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Growth and Tuberization of Hydroponically Grown Potatoes

机译:水培马铃薯的生长和块茎化

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Three hydroponic systems (aeroponics, aerohydroponics, and deep-water culture) were compared for the production of potato (Solanum tuberosum) seed tubers. Aerohydroponics was designed to improve the root zone environment of aeroponics by maintaining root contact with nutrient solution in the lower part of the beds, while intermittently spraying roots in the upper part. Root vitality, shoot fresh and dry weight, and total leaf area were significantly highest when cv. Superior, a medium early-maturing cultivar, was grown in the aeroponic system. This better plant growth in the aeroponic system was accompanied by rapid changes of solution pH and EC, and early tuberization. However, with cv. Atlantic, a mid-late maturing cultivar, there were no significant differences in shoot weight and leaf area among the hydroponic systems. The first tuberization was observed in aeroponics on 26–30 and 43–53 days after transplanting for cvs Superior and Atlantic, respectively. Tuberization in aerohydroponics and deep-water culture system occurred about 3–4 and 6–8 days later, respectively. The number of tubers produced was greatest in the deep-water culture system, but the total tuber weight per plant was the least in this system. For cv. Atlantic, the number of tubers <30 g weight was higher in aerohydroponics than in aeroponics, whereas there was no difference in the number of tubers >30 g between aerohydroponics and aeroponics. For cv. Superior, there was no difference in the size distribution of tubers between the two aeroponic systems. It could be concluded that deep-water culture system could be used to produce many small tubers (1–5 g) for plant propagation. However, the reduced number of large tubers above 5 g weight in the deep-water culture system, may favor use of either aeroponics or aerohydroponics. These two systems produced a similar number of tubers in each size group for the medium-early season cv. Superior, whereas aerohydroponics produced more tubers than aeroponics for the mid-late cultivar Atlantic.
机译:比较了三种水培系统(人工,水培和深水培养)用于生产马铃薯(马铃薯)块茎。气培法旨在通过保持根与床下部营养液的接触,而间歇性地在根上部喷洒根来改善航空生物的根区环境。简历中,根部活力,枝干和干重以及叶总面积显着最高。在航空系统中生长了Superior,这是一个中等的早熟品种。在航空系统中更好的植物生长伴随着溶液pH和EC的快速变化以及早期的块茎化。但是,用简历。大西洋,一个中晚熟品种,水培系统之间的枝重和叶面积没有显着差异。分别对Superior和Atlantic移植后的26–30天和43–53天,在航空学中观察到了首次块茎化。气液培植和深水培养系统中的块茎分别发生在3-4天和6-8天后。在深水养殖系统中生产的块茎数量最大,但是在该系统中,每株植物的总块茎重量最小。对于简历。在大西洋上,气培植物的块茎<30 g数量高于航空培植,而气培植物和气培层> 30 g的块茎数量没有差异。对于简历。优越的是,两个航空系统之间的块茎大小分布没有差异。可以得出结论,深水养殖系统可用于生产许多小块茎(1-5 g)用于植物繁殖。然而,在深水养殖系统中,重量超过5克的大型块茎数量减少,可能有利于使用航空植物学或航空水培法。这两个系统在中早期cv的每个尺寸组中产生的块茎数量相似。在大西洋中后期品种中,水培法比块茎法产生的块茎要多,而空气培植法的产生率更高。

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