Result for 03B7AC1EB34B2D04DF363C6C2877403811F256AD

Query result

Key Value
FileName./usr/lib64/R/library/qtl/html/addqtl.html
FileSize6673
MD5FC7BDF443213D26DDABE5E07998CF155
SHA-103B7AC1EB34B2D04DF363C6C2877403811F256AD
SHA-2564CA9912340E6AAE023E0A3639B5E8F25EC4FBBDD464A4F22FC7232C183E5AC84
SSDEEP192:lBIoyixVHqlclpnl4JRNOUJDREdIK7z9GLyXW:PIoyg8aOvJydZ1GLyXW
TLSHT1E8D1F843E7C2036A944482DDAB49FDACB6FE42B0EBA414C43C1FE72BF5415A1426635F
hashlookup:parent-total5
hashlookup:trust75

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Parents (Total: 5)

The searched file hash is included in 5 parent files which include package known and seen by metalookup. A sample is included below:

Key Value
MD59750DF82F0E4D027717DADD269E8C88E
PackageArchppc64
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.fc22
PackageVersion1.36.6
SHA-11C0CEA23687BC14326460A77AF3D88F8C2BDE609
SHA-25687A88C4D92F5E4F30692F4BD15B168527AC40F3BD927399BE316E074D396F6CB
Key Value
MD5E2A5A43ECF84FEED28FE225C7B708963
PackageArchppc64le
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.fc22
PackageVersion1.36.6
SHA-13EDC80508691A877637BDF1132F5B379DCD1268E
SHA-256018DCC308D3C372F43464E22D00ADAF2DB425B8F116745B419E54EAD2B6BAF0A
Key Value
MD560AC3E387267984135BF4800A5AABF7D
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.fc22
PackageVersion1.36.6
SHA-1693E788EE056EE9AC13A3E4372FAE4F2200238C4
SHA-256741EC4F306B6E179FAC5CF7341625AAB857FFFA616ED6D8E782D65C603EFB9B6
Key Value
MD5836D1AF0BEF1C97B58A2BA5DFB707F39
PackageArchs390
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.fc22
PackageVersion1.36.6
SHA-13D48627A31F41CFE34E79A75D112353D19EEA6E8
SHA-25644E717E2D55EA8B122C1F3D9741E5D4601D38E8BEA7C4FC563CBEE143E2CD88A
Key Value
MD56E3CEF82264DC24946BEEB23CA710B6D
PackageArchs390x
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.fc22
PackageVersion1.36.6
SHA-179460C900B6A8FE78D24943B7B84AB1F7D77BD88
SHA-2560D11C606B01D523043C64F3A88894FD331AF0992FB2750594D1EBE11145BE290