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Systematic review explores metabolic-immune axis in glioma progression and resistanceMetabolic-immune link in glioma opens new treatment avenues

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Key Takeaway
Recognize that metabolic reprogramming and immune evasion are interconnected in glioma, but causation is not established.

This is a systematic review that provides a narrative synthesis of existing evidence on the metabolic-immune axis in glioma. The authors describe how metabolic reprogramming and the tumor immune microenvironment are intricately interconnected and jointly contribute to tumor initiation, progression, and therapeutic resistance. Multiple metabolic pathways—including nucleotide, amino acid, and lipid metabolism—are closely associated with immune cell infiltration, immune evasion, and clinical outcomes in glioma.

The review does not report pooled effect sizes, study populations, or specific interventions. It is a qualitative synthesis of associations between metabolic pathways and immune outcomes; causation is not established. The authors aim to provide a comprehensive framework for understanding this interplay and to identify promising targets for precision therapy.

Limitations are not explicitly noted in the input, but the narrative nature and lack of quantitative synthesis mean the findings should be interpreted cautiously. The practice relevance is framed as a foundation for future clinical translation rather than immediate clinical application.

A systematic review has shed light on the complex relationship between metabolism and the immune system in glioma, a type of brain tumor. The review found that metabolic reprogramming—changes in how cells use energy—and the tumor's immune environment are deeply connected. Together, they drive tumor growth, progression, and resistance to treatment.

The analysis looked at multiple metabolic pathways, including those involving nucleotides, amino acids, and lipids. These pathways were closely linked to how immune cells infiltrate the tumor, how the tumor evades the immune system, and patient outcomes. The findings suggest that targeting these metabolic pathways could help improve immune-based therapies.

This review provides a framework for understanding the metabolic-immune interplay in glioma. It identifies promising targets for precision therapy and future clinical translation. However, the evidence is based on associations, not cause-and-effect, and no specific clinical outcomes or treatment benefits can be inferred from this review alone.

What this means for you:
Metabolic pathways in glioma are linked to immune evasion, offering potential targets for new treatments.

Study Details

Study typeSystematic review
EvidenceLevel 1
PublishedMay 2026
View Original Abstract ↓
Glioma is the most common and highly aggressive tumor of the central nervous system. Increasing evidence indicates that metabolic reprogramming and the tumor immune microenvironment are intricately interconnected and jointly contribute to tumor initiation, progression, and therapeutic resistance. In recent years, advances in multi-omics technologies have revealed that multiple metabolic pathways—including nucleotide, amino acid, and lipid metabolism—are closely associated with immune cell infiltration, immune evasion, and clinical outcomes in glioma, leading to the emergence of the “metabolic-immune axis” concept. This review systematically summarizes the regulatory mechanisms by which metabolic reprogramming shapes the glioma immune microenvironment and highlights key metabolic genes and immune phenotypes as potential molecular biomarkers for prognosis prediction and immunotherapeutic response. We further discuss multi-omics-based glioma classification strategies, the mechanistic roles of metabolic pathways in immune escape, and the therapeutic potential of combining metabolic-targeted interventions with immunotherapy. By integrating current research advances and existing challenges, this review aims to provide a comprehensive framework for understanding the metabolic-immune interplay in glioma and to identify promising targets for precision therapy and future clinical translation.
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