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首页> 外文期刊>Planta: An International Journal of Plant Biology >ATR-FTIR spectroscopy non-destructively detects damage-induced sour rot infection in whole tomato fruit
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ATR-FTIR spectroscopy non-destructively detects damage-induced sour rot infection in whole tomato fruit

机译:ATR-FTIR光谱非破坏性地检测整个番茄果实中的伤害诱导的酸性腐烂感染

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Main conclusionATR-FTIR spectroscopy with subsequent multivariate analysis non-destructively identifies plant-pathogen interactions during disease progression, both directly and indirectly, through alterations in the spectral fingerprint.Plant-environment interactions are essential to understanding crop biology, optimizing crop use, and minimizing loss to ensure food security. Damage-induced pathogen infection of delicate fruit crops such as tomato (Solanum lycopersicum) are therefore important processes related to crop biology and modern horticulture. Fruit epidermis as a first barrier at the plant-environment interface, is specifically involved in environmental interactions and often shows substantial structural and functional changes in response to unfavourable conditions. Methods available to investigate such systems in their native form, however, are limited by often required and destructive sample preparation, or scarce amounts of molecular level information. To explore biochemical changes and evaluate diagnostic potential for damage-induced pathogen infection of cherry tomato (cv. Piccolo) both directly and indirectly, mid-infrared (MIR) spectroscopy was applied in combination with exploratory multivariate analysis. ATR-FTIR fingerprint spectra (1800-900cm(-1)) of healthy, damaged or sour rot-infected tomato fruit were acquired and distinguished using principal component analysis and linear discriminant analysis (PCA-LDA). Main biochemical constituents of healthy tomato fruit epidermis are characterized while multivariate analysis discriminated subtle biochemical changes distinguishing healthy tomato from damaged, early or late sour rot-infected tomato indirectly based solely on changes in the fruit epidermis. Sour rot causing agent Geotrichum candidum was detected directly in vivo and characterized based on spectral features distinct from tomato fruit. Diagnostic potential for indirect pathogen detection based on tomato fruit skin was evaluated using the lin
机译:主要结论,随后多变量分析的主要集光谱无损分析在疾病进展期间,直接和间接地通过光谱指纹的改变来识别疾病进展期间的植物病原体相互作用。植物环境相互作用对于了解作物生物学,优化作物使用,以及最小化至关重要损失确保粮食安全。因此,番茄(Solanum Lycopersicum)如番茄(Solanum Lycopersicum)的损伤诱导的病原体感染是与作物生物学和现代园艺有关的重要过程。果实表皮作为植物环境界面的第一屏障,专门参与环境相互作用,并且通常表现出响应不利条件的实质性结构和功能变化。然而,可用于调查其本地形式的这种系统的方法受到通常需要和破坏性样品制备的限制,或分子水平信息的稀缺量。探讨生化的变化,并评估直接和间接地,中红外线(MIR)光谱与探索性多变量分析相结合的中红外(MIR)光谱造成樱桃番茄(CV.Piccolo)损伤诱导病原体感染的诊断潜力。采用主成分分析和线性判别分析(PCA-LDA)获得和区分ATR-FTIR指纹光谱(1800-900cm(-1))的健康,受损或酸性腐烂的番茄果实。健康番茄果表皮的主要生化成分,而多元分析区分的微妙生化变化区分健康的番茄从受损,早期或晚酸性腐烂的番茄间接地基于水果表皮的变化。酸性腐烂引起药剂直接在体内检​​测到GeoTrichum Candidum,并根据与番茄果不同的光谱特征为例。使用林评估基于番茄果皮的间接病原体检测的诊断潜力

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