Leaf venation network architecture coordinates functional trade‐offs across vein spatial scales: evidence for multiple alternative designs

Author:

Matos Ilaine Silveira12ORCID,Boakye Mickey1ORCID,Niewiadomski Izzi1ORCID,Antonio Monica1ORCID,Carlos Sonoma1,Johnson Breanna Carrillo1,Chu Ashley1ORCID,Echevarria Andrea1,Fontao Adrian1,Garcia Lisa3,Kalantar Diana1ORCID,Madhavan Srinivasan1,Mann Joseph1ORCID,McDonough Samantha1,Rohde James1,Scudder Meg1ORCID,Sharma Satvik1,To Jason1,Tomaka Connor1ORCID,Vu Bradley1,Yokota Nicole1ORCID,Forbes Holly4,Fricker Mark5ORCID,Blonder Benjamin Wong1ORCID

Affiliation:

1. Department of Environmental Science Policy and Management University of California Berkeley Berkeley CA 94720 USA

2. School of Biological Sciences The University of Adelaide Adelaide SA 5005 Australia

3. Department of Biology University of New Mexico Albuquerque NM 87131 USA

4. University of California Botanical Garden Berkeley CA 94720 USA

5. Department of Biology University of Oxford Oxford OX1 3RB UK

Abstract

Summary Variation in leaf venation network architecture may reflect trade‐offs among multiple functions including efficiency, resilience, support, cost, and resistance to drought and herbivory. However, our knowledge about architecture‐function trade‐offs is mostly based on studies examining a small number of functional axes, so we still lack a more integrative picture of multidimensional trade‐offs. Here, we measured architecture and functional traits on 122 ferns and angiosperms species to describe how trade‐offs vary across phylogenetic groups and vein spatial scales (small, medium, and large vein width) and determine whether architecture traits at each scale have independent or integrated effects on each function. We found that generalized architecture‐function trade‐offs are weak. Architecture strongly predicts leaf support and damage resistance axes but weakly predicts efficiency and resilience axes. Architecture traits at different spatial scales contribute to different functional axes, allowing plants to independently modulate different functions by varying network properties at each scale. This independence of vein architecture traits within and across spatial scales may enable evolution of multiple alternative leaf network designs with similar functioning.

Funder

National Science Foundation

Publisher

Wiley

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