Jionglong Su

Dr. Jionglong Su

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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16 September 2022
Verified
Book Chapter
Closed access
PDF file
JWJinfeng Wang
Jinfeng Wang
QHQiming Huang
Qiming Huang
FTFeilong Tang
Feilong Tang
JMJia Meng
Jia Meng
JSJionglong Su
Jionglong Su
SSSifan Song
Sifan Song

25 December 2023
Verified
Book Chapter
Closed access
PDF file
FTFeilong Tang
Feilong Tang
ZXZhongxing Xu
Zhongxing Xu
QHQiming Huang
Qiming Huang
JWJinfeng Wang
Jinfeng Wang
XHXianxu Hou
Xianxu Hou
JLJingxin Liu
Jingxin Liu

9 September 2022 in Genomics, Proteomics & Bioinformatics
Verified
Journal Article
Open access
BSBowen Song
Bowen Song
DHDaiyun Huang
Daiyun Huang
YZYuxin Zhang
Yuxin Zhang
ZWZhen Wei
Zhen Wei
JSJionglong Su
Jionglong Su
KCKunqi Chen
Kunqi Chen
As the most pervasive epigenetic marker present on mRNAs and long non-coding RNAs (lncRNAs), N 6-methyladenosine (m6A) RNA methylation has been shown to participate in essential biological processes. Recent studies have revealed the distinct patterns of m6A methylome across human tissues, and a major challenge remains in elucidating the tissue-specific presence and circuitry of m6A methylation. We present here a comprehensive online platform, m6A-TSHub, for unveiling the context-specific m6A methylation and genetic mutations that potentially regulate m6A epigenetic mark. m6A-TSHub consists of four core components, including (1) m6A-TSDB, a comprehensive database of 184,554 functionally annotated m6A sites derived from 23 human tissues and 499,369 m6A sites from 25 tumor conditions, respectively; (2) m6A-TSFinder, a web server for high-accuracy prediction of m6A methylation sites within a specific tissue from RNA sequences, which was constructed using multi-instance deep neural networks with gated attention; (3) m6A-TSVar, a web server for assessing the impact of genetic variants on tissue-specific m6A RNA modifications; and (4) m6A-CAVar, a database of 587,983 The Cancer Genome Atlas (TCGA) cancer mutations (derived from 27 cancer types) that were predicted to affect m6A modifications in the primary tissue of cancers. The database should make a useful resource for studying the m6A methylome and the genetic factors of epitranscriptome disturbance in a specific tissue (or cancer type). m6A-TSHub is accessible at www.xjtlu.edu.cn/biologicalsciences/m6ats.

6 October 2024
Verified
Book Chapter
Closed access
PDF file
ZXZhongxing Xu
Zhongxing Xu
FTFeilong Tang
Feilong Tang
ZCZhe Chen
Zhe Chen
ZZZheng Zhou
Zheng Zhou
WWWeishan Wu
Weishan Wu
JSJionglong Su
Jionglong Su

10 August 2024 in Neural Computing and Applications
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Journal Article
Closed access
PDF file
RSRuoyu Sun
Ruoyu Sun
ASAngelos Stefanidis
Angelos Stefanidis
ZJZhengyong Jiang
Zhengyong Jiang
JSJionglong Su
Jionglong Su

4 February 2025 in Patterns
Verified
Journal Article
Open access
CLChaoyu Lei
Chaoyu Lei
KDKang Dang
Kang Dang
SSSifan Song
Sifan Song
ZWZilong Wang
Zilong Wang
SCSien Ping Chew
Sien Ping Chew
HZHuifang Zhou
Huifang Zhou
Medical conditions and systemic diseases often manifest as distinct facial characteristics, making identification of these unique features crucial for disease screening. However, detecting diseases using facial photography remains challenging because of the wide variability in human facial features and disease conditions. The integration of artificial intelligence (AI) into facial analysis represents a promising frontier offering a user-friendly, non-invasive, and cost-effective screening approach. This review explores the potential of AI-assisted facial analysis for identifying subtle facial phenotypes indicative of health disorders. First, we outline the technological framework essential for effective implementation in healthcare settings. Subsequently, we focus on the role of AI-assisted facial analysis in disease screening. We further expand our examination to include applications in health monitoring, support of treatment decision-making, and disease follow-up, thereby contributing to comprehensive disease management. Despite its promise, the adoption of this technology faces several challenges, including privacy concerns, model accuracy, issues with model interpretability, biases in AI algorithms, and adherence to regulatory standards. Addressing these challenges is crucial to ensure fair and ethical use. By overcoming these hurdles, AI-assisted facial analysis can empower healthcare providers, improve patient care outcomes, and enhance global health.