Disclosed herein are compounds that activate RNaseL, methods of synthesizing compounds that activate RNaseL and the use of compounds that activate RNaseL for treating and/or ameliorating a disease or a condition, such as a viral infection, a bacterial infection, cancer and/or parasitic disease.
An Efficient Reagent for the Phosphorylation of Deoxyribonucleosides, DNA Oligonucleotides, and Their Thermolytic Analogues
作者:Cristina Ausín、Andrzej Grajkowski、Jacek Cieślak、Serge L. Beaucage
DOI:10.1021/ol0516263
日期:2005.9.1
and demonstrated efficiency in the synthesis of conventional 5'-/3'-phosphate/thiophosphate monoester derivatives of 2'-deoxyribonucleosides and DNA oligonucleotides. Moreover, the use of 11 has enabled the preparation of the dinucleosidephosphorothioate analogue 26 in high yields (>95%) with minimal cleavage (<2%) of the thermolytic thiophosphate protectinggroup.
[EN] 2-5A ANALOGS AND THEIR METHODS OF USE<br/>[FR] ANALOGUES DE 2-5A ET LEURS PROCÉDÉS D'UTILISATION
申请人:ALIOS BIOPHARMA INC
公开号:WO2011005595A2
公开(公告)日:2011-01-13
Disclosed herein are compounds that activate RNaseL, methods of synthesizing compounds that activate RNaseL and the use of compounds that activate RNaseL for treating and/or ameliorating a disease or a condition, such as a viral infection, a bacterial infection, cancer and/or parasitic disease.
[EN] CHEMICAL PHOSPHORYLATION REAGENTS, PREPARATION, AND THEIR USES<br/>[FR] RÉACTIFS DE PHOSPHORYLATION CHIMIQUE, PRÉPARATION ET LEURS UTILISATIONS
申请人:[en]OLIX US, INC.
公开号:WO2022246196A1
公开(公告)日:2022-11-24
Described herein are chemical phosphorylating reagents, their synthesis, and uses thereof.
The Effects of Sulfur Substitution for the Nucleophile and Bridging Oxygen Atoms in Reactions of Hydroxyalkyl Phosphate Esters
作者:Subashree Iyer、Alvan C. Hengge
DOI:10.1021/jo8002198
日期:2008.7.1
The effects of sulfur substitution on the reactions of hydroxyalkyl phosphate esters are examined. These compounds are models for the intramolecular phosphoryl transfer reaction involved in the cleavage of the internucleotide bond in RNA. The models studied here lack the ribose ring and their conformational flexibility results in greater stability and the availability of different reaction pathways