Aug 2026· International Journal of Molecular Medicine· Vol 58· 0 citations· 148 references
Medicine
TL;DR
This review systematically synthesizes advances in the pivotal, context-dependent roles of BTG2 in non-tumor pathologies, including fibrotic, neurological, cardiovascular, inflammatory, metabolic and other systemic diseases.
Abstract
The B-cell translocation gene 2 (BTG2), originally identified as a tumor suppressor, has been extensively studied in oncology research. However, its multifaceted functions in non-tumor diseases are still being recognized but not entirely understood. This review systematically synthesizes advances in the pivotal, context-dependent roles of BTG2 in non-tumor pathologies, including fibrotic, neurological, cardiovascular, inflammatory, metabolic and other systemic diseases. BTG2 is not merely a binary regulator but a context-sensitive molecular hub. Specific disease microenvironments, cell types and pathological stages contribute to its biological impact, whether protective or pathogenic. For instance, BTG2 promotes protective microglial activation in Alzheimer's disease while exacerbating neuronal death in acute spinal cord injury. Mechanistically, BTG2 influences cell fate decisions involving apoptosis, senescence, inflammation and metabolism by integrating signals from various pathways at the intersection of major regulatory networks, such as the neuro-immune-epigenetic axis and the metabolic-epigenetic-fibrosis network. It has emerged as a promising dual-purpose biomarker for disease diagnosis and prognosis, as well as a potential therapeutic target, owing to its dose-sensitive expression and regulatory position. However, because of its functional duality, therapeutic targeting necessitates precise, context-specific strategies. This review offers a novel, integrative perspective on BTG2 in non-tumor biology, underscoring its implication as a key regulatory node with extensive translational potential.
A conceptual framework is proposed in which TK1 is viewed not merely as a proliferation marker but as a potential regulator of the metabolic–immune ecosystem in HCC, which may facilitate the development of novel biomarkers and precision therapeutic strategies for patients with HCC.
Hao Chai, Lang Wu, Ming-Hao Li· Discover Oncology· 0 citations
The molecular mechanisms, pathological roles, and evolving clinical applications of GPNMB in cancer are dissected, highlighting current challenges and future directions for precision oncology.
Hai-Xia Wang, Rui-Ming Wen, Zhongwei Yang et al.· Biochemical Pharmacology· 0 citations
Targeting a shared signaling pathway might help overcome resistance seen with traditional precision medicine and support the development of new therapies for rare disease subtypes, despite their genetic and phenotypic differences.
Junya Kuroda, T. Tsukamoto, Y. Shimura· Expert opinion on therapeuti...· 0 citations
Thrombospondin-2 has emerged as a pivotal yet paradoxical regulator within the breast cancer tumor microenvironment and is a key architect of an immunosuppressive “cold” TME, so therapeutic inhibition of THBS2 presents a promising integrative “cold-to-hot” conversion strategy.
Xi Wan, Xin-Chen Zhao, Yao Lin et al.· Clinical and Experimental Me...· 0 citations
Findings have demonstrated NCX1 as a biologically informative marker of myeloid differentiation and a promising therapeutic weak point within calcium signaling networks in hematological malignancies, providing a rationale for future functional and single-cell validation studies.
Sema Mısır, S. Yaman, Nina Petrović et al.· Biochemical and Biophysical...· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.