An Improved Transformation System for Molecular Biology Research in Peach Fruit

Future Postharvest and Food Pub Date : 2026-03-26 Epub Date: 2026-01-27 DOI:10.1002/fpf2.70037
Chunhong Li, Yijia Xia, Minghua Zhou, Fei Xiang, Wancheng Huang, Xuansheng Tan, Yanyu Zou, Kaituo Wang
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Abstract

Plant genetic engineering using Agrobacterium-mediated transformation or particle bombardment has enabled targeted trait introduction into many crops. Conventional transient transformation approaches, while offering rapid gene expression, are inherently short-lived and insufficient for sustained functional studies. In this study, we establish an improved Agrobacterium tumefaciens (strain LBA4404)-mediated transformation system for peach fruit by performing three consecutive infections at three developmental stages: fruit-set, mid-growth, and 2 weeks before harvest. Compared with conventional single-time-point transient transformation—which typically yields gene expression lasting only about one week—our protocol achieves prolonged and robust transformation effects, including stable overexpression of PpSNARE13 and efficient targeted mutagenesis of PpVOZ1 and PpVOZ2 persisting for up to 32 days. This repeated transformation strategy substantially extends the effective expression window and circumvents the lengthy selection procedures required for stable transformation. It enables efficient and reliable gene function screening directly in peach fruits, thereby offering a practical tool for postharvest biology and functional genomics in woody plants. This system can be widely applied to gene function studies in peach fruits and holds significant potential for advancing postharvest quality improvement and fruit preservation.

Abstract Image

Abstract Image

桃果实分子生物学研究的改良转化体系
利用农杆菌介导的转化或粒子轰击的植物基因工程使许多作物的目标性状引入成为可能。传统的瞬时转化方法虽然提供了快速的基因表达,但本质上是短暂的,不足以进行持续的功能研究。在这项研究中,我们通过在坐果、生长中期和收获前2周三个发育阶段连续三次感染,建立了一种改良的农杆菌介导的桃果转化体系。与传统的单时间点瞬时转化(通常只产生大约一周的基因表达)相比,我们的方案实现了长时间和强大的转化效果,包括PpSNARE13的稳定过表达和PpVOZ1和PpVOZ2的有效靶向诱变,持续时间长达32天。这种重复的转换策略大大扩展了有效的表达窗口,并规避了稳定转换所需的冗长的选择过程。该方法可直接对桃果进行高效、可靠的基因功能筛选,为木本植物采后生物学和功能基因组学研究提供实用工具。该系统可广泛应用于桃果的基因功能研究,在推进桃果采后品质改良和果实保鲜方面具有重要的应用潜力。
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