From: tRNA-derived small RNAs in human cancers: roles, mechanisms, and clinical application
Database | Functions | Website | Ref. |
---|---|---|---|
tRFdb | The first tRFs database, providing genomic coordinates and names of tRNAs from which tRFs sequences are likely derived. | [92] | |
MINTbase v2.0 | It can quickly filter tRFs by minimum abundance thresholds and tissue keywords, and provides the maximum abundance of tRFs as well as the related data information. | [93] | |
MINTmap | It contains data sets of tRFs encoded by mitochondria and nuclei, allows rapid identification of tRFs sequences, and calculates the raw and normalized abundance of tRFs. | [94] | |
tDRmapper | It provides a nomenclature system to define and quantify tDRs, which helps to discover new tDRs and explore more relevant biological functions. | [95] | |
tRFexplorer | It can visualize tRFs expression profiles in NCI-60 cell lines and TCGA tumor types, correlating with other ncRNAs expression profiles (e.g., miRNA) for patient survival correlation analysis. | [96] | |
PtRFdb | It provides 5607 unique tRFs sequences from 10 different plant species. | [97] | |
tRF2Cancer | It quickly identifies tRFs by analyzing deep sequencing data and contains the expression of tRFs in different types of cancer. | [98] | |
OncotRF | It provides a comprehensive view of tRFs dysregulated in cancers as well as their correlation with clinicopathological features. | [99] | |
tsRBase | It contains 121,942 tsRNAs from 20 organisms and combines the functional information of tsRNAs with their corresponding targets. | [100] | |
SPORTS1.0 | It can analyze tsRNAs of multiple tissues/cell types, and predicts potential RNA modification sites based on nucleotide mismatches within tsRNAs. | [101] |