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Predicting the Responses of Functional Leaf Traits to Global Warming: An IIn Situ/I Temperature Manipulation Design Using IIris pumila/I L

Phenotypic plasticity is widely acknowledged as one of the most common solutions for coping with novel environmental conditions following climate change. However, it is less known whether the current amounts of trait plasticity, which is sufficient for matching with the contemporary climate, will be...

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Published in:Plants (Basel) 2023-08, Vol.12 (17)
Main Authors: Jovanovic, Sanja Manitasevic, Hocevar, Katarina, Vuleta, Ana, Tucic, Branka
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creator Jovanovic, Sanja Manitasevic
Hocevar, Katarina
Vuleta, Ana
Tucic, Branka
description Phenotypic plasticity is widely acknowledged as one of the most common solutions for coping with novel environmental conditions following climate change. However, it is less known whether the current amounts of trait plasticity, which is sufficient for matching with the contemporary climate, will be adequate when global temperatures exceed historical levels. We addressed this issue by exploring the responses of functional and structural leaf traits in Iris pumila clonal individuals to experimentally increased temperatures (~1.5 °C) using an open top chamber (OTC) design. We determined the phenotypic values of the specific leaf area, leaf dry matter content, specific leaf water content, and leaf thickness in the leaves sampled from the same clone inside and outside of the OTC deployed on it, over seasons and years within two natural populations. We analyzed the data using a repeated multivariate analysis of variance, which primarily focusses on the profiles (reaction norms (RNs)) of a variable gathered from the same individual at several different time points. We found that the mean RNs of all analyzed traits were parallel regardless of experienced temperatures, but differed in the level and the shape. The populations RNs were similar as well. As the amount of plasticity in the analyzed leaf trait was adequate for coping with elevated temperatures inside the OTCs, we predict that it will be also sufficient for responding to increased temperatures if they exceed the 1.5 °C target.
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source Open Access: PubMed Central; Publicly Available Content Database
subjects Air pollution
Analysis
Environmental aspects
Global warming
Iris (Plant)
Leaves
Nonprescription drugs
Physiological aspects
title Predicting the Responses of Functional Leaf Traits to Global Warming: An IIn Situ/I Temperature Manipulation Design Using IIris pumila/I L
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