This paper investigates the problem of adjusting for spatial effects in genomic prediction. Despite being seldomly considered in genome-wide association studies (GWAS), spatial effects often affect phenotypic measurements of plants. We consider a Gaussian random field (GRF) model with an additive covariance structure that incorporates genotype effects, spatial effects and subpopulation effects. An empirical study shows the existence of spatial effects and heterogeneity across different subpopulation families while simulations illustrate the improvement in selecting genotypically superior plants by adjusting for spatial effects in genomic prediction
The influence of study design on the ability to detect the effects of landscape pattern on gene flow...
Genomic prediction for plants is heavily influenced by the environment. Not only do the environmenta...
The development of genomic selection (GS) methods has allowed plant breeding programs to select favo...
Modelling field spatial patterns is standard practice for the analysis of plant breeding. Jointly fi...
An increasing number of field studies have shown that the phenotype of an individual plant depends n...
Spatial data is common in ecological studies; however, one major problem with spatial data is the pr...
With the increasing availability of both molecular and topo-climatic data, the main challenges facin...
The characterization of genomes with great detail offered by the modern genotyping platforms have op...
Genomic-enabled prediction models are of paramount importance for the successful implementation of g...
This is the accepted manuscript of an article published by Springer Verlag.Understanding how landsca...
The prediction of phenotypic traits using high-density genomic data has many applications such as th...
The phenomenon of genotype × environment (G × E) interaction in plant breeding decreases selection a...
Computational models of evolutionary processes are increasingly required to incorporate multiple and...
Genomic selection has been extensively implemented in plant breeding schemes. Genomic selection inco...
Genomic selection, enabled by whole genome prediction (WGP) methods, is revolutionizing plant breedi...
The influence of study design on the ability to detect the effects of landscape pattern on gene flow...
Genomic prediction for plants is heavily influenced by the environment. Not only do the environmenta...
The development of genomic selection (GS) methods has allowed plant breeding programs to select favo...
Modelling field spatial patterns is standard practice for the analysis of plant breeding. Jointly fi...
An increasing number of field studies have shown that the phenotype of an individual plant depends n...
Spatial data is common in ecological studies; however, one major problem with spatial data is the pr...
With the increasing availability of both molecular and topo-climatic data, the main challenges facin...
The characterization of genomes with great detail offered by the modern genotyping platforms have op...
Genomic-enabled prediction models are of paramount importance for the successful implementation of g...
This is the accepted manuscript of an article published by Springer Verlag.Understanding how landsca...
The prediction of phenotypic traits using high-density genomic data has many applications such as th...
The phenomenon of genotype × environment (G × E) interaction in plant breeding decreases selection a...
Computational models of evolutionary processes are increasingly required to incorporate multiple and...
Genomic selection has been extensively implemented in plant breeding schemes. Genomic selection inco...
Genomic selection, enabled by whole genome prediction (WGP) methods, is revolutionizing plant breedi...
The influence of study design on the ability to detect the effects of landscape pattern on gene flow...
Genomic prediction for plants is heavily influenced by the environment. Not only do the environmenta...
The development of genomic selection (GS) methods has allowed plant breeding programs to select favo...