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Research Paper

Identification and validation of the prognostic value of cyclic GMP-AMP synthase-stimulator of interferon (cGAS-STING) related genes in gastric cancer

ORCID Icon, &
Pages 1238-1250 | Received 14 Jan 2021, Accepted 19 Mar 2021, Published online: 12 Apr 2021

Figures & data

Table 1. The clinical characteristics of the patients

Figure 1. Prognostic differentially expressed CSRs. a. Heatmap of differentially expressed CSRs. b. Volcano plots of differentially expressed CSRs. c. UCR analysis for the CSRs identification in the TCGA patient cohort

Figure 1. Prognostic differentially expressed CSRs. a. Heatmap of differentially expressed CSRs. b. Volcano plots of differentially expressed CSRs. c. UCR analysis for the CSRs identification in the TCGA patient cohort

Figure 2. Biological function analysis of differentially expressed CSRs: GO analysis (a) and KEGG pathways analysis (b)

Figure 2. Biological function analysis of differentially expressed CSRs: GO analysis (a) and KEGG pathways analysis (b)

Table 2. The coefficients of each gene

Figure 3. Risk score, reflecting overall survival, based on the CSRs signature comprising five genes, in the training and validation cohorts. (a–b) Kaplan-Meier curve for OS of patients with high- and low risk scores in the training and validation cohorts. (c–d) Risk-score distribution in the training and validation cohorts. (e–f) The survival status plot associated with risk score in the training and validation cohorts. (g–h) Heatmap of the expression of the five CSRs in the high- and low-risk groups and the training and validation cohorts

Figure 3. Risk score, reflecting overall survival, based on the CSRs signature comprising five genes, in the training and validation cohorts. (a–b) Kaplan-Meier curve for OS of patients with high- and low risk scores in the training and validation cohorts. (c–d) Risk-score distribution in the training and validation cohorts. (e–f) The survival status plot associated with risk score in the training and validation cohorts. (g–h) Heatmap of the expression of the five CSRs in the high- and low-risk groups and the training and validation cohorts

Figure 4. The model was combined with a regression analysis of clinical indicators. (a-b) Assessment of the contribution of each factor to GC survival by UCR and MCR analysis in training cohort. (c, d) Assessment of the contribution of each factor to GC survival by UCR and MCR analysis in verification cohort

Figure 4. The model was combined with a regression analysis of clinical indicators. (a-b) Assessment of the contribution of each factor to GC survival by UCR and MCR analysis in training cohort. (c, d) Assessment of the contribution of each factor to GC survival by UCR and MCR analysis in verification cohort

Figure 5. The ROC curves and nomograms for predicting survival rate of GC. (a, c) ROC curves (receiver operating characteristics). (b, d) Nomogram

Figure 5. The ROC curves and nomograms for predicting survival rate of GC. (a, c) ROC curves (receiver operating characteristics). (b, d) Nomogram

Table 3. cGAS-STING pathway related gene sets that associated with high-risk group

Figure 6. The GSEA of possible pathways of high-risk groups in GC

Figure 6. The GSEA of possible pathways of high-risk groups in GC

Figure 7. Correlation analysis of the risk score model and immune cell infiltration. (a) B cells, (b) DCs, (c) CD4 + T cells, (d) macrophages, (e) CD8 + T cells, (f) Neutrophils

Figure 7. Correlation analysis of the risk score model and immune cell infiltration. (a) B cells, (b) DCs, (c) CD4 + T cells, (d) macrophages, (e) CD8 + T cells, (f) Neutrophils

Figure 8. Immune landscape of patients from High- and Low-Riskgroups. Differences of 22 subtypes of immune cells between two groups of TCGA dataset(a), and GEO database (b)

Figure 8. Immune landscape of patients from High- and Low-Riskgroups. Differences of 22 subtypes of immune cells between two groups of TCGA dataset(a), and GEO database (b)

Figure 9. Kaplan–Meier analysis of 22 kinds of immune cells. (a-b) The levels of T cells CD4 memory activated (a) and T cells follicular helper (b) were significantly associated with OS in patients with GC in TCGA database. (d-f) The levels of T cells CD4 memory activated (c), T cells follicular helper (d), B cells memory (e) and Mast cells resting (f) were significantly associated with OS in patients with GC in GEO database

Figure 9. Kaplan–Meier analysis of 22 kinds of immune cells. (a-b) The levels of T cells CD4 memory activated (a) and T cells follicular helper (b) were significantly associated with OS in patients with GC in TCGA database. (d-f) The levels of T cells CD4 memory activated (c), T cells follicular helper (d), B cells memory (e) and Mast cells resting (f) were significantly associated with OS in patients with GC in GEO database
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Availability of data and materials

The datasets analyzed was acquired from The Cancer Genome Atlas (TCGA) database (https://portal.gdc.cancer.gov/) and GEO database (https://www.ncbi.nlm.nih.gov/geo/).