Dissecting the impact of bromodomain inhibitors on the Interferon Regulatory Factor 4‐MYC oncogenic axis in multiple myeloma

B‐cell progenitor fate determinant interferon regulatory factor 4 (IRF4) exerts key roles in the pathogenesis and progression of multiple myeloma (MM), a currently incurable plasma cell malignancy. Aberrant expression of IRF4 and the establishment of a positive auto‐regulatory loop with oncogene MYC...

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Veröffentlicht in:Hematological oncology 2022-08, Vol.40 (3), p.417-429
Hauptverfasser: Agnarelli, Alessandro, Mitchell, Simon, Caalim, Gillian, Wood, C. David, Milton‐Harris, Leanne, Chevassut, Timothy, West, Michelle J., Mancini, Erika J.
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container_end_page 429
container_issue 3
container_start_page 417
container_title Hematological oncology
container_volume 40
creator Agnarelli, Alessandro
Mitchell, Simon
Caalim, Gillian
Wood, C. David
Milton‐Harris, Leanne
Chevassut, Timothy
West, Michelle J.
Mancini, Erika J.
description B‐cell progenitor fate determinant interferon regulatory factor 4 (IRF4) exerts key roles in the pathogenesis and progression of multiple myeloma (MM), a currently incurable plasma cell malignancy. Aberrant expression of IRF4 and the establishment of a positive auto‐regulatory loop with oncogene MYC, drives a MM specific gene‐expression program leading to the abnormal expansion of malignant immature plasma cells. Targeting the IRF4‐MYC oncogenic loop has the potential to provide a selective and effective therapy for MM. Here we evaluate the use of bromodomain inhibitors to target the IRF4‐MYC axis through combined inhibition of their known epigenetic regulators, BRD4 and CBP/EP300. Although all inhibitors induced cell death, we found no synergistic effect of targeting both of these regulators on the viability of MM cell‐lines. Importantly, for all inhibitors over a time period up to 72 h, we detected reduced IRF4 mRNA, but a limited decrease in IRF4 protein expression or mRNA levels of downstream target genes. This indicates that inhibitor‐induced loss of cell viability is not mediated through reduced IRF4 protein expression, as previously proposed. Further analysis revealed a long half‐life of IRF4 protein in MM cells. In support of our experimental observations, gene network modeling of MM suggests that bromodomain inhibition is exerted primarily through MYC and not IRF4. These findings suggest that despite the autofeedback positive regulatory loop between IRF4 and MYC, bromodomain inhibitors are not effective at targeting IRF4 in MM and that novel therapeutic strategies should focus on the direct inhibition or degradation of IRF4.
doi_str_mv 10.1002/hon.3016
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Aberrant expression of IRF4 and the establishment of a positive auto‐regulatory loop with oncogene MYC, drives a MM specific gene‐expression program leading to the abnormal expansion of malignant immature plasma cells. Targeting the IRF4‐MYC oncogenic loop has the potential to provide a selective and effective therapy for MM. Here we evaluate the use of bromodomain inhibitors to target the IRF4‐MYC axis through combined inhibition of their known epigenetic regulators, BRD4 and CBP/EP300. Although all inhibitors induced cell death, we found no synergistic effect of targeting both of these regulators on the viability of MM cell‐lines. Importantly, for all inhibitors over a time period up to 72 h, we detected reduced IRF4 mRNA, but a limited decrease in IRF4 protein expression or mRNA levels of downstream target genes. This indicates that inhibitor‐induced loss of cell viability is not mediated through reduced IRF4 protein expression, as previously proposed. 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subjects BET/BRD4
CBP/EP300
Cell Cycle Proteins - metabolism
Cell Cycle Proteins - pharmacology
Cell Cycle Proteins - therapeutic use
Cell death
Cell Line, Tumor
Cell Proliferation
Cell viability
dual inhibition
Epigenetics
Gene expression
Humans
Inhibitors
Interferon
Interferon regulatory factor
Interferon regulatory factor 4
Interferon Regulatory Factors - genetics
Interferon Regulatory Factors - metabolism
IRF4
Malignancy
mRNA
Multiple myeloma
Multiple Myeloma - drug therapy
Multiple Myeloma - genetics
Multiple Myeloma - metabolism
MYC
Myc protein
Nuclear Proteins - genetics
Nuclear Proteins - metabolism
Pathogenesis
Plasma cells
Protein expression
Proteins
Proto-Oncogene Proteins c-myc - genetics
Proto-Oncogene Proteins c-myc - metabolism
RNA, Messenger
Synergistic effect
Transcription Factors - genetics
Transcription Factors - metabolism
title Dissecting the impact of bromodomain inhibitors on the Interferon Regulatory Factor 4‐MYC oncogenic axis in multiple myeloma
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