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大豆吸水过程中的短暂变化。

Transient changes during soybean imbibition.

作者信息

Parrish D J, Leopold A C

机构信息

Department of Agronomy, University of Nebraska, Lincoln, Nebraska 68583.

出版信息

Plant Physiol. 1977 Jun;59(6):1111-5. doi: 10.1104/pp.59.6.1111.

Abstract

Air dry cotyledons of soybean (Glycine max Merr. var. Wayne) imbibe water rapidly for about 10 minutes followed by a slower, linear rate of uptake. Leakage of solutes out of the coytledon likewise shows an initial rapid period, followed by a slower, nearly linear rate after 5 to 10 minutes; both the rapid and the steady rate leakage are greater for initially drier seeds. Respiratory activity of cotyledons as measured by manometric techniques becomes apparent after about 10 minutes of imbibition while polarographic studies of ground particles suggest that O(2) comsumption begins almost immediately upon wetting. Initial wetting of the seed causes the release of adsorbed gases, and a series of changes in volume of the seed-water mixture are charted. The data are interpreted as indicating that extensive physical changes occur in the first few minutes of water entry, including a rearrangement of membranes changing them from a relatively porous to a less permeable condition, and a release of adsorbed gases which cause an inflation or swelling of the seed.

摘要

大豆(Glycine max Merr. var. Wayne)的风干子叶迅速吸水约10分钟,随后吸水速率变慢,呈线性吸收。子叶中溶质的渗漏同样呈现出一个初始快速期,5到10分钟后速率变慢,近乎呈线性;对于初始较干的种子,快速和稳定速率的渗漏都更大。通过测压技术测量,子叶的呼吸活动在吸水约10分钟后变得明显,而对磨碎颗粒的极谱研究表明,种子湿润后几乎立即开始消耗氧气。种子的初始湿润导致吸附气体的释放,并记录了种子 - 水混合物体积的一系列变化。这些数据被解释为表明在水分进入的最初几分钟内发生了广泛的物理变化,包括膜的重新排列,使其从相对多孔的状态变为渗透性较低的状态,以及吸附气体的释放,这会导致种子膨胀。

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