This review summarizes the major technological developments in cancer genomics, including sequencing platforms, transcriptomic profiling, liquid biopsy, and functional genomic screening, and highlights the utility of these innovations in discovery of actionable biomarkers and next-generation therapeutic strategies.
Abstract
Cancer research has undergone a transformative change with the advent of high-throughput genomic technologies. Advances in next-generation sequencing accelerated the identification of somatic and germline alterations that drive tumorigenesis enabling the transition from traditional histology-based cancer classification to molecularly informed precision oncology. Large-scale sequencing initiatives and clinical genomic profiling facilitated the development of companion diagnostic assays and targeted therapies. Beyond targeted therapies, genomic innovations have also catalyzed the emergence of novel therapeutic strategies including immunogenomics-driven immunotherapies, RNA-based therapeutics, cancer vaccines and genome editing technologies based on CRISPR-Cas systems. This review summarizes the major technological developments in cancer genomics, including sequencing platforms, transcriptomic profiling, liquid biopsy, and functional genomic screening, and highlights the utility of these innovations in discovery of actionable biomarkers and next-generation therapeutic strategies. Collectively, these advances underscore the central role of genomic technologies in driving the evolution of precision oncology toward more personalized and effective cancer treatment strategies.
This review comprehensively synthesizes the evolutionary trajectory of genomic, transcriptomic, epigenetic, and spatial multi‐omic diagnostic pipelines and provides a unified, cross‐disciplinary blueprint to accelerate the transition of precision oncology from data‐rich analytical exploration to definitive clinical exe...
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