Teitl: Switching Chemoselectivity: Using Mechanochemistry to Alter Reaction Kinetics
Dyfyniad
Browne DL, Howard JL, Brand MC (2018). Switching Chemoselectivity: Using Mechanochemistry to Alter Reaction Kinetics. Cardiff University. https://doi.org/10.17035/d.2018.0062874363
Hawliau Mynediad: Creative Commons Attribution 4.0 International
Dull Mynediad: I anfon cais i gael y data hwn, ebostiwch opendata@caerdydd.ac.uk
Manylion y Set Ddata
Cyhoeddwr: Cardiff University
Dyddiad (y flwyddyn) pryd y daeth y data ar gael i'r cyhoedd: 2018
Dyddiad dechrau creu'r data: 01.06.2017
Dyddiad gorffen creu'r data: 01.09.2018
Fformat y data: .jpg .fid
Meddalwedd ofynnol: .fid files are processed using standard NMR processing software.
Amcangyfrif o gyfanswm maint storio'r set ddata: Llai na 100 megabeit
DOI : 10.17035/d.2018.0062874363
DOI URL: http://doi.org/10.17035/d.2018.0062874363
Related URL: https://onlinelibrary.wiley.com/doi/pdf/10.1002/anie.201810141
The data here contains a selection of 1H, 13C, 19F NMR data, as well as IR, MS and any relevant chromatography information. Some files may be processed in advance and deposited and some may require access to typical processing tools for data of this type.
Disgrifiad
Abstract: A reaction manifold has been discovered in which the chemoselectivity can be altered by switching between neat milling and liquid assisted grinding (LAG) with polar additives. After investigation of the reaction mechanism, it has been established that this switching in reaction pathway is due to the neat mechanochemical conditions exhibiting different kinetics for a key step in the transformation. This proof of concept study demonstrates that mechanochemistry can be used to trap the kinetic product of a reaction. It is envisaged that, if this concept can be successfully applied to other transformations, novel synthetic processes could be discovered and known reaction pathways perturbed or diverted.
Allweddeiriau
Mechanochemistry
Prosiectau Cysylltiedig
- Development of industrially relevant continuous flow processes (01.10.2015 - 30.09.2019)
- Shaken not stirred: Unleashing the potential of solvent-free mechanochemical synthesis (01.01.2017 - 31.01.2018)