Matches in SemOpenAlex for { <https://semopenalex.org/work/W2013601329> ?p ?o ?g. }
- W2013601329 endingPage "371" @default.
- W2013601329 startingPage "361" @default.
- W2013601329 abstract "Abstract Organic molecules are prone to polymorphic formation in the solid state due to the rich diversity of functional groups that results in comparable intermolecular interactions, which can be greatly affected by the selection of solvent and other crystallization conditions. Intermolecular interactions are typically weak forces, such as van der Waals and stronger short‐range ones including hydrogen bonding, that are believed to determine the packing of organic molecules during the crystal‐growth process. A different packing of the same molecules leads to the formation of a new crystal structure. To disclose the underlying causes that drive the molecule to have various packing motifs in the solid state, an electronic concept or function within the framework of conceptual density functional theory has been developed, namely, crystallization force. The concept aims to describe the local change in electronic structure as a result of the self‐assembly process of crystallization and may likely quantify the locality of intermolecular interactions that directs the molecular packing in a crystal. To assess the applicability of the concept, 5‐methyl‐2‐[(2‐nitrophenyl)amino]‐3‐thiophenecarbonitrile, so‐called ROY, which is known to have the largest number of solved polymorphs, has been examined. Electronic calculations were conducted on the seven available crystal structures as well as on the single molecule. The electronic structures were analyzed and crystallization force values were obtained. The results indicate that the crystallization forces are able to reveal intermolecular interactions in the crystals, in particular, the close contacts that are formed between molecules. Strong correlations exist between the total crystallization force and lattice energy of a crystal structure, further suggesting the underlying connection between the crystallization force and molecular packing." @default.
- W2013601329 created "2016-06-24" @default.
- W2013601329 creator A5029420154 @default.
- W2013601329 creator A5032670273 @default.
- W2013601329 creator A5050793296 @default.
- W2013601329 creator A5062471687 @default.
- W2013601329 creator A5085652797 @default.
- W2013601329 date "2008-12-22" @default.
- W2013601329 modified "2023-10-18" @default.
- W2013601329 title "Crystallization Force-A Density Functional Theory Concept for Revealing Intermolecular Interactions and Molecular Packing in Organic Crystals" @default.
- W2013601329 cites W1963740321 @default.
- W2013601329 cites W1978089881 @default.
- W2013601329 cites W1979006872 @default.
- W2013601329 cites W1979558973 @default.
- W2013601329 cites W1989270132 @default.
- W2013601329 cites W1998920258 @default.
- W2013601329 cites W2003035408 @default.
- W2013601329 cites W2005425939 @default.
- W2013601329 cites W2005877813 @default.
- W2013601329 cites W2008041424 @default.
- W2013601329 cites W2008708918 @default.
- W2013601329 cites W2009458392 @default.
- W2013601329 cites W2010240982 @default.
- W2013601329 cites W2010785223 @default.
- W2013601329 cites W2013027128 @default.
- W2013601329 cites W2017340129 @default.
- W2013601329 cites W2017732872 @default.
- W2013601329 cites W2020307158 @default.
- W2013601329 cites W2021215639 @default.
- W2013601329 cites W2021720051 @default.
- W2013601329 cites W2023271753 @default.
- W2013601329 cites W2030082437 @default.
- W2013601329 cites W2030841140 @default.
- W2013601329 cites W2030976617 @default.
- W2013601329 cites W2032664354 @default.
- W2013601329 cites W2036419224 @default.
- W2013601329 cites W2042894184 @default.
- W2013601329 cites W2045045577 @default.
- W2013601329 cites W2047847322 @default.
- W2013601329 cites W2048631643 @default.
- W2013601329 cites W2049635857 @default.
- W2013601329 cites W2050480585 @default.
- W2013601329 cites W2051682290 @default.
- W2013601329 cites W2055388779 @default.
- W2013601329 cites W2055837606 @default.
- W2013601329 cites W2057753783 @default.
- W2013601329 cites W2059299121 @default.
- W2013601329 cites W2061229568 @default.
- W2013601329 cites W2062841340 @default.
- W2013601329 cites W2063152281 @default.
- W2013601329 cites W2068222694 @default.
- W2013601329 cites W2074038742 @default.
- W2013601329 cites W2074342120 @default.
- W2013601329 cites W2074975483 @default.
- W2013601329 cites W2075424059 @default.
- W2013601329 cites W2086338646 @default.
- W2013601329 cites W2086458318 @default.
- W2013601329 cites W2086957099 @default.
- W2013601329 cites W2089251862 @default.
- W2013601329 cites W2091692227 @default.
- W2013601329 cites W2094212521 @default.
- W2013601329 cites W2101958915 @default.
- W2013601329 cites W2114643453 @default.
- W2013601329 cites W2115248927 @default.
- W2013601329 cites W2120571147 @default.
- W2013601329 cites W2122439753 @default.
- W2013601329 cites W2123969193 @default.
- W2013601329 cites W2132760463 @default.
- W2013601329 cites W2145697537 @default.
- W2013601329 cites W2147304506 @default.
- W2013601329 cites W2148624934 @default.
- W2013601329 cites W2158478944 @default.
- W2013601329 cites W2164272775 @default.
- W2013601329 cites W2166128417 @default.
- W2013601329 cites W3004483387 @default.
- W2013601329 cites W3004599432 @default.
- W2013601329 cites W3209316697 @default.
- W2013601329 cites W38699061 @default.
- W2013601329 cites W4231174424 @default.
- W2013601329 cites W4239728571 @default.
- W2013601329 cites W4241580847 @default.
- W2013601329 cites W4243760158 @default.
- W2013601329 doi "https://doi.org/10.1002/chem.200801056" @default.
- W2013601329 hasPubMedId "https://pubmed.ncbi.nlm.nih.gov/19034948" @default.
- W2013601329 hasPublicationYear "2008" @default.
- W2013601329 type Work @default.
- W2013601329 sameAs 2013601329 @default.
- W2013601329 citedByCount "41" @default.
- W2013601329 countsByYear W20136013292012 @default.
- W2013601329 countsByYear W20136013292013 @default.
- W2013601329 countsByYear W20136013292014 @default.
- W2013601329 countsByYear W20136013292015 @default.
- W2013601329 countsByYear W20136013292016 @default.
- W2013601329 countsByYear W20136013292018 @default.
- W2013601329 countsByYear W20136013292019 @default.
- W2013601329 countsByYear W20136013292020 @default.
- W2013601329 countsByYear W20136013292021 @default.
- W2013601329 countsByYear W20136013292022 @default.