Litcius/Paper detail

Small-sized starch nanoparticles for efficient penetration of plant cells

Yongxian Chen, Simin Jiang, Yang Wang, Fuxue Zhang, Liu Wang, Zhao Li, Siyu Liu, Junjun Tan, Staffan Persson, Bo Sun, Junsheng Chen, Andreas Blennow

2024Chemical Communications23 citationsDOI

Abstract

roots within a short time (30 min), showing nearly 10-fold higher fluorescence intensity compared to the free fluorescent dye. Additionally, the fluorescence quantum yield of NB@G50-NPs increases from 9% (for free dye) to 14%, and the particles show high stability across a broad pH range (3-10). This pH stability covers the entire pH range found in plant tissues. Our findings suggest that sNPs offer significant advantages for live cell imaging in plants and provide a foundation for future applications of sNPs in plant nanotechnology, including nanofertilizers, nanopesticides, and plant genetic engineering.

Topics & Concepts

Penetration (warfare)StarchNanoparticleChemical engineeringNanotechnologyChemistryMaterials scienceFood scienceMathematicsEngineeringOperations researchPlant tissue culture and regenerationPolysaccharides and Plant Cell WallsAdvanced Cellulose Research Studies