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Research Paper

Pan-cancer analysis of clinical significance and associated molecular features of glycolysis

, , , , , , & show all
Pages 4233-4246 | Received 29 Mar 2021, Accepted 31 May 2021, Published online: 24 Jul 2021

Figures & data

Table 1. Univariate cox analysis of glycolysis score

Table 2. Subgroup analysis for the prognostic value of glycolysis score

Figure 1. The prognostic value of glycolysis in pan-cancer patients

(A) Forest plot of the correlation between glycolysis levels and OS of pan-cancer patients; (B) Heatmap shows P-values (including age, gender, pathologic stage, and histological grade) with significance (P < 0.05, red); (C–F) Highlight of tumor molecular subtypes that exhibit strong correlations with glycolysis.
Figure 1. The prognostic value of glycolysis in pan-cancer patients

Figure 2. Validation of the prognostic value of hepatocellular carcinoma (HCC) in three independent cohorts

(A) GSE14520; (B) GSE54236; (C) LIRI-JP.
Figure 2. Validation of the prognostic value of hepatocellular carcinoma (HCC) in three independent cohorts

Figure 3. Exploration of metabolism-driven cancer types

(A) Patients were divided into high- and low- glycolysis groups based on the gene expression of 72 signature genes generated by K-means clustering; (B) Principal component analysis plot indicates that the two subgroups have distinct glycolysis gene expression profiles; (C) Kaplan–Meier survival analysis curves for the two patient clusters; (D) Heatmap of the 8633 patients grouped by cluster, with annotations associated with each cluster; (E) The ratio of patients with high and low glycolysis in different cancer types.
Figure 3. Exploration of metabolism-driven cancer types

Figure 4. Associations between glycolysis and 10 oncogenic signaling pathway alterations

(A) Heatmap of glycolysis scores and pathway alterations; (B) Heatmap showing P-values (Mann–Whitney U test). Red indicates that the glycolysis score is upregulated, while blue indicates that it is downregulated in the pathway alteration group.
Figure 4. Associations between glycolysis and 10 oncogenic signaling pathway alterations

Figure 5. Gene functional enrichment analysis of glycolysis-associated genes

(A) Gene ontology of glycolysis-associated genes; (B) Kyoto Encyclopedia of Genes and Genomes (KEGG) analysis of glycolysis-associated genes; (C) Protein–protein interaction (PPI) network of glycolysis-associated genes.
Figure 5. Gene functional enrichment analysis of glycolysis-associated genes

Figure 6. Correlation network of glycolysis-related proteins

(A) Red lines show proteins positively related to glycolysis, while blue lines show proteins negatively related to glycolysis; (B) Bar plot indicates that cyclin B1 positively correlates with glycolysis in 16 types of cancer.
Figure 6. Correlation network of glycolysis-related proteins

Figure 7. Associations between glycolysis and immune cell infiltrations

Figure 7. Associations between glycolysis and immune cell infiltrations

Figure 8. Correlation of glycolysis with drug resistance: connectivity map analysis

(A) Heatmap showing a negative enrichment score of each compound from Cmap for each cancer type; (B) Heatmap showing each Cmap compound (perturbagen) that shares mechanisms of action (rows) and sorted by descending number of compounds with shared mechanisms of action.
Figure 8. Correlation of glycolysis with drug resistance: connectivity map analysis

Data availability statement

The datasets analyzed in this study were obtained from the TCGA database (http://www.cancer.gov/tcga).