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KNIME workflows and associated data from Koch et. al...
Created: 2017-06-29 17:26:00
| Last updated: 2017-12-19 10:19:21
The pack provides the KNIME workflows and associated data from:Koch M, Duigou T, Carbonell P, Faulon JL. Molecular structures enumeration and virtual screening in the chemical space with RetroPath2.0. Journal of Cheminformatics, 9:64, 2017. https://doi.org/10.1186/s13321-017-0252-9Please browse the linked packs below.
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Workflow
RetroPath2.0 - a retrosynthesis workflow w...
(15)
The RetroPath2.0 workflow build a reaction network from a set of source compounds to a set of sink compounds.When applied in a retrosynthetic fashion, the source is composed of the target compounds and the sink is composed of the available reactants (for instance in the context of metabolic engineering the sink is the set of native metabolites of a chassis strain). From amongst all the chemical reactions generated using RetroPath2.0 (in the retrosynthetic way), only a subset may effectively l...
Created: 2017-05-24
| Last updated: 2022-02-24
Credits:
Thomas Duigou
Baudoin Delépine
BioRetroSynth
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Workflow
RDKit PAINS 4
(1)
Improved Knime (2.12.1) workflow for detection of Pan-Assay Interference Compounds (PAINS) using RDKit nodes. PAINS SMARTS curated by Greg Landrum are used for the substructure searches. These yield 753 hits among the WEHI set of 10,000 compounds. A Total Hits count column is added by the RDKit Substructure Counter node, so no additional aggregation is needed. Structures devoid of PAINS are separated out for further progression, while the PAINS hits can be visually inspected using the RDKit I...
Created: 2015-10-18
| Last updated: 2015-10-18
Credits:
Evert Homan
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Workflow
13C NMR spectra prediction
(2)
This workflow can be used to predict the 13C NMR spectra of a molecule. The generation of the structure of the molecule is done using the IUPAC to Structure node that uses OPSIN to convert the name of the molecule to a structure. Alternativelly, one can read the structure from a file. The spectra prediction is based on the NMRShiftDB implementation and the data used is also from NMRShiftDB. The atom topological environments were represented as Atom Signatures and used to calculate the checmia...
Created: 2012-07-26
| Last updated: 2012-08-10
Credits:
Ldpf
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