Sep 2026· Expert Review of Cardiovascular Therapy· pp. 1-15· 0 citations· 142 references
Medicine
TL;DR
Advances in mesenchymal stem cells, extracellular vesicles, CRISPR-based gene editing, and emerging precision medicine strategies including multi-omics profiling, machine learning-based patient stratification, and adaptive trial design are discussed.
Abstract
INTRODUCTION
Heart failure (HF) is one of the most urgent unmet challenges in cardiovascular medicine. Despite advances in guideline-directed medical therapy (GDMT), substantial morbidity and mortality remain high in patients with advanced disease. This suggests a need for disease-modifying interventions that address underlying biological mechanisms.
AREAS COVERED
This review examines the mechanistic evolution of cardiac cell therapy, from the original engraftment-and-differentiation paradigm to paracrine and immunomodulatory frameworks. Based on a PubMed and ClinicalTrials.gov search (January 2000 - June 2026), we discuss advances in mesenchymal stem cells, extracellular vesicles, CRISPR-based gene editing, and emerging precision medicine strategies including multi-omics profiling, machine learning-based patient stratification, and adaptive trial design.
EXPERT OPINION
Meaningful clinical progress will require matching biologically informed cell or cell-free products to genetically and phenotypically defined patient subgroups, adopting repeat-dosing paradigms, and integrating regenerative therapies within the existing heart failure treatment framework rather than deploying them as standalone interventions. If these approaches are implemented successfully, cell-based regenerative therapies will have the potential to substantially impact the prognosis and treatment of HF.
Highlights What are the main findings? HFpEF’s clinical heterogeneity is attributable to underlying interconnected molecular pathways that drive the disease, and the therapeutic landscape is evolving toward phenotype-specific interventions. Current animals and in vitro HFpEF fail to fully recapitulate the mechanistic c...
Haleema Qamar, Janmeet S. Saini, Sylwia M. Figarska et al.· Cells· 0 citations
Cardiovascular diseases (CVDs) remain the leading cause of death worldwide, yet therapeutic development is limited by experimental models that incompletely recapitulate human physiology, disease heterogeneity, and treatment responses. Emerging human-relevant models, including patient-derived induced pluripotent stem ce...
R. S. Angom, Sophie K. Ashbrook, Carter Magnano et al.· Cells· 0 citations
Abstract Heart failure (HF) represents the terminal stage of diverse cardiovascular pathologies and has emerged as a global public health crisis, characterized by increasing prevalence and persistently poor long-term prognosis. Although modern pharmacological therapies have advanced considerably, high rates of disease...
Yuan-Yuan Li, Shi-Han Sun, Yan Jiang et al.· Drug Design, Development and...· 0 citations
Despite significant biomedical advances, cardiovascular disease remains a leading cause of global mortality. The traditional ‘bench-to-bedside’ research pipeline, which heavily relies on animal models to guide clinical translation, is often hampered by species-specific physiological differences, leading to high rates o...
E. Parnasa, Y. Rokach, Suzan Abedat et al.· Experimental and Molecular M...· 0 citations
INTRODUCTION
Cell-based myocardial repair has progressed from direct cell replacement toward paracrine, engineered tissue, and cell-free strategies, but the relationship between preclinical innovation and clinical translation remains unclear. We mapped the knowledge structure and translational trajectory of this field....
Wei-Zhong Zhuang, Wei-Min Chen, Song Yang et al.· Current Stem Cell Research &...· 0 citations
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