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ACS Applied Nano Materials · 2025 · IF 5.5

Designing Veratramine Nanopesticide with Strong Adhesion Performance and Plant Uptake for Efficient Control toward Multiple Target Pests

Jingyi Chen,Yuankang Guo,Yajie He,Meizhen Yin,Xiangge Du,Jixing Xia,Jie Shen,Min Dong,Shuo Yan

Botanical pesticides are promising alternatives for sustainable pest management due to their environmental compatibility, biodegradability, and multitarget mechanisms that help delay pest resistance. Unfortunately, most botanical pesticides face challenges such as limited water solubility and poor foliar adhesion, thereby limiting their large-scale field application. Herein, the star polycation (SPc) nanocarrier and X-100 surfactant were introduced to successfully develop an efficient nanodelivery platform for veratramine (VAM). The SPc could spontaneously assemble with VAM via a hydrogen bond and van der Waals force, and the integration of Triton X-100 stabilized the nanoscale size (84 nm) to prepare a VAM nanopesticide. Interestingly, this optimized system reduced the contact angle and increased the retention of VAM on plant leaves while remarkably facilitating its systemic transport through roots and leaves. Compared to commercial VAM, the VAM nanopesticide showed stronger contact and stomach toxicity against multiple pest species such as aphids, thrips, and mites, which exhibited fast-acting properties in the field with high control efficacy even at 7 d after the spraying. Subsequently, the RNA-seq and biological experiments demonstrated that the application of VAM nanopesticide influenced various pathways in aphids, inducing starch and sucrose metabolism, protein digestion and absorption, etc., with inhibitory effects on the biosynthesis of trehalose and protein. Importantly, the application of the VAM nanopesticide did not adversely influence the predatory lady beetles or cowpea seedlings, confirming its safety in actual applications. Overall, our work addressed the formulation instability and environmental loss of VAM while ensuring its ecological safety, which offered a scalable nanoplatform to optimize botanical pesticides for enhanced efficacy and minimized ecological risks.

CAS / MDL: 60-70-8
研究领域: 农学 · 纳米技术 · 昆虫学 · 植物保护 · 环境毒理学 · 生物信息学
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MACROMOLECULAR CHEMISTRY AND PHYSICS · 2015 ·Vol. 216 ·期 14 ·1507-1515 · IF 2.616

Development of Supramolecular Pseudo-Block Conjugates Based on Star-Shaped Polycation for DNA Delivery

Yunna Kong,Wenyu Li,Qianying Mao,Youxiang Wang

Supramolecular assembly provides a new strategy for designing various gene carriers for deoxyribonucleic acid (DNA) delivery. In this work, supramolecular pseudo-block conjugates based on star-shaped polycation are developed as novel nonviral gene vector. First, cyclodextrin (CD) is selected as core and grafted with low molecular weight polyethylenimine (PEI 1800 ) as arms to obtain high molecular weight star-shaped polycation CD-PEI 8 (SCP). Then, azobenzene (Az) modified poly(ethylene glycol) is synthesized and named as azobenzene modified poly(ethylene glycol) (Az-PEG). Subsequently, the supramolecular pseudo-block conjugates are prepared via host–guest interaction between CD and Az. The result suggests that SCP/Az-PEG condenses DNA into spherical nanoparticles with sizes of around 150 nm. The in vitro experiment shows that the cell viability of DNA/SCP/Az-PEG polyplexes is significantly improved compared with that of PEI 25k /DNA polyplexes. The PEGylation does not decrease the cellular uptake efficiency and transfection efficiency. Furthermore, the cellular trafficking shows that PEGylation does not significantly influence nuclear entry. The star-shaped architecture of polycation plays an important role in gene delivery.

研究领域: 生物医学工程 · 分子生物学 · 药剂学 · 基因治疗
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