龙舌兰basilaris 的干旱适应：通过景天酸代谢回收碳的意义。
Drought Adaptation in Opuntia basilaris: Significance of Recycling Carbon through Crassulacean Acid Metabolism.
机构信息
Department of Biology and the Philip L. Boyd Deep Canyon Desert Research Center, University of California, Riverside, California 92502.
出版信息
Plant Physiol. 1973 Dec;52(6):539-41. doi: 10.1104/pp.52.6.539.
Abstract
Contrasting metabolic regimes operate in Opuntia basilaris Engelm. and Bigelov, before and after precipitation. During periods of drought, atmospheric CO(2) exchange and transpiration are greatly reduced throughout the day/night cycle by stomatal closure and a highly impervious cuticle. The hypothesis is that endogenously produced CO(2) is retained and recycled through dark CO(2) fixation, organic acid transformations, photosynthesis, and respiration. Immediately following precipitation, nighttime stomatal opening is initiated, permitting increased atmospheric CO(2) assimilation and organic acid synthesis.
摘要
在降雨前后，恩格勒氏仙人球和大花仙人球的代谢模式截然不同。在干旱时期，通过关闭气孔和形成高度不透水的角质层，全天/夜间的大气 CO(2) 交换和蒸腾作用大大减少。假设是内生产生的 CO(2) 通过暗 CO(2) 固定、有机酸转化、光合作用和呼吸作用被保留和再循环。降雨后立即开始夜间气孔开放，允许增加大气 CO(2) 同化和有机酸合成。
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2
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3
STUDIES IN THE METABOLISM OF CRASSULACEAN PLANTS: DIURNAL VARIATION OF ORGANIC ACIDS AND STARCH IN EXCISED LEAVES OF BRYOPHYLLUM CALYCINUM.
Plant Physiol. 1949 Oct;24(4):610-20. doi: 10.1104/pp.24.4.610.
4
DIURNAL CHANGES AND GROWTH RATES AS ASSOCIATED WITH ASCORBIC ACID, TITRATABLE ACIDITY, CARBOHYDRATE AND NITROGENOUS FRACTIONS IN THE LEAVES OF ANANAS COMOSUS (L.) MERR.
Plant Physiol. 1948 Jan;23(1):38-69. doi: 10.1104/pp.23.1.38.
5
Separation and detection of organic acids on silica gel.
Anal Biochem. 1965 Sep;12(3):571-8. doi: 10.1016/0003-2697(65)90224-1.
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