Automated Author ProfileSanborn, John Z.
Sanborn, John Z.
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: 7.9 (sum of 8 datasets Dataset Index scores)
More information here.
S-Index Over Time
Cumulative Citations Over Time
Cumulative Mentions Over Time
Datasets
Additional file 2: Supplement Table 1. Lists of genes included within each gene expression signature analyzed to determine Active/Inactive, cAMP lipolysis, adipocyte browning, SASP, AST, IGF1, IGF1R, IFN, TGFβ, and CSR activity scores. Also indicated is their reference sources and method of score calculation.
Authors
- Taekyu Kang ;
- Yau, Christina ;
- Wong, Christopher K. ;
- Sanborn, John Z. ;
- Newton, Yulia ;
- Vaske, Charlie ;
- Benz, Stephen C. ;
- Krings, Gregor ;
- Camarda, Roman ;
- Henry, Jill E. ;
- Stuart, Josh ;
- Powell, Mark ;
- Benz, Christopher C.
Additional file 2: Supplement Table 1. Lists of genes included within each gene expression signature analyzed to determine Active/Inactive, cAMP lipolysis, adipocyte browning, SASP, AST, IGF1, IGF1R, IFN, TGFβ, and CSR activity scores. Also indicated is their reference sources and method of score calculation.
Authors
- Taekyu Kang ;
- Yau, Christina ;
- Wong, Christopher K. ;
- Sanborn, John Z. ;
- Newton, Yulia ;
- Vaske, Charlie ;
- Benz, Stephen C. ;
- Krings, Gregor ;
- Camarda, Roman ;
- Henry, Jill E. ;
- Stuart, Josh ;
- Powell, Mark ;
- Benz, Christopher C.
Additional file 3: Supplement Table 2. RNAseq cancer gene hotspot mutations detected in 151 KTB samples. Sheet 1 identifies the > 5100 unthresholded cancer mutation hotspot calls from the KTB RNAseq analysis occurring in the combined set of MSK-IMPACT curated cancer hotspot clinical targets [10] and the experimentally determined RNAseq identified set of expressed cancer gene hotspot mutations within > 6700 normal GTEx human tissue samples as recently described [11]. Sheet 2 (“normal_breast_rna.getz_list.092”) lists only those > 1760 cancer gene hotspot mutations from sheet 1 meeting the threshold mutation likelihood score > 5, while sheets 3 and 4 list the thresholded hotspot mutations according to F and P sample batches with each sample phenotyped as either Active or Inactive. Sheet 5 is a sample key mapping all KTB identification numbers, barcodes, and UUID numbers pertaining to the RNAseq results and cancer gene hotspot mutation calls. Of note, Fig. 2 panels (“Breast sample scatterplots and TumorMaps of RNA expressed cancer hotspot mutations”) include plots derived from the curated and thresholded hotspot mutations as listed in sheet 2.
Authors
- Taekyu Kang ;
- Yau, Christina ;
- Wong, Christopher K. ;
- Sanborn, John Z. ;
- Newton, Yulia ;
- Vaske, Charlie ;
- Benz, Stephen C. ;
- Krings, Gregor ;
- Camarda, Roman ;
- Henry, Jill E. ;
- Stuart, Josh ;
- Powell, Mark ;
- Benz, Christopher C.
Additional file 3: Supplement Table 2. RNAseq cancer gene hotspot mutations detected in 151 KTB samples. Sheet 1 identifies the > 5100 unthresholded cancer mutation hotspot calls from the KTB RNAseq analysis occurring in the combined set of MSK-IMPACT curated cancer hotspot clinical targets [10] and the experimentally determined RNAseq identified set of expressed cancer gene hotspot mutations within > 6700 normal GTEx human tissue samples as recently described [11]. Sheet 2 (“normal_breast_rna.getz_list.092”) lists only those > 1760 cancer gene hotspot mutations from sheet 1 meeting the threshold mutation likelihood score > 5, while sheets 3 and 4 list the thresholded hotspot mutations according to F and P sample batches with each sample phenotyped as either Active or Inactive. Sheet 5 is a sample key mapping all KTB identification numbers, barcodes, and UUID numbers pertaining to the RNAseq results and cancer gene hotspot mutation calls. Of note, Fig. 2 panels (“Breast sample scatterplots and TumorMaps of RNA expressed cancer hotspot mutations”) include plots derived from the curated and thresholded hotspot mutations as listed in sheet 2.
Authors
- Taekyu Kang ;
- Yau, Christina ;
- Wong, Christopher K. ;
- Sanborn, John Z. ;
- Newton, Yulia ;
- Vaske, Charlie ;
- Benz, Stephen C. ;
- Krings, Gregor ;
- Camarda, Roman ;
- Henry, Jill E. ;
- Stuart, Josh ;
- Powell, Mark ;
- Benz, Christopher C.
Additional file 4: Supplement Table 3. Rank ordered GSEA ( www.gsea-msigdb.org/gsea ) analysis showing 186 gene sets upregulated (from total set of 18,408 gene sets) in the batch-integrated Active vs. Inactive transcriptome samples, at FDR ≤ 10%. Also shown are their individual nominal p-values, FDR q-values, their gene set size, and the 21 (11.2%) that are specifically involved in adipose-associated pathways.
Authors
- Taekyu Kang ;
- Yau, Christina ;
- Wong, Christopher K. ;
- Sanborn, John Z. ;
- Newton, Yulia ;
- Vaske, Charlie ;
- Benz, Stephen C. ;
- Krings, Gregor ;
- Camarda, Roman ;
- Henry, Jill E. ;
- Stuart, Josh ;
- Powell, Mark ;
- Benz, Christopher C.
Additional file 5: Supplement Table 4. Master spreadsheet listing showing sample and donor covariates for each of the 151 KTB barcodes including batch assignment (F or P), Active/Inactive phenotype assignment and score, donor features (including age, BMI, 5 year Gail risk scores), percentages of adipocyte/stromal/epithelial cell nuclei, TDLU counts, mean adipocyte areas, immune modules, and all gene signatures and single genes values used to calculate the Pearson correlations shown in Fig. 5.
Authors
- Taekyu Kang ;
- Yau, Christina ;
- Wong, Christopher K. ;
- Sanborn, John Z. ;
- Newton, Yulia ;
- Vaske, Charlie ;
- Benz, Stephen C. ;
- Krings, Gregor ;
- Camarda, Roman ;
- Henry, Jill E. ;
- Stuart, Josh ;
- Powell, Mark ;
- Benz, Christopher C.
Additional file 4: Supplement Table 3. Rank ordered GSEA ( www.gsea-msigdb.org/gsea ) analysis showing 186 gene sets upregulated (from total set of 18,408 gene sets) in the batch-integrated Active vs. Inactive transcriptome samples, at FDR ≤ 10%. Also shown are their individual nominal p-values, FDR q-values, their gene set size, and the 21 (11.2%) that are specifically involved in adipose-associated pathways.
Authors
- Taekyu Kang ;
- Yau, Christina ;
- Wong, Christopher K. ;
- Sanborn, John Z. ;
- Newton, Yulia ;
- Vaske, Charlie ;
- Benz, Stephen C. ;
- Krings, Gregor ;
- Camarda, Roman ;
- Henry, Jill E. ;
- Stuart, Josh ;
- Powell, Mark ;
- Benz, Christopher C.
Additional file 5: Supplement Table 4. Master spreadsheet listing showing sample and donor covariates for each of the 151 KTB barcodes including batch assignment (F or P), Active/Inactive phenotype assignment and score, donor features (including age, BMI, 5 year Gail risk scores), percentages of adipocyte/stromal/epithelial cell nuclei, TDLU counts, mean adipocyte areas, immune modules, and all gene signatures and single genes values used to calculate the Pearson correlations shown in Fig. 5.
Authors
- Taekyu Kang ;
- Yau, Christina ;
- Wong, Christopher K. ;
- Sanborn, John Z. ;
- Newton, Yulia ;
- Vaske, Charlie ;
- Benz, Stephen C. ;
- Krings, Gregor ;
- Camarda, Roman ;
- Henry, Jill E. ;
- Stuart, Josh ;
- Powell, Mark ;
- Benz, Christopher C.