生物
功能基因组学
表观遗传学
转化(遗传学)
计算生物学
质粒
基因组编辑
生物技术
基因组DNA
基因组
核酸
基因组学
瓶颈
基因
遗传学
DNA甲基化
计算机科学
基因表达
嵌入式系统
作者
Linwei She,Xuejiao Cheng,Peng Jiang,Simin Shen,Fangxiu Dai,Yonghang Run,Mengting Zhu,Masomeh Tavakoli,Xueming Yang,Xiue Wang,Jin Xiao,Caiyan Chen,Zhenhui Kang,Jian Huang,Wenli Zhang
摘要
Summary Genotype restriction poses a significant bottleneck to stable transformation in the vast majority of plant species, thereby severely impeding advancement in plant bioengineering, particularly for crops. Nanoparticles (NPs) can serve as effective carriers for the transient delivery of nucleic acids, facilitating gene overexpression or silencing in plants in a genotype‐independent manner. However, the applications of NP‐mediated transient systems in comprehensive genomic studies remained underexplored in plants, especially in crops that face challenges in genetic transformation. Consequently, there is an urgent need for efficient NP‐mediated delivery systems capable of generating whole plants or seedlings with uniformly transformed nucleic acids. We have developed a straightforward and efficient modified carbon dot (MCD)‐mediated transient transformation system for delivering DNA plasmids into the seeds of wheat, which is also applicable to other plant species. This system facilitates the generation of whole seedlings that contain the transferred DNA plasmids. Furthermore, our study demonstrates that this system serves as an excellent platform for conducting functional genomic studies in wheat, including the validation of gene functions, protein interactions and regulation, omics studies, and genome editing. This advancement significantly enhances functional genomic research for any plants or crops that face challenges in stable transformation. Thus, our study provides for the first time evidence of new applications for MCDs in functional genomics and epigenomic studies, and bioengineering potentially leading to the improvement of desirable agronomic traits in crops.
科研通智能强力驱动
Strongly Powered by AbleSci AI