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Indisulam targets RNA splicing and metabolism to serve as a therapeutic strategy for high-risk neuroblastoma

Medicine and Health

Indisulam targets RNA splicing and metabolism to serve as a therapeutic strategy for high-risk neuroblastoma

A. Nijhuis, A. Sikka, et al.

Discover how researchers Anke Nijhuis and colleagues have unleashed the potential of indisulam, a drug targeting RNA splicing factor RBM39, to combat high-risk neuroblastoma. Their groundbreaking study showcases complete tumor regression in xenograft models, reshaping our approach to pediatric cancer treatment.

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~3 min • Beginner • English
Abstract
Neuroblastoma is the most common paediatric solid tumour and prognosis remains poor for high-risk cases despite the use of multimodal treatment. Analysis of public drug sensitivity data showed neuroblastoma lines to be sensitive to indisulam, a molecular glue that selectively targets RNA splicing factor RBM39 for proteasomal degradation via DCAF15-E3-ubiquitin ligase. In neuroblastoma models, indisulam induces rapid loss of RBM39, accumulation of splicing errors and growth inhibition in a DCAF15-dependent manner. Integrative analysis of RNAseq and proteomics data highlight a distinct disruption to cell cycle and metabolism. Metabolic profiling demonstrates metabolome perturbations and mitochondrial dysfunction resulting from indisulam. Complete tumour regression without relapse was observed in both xenograft and the Th-MYCN transgenic model of neuroblastoma after indisulam treatment, with RBM39 loss, RNA splicing and metabolic changes confirmed in vivo. Our data show that dual-targeting of metabolism and RNA splicing with anticancer indisulam is a promising therapeutic approach for high-risk neuroblastoma.
Publisher
Nature Communications
Published On
Mar 16, 2022
Authors
Anke Nijhuis, Arti Sikka, Orli Yogez, Lili Herendi, Cristina Balcells, Yurui Ma, Evon Poon, Clare Eckold, Gabriel N. Valbuena, Yuewei Xu, Yusong Liu, Barbara Martins da Costa, Michael Gruet, Chiharu Wickremesinghe, Adrian Benito, Holger Kramer, Alex Montoya, David Carling, Elizabeth J. Want, Yann Jamin, Louis Chesler, Hector C. Keun
Tags
neuroblastoma
indisulam
RNA splicing
tumor regression
pediatric cancer
metabolic disruption
high-risk
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