This work provides a comprehensive framework that clarifies recent controversies—such as whether H4K16ac primarily governs transcription or replication timing, and which KAT8-containing complex catalyzes, which acetylation mark—and establishes a rationale for future precision-targeting strategies and biomarker development grounded in KAT8 functional heterogeneity.
Abstract
Summary KAT8 (MOF/MYST1) is a core histone acetyltransferase of the MYST family. Beyond its canonical H4K16ac activity, KAT8 catalyzes diverse acylations and regulates stem cell biology, DNA repair, metabolism, and immunity. This review systematically integrates KAT8’s regulatory networks across physiology and disease. We decipher the molecular basis of its context-dependent “double-edged sword” role in cancer, acting predominantly as an oncoprotein yet exhibiting tumor-suppressive functions under specific conditions. We evaluate current KAT8 inhibitor development, from early non-selective compounds to selective leads, and highlight persistent translational hurdles including insufficient specificity and limited in vivo efficacy. This work provides a comprehensive framework that clarifies recent controversies—such as whether H4K16ac primarily governs transcription or replication timing, and which KAT8-containing complex catalyzes, which acetylation mark—and establishes a rationale for future precision-targeting strategies and biomarker development grounded in KAT8 functional heterogeneity.
This review consolidates current knowledge on MEG3, detailing its genetics, expression regulation, and core mechanisms-primarily its role as a competing endogenous RNA (posttranscriptional regulation) and as a scaffold for chromatin modifiers to modulate inflammatory pathways.
Jie-quan Wang, Tong-sheng Zhou, Hua Wu et al.· The Journal of pharmacy and...· 0 citations
Emerging evidence has expanded the functional repertoire of SKP2 beyond cell cycle control to encompass metabolism, DNA repair, stemness, tumor microenvironment and immunotherapy response, positioning it as an increasingly attractive target for intervention.
Sheng-An Zheng, Cheng Wang, Xiao-Die Yao et al.· Drug Design, Development and...· 0 citations
The molecular mechanisms underlying NAT10-mediated RNA ac4C modification and protein acetylation, as well as their biological functions across physiological and pathological contexts, are systematically summarized, with the aim of facilitating its clinical translation.
Chengyu Zhang, Jin Lu, Lu Tang et al.· Cell Biology and Toxicology· 0 citations
An integrated overview of the molecular features and functional roles of BAP1 is provided, with particular emphasis on its impacts on the regulation of cell death including apoptosis, ferroptosis and disulfidptosis.
Kexin Fan, Jun Yao, Shaobo Wu et al.· Frontiers in Cell and Develo...· 0 citations
An integrated pathogenic framework is described that drives renal tumorigenesis via constitutive MiT/TFE nuclear accumulation and metabolic reprogramming and highlights novel therapeutic vulnerabilities targeting MiT/TFE factors and kinase rewiring, providing a rationale for organ-specific precision medicine in BHD.
Z. Cao, Si-Cheng Zhao, Feng Lin et al.· Frontiers in Oncology· 0 citations
By integrating molecular mechanisms with clinical perspectives, this review charts a roadmap for targeting the epitranscriptomic-long non-coding RNA circuit in precision oncology.
Ziqiang Wang, Tianzi Li, Kun Li· Journal of Translational Med...· 1 citation