// // Copyright (C) 2019 Greg Landrum // // @@ All Rights Reserved @@ // This file is part of the RDKit. // The contents are covered by the terms of the BSD license // which is included in the file license.txt, found at the root // of the RDKit source tree. // #define CATCH_CONFIG_MAIN // This tells Catch to provide a main() - only do // this in one cpp file #include "catch.hpp" #include #include #include #include "MolHash.h" #include #include using namespace RDKit; TEST_CASE("Basic MolHash", "[molhash]") { SECTION("basics") { auto om = "C1CCCC(O)C1c1ccnc(OC)c1"_smiles; REQUIRE(om); { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::AnonymousGraph); CHECK(hsh == "***1****(*2*****2*)*1"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::ElementGraph); CHECK(hsh == "COC1CC(C2CCCCC2O)CCN1"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::CanonicalSmiles); CHECK(hsh == "COc1cc(C2CCCCC2O)ccn1"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::MurckoScaffold); CHECK(hsh == "c1cc(C2CCCCC2)ccn1"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::ExtendedMurcko); CHECK(hsh == "*c1cc(C2CCCCC2*)ccn1"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::MolFormula); CHECK(hsh == "C12H17NO2"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::AtomBondCounts); CHECK(hsh == "15,16"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::DegreeVector); CHECK(hsh == "0,4,9,2"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::Mesomer); CHECK(hsh == "CO[C]1[CH][C](C2CCCCC2O)[CH][CH][N]1_0"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::Regioisomer); CHECK(hsh == "*O.*O*.C.C1CCCCC1.c1ccncc1"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::NetCharge); CHECK(hsh == "0"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::SmallWorldIndexBR); CHECK(hsh == "B16R2"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::SmallWorldIndexBRL); CHECK(hsh == "B16R2L9"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash( m.get(), MolHash::HashFunction::ArthorSubstructureOrder); CHECK(hsh == "000f001001000c000300005f000000"); } } SECTION("tautomers") { auto om = "C(CC1=NNC=C1)C1=CNC=N1"_smiles; REQUIRE(om); { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::HetAtomTautomer); CHECK(hsh == "[CH]1[CH][C](CC[C]2[CH][N][CH][N]2)[N][N]1_2_0"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::HetAtomProtomer); CHECK(hsh == "[CH]1[CH][C](CC[C]2[CH][N][CH][N]2)[N][N]1_2"); } } SECTION("tautomers 2") { { auto om = "C/C=C/C"_smiles; REQUIRE(om); auto hsh = MolHash::MolHash(om.get(), MolHash::HashFunction::HetAtomTautomer); CHECK(hsh == "C/C=C/C_0_0"); } { auto om = "C/C=N/C"_smiles; REQUIRE(om); auto hsh = MolHash::MolHash(om.get(), MolHash::HashFunction::HetAtomTautomer); CHECK(hsh == "C[CH][N]C_0_0"); } { auto om = "C/C=C/C=C/C"_smiles; REQUIRE(om); auto hsh = MolHash::MolHash(om.get(), MolHash::HashFunction::HetAtomTautomer); CHECK(hsh == "C[CH][CH][CH][CH]C_0_0"); } } SECTION("tautomers bug found in testing") { auto m1 = "CCC(=Cc1sc2cc(C)c(C)cc2[n+]1CC(O)CS(=O)(=O)[O-])C=C1[Se]c2ccc(C)cc2[NH+]1CC"_smiles; REQUIRE(m1); auto m2 = "CCC(=Cc1[se]c2ccc(C)cc2[n+]1CC)C=C1Sc2cc(C)c(C)cc2N1CC(O)CS(=O)(=O)O"_smiles; REQUIRE(m2); std::unique_ptr t1(new RWMol(*m1)); auto hsh1 = MolHash::MolHash(t1.get(), MolHash::HashFunction::HetAtomTautomer); std::unique_ptr t2(new RWMol(*m2)); auto hsh2 = MolHash::MolHash(t2.get(), MolHash::HashFunction::HetAtomTautomer); CHECK(hsh1 == hsh2); CHECK(hsh1 == "CC[C]([CH][C]1S[C]2[CH][C](C)[C](C)[CH][C]2N1CC([O])CS([O])([O])[O])" "[CH][C]1[Se][C]2[CH][CH][C](C)[CH][C]2N1CC_2_1"); } SECTION("tautomers bug found in testing2") { auto m1 = "N/C(=N\\[N+](=O)[O-])NCCCCCCCC(=O)NC(CC(=O)OCc1ccccc1)C(=O)NCCCCN/C(N)=N/[N+](=O)[O-]"_smiles; REQUIRE(m1); auto m2 = "N/C(=N\\CCCCCCCC(=O)NC(CC(=O)OCc1ccccc1)C(=O)NCCCC/N=C(\\N)N[N+](=O)[O-])N[N+](=O)[O-]"_smiles; REQUIRE(m2); std::unique_ptr t1(new RWMol(*m1)); auto hsh1 = MolHash::MolHash(t1.get(), MolHash::HashFunction::HetAtomTautomer); std::unique_ptr t2(new RWMol(*m2)); auto hsh2 = MolHash::MolHash(t2.get(), MolHash::HashFunction::HetAtomTautomer); CHECK(hsh1 == hsh2); CHECK(hsh1 == "[N][C]([N]CCCCCCC[C]([O])[N]C(C[C]([O])OC[C]1[CH][CH][CH][CH][CH]1)[" "C]([O])[N]CCCC[N][C]([N])[N]N([O])[O])[N]N([O])[O]_8_0"); } } TEST_CASE("Tautomers and chirality", "[molhash]") { SECTION("basics") { auto om = "C[C@H](C(=O)O)C(=O)[O-]"_smiles; REQUIRE(om); { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::CanonicalSmiles); CHECK(hsh == "C[C@@H](C(=O)[O-])C(=O)O"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::HetAtomTautomer); CHECK(hsh == "CC([C]([O])[O])[C]([O])[O]_1_-1"); } { std::unique_ptr m(new RWMol(*om)); auto hsh = MolHash::MolHash(m.get(), MolHash::HashFunction::HetAtomProtomer); CHECK(hsh == "CC([C]([O])[O])[C]([O])[O]_2"); } } } TEST_CASE("Molecular formula with fragments", "[molhash]") { SECTION("basics") { auto om = "CC(=O)[O-].C[N+](C)(C)C"_smiles; REQUIRE(om); auto hsh = MolHash::MolHash(om.get(), MolHash::HashFunction::MolFormula); CHECK(hsh == "C6H15NO2"); } }