核糖核酸酶P
共价键
碱基
纳米技术
离子键合
氢气储存
核糖核酸
化学
材料科学
生物物理学
氢
有机化学
生物
DNA
生物化学
离子
基因
作者
Satyapriya Nath,Kiran Devi Tulsiyan,Binayak Mohapatra,Adithyan Puthukkudi,Pankaj V. Alone,Himansu S. Biswal,Bishnu P. Biswal
标识
DOI:10.1002/chem.202304079
摘要
Abstract The emerging role of Ribonucleic acids (RNAs) as therapeutics is alluring. However, RNAs are extremely labile under ambient conditions and typically need to be stored in cryogenic conditions (−20 °C to −80 °C). Hence, storage, stabilization, and transportation of RNA under ambient conditions have been an arduous task and remain an unsolved problem. In this work, a guanidinium‐based ionic covalent organic framework (COF), TTG Cl with nanotubular morphology, was synthesized and used as nano‐reservoirs for room‐temperature storage of RNA. To understand the role of the nanotubular morphology and chemical nature of TTG Cl in stabilizing the RNA structure and for comparison purposes, a neutral COF, TMT‐TT, is synthesized and studied. Further, density functional theory (DFT) studies confirmed non‐covalent interaction between the COFs and the RNA nucleobases, facilitating reversible storage of RNA. RNA loaded in COFs was found to be resistant to enzymatic degradation when treated with RNase. Gel electrophoresis and sequencing confirmed the structural integrity of the recovered RNAs and their further processibility.
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