Titlebook: Engineering Crystallography: From Molecule to Crystal to Functional Form; Kevin J. Roberts,Robert Docherty,Rui Tamura Book 2017 Springer S

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,Station?re Str?mung inkompressibler Fluide, molecules in a crystal can lead to highly selective conversions and be exploited in the area of chemical synthesis. It can also, using crystal engineering methods, be used to provide chemical stability, isolating potentially reactive molecules in an environment where conformational and configuratio

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,Grundlagen der Temperaturme?technik,lculates intermolecular interaction energies for crystal structures using atomistic potentials. Specific types of directed interatomic-interactions, e.g. such as constitute hydrogen bonds, can be quantified in terms of an interaction energy both within the crystal lattice, the intrinsic synthons, an

騷擾

Thermodynamik chemischer Reaktionen,nd crystal growth kinetics is presented with practical examples. The concepts of crystallisation hydrodynamics and the application of population balances and computational fluid dynamics for modelling crystallisation processes and their scaling up are also covered.

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https://doi.org/10.1007/978-3-662-22472-4ing has emerged as one of the most critical steps in optimising the crystallisation process (O’Sullivan B, Smith B, Baramidze G, Recent advances for seeding a crystallization process. Mettler Toledo Auto-Chem, Columbia, 2012). An aptly designed seeding technique would ensure product reproducibility

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Zustandsgleichungen realer Gase,ages with examples. The new perspective of polymorph-directing crystallization using functionalised templates is also discussed. The basic principles and examples of heterogeneous template crystallisation are given.

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Engineering Crystallography: From Molecule to Crystal to Functional Form978-94-024-1117-1Series ISSN 1874-6489 Series E-ISSN 1874-6527