Additional file 1 of MCT4-dependent lactate transport: a novel mechanism for cardiac energy metabolism injury and inflammation in type 2 diabetes mellitus
Creators: name: Ma, Xiu Mei
name: Geng, Kang
name: Wang, Peng
name: Jiang, Zongzhe
name: Law, Betty Yuen-Kwan
name: Xu, Yong
Publisher: name: figshare
Year: 2024
Subjects: subject: Biochemistry
subject: Space Science
subject: Microbiology
subject: FOS: Biological sciences
subject: Genetics
subject: Physiology
subject: Chemical Sciences not elsewhere classified
subject: Immunology
subject: FOS: Clinical medicine
subject: Information Systems not elsewhere classified

description: Additional file 1: Figure S1. A: GSEA enrichment analysis of DEGs in Leprdb vs. m Leprdb mice. B: CIBERSORT immune infiltration assessment of heart tissue in Leprdb vs. m Leprdb mice. C: PPI network and hub genes. D: Western blot analysis and quantification of MCT4 in the plasma membrane components of heart tissue in Leprdb vs. m Leprdb mice. Figure S2. A: Representative diagram of Λψm (mitochondrial membrane potential) in H9C2 cells treated with PA. B: Fold change of pyruvate in H9C2 whole cell lysates after time-dependent PA stimulation. C: Western blot analysis and quantification of MCT4 in the plasma membrane components of H9C2 cells after time-dependent PA stimulation. D: Fold change in whole-cell abundances of pyruvate in H9C2 treated with PA and/or VB124. E: Fold change in mitochondrial pool abundances of pyruvate in H9C2 treated with PA and/or VB124. F: Fold change in whole-cell abundances of lactic acid in H9C2 treated with PA and/or MCT4 knock-down (KD). G: Fold change in whole-cell abundances of pyruvate in H9C2 treated with PA and/or MCT4 KD. H: Fold change in mitochondrial pool abundances of pyruvate in H9C2 treated with PA and/or MCT4 KD. I: Fold change in cell supernatant abundances of lactic acid in H9C2 treated with PA and/or MCT4 KD. J: Representative diagram and quantification of ROS in H9C2 cells treated with PA and/or MCT4 KD. K: Representative diagram of MitoSOX in PMCM and H9C2 cells treated with PA and/or VB124. L: Representative diagram and quantification of Λψm in H9C2 cells treated with PA and/or MCT4 KD. M: Fold change of ATP content in H9C2 treated with PA and/or MCT4 KD. Figure S3. A: Representative diagram and quantification of BNP in H9C2 cells treated with PA and/or MCT4 KD. B: Anp and Bnp mRNA expression in H9C2 cells treated with PA and/or MCT4 KD. C: Representative diagram and quantification of length–width ratio in H9C2 cells treated with PA and/or VB124. D: Representative diagram and quantification of Annexin-V positive apoptosis cells in H9C2 treated with PA and/or VB124. E: mRNA expression of Il-1β, Il-6, Il-18, Ccl2 and Tnf-α in H9C2 cells treated with PA and/or MCT4 KD. Figure S4. RAW 264.7 and H9C2 (pre-treated with PA and/or MCT4 KD) were cocultured for 24 h for A–C. A: Representative diagram and quantification of migrated RAW 264.7 cells stained with crystal violet. B: mRNA expression of Il-1β and Tnf-α in coculture RAW 264.7. C: mRNA expression of iNOS, Hif-1α, Il-1β, and Tnf-α in coculture RAW 264.7. D: Representative diagram and quantification of ARG-1 and iNOS in RAW 264.7 treated with PA and/or LAC. E: Fold change in whole-cell abundances of lactic acid in RAW 264.7 treated with PA and/or LAC. F: mRNA expression of Il-6 and Il-18 in RAW 264.7 treated with PA and/or LAC. Figure S5. A: Representative diagram of heart oil-drop deposition in mice. B: Representative diagram and quantification of heart ROS and mitochondria dsDNA/total cytoplasmic dsDNA in mice. C: mRNA expression of cardiac Il-6 and Il-18 in mice. D: Representative diagram and quantification of heart IL-1β positive macrophage (%) in mice. *Leprdb compared to m Leprdb, #Leprdb + VB124 compared to Leprdb.