering. Jiaying Huang,Qiupeng Lin,Hongyuan Fei,Zixin He,Hu Xu,Yunjia Li,Kunli Qu,Peng Han,Qiang Gao,Boshu Li,Guanwen Liu,Lixiao Zhang,Jiacheng Hu,Rui Zhang,Erwei Zuo,Yonglun Luo,Yidong Ran,Jin Long Qiu,Kevin Tianmeng Zhao,Caixia Gao. 2023

[9]Applications and potential of genome-editing systems in rice improvement: Current and future perspectives. Javaria Tabassum,Shakeel Ahmad,Babar Hussain,Amos Musyoki Mawia,Aqib Zeb,Luo Ju. 2021

[10]SpRY greatly expands the genome editing scope in rice with highly flexible PAM recognition. Ziyan Xu,Yongjie Kuang,Bin Ren,Daqi Yan,Fang Yan,Carl Spetz,Wenxian Sun,Guirong Wang,Xueping Zhou,Huanbin Zhou. 2021

[11]SpRY greatly expands the genome editing scope in rice with highly flexible PAM recognition. Ziyan Xu,Yongjie Kuang,Bin Ren,Daqi Yan,Fang Yan,Carl Spetz,Wenxian Sun,Guirong Wang,Xueping Zhou,Huanbin Zhou. 2021

[12]CRISPR/Sc++-mediated genome editing in rice. Guigen Ma,Yongjie Kuang,Zhenwan Lu,Xueqi Li,Ziyan Xu,Bin Ren,Xueping Zhou,Huanbin Zhou. 2021

[13]Efficient C-to-G editing in rice using an optimized base editor. Tian, Yifu,Shen, Rundong,Li, Zuren,Yao, Qi,Zhang, Xuening,Zhong, Dating,Tan, Xinhang,Song, Minglei,Han, Han,Zhu, Jian-Kang,Lu, Yuming. 2022

[14]Breakthrough in CRISPR/Cas system: Current and future directions and challenges. Ali, Ahmad,Zafar, Muhammad Mubashar,Farooq, Zunaira,Ahmed, Syed Riaz,Ijaz, Aqsa,Anwar, Zunaira,Abbas, Huma,Tariq, Muhammad Sayyam,Tariq, Hala,Mustafa, Mahwish,Bajwa, Mubasher Hussain,Shaukat, Fiza,Razzaq, Abdul,Maozhi, Ren. 2023

[15]Application of Nicotinamide to Culture Medium Improves the Efficiency of Genome Editing in Hexaploid Wheat. Wang, Wanxin,Huang, Peipei,Dai, Wenshuang,Tang, Huali,Qiu, Yuliang,Chang, Yanan,Han, Zhiyang,Li, Xi,Du, Lipu,Ye, Xingguo,Zou, Cheng,Wang, Ke. 2023

[16]Base Editing of EUI1 Improves the Elongation of the Uppermost Internode in Two-Line Male Sterile Rice Lines. Yakun Wang,Shengjia Tang,Naihui Guo,Ruihu An,Zongliang Ren,Shikai Hu,Xiangjin Wei,Guiai Jiao,Lihong Xie,Ling Wang,Ying Chen,Fengli Zhao,Peisong Hu,Zhonghua Sheng,Shaoqing Tang. 2023

[17]Developing glycosylase-based T-to-G and C-to-K base editors in rice. Kuang, Yongjie,Wu, Xuemei,Liu, Meijie,Yan, Fang,Ma, Dongfang,Zhou, Xueping,Zhou, Huanbin,Ren, Bin. 2025

[18]Coupling of both a transactivation module and a double-stranded DNA-binding domain boosts Cas12i3 variant-based cytosine and adenine editing in plants. Zhang, Chen,Li, Jingying,Li, Yucai,Yan, Lei,Yong, Christina Seok Yien,Li, Shaoya,He, Yubing,Xia, Lanqin. 2026

[19]Advances and Applications of Plant Base Editing Technologies. Peng, Hao,Li, Jiajun,Sun, Kehui,Tang, Huali,Huang, Weihong,Li, Xi,Wang, Surong,Ding, Ke,Han, Zhiyang,Li, Zhikun,Xu, Le,Wang, Ke. 2025