Automated Author ProfileJinquan Xia
Jinquan Xia
Current S-Index
Sum of Dataset Indices for all datasets
Average Dataset Index per Dataset
Average Dataset Index per dataset
Total Datasets
Total datasets for this author
Average FAIR Score
Average FAIR Score per dataset
Total Citations
Total citations to the author's datasets
Total Mentions
Total mentions of the author's datasets
S-Index Interpretation
The S-Index (Sharing Index) is a comprehensive metric that represents the cumulative impact of all your datasets. It is calculated as the sum of Dataset Index scores across all your claimed datasets.
What it means:
- A higher S-index indicates greater overall impact of your datasets relative to typical datasets in their fields of research
- The S-Index grows as you add more datasets or as existing datasets gain more citations and mentions
- It provides a single number to track your research data impact over time
Current S-Index: 2.8 (sum of 2 datasets Dataset Index scores)
More information here.
S-Index Over Time
Cumulative Citations Over Time
Cumulative Mentions Over Time
Datasets
Statistic of pre-filter data. A total of 24 GB of raw data were generated and used for assembly with total sequence depth of 214.29 and total physical depth of 3203.63. Table S2. Statistic post filtering. A total of 18.76 GB data were generated after filtering process with total sequence depth of 167.5 and total physical depth of 2290.07. Table S3. Transposable elements (TEs) content in the Assembled B. pahangi Genome. The highest TEs predicted at the DNA level was found by RepBase (0.75 %). Table S4. General statistics of predicted protein-coding genes. Three de novo based methods used: AUGUSTUS, SNAP and GLIMMERHMM. Table S5. Statistics of function annotation. The method for functional annotation is divided into two types that are automated and manual. The automated method, TrEMBL database shows the highest number of annotation among all methods used with percentage of 96.64 % while InterPro database produces the most number of annotations with percentage of 71.32 % among manually curated databases. Table S6. B. pahangi genes mapped to Swissprot via blast. Table S7. B. pahangi genes with intrepro annotations. Table S8. B. pahangi genes with Gene ontology annotations. Table S9. B. pahangi genes mapped to KEGG via blast. Table S10. List of 569 B. pahangi unique genes. Table S11. The 403 Wolbachia genes in B. pahangi unique genes. Table S12. The 26 B. Pahangi unique proteins with their respective KEGG pathway class. Table S13. The 803 Wolbachia genes in B. pahangi genome. Table S14. General statistics of repeats in genome. From the table, TRF shows the biggest repeat size of 2.9 Mbp, which represent 3.34 % of the genome size. (XLSX 2292 kb)
Authors
- Yee-Ling Lau ;
- Wenn-Chyau Lee ;
- Jinquan Xia ;
- Zhang, GuiPing ;
- Rozaimi Razali ;
- Anwar, Arif ;
- Mun-Yik Fong
Statistic of pre-filter data. A total of 24 GB of raw data were generated and used for assembly with total sequence depth of 214.29 and total physical depth of 3203.63. Table S2. Statistic post filtering. A total of 18.76 GB data were generated after filtering process with total sequence depth of 167.5 and total physical depth of 2290.07. Table S3. Transposable elements (TEs) content in the Assembled B. pahangi Genome. The highest TEs predicted at the DNA level was found by RepBase (0.75 %). Table S4. General statistics of predicted protein-coding genes. Three de novo based methods used: AUGUSTUS, SNAP and GLIMMERHMM. Table S5. Statistics of function annotation. The method for functional annotation is divided into two types that are automated and manual. The automated method, TrEMBL database shows the highest number of annotation among all methods used with percentage of 96.64 % while InterPro database produces the most number of annotations with percentage of 71.32 % among manually curated databases. Table S6. B. pahangi genes mapped to Swissprot via blast. Table S7. B. pahangi genes with intrepro annotations. Table S8. B. pahangi genes with Gene ontology annotations. Table S9. B. pahangi genes mapped to KEGG via blast. Table S10. List of 569 B. pahangi unique genes. Table S11. The 403 Wolbachia genes in B. pahangi unique genes. Table S12. The 26 B. Pahangi unique proteins with their respective KEGG pathway class. Table S13. The 803 Wolbachia genes in B. pahangi genome. Table S14. General statistics of repeats in genome. From the table, TRF shows the biggest repeat size of 2.9 Mbp, which represent 3.34 % of the genome size. (XLSX 2292 kb)
Authors
- Yee-Ling Lau ;
- Wenn-Chyau Lee ;
- Jinquan Xia ;
- Zhang, GuiPing ;
- Rozaimi Razali ;
- Anwar, Arif ;
- Mun-Yik Fong