The aim of Cui Lab is developing methods of bioinformatics and systems biology to investigate biomedical sciences or provide helps for biologists and medical scientists in their studies. Currently, we focus on developing bioinformatic methods of noncoding RNAs and network pharmacology for complex diseases such as cardiovascular diseases.
Currently we mainly focus on:
Qinghua Cui(崔庆华, 崔慶華)
Ph.D, Professor, PI
Bitao Zhong | PhD student(2021-present) |
Wenjie Huang | PhD student(2021-present) |
Shihao Shao | PhD student(2021-present) |
Yingyu Lu | PhD student(2021-present) |
Xiao Lin | PhD student(2021-present) |
Rui Fan | PhD student(2019-present) |
Xiangwen Ji | PhD student(2019-present) |
Chunmei Cui | PhD student(2019-present) |
Ruya Sun | PhD student(2019-present) |
Yiran Zhou | PhD student(2017-present) |
Chengxiang Qiu | Master student(2009-2012), now a Ph.D student in University of Washington. |
Dong Wang | Master student(2010-2013), now an investment manager in Harvest Fund. |
Geng Chen | Master student(2011-2014), now a staff at Fujian Hospital for Infection disease. |
Jian Tu | Master student(2012-2015), now a founder CEO of BYSX Co.Ltd. |
Jianwei Li | Visiting scholar from Hebei University of Technology (2013-2014), now a full professor and the director of the Institute of Computational Medicine. |
Chuanbo Huang | Visiting scholar from HuaQiao University.(2014-2015) |
Changyu Tao | joint PhD student (2015), now a PhD student supervised by Prof. Ence Yang. |
Junpei Wang | Master student (2013-2016), now a PhD student. |
Junyi Wang | visiting student, now a PhD student at School of Enineering, Peking University. |
Zhenzhen Chen | PhD student (2014-2017), now an assistant professor and Co-PI in the National Key Lab of Cardiovascular Disease, Fuwai Hospital, Chinese Academy of Medical Sciences & Peking Union Medical College (Beijing, China). |
Yuchen Wang | PhD student (2013-2017), now an assistant professor in the Institute of Materia Medica, Chinese Academy of Medical Sciences & Peking Union Medical College (Beijing, China). |
Wei Ma | PhD student (2013-2017), now an assistant professor in the PLA NAVY GENERAL HOSPITAL. |
Yuan Zhou | Post-Doctor(2015-2017), now a tenure-track PI in the Department of Biomedical Informatics, School of Basic Medical Sciences, Peking University. |
Pan Zeng | PhD student(2014-2018), now a post-doctor supervised by Prof. Edwin Wang, the AISH Chair Professor at University of Calgary, Canada. |
Sisi Guo | PhD student(2015-2018), now a manager officer at AstraZeneca Head Office, New York, USA. |
Jiangcheng Shi | Master student(2015-2018), now a PhD student at Cui Lab. |
Xiaowen Feng | PhD student(2015-2019), now a postdoc at Harvard University. |
Junpei Wang | PhD student(2016-2019) & Master student (2014-2016), now an assisstant professor at Capital Medical University. |
Weili Yang | PhD student(2016-2019), now an assisstant professor at Capital Medical University. |
Chunmei Cui | Master student(2016-2019), now a PhD student at Cui Lab. |
Yan Huang | visiting Master student(2017-2018), now a PhD student at China Agricultural University. |
Yuanxu Gao | PhD student(2017-2020), now a postdoc at Macau University of Science and Technology. |
Kaiwen Jia | PhD student(2017-2020), now an assistant investigator at the Shanghai Institute of Biochemistry and Cell Biology, CAS. |
Chuanbo Huang | PhD student(2018-2021), now an assistant prof at Huaqiao University. |
Jiangcheng Shi | PhD student(2018-2021), now an associate prof at Tianjin University of Technology. |
Zhou Huang | PhD student(2018-2021), now an associate Investigator at Daping Hospital, Army Medical University. |
Wanqing Zhao | Master student(2018-2021), now a technician at Fuwai Hospital Shenzhen Campus. |
Resource type: Web query-driven and downloadable software.
Description: Cepred is a tool to predict whether a human intronic miRNA is high co-expressed with its host gene or not based on data of genome coordinate, which can be further used to identify the potential functions, biological processes, phenotypes and diseases associated with this miRNA (Wang et al., PLoS one 2009).
Resource type: Web query-driven software.
Description: TAM is a web-accessible program that is in the first version. For a given list of miRNAs, for example the deregulated miRNAs from microarray or deep sequencing experiments, TAM is able to identify enriched miRNA sets and explore novel miRNAs related to the input, and therefore is able to predict novel miRNAs for given function and diseases(Lu et al., BMC Bioinformatics 2010).
Resource type: Web query-driven software.
Description: TAM 2.0 is the updated web server of our previously published miRNA set enrichment analysis tool, TAM in 2010. Through manual curation of over 9,000 papers, a more than two-fold growth of reference miRNA sets has been achieved in comparison with previous TAM. We grouped miRNAs into six categories of miRNA sets. And new functions for miRNA set query and result visualization are also enabled in the TAM 2.0. TAM 2.0 provides a tool to mine the functional and disease implication behind miRNAs of interests.
Resource type: Web query-driven software.
Description: sTAM is a computational tool for single sample miRNA set enrichment analysis. Given miRNA expression profiles and reference miRNA sets, sTAM can calculate a score for each sample in each miRNA set, which can be used to discover disease-related biomarkers at a miRNA-set level, making an important supplement to the single-miRNA level analysis(Shi et al., Molecular Therapy-Nucleic Acids 2020).
Resource type: Web query-driven software.
Description: wTAM is an improved tool of TAM 2.0, which considers the significant differences of human miRNA importance and introduces miRNA importance scores to miRNA set enrichment analysis. wTAM provides diverse miRNA importance scores to explore the function and disease associations for input miRNA list. (Bioinformatics Advances 2022).
Resource type: Web query-driven software.
Description: MISIM is a tool for the miRNA functional similarity measuring and network construction. Given a miRNA list, MISIM measures the pairwise functional similarity of the given miRNAs. MISIM is also able to generate a miRNA functional network according to the calculated MISIM similarity coefficients for given miRNAs. (Wang et al., Bioinformatics 2010)
Resource type: Downloadable R source code.
Description: This R script is able to draw figures of chromosomes with highlighted genes in various colors. (Wang et al., PLoS ONE 2010)
Resource type: Downloadable Java source code.
Description: The java source code is used to identify network components for a given list of network nodes. It is able to identify not only the network components for the whole network but also can identify network components for a subset of network nodes. (Cui Q. PLoS ONE 2010)
Resource type: Web query-driven database and software.
Description: miREnvironment integrated the experimentally supported interactions of miRNA and environmental factors including drugs. Phenotypes are also curated. Currently, two tools that can predict the therapy outcome of cancer treatment and predict environmental factor-disease relationships are also integrated. (Yang et al., Bioinformatics 2011; Qiu et al., Scientific Reports 2012).
Resource type: Web query-driven software.
Description: miRUPnet is a tool to predict the function of a miRNA based on functional enrichment analysis of its upstream interacting context. (Qiu et al., Molecular BioSystems 2012).
Resource type: Web query-driven software.
Description: miR2Gene is a tool to predict the function of protein-coding gene by miRNA set enrichment analysis of miRNAs that regulate the gene. (Qiu et al., BMC Systems Biology 2011).
Resource type: Web query-driven software.
Description: PPUS is a tool to predict pseudouridine sites recognized by pseudouridine synthase in RNA. Currently, PPUS can predict pseudouridine sites recognized by PUS1, PUS4 and PUS7 in yeast and PUS4 in human. PPUS employed support vector machine as the classifier and used nucleotides around pseudouridine site as feature. . (Li et al., Bioinformatics 2015).
Resource type: Web query-driven database and software.
Description: LncRNADisease is a database that integrated experimentally supported long noncoding RNA (lncRNA) and disease associations, and lncRNA interactions. LncRNADisease is also a software platform that integrated tools for prediction novel relationship between lncRNAs and diseases. On June 2018, LncRNADisease 2.0 was released. Recently, LncRNADisease 3.0 has been released.
Resource type: Standalone software and Web query-driven software.
Description: LncTar is an efficient tool for predicting the RNA targets of long noncoding RNAs (lncRNAs). LncTar can run under Windows and Linux. LncTar shows the following advantages: 1) it has no limits to RNA size. As we know, it can process the largest lncRNAs and mRNAs in current human genome; 2) it runs fast. LncTar can predict one RNA-RNA interaction ~10 seconds on average on a PC; 3) it presents a quantitative standard to automatically evaluate whether two RNAs can interact with each other; 4) it shows a high accuracy. LncTar achieved an accuracy of 80% to the predictions of current experimentally supported mRNA targets of lncRNAs (Li et al., Brief Bioinform 2014).
Resource type: Web query-driven software.
Description: Rsite2 is a secondary structure based computational method to predict the functional sites of noncoding RNAs (ncRNAs), which represent a big class of RNA molecules that show critical regulatory functions in a variety of biological processes. (Zeng et al., Scientific Reports 2016).
Resource type: Standalone software.
Description: LncDisease is a novel computational method and tool to predict the associations between lncRNAs and diseases (Wang et al., NAR 2016).
Resource type: Web query-driven software.
Description: SRAMP would serve as a useful tool to predict m6A modification sites on the RNA sequences (Zhou et al., NAR 2016).
Resource type: Web query-driven software.
Description: MicroPattern is a tool used to mine regular rules and patterns behind a list of microbes. MicroPattern can also be used to calculate the similarity between the given disease-associated microbe list and the collected micro-disease association dataset (Sci Rep. 2017).
Resource type: Web query-driven software.
Description: Evaluating the essentiality or importance represents one key step to discover critical miRNAs in diseases (including diagnosis/therapy ). miES is a tool to predict the essentiality or importance of miRNAs with machine learning and sequence features. Moreover, miES score can be used to identify candidate miRNAs from miRNA transcriptome data, to discover hotspot miRNAs, and dissect the miRNAs with cross-species difference in essentiality etc (Bioinformatics 2018).
Resource type: Web query-driven software.
Description: Evaluating the essentiality or importance represents one key step to discover critical mRNAs and long noncoding RNAs (lncRNAs) in diseases (including diagnosis/therapy ). GIC (Gene Importance Calculator) is a tool to predict the essentiality or importance of protein-coding genes and lncRNAs with machine learning and sequence features. Moreover, we showed that GIC score can be used to identify candidate genes/lncRNAs from transcriptome data, to discover hotspot genes/lncRNAs, and dissect the genes/lncRNAs with cross-species difference in essentiality etc (Frontiers in Genetics-Bioinformatics and Computational Biology 2018).
Resource type: A java-based software, no-free-release.
Description: Tremendous differences between human sexes are universally observed. Therefore, identifying and analyzing the sex-biased genes are becoming basically important for uncovering the mystery of sex differences and personalized medicine. However, scientists do not pay much attention on the problem of sex-difference in medicine. To address this issue, we previously proposed computational methods to identify sex-based genes (mRNAs) (Briefings in Bioinformatics, 2018) and miRNAs (Genomics, Proteomics, and Bioinformatics 2018) from public gene expression data. In addition, a number of interesting patterns and rules were found for these sex-biased mRNAs and miRNAs by data mining and analysis. Moreover, we further proposed a computational method and developed a JAVA-based computer program, SexBiasedDrug, for the large-scale prediction of sex-biased responsive drugs on one given organ/tissue, e.g. heart, vascular, liver, etc (Journal of Translational Medicine 2018). For people who are interested in this method and software, please contact Dr. Qinghua Cui.
Resource type: Web query-driven software.
Description: MISIM v2.0 is an updated web server. It improved the original MISIM algorithm by implementing both positive and negative miRNA-disease associations, which suggests MISIM v2.0 scores could be positive or negative. Moreover, MISIM v2.0 achieved an algorithm for novel miRNA-disease prediction based on MISIM v2.0 scores. In addition, MISIM v2.0 provided network visualization and functional enrichment analysis for functionally paired miRNAs. (Nucleic Acids Res 2019).
Resource type: Web query-driven software.
Description: MIC is a tool to predict the importance of human miRNAs with machine learning and sequence features. MIC score can be used to identify candidate miRNAs from miRNA transcriptome to discover hotspot miRNAs. Moreover, MIC can estimate how single nucleotide mutants affect the importance of miRNAs, and dissect the miRNAs with cross-species difference in importance. (Advanced Theory and Simulation 2019).
Resource type: Web query-driven software.
Description: PACES is a tool to predict N4-acetylcytidine (ac4C) modification sites on the mRNA sequences (SCIENTIFIC REPORTS 2019).
Resource type: Downloadable python source code.
Description: The MDCAP is a computinal model for predicting novel causal miRNA-disease associations. MDCAP would calculate a score for all potential causal miRNA-disease associations. With the score, users could identify most potential causal miRNAs for a given disease or new causal associated disease of a miRNA. (Gao et al. Frontiers in Genetics 2019).
Resource type: Web query-driven software.
Description: A subcellular diversity index (SDI) was introduced to measure the subcellular diversity of genes for eight species, and the SDI shows its ability in predicting essential genes and drug targets (Jia et al., Frontiers in Genetics 2020). Users can query and download SDI related results and source code for calculating SDI via this database.
Resource type: Web query-driven software.
Description: DCHD Risk Prediction is an online tool to predict the risk of coronary heart disease as a complication of type 2 diabetes mellitus. This tool use only 8 basic indicators to predict the risk probability and it provides a contribution method of analysing the risk contributions of given patient (SCIENTIFIC REPORTS 2020).
Resource type: Web query-driven database and software.
Description: A tool for small open reading frame (smORF) and microprotein function prediction, which provides function predictions for 526,443 smORFs in at most 265 models, 48 tissues/cells, and 82 diseases (and normal) (Ji et al. BMC Bioinformatics 2020).
Resource type: Web query-driven database and software.
Description: tRNA-derived fragment (tRF) is a novel class of regulatory small non-coding RNAs cleaved from mature tRNAs. Recent evidence has revealed that tRFs can be loaded onto Argonaute (AGO) family proteins to perform post-transcriptional regulations via substantial tRF-target gene interactions (TGIs). tRFTar includes 920,690 predicted TGIs between 12,102 tRFs and 5,688 target genes and further provides two main functions, namely customized TGI search and tRF functional enrichment analysis.
Resource type: Web query-driven software.
Description: FDS is a tool to measure the functional divergence of human and mouse orthologous genes in the context of miRNA regulation. FDS also provides the divergent functions and phenotypes for a human and mouse orthologous gene pair. Moreover, FDS can explore the similarity of gene expression pattern across species and evaluate the possibility of druggable genes. (Briefings in Bioinformatics 2021).
Resource type: Web query-driven software.
Description: The weighted enrichment analysis method can overcome the issue of treating every gene equally to the conventional method. WEAT is a web implementation of the weighted enrichment analysis method.WEAT not only provides multiple gene essentiality scores for both single and two gene list(s) enrichment analysis but also can visualize the results for publication. (Bioinformatics 2021).
Resource type: Web query-driven software.
Description: The COVID-19 pandemic has lasted for nearly 3 years, which still might threaten public health and therefore needs a long term monitoring. CoVIS is an online tool for calculating the importance scores of SARS-CoV-2 variants and monitoring the tendency of death risk of COVID-19. (Cell Death Discovery 2022).
Resource type: Standalone software and Web query-driven software.
Description: GSGP is an algorithm for evaluating the contributions of genes to the somatic single base substitution (SBS) signatures. In addition to exploring the cancer aetiology at the sample level, the GSGP can be used for digging deeper to explore which and how much the aetiologies affect the genes (or which and how much the genes are affected by the aetiologies) (Ji et al. Briefings in Bioinformatics 2023).
Resource type: Web query-driven software.
Description: As the fundamental unit of a gene and its transcripts, nucleotides have enormous impacts on the gene function and evolution, and thus on phenotypes and diseases. In order to identify the key nucleotides of one specific gene, it is quite crucial to quantitatively measure the importance of each base on the gene. BIC (Base Importance Calculator) is an algorithm to calculate the importance score of each single base based on sequence information of human mRNAs and long noncoding RNAs (lncRNAs). We further revealed that BIC can effectively evaluate the pathogenicity of both genes and single bases, the prognosis of some cancers, and the transmissibility of SARS-CoV-2. (Briefing in Bioinformatics 2023).
Resource type: Web query-driven database.
Description: Human MicroRNA Disease Database (HMDD) is a database that contains the experimentally supported miRNA-disease association data, which are manually curated from publications. The dysfunction evidence or miRNAs and literature PubMed ID are also given. The first version of HMDD was released on December 2007 (Lu et al., PLoS one 2008). On June 20, 2013, HMDD v2.0 was released. On June 28, 2018, HMDD v3.0 was released. On June 2023, HMDD v4.0 was released.
Resource type: Web query-driven database.
Description: TransmiR integrated the experimentally supported transcription factor and miRNA regulatory relations (Wang et al., NAR 2010). On May, 2018, TransmiR v2.0 was released.
Resource type: Web query-driven database and software.
Description: miREnvironment integrated the experimentally supported interactions of miRNA and environmental factors including drugs. Phenotypes are also curated. Currently, two tools that can predict the therapy outcome of cancer treatment and predict environmental factor-disease relationships are also integrated (Yang et al., Bioinformatics 2011).
Resource type: Web query-driven database and software.
Description: LncRNADisease is a database that integrated experimentally supported long noncoding RNA (lncRNA) and disease associations, and lncRNA interactions. LncRNADisease is also a software platform that integrated tools for prediction novel relationship between lncRNAs and diseases (Chen et al., NAR 2013). On June 2018, LncRNADisease 2.0 was released. On June 2023, LncRNADisease 3.0 was released.
Resource type: Web query-driven database.
Description: The Human Microbe-Disease Association Database (HMDAD) is a resource which collected and curated the human microbe-disease association data from microbiota studies (Ma et al., Brief Bioinform 2016).
Resource type: Web query-driven database.
Description: AGD (Aneurysm Gene Database ) is a database that collected genes which are article-supported to be associated with aneurysm in human, rat and mouse. (Sun et al., Database 2018).
Resource type: Downloadable data in txt format
Description: No elements are isolated but interact with each other to form complex networks. For gene regulation, there exist several regulatory relationships, they are transcription factors (TFs)-genes, TF-miRNAs, and miRNA-genes. This network integrated currently available and experimentally supported gene regulatory relations and represents the first TF-miRNA-target network, which is a potentially valuable platform in biological and medical sciences (Qiu et al., BMC Systems Biology 2010).
Resource type: Downloadable data
Description: We curated human microRNA oncogenes and tumor suppressors, and their annotation data (Wang et al., PLoS ONE 2010).
Resource type: Downloadable data
Description: We generated miRNA expression profiles in a number of cells (Li et al., Biomed Res International 2013).