Thymine-functionalised siloxanes: Model compounds and polymers
摘要:
A novel, efficient synthetic method for the production of organosiloxane polymers functionalised with pendant DNA bases, typified by thymine, is reported. A condensation reaction between an alpha-amino-omega-alkylsilane or an amino-functionalised siloxane with aldehyde-functionalised thymine gave polymers in higher overall yields than the methods previously reported. Variation in the loading of thymine led to a range of material properties from a highly viscous fluid at 0.2% functionalization to a hard, brittle solid at 20% loading due to hydrogen bonding interactions. (C) 2014 Elsevier B.V. All rights reserved.
Thymine-functionalised siloxanes: Model compounds and polymers
摘要:
A novel, efficient synthetic method for the production of organosiloxane polymers functionalised with pendant DNA bases, typified by thymine, is reported. A condensation reaction between an alpha-amino-omega-alkylsilane or an amino-functionalised siloxane with aldehyde-functionalised thymine gave polymers in higher overall yields than the methods previously reported. Variation in the loading of thymine led to a range of material properties from a highly viscous fluid at 0.2% functionalization to a hard, brittle solid at 20% loading due to hydrogen bonding interactions. (C) 2014 Elsevier B.V. All rights reserved.
Thymine-functionalised siloxanes: Model compounds and polymers
作者:Douglas R.G. Smith、Gabriele Kociok-Köhn、Kieran C. Molloy、Gareth J. Price、Rhys D. Short
DOI:10.1016/j.jorganchem.2014.12.007
日期:2015.2
A novel, efficient synthetic method for the production of organosiloxane polymers functionalised with pendant DNA bases, typified by thymine, is reported. A condensation reaction between an alpha-amino-omega-alkylsilane or an amino-functionalised siloxane with aldehyde-functionalised thymine gave polymers in higher overall yields than the methods previously reported. Variation in the loading of thymine led to a range of material properties from a highly viscous fluid at 0.2% functionalization to a hard, brittle solid at 20% loading due to hydrogen bonding interactions. (C) 2014 Elsevier B.V. All rights reserved.