Result for E7ACE822B86527F97ED4A49C97304DC40895116B

Query result

Key Value
FileName./usr/share/doc/libr12-1.2.1/LICENSE
FileSize1045
MD540E1F42ED05061D817074ECE873CAD50
SHA-1E7ACE822B86527F97ED4A49C97304DC40895116B
SHA-256E6CBEE2C22B2760DF622DA77101C33F61578AABEAE3DC5AD62BA861DD5191A34
SSDEEP12:q8RullIytZcqUBT18BreEl0NOtMmyHhTUsxFNATTlxg/2R2iLvNHkp4cNcGTymUr:qvll3BB0NOAHNUS/2bbCtyPOkHMlK
TLSHT1A8111F2E055187B3988049D1AE5ED0CE9317A18FA1DFA522842F971D223B8360BF28D4
hashlookup:parent-total57
hashlookup:trust100

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Parents (Total: 57)

The searched file hash is included in 57 parent files which include package known and seen by metalookup. A sample is included below:

Key Value
MD5922E6DD60D682E0522BD76DDC86B2A47
PackageArchaarch64
PackageDescriptionlibr12 computes types integrals that appear in Kutzelnigg’s linear R12 theories for electronic structure. All linear R12 methods, such as MP2-R12, contain terms in the wave function that are linear in the inter-electronic distances r_{ij} (hence the name). Appearance of several types of two-body integrals is due to the use of the approximate resolution of the identity to reduce three- and four-body integrals to products of simpler integrals.
PackageMaintainerFedora Project
PackageNamelibr12
PackageRelease2.el7
PackageVersion1.2.1
SHA-101F081043059AB064C30524E9DB7E1334E9045D8
SHA-256E67632941311BB59CC7A2C4F366A9C37D220908B58CB1CF65DBA8756FFED3944
Key Value
MD5F4966C625E274053FCC07EBAE447BE93
PackageArchi686
PackageDescriptionlibderiv computes first and second derivatives of ERIs with respect to the coordinates of the basis function origin. This type of integrals are also very common in electronic structure theory, where they appear in analytic gradient expressions. The derivatives are typically used in the calculation of forces.
PackageMaintainerFedora Project
PackageNamelibderiv
PackageRelease10.fc32
PackageVersion1.2.1
SHA-113910C792E493F18F6AEE57D4000E4727B8127F6
SHA-256067DF0F0286757AB6127E690F153DFB971BF8350CEA7A9E08807BEC5CCB0A3FE
Key Value
MD5326A8CFBE385B0BC9255557DC2748A38
PackageArchaarch64
PackageDescriptionlibr12 computes types integrals that appear in Kutzelnigg’s linear R12 theories for electronic structure. All linear R12 methods, such as MP2-R12, contain terms in the wave function that are linear in the inter-electronic distances r_{ij} (hence the name). Appearance of several types of two-body integrals is due to the use of the approximate resolution of the identity to reduce three- and four-body integrals to products of simpler integrals.
PackageMaintainerFedora Project
PackageNamelibr12
PackageRelease13.fc34
PackageVersion1.2.1
SHA-11683A2BF0139BC9A83AE99D30F504AEB19E29609
SHA-256BC166882224C720C5C4FB9208467789DC42EC1EDFE7FBE9F96BC4333088ADFC9
Key Value
MD5F8F8279BD127E3AFB79B08DA1D6902AB
PackageArchi686
PackageDescriptionlibr12 computes types integrals that appear in Kutzelnigg’s linear R12 theories for electronic structure. All linear R12 methods, such as MP2-R12, contain terms in the wave function that are linear in the inter-electronic distances r_{ij} (hence the name). Appearance of several types of two-body integrals is due to the use of the approximate resolution of the identity to reduce three- and four-body integrals to products of simpler integrals.
PackageMaintainerFedora Project
PackageNamelibr12
PackageRelease2.el6
PackageVersion1.2.1
SHA-122420D9C7377C44B7627633787B228605AF8ACBC
SHA-2565F0A85DB2BFCA2133CB2BD16CEED0A9FF8C314B5E465CC2AFED5A39AFFF7A6FB
Key Value
MD5A6F948F244A513448E2CE5D7CC039FD9
PackageArchx86_64
PackageDescriptionLIBINT computes the Coulomb and exchange integrals, which in electronic structure theory are called electron repulsion integrals (ERIs). This is by far the most common type of integrals in molecular structure theory. LIBINT uses recursive schemes that originate in seminal Obara-Saika method and Head-Gordon and Pople’s variation thereof. The idea of LIBINT is to optimize computer implementation of such methods by implementing an optimizing compiler to generate automatically highly-specialized code that runs well on super-scalar architectures.
PackageMaintainerFedora Project
PackageNamelibint
PackageRelease2.el6
PackageVersion1.2.1
SHA-125AF73C6580EFC555327D78E1ED043E5FEEAF64C
SHA-2563AAEE719BC9A42809DDFC7895760CBB3131B90463E281A59BF264880A2170A22
Key Value
MD5F343ACE3721C07002F7EA04BAB1854B5
PackageArchx86_64
PackageDescriptionlibderiv computes first and second derivatives of ERIs with respect to the coordinates of the basis function origin. This type of integrals are also very common in electronic structure theory, where they appear in analytic gradient expressions. The derivatives are typically used in the calculation of forces.
PackageMaintainerFedora Project
PackageNamelibderiv
PackageRelease10.fc32
PackageVersion1.2.1
SHA-127E9D91ADC6B1A1DD2D8B2275554FCAC4FF9DA88
SHA-2561DCDB57B3C102FF398DD2484690E1C939257A2A9FFFEDAC125534672D35E1D00
Key Value
MD5193F0D03F9FD8D9B359E4E0B502FA0B6
PackageArchaarch64
PackageDescriptionLIBINT computes the Coulomb and exchange integrals, which in electronic structure theory are called electron repulsion integrals (ERIs). This is by far the most common type of integrals in molecular structure theory. LIBINT uses recursive schemes that originate in seminal Obara-Saika method and Head-Gordon and Pople’s variation thereof. The idea of LIBINT is to optimize computer implementation of such methods by implementing an optimizing compiler to generate automatically highly-specialized code that runs well on super-scalar architectures.
PackageMaintainerFedora Project
PackageNamelibint
PackageRelease13.fc34
PackageVersion1.2.1
SHA-1288FD206E59AE1B28CA73DA033D91CF0F7264FDC
SHA-2565D5F9A88C187DE75F095CB68C994EFB2F2BA675AE124A88AE980622FB39104B7
Key Value
MD5F784B36BFB56ACA9E59CFD7DCC3E0285
PackageArchaarch64
PackageDescriptionlibderiv computes first and second derivatives of ERIs with respect to the coordinates of the basis function origin. This type of integrals are also very common in electronic structure theory, where they appear in analytic gradient expressions. The derivatives are typically used in the calculation of forces.
PackageMaintainerFedora Project
PackageNamelibderiv
PackageRelease10.fc32
PackageVersion1.2.1
SHA-12A93A19EBCD42BF6401A8AB78FA6778392F8614B
SHA-256103486B5EF7F454395840829E79C62DB1DB2DA73E2133F163C6F04047603D342
Key Value
MD5E01A6101055DEA6254982EA2E5A011AF
PackageArchi686
PackageDescriptionlibr12 computes types integrals that appear in Kutzelnigg’s linear R12 theories for electronic structure. All linear R12 methods, such as MP2-R12, contain terms in the wave function that are linear in the inter-electronic distances r_{ij} (hence the name). Appearance of several types of two-body integrals is due to the use of the approximate resolution of the identity to reduce three- and four-body integrals to products of simpler integrals.
PackageMaintainerFedora Project
PackageNamelibr12
PackageRelease13.fc34
PackageVersion1.2.1
SHA-12D47361FE8BD71EDBEF722EBEE4D610F7C97D2BF
SHA-256ED41C0EC31B9DBC313297A226A3661665CE5C8D17A51EF9AFFF3AA214BCB0F2C
Key Value
MD588A4C49827932F0692521DACBBE11E00
PackageArchppc64
PackageDescriptionlibderiv computes first and second derivatives of ERIs with respect to the coordinates of the basis function origin. This type of integrals are also very common in electronic structure theory, where they appear in analytic gradient expressions. The derivatives are typically used in the calculation of forces.
PackageMaintainerFedora Project
PackageNamelibderiv
PackageRelease2.el6
PackageVersion1.2.1
SHA-12DD3F9DD4DC2A016D5BEDC099C18E7D2529463EB
SHA-256EAAE93804DD96396C1FE548B2C3E9551287B342B5796864C92814EF2CE88D13E