Result for 05C39F286FB139831D83F0DB5A49728F9D1B2340

Query result

Key Value
FileName./usr/lib64/R/library/qtl/html/badorder.html
FileSize1875
MD5D5E0E2A1FFBB69103D53D7B34284DF3C
SHA-105C39F286FB139831D83F0DB5A49728F9D1B2340
SHA-2564F9C3979C3C02853103FBF9CAE4713BD0F044858FEB3D945BAD1322AE8B50E9F
SSDEEP48:lmIbYJpmpeeUnY6FYNANW65zzR2cbWHOiEzhf3d36zL:1bpeeUnJCNoW65zNMEBdm
TLSHT15A316385F4C70BD6829AF3BDA4536F287F5DD362A74C04C03C96A22DC892665D22DB4F
hashlookup:parent-total4
hashlookup:trust70

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Parents (Total: 4)

The searched file hash is included in 4 parent files which include package known and seen by metalookup. A sample is included below:

Key Value
MD54315C3C736B523E162A885B59678B1B1
PackageArcharmv7hl
PackageDescriptionR-qtl is an extensible, interactive environment for mapping quantitative trait loci (QTLs) in experimental crosses. Our goal is to make complex QTL mapping methods widely accessible and allow users to focus on modeling rather than computing. A key component of computational methods for QTL mapping is the hidden Markov model (HMM) technology for dealing with missing genotype data. We have implemented the main HMM algorithms, with allowance for the presence of genotyping errors, for backcrosses, intercrosses, and phase-known four-way crosses. The current version of R-qtl includes facilities for estimating genetic maps, identifying genotyping errors, and performing single-QTL genome scans and two-QTL, two-dimensional genome scans, by interval mapping (with the EM algorithm), Haley-Knott regression, and multiple imputation. All of this may be done in the presence of covariates (such as sex, age or treatment). One may also fit higher-order QTL models by multiple imputation and Haley-Knott regression.
PackageMaintainerFedora Project
PackageNameR-qtl
PackageRelease1.fc34
PackageVersion1.48.1
SHA-149CF0EB687C7C50AF90520C3F408E80A6664FF6E
SHA-25620C249291F36AECD15A5878EA108CBB3BB7984F3AEB251F0EACCC5F337C9DD09
Key Value
MD53E49B3E900DD736D8DE8591D568A67F0
PackageArchx86_64
PackageDescriptionR-qtl is an extensible, interactive environment for mapping quantitative trait loci (QTLs) in experimental crosses. Our goal is to make complex QTL mapping methods widely accessible and allow users to focus on modeling rather than computing. A key component of computational methods for QTL mapping is the hidden Markov model (HMM) technology for dealing with missing genotype data. We have implemented the main HMM algorithms, with allowance for the presence of genotyping errors, for backcrosses, intercrosses, and phase-known four-way crosses. The current version of R-qtl includes facilities for estimating genetic maps, identifying genotyping errors, and performing single-QTL genome scans and two-QTL, two-dimensional genome scans, by interval mapping (with the EM algorithm), Haley-Knott regression, and multiple imputation. All of this may be done in the presence of covariates (such as sex, age or treatment). One may also fit higher-order QTL models by multiple imputation and Haley-Knott regression.
PackageMaintainerFedora Project
PackageNameR-qtl
PackageRelease1.el7
PackageVersion1.48.1
SHA-1D2A328A00966DE3E2A0E28D10D07372F83399C3C
SHA-25692F03E6F97118AB19CD612CB4805246A56FF6F8646E0768B09DD8FF1DE841980
Key Value
MD57F0EAE861B694463414031C1E3A0D919
PackageArchx86_64
PackageDescriptionR-qtl is an extensible, interactive environment for mapping quantitative trait loci (QTLs) in experimental crosses. Our goal is to make complex QTL mapping methods widely accessible and allow users to focus on modeling rather than computing. A key component of computational methods for QTL mapping is the hidden Markov model (HMM) technology for dealing with missing genotype data. We have implemented the main HMM algorithms, with allowance for the presence of genotyping errors, for backcrosses, intercrosses, and phase-known four-way crosses. The current version of R-qtl includes facilities for estimating genetic maps, identifying genotyping errors, and performing single-QTL genome scans and two-QTL, two-dimensional genome scans, by interval mapping (with the EM algorithm), Haley-Knott regression, and multiple imputation. All of this may be done in the presence of covariates (such as sex, age or treatment). One may also fit higher-order QTL models by multiple imputation and Haley-Knott regression.
PackageMaintainerFedora Project
PackageNameR-qtl
PackageRelease1.fc34
PackageVersion1.48.1
SHA-104395CD09440B0BCCC7F0934EDFD8791E3FC2B2D
SHA-2565BBDAF293CDA5CF7AEA02B07FDD7B8D7059477AC542276CE0AAA5C25163AE21B
Key Value
MD5D143D061B328F388FA64F4A71102CD8E
PackageArchaarch64
PackageDescriptionR-qtl is an extensible, interactive environment for mapping quantitative trait loci (QTLs) in experimental crosses. Our goal is to make complex QTL mapping methods widely accessible and allow users to focus on modeling rather than computing. A key component of computational methods for QTL mapping is the hidden Markov model (HMM) technology for dealing with missing genotype data. We have implemented the main HMM algorithms, with allowance for the presence of genotyping errors, for backcrosses, intercrosses, and phase-known four-way crosses. The current version of R-qtl includes facilities for estimating genetic maps, identifying genotyping errors, and performing single-QTL genome scans and two-QTL, two-dimensional genome scans, by interval mapping (with the EM algorithm), Haley-Knott regression, and multiple imputation. All of this may be done in the presence of covariates (such as sex, age or treatment). One may also fit higher-order QTL models by multiple imputation and Haley-Knott regression.
PackageMaintainerFedora Project
PackageNameR-qtl
PackageRelease1.fc34
PackageVersion1.48.1
SHA-1CD86FA1ECBA2F922737928887161D68BE5DF6339
SHA-256116D313AF99EB7BD63482AED49C393E8A2DAD04C18275BA138F981F1FF41DD70