Mini Review - Allied Journal of Medical Research (2025) Volume 9, Issue 4
Biomedical innovations: Therapies, diagnostics, future medicine
Ethan Collins*
Department of Molecular Biology, Cambridge University, Cambridge, UK
- *Corresponding Author:
- Ethan Collins
Department of Molecular Biology
Cambridge University, Cambridge, UK.
E-mail: ethan.collins@cam.ac.uk
Received : 01-Oct-2025, Manuscript No. aaajmr-306; Editor assigned : 03-Oct-2025, PreQC No. aaajmr-306(PQ); Reviewed : 23-Oct-2025, QC No aaajmr-306; Revised : 03-Nov-2025, Manuscript No. aaajmr-306(R); Published : 12-Nov-2025 , DOI : 10.35841/aaajmr-9.4.306
Citation: Collins E. Biomedical innovations: Therapies, diagnostics, future medicine. aaajmr. 2025;09(04):306.
Introduction
Precision oncology is moving past conventional targeted therapies, embracing broader genomic and molecular profiling to integrate diverse 'omics' data. This approach aims to identify novel biomarkers and therapeutic strategies for cancer, holding potential for personalized treatments in challenging tumor types and resistance mechanisms [1].
Significant progress in CRISPR-Cas gene editing technologies shows promise for treating a range of genetic diseases. This includes advancements in delivery methods, specificity, and safety, while also addressing current challenges and ethical considerations in translating these powerful tools from research to clinical therapeutic use [2].
RNA therapeutics, encompassing mRNA vaccines, antisense oligonucleotides, and small interfering RNAs, provide a comprehensive overview of their mechanisms of action and clinical applications. These therapies are relevant for various diseases, from infectious conditions to genetic disorders, with advancements in delivery systems being crucial for efficacy and safety [3].
Liquid biopsies present transformative potential in cancer diagnosis, prognosis, and monitoring. They focus on circulating tumor cells, cell-free DNA, and other circulating biomarkers, detailing their use in early detection, treatment selection, and surveillance for recurrence. Existing limitations and future research directions are also being actively explored [4].
Adeno-associated virus (AAV) vector-mediated gene therapy has seen comprehensive advancements. It covers the evolution of AAV vectors and their clinical successes in treating genetic disorders like spinal muscular atrophy and inherited blindness. Ongoing efforts are dedicated to overcoming challenges such as immunogenicity, manufacturing, and tropism engineering for broader applications [5].
The human microbiome plays a critical role in maintaining health, and its dysregulation is implicated in various diseases, including metabolic, autoimmune, and neurological conditions. Therapeutic interventions targeting the microbiome, such as fecal microbiota transplantation, probiotics, and prebiotics, are being explored, alongside precision microbiome modulation strategies [6].
The field of cancer immunotherapy is continually updating, covering modalities like checkpoint inhibitors, CAR T-cell therapy, and oncolytic viruses. Addressing challenges of primary and acquired resistance, biomarker identification for patient selection, and the promise of combination therapies are key to extending immunotherapy benefits to a wider range of patients [7].
Epigenetic mechanisms, including DNA methylation, histone modifications, and non-coding RNAs, are fundamental in regulating gene expression. Their dysregulation in human diseases like cancer and neurological disorders is a focus of research. This involves developing epigenetic drugs and exploring their therapeutic potential, while addressing challenges in precise targeting of epigenetic pathways [8].
Significant progress is being made in developing molecular therapies for rare genetic diseases, an area where traditional treatments often fall short. Various modalities, including gene therapy, RNA-based therapeutics, and small molecule drugs, target specific molecular defects, offering new hope for previously untreatable conditions [9].
Next-generation biomarkers are emerging, moving beyond traditional genetic markers to include epigenomic, proteomic, and metabolomic signatures, alongside advanced imaging. These biomarkers are discussed for their role in enhancing diagnostic accuracy, predicting disease progression, and guiding personalized treatment decisions across various medical disciplines, while also addressing data integration and validation challenges [10].
Conclusion
Contemporary biomedical research is marked by rapid progress across multiple therapeutic and diagnostic frontiers. Precision oncology is evolving beyond traditional targeted therapies, integrating diverse 'omics' data to identify new biomarkers and personalized strategies for complex cancers and resistance mechanisms. Concurrently, CRISPR-Cas gene editing technologies are advancing significantly, showing promise for genetic disease treatment by enhancing delivery, specificity, and safety, though ethical considerations remain. RNA therapeutics, encompassing mRNA vaccines, antisense oligonucleotides, and small interfering RNAs, are proving effective for a range of diseases, with continuous improvements in delivery systems vital for their impact. The transformative potential of liquid biopsies in oncology is also becoming clearer, offering non-invasive tools for early cancer detection, treatment selection, and recurrence monitoring through circulating tumor cells and cell-free DNA. Gene therapy, particularly with Adeno-Associated Virus (AAV) vectors, has achieved clinical successes in treating specific genetic disorders, with ongoing efforts to broaden its applications by addressing challenges like immunogenicity. The human microbiome's critical role in health and disease is under intense study, leading to therapeutic interventions like fecal microbiota transplantation and precision modulation strategies. Cancer immunotherapy continues to expand with checkpoint inhibitors and CAR T-cell therapy, tackling resistance and identifying biomarkers for broader patient benefits. Epigenetic mechanisms are recognized for their fundamental role in gene expression regulation and disease, driving the development of targeted epigenetic drugs. Molecular therapies for rare genetic diseases, including gene and RNA-based treatments, offer new hope where conventional options fall short. Finally, next-generation biomarkers, extending to epigenomic and proteomic signatures, are poised to revolutionize precision medicine by improving diagnostics and guiding treatment across various medical fields.
References
- Vivek S, Hussein A, Benjamin DG. Precision oncology beyond targeted therapies: emerging insights from genomic and molecular profiling. Cell. February 16, 2023;186(4):647-669.
- Hongyu L, Ya M, Li L. CRISPR-Cas genome editing for disease therapy: advances and challenges. Trends Pharmacol Sci. October 2023;44(10):752-766.
- Jingjing Z, Xiaofeng L, Bo S. RNA therapeutics: current progress and future directions. Mol Ther Nucleic Acids. September 13, 2022;29(-):569-586.
- Catherine A, Klaus P, Caroline D. Liquid biopsy in oncology: current applications and future challenges. Nat Rev Clin Oncol. December 10, 2020;18(4):211-233.
- Dongsheng W, Peter WLT, Guangping G. Gene therapy with adeno-associated virus (AAV) vectors: current state and future prospects. Nat Rev Drug Discov. March 2019;18(3):185-201.
- Elise R, Andrey B, Eran E. The human microbiome in health and disease: recent advances and therapeutic opportunities. Trends Mol Med. February 2023;29(2):106-121.
- Sudipto B, Rong Y, Shiyong L. Cancer immunotherapy: current challenges and future directions. Trends Mol Med. August 2022;28(8):727-742.
- Matthew AD, Tony K, Brian DD. Epigenetics in human disease: from mechanisms to therapeutic opportunities. Cell. December 12, 2019;179(7):1478-1492.
- Daniel HC, Leslie BG, Christine BG. Advances in Molecular Therapies for Rare Genetic Diseases. N Engl J Med. February 2, 2023;388(5):457-466.
- Somayeh J, Shan C, Jörg WB. Next-generation biomarkers for precision medicine: opportunities and challenges. Trends Biotechnol. March 2024;42(3):350-363.
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