Department of Environmental Biology, Research School of Biological Sciences, Australian National University, P.O. Box 475, 2601, Canberra City, ACT, Australia.
Planta. 1980 Jun;149(1):78-90. doi: 10.1007/BF00386231.
Various aspects of the biochemistry of photosynthetic carbon assimilation in C3 plants are integrated into a form compatible with studies of gas exchange in leaves. These aspects include the kinetic properties of ribulose bisphosphate carboxylase-oxygenase; the requirements of the photosynthetic carbon reduction and photorespiratory carbon oxidation cycles for reduced pyridine nucleotides; the dependence of electron transport on photon flux and the presence of a temperature dependent upper limit to electron transport. The measurements of gas exchange with which the model outputs may be compared include those of the temperature and partial pressure of CO2(p(CO2)) dependencies of quantum yield, the variation of compensation point with temperature and partial pressure of O2(p(O2)), the dependence of net CO2 assimilation rate on p(CO2) and irradiance, and the influence of p(CO2) and irradiance on the temperature dependence of assimilation rate.
将 C3 植物光合作用碳同化的生物化学的各个方面整合为一种与叶片气体交换研究兼容的形式。这些方面包括核酮糖二磷酸羧化酶-加氧酶的动力学特性;光合作用碳还原和光呼吸碳氧化循环对还原吡啶核苷酸的要求;电子传递对光通量的依赖性以及电子传递存在温度相关的上限。可以与模型输出进行比较的气体交换测量包括量子产率的温度和二氧化碳分压(p(CO2))依赖性、补偿点随温度和氧气分压(p(O2))的变化、净二氧化碳同化率对 p(CO2)和辐照度的依赖性,以及 p(CO2)和辐照度对同化率温度依赖性的影响。