Clear cell renal cell carcinoma consensus transcriptomic programs reveal converging trajectories towards aggressive disease

Elias, R.; Nimgaonkar, V.; Xie, B.; Zhang, Y.; Balan, A.; Noller, K.; Singla, N.; Ged, Y.; Baraban, E.; Stein-O\'Brien, G.; Kapur, P.; Brugarolas, J.; Ochs, M.; Fertig, E.; Deshpande, A.; Yegnasubramanian, S.

doi:10.64898/2026.06.24.734364

bioRxiv · 10.64898/2026.06.24.734364

Clear cell renal cell carcinoma consensus transcriptomic programs reveal converging trajectories towards aggressive disease

Elias, R.·Nimgaonkar, V.·Xie, B.·Zhang, Y.·Balan, A.·Noller, K.·Singla, N.·Ged, Y.·Baraban, E.·Stein-O\'Brien, G.·Kapur, P.·Brugarolas, J.·Ochs, M.·Fertig, E.·Deshpande, A.·Yegnasubramanian, S.

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Abstract

Clear cell renal cell carcinoma (ccRCC) is characterized by a branching genomic trajectory in which early biallelic VHL inactivation splits into PBRM1- and BAP1-mutant lineages. However, driver mutations alone do not account for the molecular and phenotypic heterogeneity. To dissect this heterogeneity, we developed a non-negative matrix factorization (NMF)-based gene expression analytical framework for identifying recurrent transcriptional programs across factorization dimensionalities and across datasets. We applied it to three curated datasets (IMmotion151, n = 823; JAVELIN Renal 101, n = 726; TCGA, n = 614) to define 17 consensus transcriptomic programs (CTPs). Mapping CTPs onto single-cell RNAseq (scRNAseq) of human ccRCC tumors and patient-derived tumorgraft models linked these programs to their cellular sources, distinguishing RCC-intrinsic, tumor-cell-extrinsic, and mixed programs. RCC-intrinsic CTPs associated with canonical drivers, including VHL (R1), PBRM1 (R2), BAP1 (R4), PTEN/TSC1 (R3), TFE3/TFEB fusions (R5), NF2 (R6), and CDKN2A/TP53 (MP-Prolif). Additional CTPs captured tumor microenvironment (TME) composition (TME-Tcell, TME-Myelo, TME-Endo, TME-Stroma) and biological processes active across multiple cellular compartments, including proliferation, Y-chromosome-linked expression in male tumors, ciliary biology, and translation. Trajectory inference methods revealed PBRM1-like and BAP1-like branches that converged on a shared aggressive late transcriptomic stage (TS) associated with higher nuclear grade, additional driver alterations, myeloid/stromal infiltration, and poor clinical outcomes. Spatial transcriptomics (and multiregional sequencing) of paired conventional ccRCC and sarcomatoid regions linked TS advancement with morphological progression and clonal evolution. After adjusting for stage, grade, and BAP1/PBRM1 status, TS remained independently prognostic. Furthermore, our data suggest that immune checkpoint inhibitor combinations are particularly beneficial for MP-Prolif and not R1 utilizing specimens. In summary, we present an atlas of recurring transcriptomic programs in RCC and an ontological framework bridging genotype, tumor-cell-intrinsic gene expression, and microenvironment remodeling, with implications for risk stratification and treatment selection in ccRCC.

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Elias, R., Nimgaonkar, V., Xie, B., Zhang, Y., Balan, A., Noller, K., Singla, N., Ged, Y., Baraban, E., Stein-O\'Brien, G., Kapur, P., Brugarolas, J., Ochs, M., Fertig, E., Deshpande, A., Yegnasubramanian, S.. 2026-06-26. Clear cell renal cell carcinoma consensus transcriptomic programs reveal converging trajectories towards aggressive disease. https://doi.org/10.64898/2026.06.24.734364

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