Phenotype-independent approach |
Genome scan |
Standard population genetics statistics and kNN-based scans |
popGenome |
Pfeifer et al., 2014 |
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PCA-based scans for selection |
pcadapt |
Privé et al., 2020 |
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Composite test for selective sweeps |
RAiSD |
Alachiotis and Pavlidis, 2018 |
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Supervised machine learning |
diploS/HIC |
Kern and Schrider, 2018 |
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Convolutional neural network |
ImaGene |
Torada et al., 2019 |
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Genome–environment association |
Fst-based genome scan |
BayeScEnv |
De Villemereuil and Gaggiotti, 2015 |
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Latent factor mixed models |
LFMM2 |
Caye et al., 2019 |
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Bayesian framework for allele frequencies—environment correlation |
Bayenv2 |
Günther and Coop, 2013 |
Phenotype-dependent approach |
QTL mapping |
Different models to map QTLS, implemented in R |
R/qtl |
Broman et al., 2003 |
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QTL mapping tool in polyploids |
GWASploy |
Rosyara et al., 2016 |
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Pooled data, univariate and multivariate QTL mapping |
MultiQTL |
MultiQTL Ltd., www.multiQTL.com
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Genome-wide association studies |
Not requiring a reference genome |
KmerGWAS |
Voichek and Weigel, 2020 |
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GAPIT |
GAPIT |
Tang et al., 2016 |
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Univariate, multivariate, and sparse Bayesian linear mixed models |
GEMMA |
Zhou and Stephens, 2014 |
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Expression analysis |
Now include a full pipeline to analyze RNA-Seq data |
RSEM |
Original paper: Li and Dewey, 2011
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Web-based tool to integrate results of different expression analysis packages |
IDEAMEX |
Jiménez-Jacinto et al., 2019 |