Fazal Ullah, Habib Ullah, Muhammad Ishfaq, Rahmatullah Khan, Syeda Leeda Gul, Ashrit Gulfraz, Chunwei Wang, Li Zhifang
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Overall, mycorrhization with <i>BEG 54</i> showed significantly better tomato performance when compared to the <i>BEG 55, HS 1–2</i> and <i>BEG 12</i> strains. In the case of cultivars, Better Boy performed better than Roma cultivar in terms of growth, physiological traits, yield, and fruit quality. The highest plant height, dry matter, nitrogen, phosphorus, potassium, chlorophyll a, chlorophyll b, AMF colonization, yield, fruit juice, ascorbic acid, and titratable acidity contents were recorded in Better Boy cultivar while the highest stem diameter was found in Roma cultivar. 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引用次数: 0
摘要
丛枝菌根真菌(AMF)能促进植物根系对水分和矿质养分的吸收,从而减少作物生产中的化肥投入。为了更好地了解不同菌株的丛枝菌根真菌在改善番茄形态和生理表现方面的比较效应,我们在温室条件下给两个番茄栽培品种(即 Better Boy 和 Roma)的幼苗接种了四种 Glomus mosseae 菌株(即 HS 1-2、BEG 12、BEG 55 和 BEG 54)。结果表明,番茄的生长和产量因菌根菌株和番茄栽培品种的不同而有很大差异,根系定植率从 5.30% 到 78.63% 不等。总体而言,与 BEG 55、HS 1-2 和 BEG 12 菌株相比,使用 BEG 54 菌根的番茄表现要好得多。就栽培品种而言,Better Boy 在生长、生理性状、产量和果实质量方面的表现均优于 Roma 栽培品种。Better Boy 的株高、干物质、氮、磷、钾、叶绿素 a、叶绿素 b、AMF 定殖、产量、果汁、抗坏血酸和可滴定酸度含量最高,而 Roma 的茎直径最大。综上所述,AMF 定殖是大规模番茄生产的一种有前途的方法,它能有效地吸收和利用养分,促进植物与土壤微生物的共生关系。
Genotypic variation of tomato to AMF inoculation in improving growth, nutrient uptake, yield, and photosynthetic activity
Arbuscular mycorrhizal fungi (AMF) promote water and mineral nutrients uptake by plant roots, which can reduce the chemical fertilizer inputs in crop production. To gain better insight into the comparative effect of different strains of AMF in improving tomato performance at morphological and physiological levels, seedlings of two tomato cultivars (i.e., Better Boy and Roma) were inoculated with four strains of Glomus mosseae (i.e., HS 1–2, BEG 12, BEG 55, and BEG 54) under greenhouse conditions. Results showed that tomato growth and yield varied largely depending on the mycorrhizal strain and tomato cultivar, with wide variations in root colonization ranging from 5.30 to 78.63%. Overall, mycorrhization with BEG 54 showed significantly better tomato performance when compared to the BEG 55, HS 1–2 and BEG 12 strains. In the case of cultivars, Better Boy performed better than Roma cultivar in terms of growth, physiological traits, yield, and fruit quality. The highest plant height, dry matter, nitrogen, phosphorus, potassium, chlorophyll a, chlorophyll b, AMF colonization, yield, fruit juice, ascorbic acid, and titratable acidity contents were recorded in Better Boy cultivar while the highest stem diameter was found in Roma cultivar. Taken together, AMF colonization suggested a promising approach for large-scale tomato production by efficient absorption and utilization of nutrients, and encouraging plants’ symbiotic relationships with soil microorganisms.
期刊介绍:
Since 1985, Symbiosis publishes original research that contributes to the understanding of symbiotic interactions in a wide range of associations at the molecular, cellular and organismic level. Reviews and short communications on well-known or new symbioses are welcomed as are book reviews and obituaries. This spectrum of papers aims to encourage and enhance interactions among researchers in this rapidly expanding field.
Topics of interest include nutritional interactions; mutual regulatory and morphogenetic effects; structural co-adaptations; interspecific recognition; specificity; ecological adaptations; evolutionary consequences of symbiosis; and methods used for symbiotic research.