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Redox State of Photosynthetic Ferredoxin Under Heat and Light Stress
Abstract
Using the method of differential absorption photometry, the kinetics of oxidation/reduction of P700, plastocyanin (PC) and ferredoxin (Fd) in the first leaves of barley seedlings under exposure to high-intensity light (2.000 μmol quanta m–2 s–1, 30 min) and elevated temperature (40 °C, 3 h) were studied. Exposure to high-intensity light increased the accumulation of the primary oxidizer P700+, oxidized PC and reduced Fd. Under the same conditions, the absence of reoxidation of reduced Fd under red and far-red light was noted. In barley seedlings exposed to elevated temperatures, there was an increased accumulation of P700+, oxidized PC and reduced Fd, as well as accelerated reoxidation of leaf Fd under red light and no accumulation of oxidized Fd under far-red light. It was concluded that the photoindependent electron flow through Fd under light stress and alternative electron flows with the participation of the plastoquinone pool under heat stress were activated.
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Review
For citations:
Pshybytko N.L. Redox State of Photosynthetic Ferredoxin Under Heat and Light Stress. Zhurnal Prikladnoii Spektroskopii. 2024;91(2):264-272. (In Russ.)
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