Xucong Teng

Dr. Xucong Teng

orcid

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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14 December 2018 in ACS Applied Materials & Interfaces
Verified
Journal Article
Closed access
NGNingqiang Gong
Ningqiang Gong
XTXucong Teng
Xucong Teng
Jinghong LiJinghong Li
Jinghong Li
XLXingjie Liang
Xingjie Liang

20 August 2018 in Journal of the American Chemical Society
Verified
Journal Article
Closed access
KZKaixiang Zhang
Kaixiang Zhang
RDRuijie Deng
Ruijie Deng
XTXucong Teng
Xucong Teng
YLYue Li
Yue Li
YSYupeng Sun
Yupeng Sun
Jinghong LiJinghong Li
Jinghong Li

25 September 2024 in Journal of the American Chemical Society
Verified
Journal Article
Closed access
XTXucong Teng
Xucong Teng
XZXuan Zhao
Xuan Zhao
YDYicong Dai
Yicong Dai
XZXiangdong Zhang
Xiangdong Zhang
QZQiushuang Zhang
Qiushuang Zhang
Jinghong LiJinghong Li
Jinghong Li

7 July 2023 in Trends in Biochemical Sciences
Verified
Journal Article
Open access
YDYicong Dai
Yicong Dai
XTXucong Teng
Xucong Teng
QZQiushuang Zhang
Qiushuang Zhang
HHHongwei Hou
Hongwei Hou
Jinghong LiJinghong Li
Jinghong Li
G-quadruplexes (G4s) are peculiar nucleic acid secondary structures formed by DNA or RNA and are considered as fundamental features of the genome. Many proteins can specifically bind to G4 structures. There is increasing evidence that G4-protein interactions involve in the regulation of important cellular processes, such as DNA replication, transcription, RNA splicing, and translation. Additionally, G4-protein interactions have been demonstrated to be potential targets for disease treatment. In order to unravel the detailed regulatory mechanisms of G4-binding proteins (G4BPs), biochemical methods for detecting G4-protein interactions with high specificity and sensitivity are highly demanded. Here, we review recent advances in screening and validation of new G4BPs and highlight both their features and limitations.

30 May 2018 in ACS Central Science
Verified
Journal Article
Open access
XRXiaojun Ren
Xiaojun Ren
Ruijie DengRuijie Deng
Ruijie Deng
KZKaixiang Zhang
Kaixiang Zhang
YSYupeng Sun
Yupeng Sun
XTXucong Teng
Xucong Teng
Jinghong LiJinghong Li
Jinghong Li
Immune cell heterogeneity due to the differential expression of RNA splicing variants still remains unexplored. This is mainly because single-cell imaging technologies of splicing variants with precise sequence or base resolution are now not readily available. Herein, we design a splice-junction anchored padlock-probe-mediated rolling circle amplification assay (SpliceRCA) for single-cell imaging of splice isoforms of essential regulatory immune gene (CD45) upon T-cell activation. Two recognition regions in the padlock probe can target the splice-junction sequence, resulting in a close proximity for triggering in situ one-target-one-amplicon amplification. With the read length of ∼30 nucleotides, this method allows discrimination of isoforms with single-base precision and quantification of isoforms with single-molecule resolution. We applied SpliceRCA to single-cell image splice variants of essential regulatory immune gene (CD45) upon T-cell activation. It is found that CD45RO isoform presents a distal nuclear spatial distribution and is coregulated with CD45RB upon activation. Our strategy provides a single-cell analysis platform to investigate the mechanism of complex immune responses and may further guide immunotherapy.

22 December 2021 in Angewandte Chemie International Edition
Verified
Journal Article
Closed access
PDF file
YDYicong Dai
Yicong Dai
XTXucong Teng
Xucong Teng
Jinghong LiJinghong Li
Jinghong Li