Jul 2026· Cell Communication and Signaling· 0 citations
TL;DR
The unique 3D chromatin variation pattern in cancers may become a new biomarker and provide a theoretical basis for epigenetic therapy targeting chromatin spatial organization.
Abstract
Three-dimensional (3D) chromatin structure is crucial for gene regulation and cellular identity, with alterations in this structure being closely associated with tumor development. Although the research of tumor genomics has made significant progress in the past decade, the mechanism of 3D chromatin structure in tumorigenesis is not completely clear. Recent studies have shown that the distortion of chromatin spatial conformation has become one of the core factors driving normal cell carcinogenesis by changing the gene regulatory network. Abnormal high-order chromatin organization leads to abnormal activation of oncogenes or silencing of tumor suppressor genes. This 3D chromatin disorder has been confirmed to be directly related to the phenotypic plasticity of a variety of tumors. Therefore, the dynamic changes of 3D chromatin structure play a key role in the occurrence and development of tumors, especially for malignant tumors with difficult diagnosis and lack of treatment. This article provides an overview of hierarchical alterations in cancer 3D chromatin structure, the mechanisms governing these changes, recent advances in detection technologies, and emerging therapeutic strategies. The unique 3D chromatin variation pattern in cancers may become a new biomarker and provide a theoretical basis for epigenetic therapy targeting chromatin spatial organization. In the future, integrating multi-omics data to develop specific drugs for key nodes of the 3D chromatin and establishing an early diagnosis system based on spatial chromatin characteristics will become an important direction to break through the bottleneck of cancer treatment.
Overall, chromatin 3D conformation integrates information from multiple molecular features, and thus it may represent a key to decoding cancer phenotypes.
G. Franceschini, Konstantina Georgakopoulou, G. Ciriello et al.· Nature Reviews. Cancer· 0 citations
A comprehensive synthesis of the mechanisms and functional roles of classical chromatin remodelers within both physiological and neoplastic contexts is provided and a hierarchical framework that distinguishes between 'first-level' and 'higher-order' chromatin remodeling is proposed.
A unified view is provided of how genome structure is established, how it relates to function, and how its disruption contributes to tumorigenesis, suggesting that alterations in genome structure can, in some contexts, actively reshape oncogenic programs.
Rebecca G. Smith, Hannah M. Wilson, Kathleen L. Schiela et al.· Genes & Development· 0 citations
The role of nuclear architecture in tumorigenesis, the contribution of lamins to chromatin organization, and the emerging epigenetic control of lamins in cancer progression and metastasis are discussed.
This study finds that the proposed approach to estimate structural disruptions resulting from genetic mutations based on the information of chromatin interactions is capable of iden-tifying structurally disruptive mutations and providing insights into the structure of the genome and biological processes relevant to the...
T. Rajesh, D. Sree, Sai Pranathi et al.· International Journal for Re...· 0 citations
This chapter examines how 3C technologies have refined the understanding of genome organization and gene regulation and supports a model in which genome folding is governed by the biophysical properties of chromatin.
Hang-Peng Li, N. Denny, James O. J. Davies· Current Topics in Developmen...· 0 citations
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