Harnessing nucleotide metabolism and immunity in cancer: a tumour microenvironment perspective.
Hadil SuliemanAlexandra EmersonPeter M WilsonKarl A MulliganRobert D LadnerMelissa J LaBontePublished in: The FEBS journal (2024)
The tumour microenvironment (TME) is a dynamic nexus where cancer cell metabolism and the immune system intricately converge, with nucleotide metabolism (NM) playing a pivotal role. This review explores the critical function of NM in cancer cell proliferation and its profound influence on the TME and immune landscape. NM is essential for DNA and RNA synthesis and is markedly upregulated in cancer cells to meet the demands of rapid growth. This metabolic rewiring fuels cancer progression, but also shapes the TME, impacting the function and viability of immune cells. The altered nucleotide milieu in the TME can suppress immune response, aiding cancer cell evasion from immune surveillance. Drug discoveries in the field of NM have revealed different therapeutic strategies, including inhibitors of nucleotide synthesis and drugs targeting salvage pathways, which are discussed thoroughly in this review. Furthermore, the emerging strategy of combining NM-targeted therapies with immunotherapies is emphasised, particularly their effect on sensitising tumours to immune checkpoint inhibitors and enhancing overall treatment efficacy. The Human Genome Project paved the way for personalised medicine, countering the established 'one size fits all' approach to cancer treatment. Advances in understanding the TME and NM have spurred interest in personalised therapeutic strategies. This review highlights the potential of leveraging individual tumour metabolic profiles to guide treatment selection, aiming to optimise efficacy and minimise adverse effects. The strategic importance of targeting NM in cancer therapy and its synergistic potential with immunotherapies offers a path towards more effective and personalised cancer treatments.
Keyphrases
- papillary thyroid
- photodynamic therapy
- cancer therapy
- immune response
- squamous cell
- cell proliferation
- stem cells
- public health
- endothelial cells
- single cell
- intellectual disability
- childhood cancer
- dna methylation
- young adults
- quality improvement
- genome wide
- artificial intelligence
- climate change
- big data
- single molecule
- dendritic cells
- deep learning