Computational Models
Measuring the hidden phenotype using novel mathematical techniques
A new study quantifies the shape of barley seeds using topological methods.
Writer
Rachel (she/her) is a Founding and Managing Editor of in silico Plants. She has a Master’s Degree in Plant Biology from the University of Illinois. She has over 15 years of academic journal editorial
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Computational Models
A new study quantifies the shape of barley seeds using topological methods.
Rachel Shekar ·
Computational Models
Un nuevo estudio cuantifica la forma de las semillas de cebada utilizando métodos topológicos.
Rachel Shekar ·
Cells, Genes & Molecules
Integrating plant functioning at organ scale can simulate the phenotypic plasticity of plants.
Rachel Shekar ·
Computational Models
A new study compares the accuracy of carbohydrate allocation and transport models for grapevine.
Rachel Shekar ·
Computational Models
Researchers compare trade-offs between simplicity and accuracy when modelling greenhouse cucumber canopies.
Rachel Shekar ·
Cells, Genes & Molecules
Polar auxin transport dynamics control vein patterning.
Rachel Shekar ·
Computational Models
A new algorithm supports the detailed reconstruction of a variety of trees from a small amount of input data.
Rachel Shekar ·
Computational Models
A new perennial fruit crop accurately depicts phenology, light interception, carbohydrate allocation and reserve dynamics, and yield components.
Rachel Shekar ·
Computational Models
A new model simulates rhizodeposition patterns around growing and exuding root systems.
Rachel Shekar ·
Cells, Genes & Molecules
Recalibrating models using absolute – instead of relative – mass units makes it possible to test modelled transcription rates against biochemical data.
Rachel Shekar ·
Computational Models
Computational models simulate grapevine management and provide information on how this affects canopy light absorption.
Rachel Shekar ·
Computational Models
A new study challenges the conventional wisdom of row orientation.
Rachel Shekar ·