Ultrastructure, CO[sub.2] Assimilation and Chlorophyll Fluorescence Kinetics in Photosynthesizing IGlycine max/I Callus and Leaf Mesophyll Tissues

The ultrastructural and functional features of photosynthesizing callus cells are poorly known. Electron microscopy studies on green, compact Glycine max calluses have shown that they are composed of photosynthesizing cells characterized by clear ultrastructural signs of senescence. Studies on chlor...

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Veröffentlicht in:Horticulturae 2023-11, Vol.9 (11)
Hauptverfasser: Lysenko, Vladimir, Kirichenko, Evgenya, Logvinov, Alexandr, Azarov, Anatoly, Rajput, Vishnu D, Chokheli, Vasiliy, Chalenko, Elizaveta, Yadronova, Olga, Varduny, Tatyana, Krasnov, Vladimir, Karaseva, Tatyana
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container_issue 11
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container_title Horticulturae
container_volume 9
creator Lysenko, Vladimir
Kirichenko, Evgenya
Logvinov, Alexandr
Azarov, Anatoly
Rajput, Vishnu D
Chokheli, Vasiliy
Chalenko, Elizaveta
Yadronova, Olga
Varduny, Tatyana
Krasnov, Vladimir
Karaseva, Tatyana
description The ultrastructural and functional features of photosynthesizing callus cells are poorly known. Electron microscopy studies on green, compact Glycine max calluses have shown that they are composed of photosynthesizing cells characterized by clear ultrastructural signs of senescence. Studies on chlorophyll fluorescence and CO[sub.2] assimilation kinetics have shown that such cells were still able to maintain photosynthesis but could not compensate for the respiratory CO[sub.2] uptake. Having a one-step CO[sub.2] assimilation kinetics, photosynthesis in calluses differed from photosynthesis in leaves, which had a two-step CO[sub.2] assimilation kinetics. In contrast to leaves, the fluorescence induction curves in G. max calluses strongly differed in shape depending on the color of actinic light (red or blue). Red (in contrast to blue) light excitation did not lead to CO[sub.2] assimilation in the calluses, thus suggesting anoxygenic photosynthesis in this case. In particular, the data obtained indicate that the actinic light spectrum should be considered when cultivating calluses for micropropagation of plants and for callus tissue research.
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source DOAJ Directory of Open Access Journals; MDPI - Multidisciplinary Digital Publishing Institute; EZB-FREE-00999 freely available EZB journals
subjects Carbon sequestration
Chlorophyll
Environmental aspects
Methods
Optical properties
Physiological aspects
Soybean
title Ultrastructure, CO[sub.2] Assimilation and Chlorophyll Fluorescence Kinetics in Photosynthesizing IGlycine max/I Callus and Leaf Mesophyll Tissues
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