bioRxivCancer BiologyPreprint
Integrated single cell spatial multi-omics landscape of WHO grades 2-4 diffuse gliomas identifies locoregional metabolomic regulators of glioma growth
Yanxia MaiD, Shamini AyyadhuryiD, Sanjay Kumar SinghiD, Yashu VashishathiD, Cagri OzdemiriD, Trevor D. McKeeiD, N. Rich NguyeniD, Akshay BasiiD, Duncan H. F. Mak, Javier A. GomeziD, Jason T. HuseiD, Sana Noor, Daniel E. WinkowskiiD, Regan Baird, Jeffrey S. WeinbergiD, Frederick F. LangiD, Jared K. BurksiD, Serdar BozdagiD, Erin H. SeeleyiD, Chibawanye EneiD
Abstract
Diffuse infiltrating gliomas are aggressive tumors of the central nervous system driven by intra-tumoral heterogeneity and aberrant normal-tumor cell-cell interactions. Grade specific and locoregional metabolic dependencies driving aberrant cell-states linked to treatment resistance, seizures and infiltration of gliomas remain elusive. Here, we applied spatial transcriptomics (stRNAseq), imaging mass cytometry (IMC) and mass spectrometry imaging (MSI; metabolites, peptides and glycans) to the core and edge tumor tissue from patients with World Health Organization (WHO) grades 2-4 diffuse infiltrating gliomas including isocitrate dehydrogenase (IDH) mutant oligodendrogliomas (WHO Grades 2 and 3) and IDH wildtype astrocytomas including anaplastic astrocytoma (prior 2016 WHO histological grade 3) and glioblastoma (GBM, WHO grade 4) stRNAseq identified regions-specific differentially expressed genes with significant overall survival implications particularly in IDH wildtype GBM. Integration of stRNA seq and MSI-derived metabolite expression demonstrated enrichment of L-glutamine in SOX4+ Neural progenitor-like (NPC-like) cells and DL-dopamine in GPNMB+ Mesenchymal-like (MES-like) GBM cells at the tumor edge relative to the core. Our results uncover clinically relevant and locoregional cell state-specific metabolites that may contribute to GBM proliferation, infiltration and seizures. This comprehensive pan-diffuse infiltrating glioma multi-omics study could serve as a resource for uncovering region-specific metabolic vulnerabilities encompassing metabolites, glycans and peptides within transcriptionally defined cell states across WHO 2-4 diffuse glioma.
- organism: human
- assay: spatial transcriptomics
- assay: metabolomics
- research focus: cell type annotation
- research focus: spatial domain detection
- approach: experimental assay
- Citations
- 3
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