Data fusion for a multi-scale model of a wheat leaf surface: a unifying approach using a radial basis function partition of unity method
Riley M. Whebell, Timothy J. Moroney, Ian W. Turner, Ravindra, Pethiyagoda, Marie-Luise Wille, Justin J. Cooper-White, Arvind Kumar, and Philip Taylor, Scott W. McCue

TL;DR
This paper presents a novel multi-scale modeling approach for wheat leaf surfaces using radial basis function partition of unity, enabling detailed microstructure capture without large data requirements.
Contribution
It introduces a unifying RBFPU surface reconstruction method that combines micro-CT and laser scans for multi-scale leaf modeling.
Findings
Successfully captures microstructures on wheat leaves
Enables multi-scale surface modeling with limited data
Facilitates fluid dynamics simulations of droplets
Abstract
Realistic digital models of plant leaves are crucial to fluid dynamics simulations of droplets for optimising agrochemical spray technologies. The presence and nature of small features (on the order of 100) such as ridges and hairs on the surface have been shown to significantly affect the droplet evaporation, and thus the leaf's potential uptake of active ingredients. We show that these microstructures can be captured by implicit radial basis function partition of unity (RBFPU) surface reconstructions from micro-CT scan datasets. However, scanning a whole leaf () at micron resolutions is infeasible due to both extremely large data storage requirements and scanner time constraints. Instead, we micro-CT scan only a small segment of a wheat leaf (). We fit a RBFPU implicit surface to this segment, and an explicit RBFPU surface to a lower…
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Taxonomy
TopicsPlant Surface Properties and Treatments · Plant Water Relations and Carbon Dynamics · Horticultural and Viticultural Research
