2935-90-2Relevant articles and documents
Additive-Free Green Light-Induced Ligation Using BODIPY Triggers
Li, Ming,Dove, Andrew P.,Truong, Vinh X.
, p. 2284 - 2288 (2020)
Photochemical ligation is important in biomaterials engineering for spatiotemporal control of biochemical processes. Such reactions however generally require activation by high energy UV or short wavelength blue light, which can limit their use as a consequence of the potential of these high energy light sources to damage living cells. Herein, we present an additive-free, biocompatible, chemical ligation triggered by mild visible light. BODIPY dyes with a pendant thioether attached at the meso-position undergo photolysis of the [C?S] bond under green light (λ=530 nm) excitation, producing an ion pair intermediate that can react specifically with a propiolate group. The utility of this photochemical ligation in materials science is demonstrated by the fabrication of hydrogels with specific architectures, photo-immobilization of biomacromolecules, and live cell encapsulation within a hydrogel scaffold.
Danehy,Oester
, p. 1491,1492 (1967)
Method and device for continuously producing thiopropionate series compounds through pipeline type
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Paragraph 0085; 0088-0090, (2021/11/27)
The invention discloses a method and a device for continuously producing thiopropionate series compounds through pipeline type, and can simultaneously or separately prepare thiodipropionate compounds. Dithionate type compounds and mercapto ester compounds. The method is simple to operate, low in cost and high in yield, and is suitable for industrial production.
Unusual multistep reaction of C70Cl10 with thiols producing C70[SR]5H
Khakina, Ekaterina A.,Peregudov, Alexander S.,Yurkova, Anastasiya A.,Piven, Natalya P.,Shestakov, Alexander F.,Troshin, Pavel A.
, p. 1215 - 1219 (2016/03/01)
We report a reaction of the chlorofullerene C70Cl10 with thiols producing C70[SR]5H with all organic addends attached around one central pentagon at the pole of the C70 cage. This reaction was shown to proceed via a complicated radical pathway, presumably involving addition, substitution, rearrangement, and/or elimination steps. The obtained C70[SR]5H products were shown to be very unstable and undergo quantitative decomposition to pristine C70, RSSR, and RSH at elevated temperatures (e.g., 50 °C). Quantum chemical calculations and NMR spectroscopy data showed that cleavage of organic addends from the fullerene cage could be induced by solvation effects in solution.