Results 151 to 160 of about 26,138 (240)

The linker region of a development-specific DNA polymerase X ensures efficient repair of programmed DNA double-strand breaks in Parameciumtetraurelia. [PDF]

Nucleic Acids Res
Verron B, Arnaiz O, Zangarelli C, Mathy N, Bétermier M, Bischerour J.   +5 more
europepmc   +1 more source

Initiation of DNA synthesis by the avian oncornavirus RNA-directed DNA polymerase: tryptophan tRNA as the major species of primer RNA [PDF]

, 1976
William R. Folk, Anthony J. Faras
openalex   +1 more source

In Vivo Reprogramming of Tissue‐Derived Extracellular Vesicles for Treating Chronic Tissue Injury Through Metabolic Engineering

Advanced Science, EarlyView.
Inspired by exercise‐induced metabolic rewiring and EV secretion, this study shows that in vivo metabolic engineering strategy can reprogram EV secretion pattern and simultaneously attenuate multiple tissue injury in CKD status, highlighting that it is a potential strategy for treating diverse chronic diseases.
Meng Zhao, Shuyun Liu, Yizhuo Wang, Peng Lou, Ke Lv, Tian Wu, Lan Li, Qianyi Wu, Jiaying Zhu, Yanrong Lu, Meihua Wan, Jingping Liu   +11 more
wiley   +1 more source

Semi-rational evolution of a recombinant DNA polymerase for modified nucleotide incorporation efficiency. [PDF]

PLoS One
Zhai L, Wang Z, Liu F, Xu C, Wang J, Han H, Xie Q, Zhang W, Zheng Y, Buell AK, Dong Y.   +10 more
europepmc   +1 more source

RNase H and RNA-directed DNA polymerase: associated enzymatic activities of murine mammary tumor virus [PDF]

, 1977
Arnold S. Dion, Charlene J. Williams, Dan H. Moore   +2 more
openalex   +1 more source

Homocysteine Promotes the Pathogenesis of Atherosclerosis through the Circ‐PIAS1‐5/miR‐219a‐2‐3p/TEAD1 Axis

Advanced Science, EarlyView.
A model is schematically represented for the major molecular mechanisms by which homocysteine (Hcy) accelerates the nuclear export of circ‐PIAS1‐5, which regulates atherosclerosis by acting as a competing endogenous RNA for miR‐219a‐2‐3p. Hcy enrichment of circ‐PIAS1‐5 leads to YTHDC1 binding to circ‐PIAS1‐5 and promotes its intracellular localization ...
Shengchao Ma, Fei Ma, Ning Ding, Lin Xie, Anning Yang, Jiangyong Shen, Yun jiao, Kai Wu, YueE Chai, Zhigang Bai, Jiantuan Xiong, Nan Li, Huiping Zhang, Yideng Jiang   +13 more
wiley   +1 more source

High-throughput Kinetics using capillary Electrophoresis and Robotics (HiKER) platform used to study T7, T3, and Sp6 RNA polymerase misincorporation. [PDF]

PLoS One
Carter ZI, O'Brien WB, Lund S, Gardner AF.   +3 more
europepmc   +1 more source

Human Leukemic Cells: RNA‐Directed DNA Polymerase [PDF]

, 1974
L.S. Desai, Diane L. SHORT, Orrie M. Friedman, George E. Foley   +3 more
openalex   +1 more source

Development of MDM2‐Targeting PROTAC for Advancing Bone Regeneration

Advanced Science, EarlyView.
This work presents a creative pipeline for developing MDM2‐targeting PROTACs (MDM2‐PROTACs) for application in bone regeneration. The developed PROTACs (CL144 and CL174) are validated for their degradation efficiency and osteogenic effects in human BMSCs.
Sol Jeong, Jae‐Kook Cha, Wasim Ahmed, Jaewan Kim, Minsup Kim, Kyung Tae Hong, Wonji Choi, Sunjoo Choi, Tae Hyeon Yoo, Hyun‑Ju An, Seung Chan An, Jaemin Lee, Jimin Choi, Sun‐Young Kim, Jun‐Seok Lee, Soonchul Lee, Junwon Choi, Jin Man Kim   +17 more
wiley   +1 more source

Bacteriophage RNA polymerases: catalysts for mRNA vaccines and therapeutics. [PDF]

Front Mol Biosci
Nair A, Kis Z.
europepmc   +1 more source