Relation between drought-exposed photosynthetic apparatus and tree water deficit derived from stem diameter variations in Norway spruce seedlings
DOI:
https://doi.org/10.2478/foecol-2025-0013Keywords:
chlorophyll a fluorescence, dendrometers, photosynthesis, Picea abies, water scarcityAbstract
Ten five-year-old seedlings of Norway spruce (Picea abies L. Karst) from the Western Carpathians were subjected to drought (30 days without irrigation) in laboratory conditions (D trees). The control group (C trees) were irrigated regularly. Parameters such as stem diameter variations (SDV), soil water potential (ΨS), gas exchange and chlorophyll a fluorescence were measured. Stem growth of D trees was significantly reduced below ΨS = –0.3 MPa, and completely stopped below ΨS = –1.1 MPa. Tree water deficit (TWD, calculated from SDV) of D trees started to increase substantially below the threshold ΨS = –0.9 MPa, and closely correlated with ΨS. Photosynthetic traits of D trees reacted synchronously with TWD during drought, and recovered after rehydration. Gas exchange and most of the chlorophyll a fluorescence parameters were tightly positively related to TWD. Growth and TWD parameters, as well as those of gas exchange and most of the chlorophyll a fluorescence parameters differed against C trees during drought. Thus, the parameters derived from SDV may serve as indicators of the functionality of photosynthetic apparatus.
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