Yaqinuddin Ahmed, Jabri Abdullah, Mhannayeh Abdulaziz, Taftafa Bader, Alsharif Mohamed, Abbad Tasnim, Khan Jibran, Elsalti Abdulrahman, Chinnappan Raja, Alshehri Eman A, Alzhrani Alaa, Obeid Dalia A, Fujitsuka Iriya, Khan Mahmood, Rehman Mati Ur, Mir Tanveer Ahmad
College of Medicine, Alfaisal University, Riyadh, Saudi Arabia.
International School of Medicine, Istanbul Medipol University, Istanbul, Türkiye.
Front Cardiovasc Med. 2025 May 20;12:1537730. doi: 10.3389/fcvm.2025.1537730. eCollection 2025.
Cardiac organoid is a miniature and simplified three-dimensional (3D) cellular model system grown from progenitor cells or stem cells that more accurately mimic the significant biological characteristics and functions of the normal cardiac system than conventional two-dimensional (2D) models. With continued advances in 3D culture approaches, the cardiac organoid models produced through self-organization strategy following developmental induction conditions exhibit higher metabolic similarities and physiological relevance. Increasing evidence demonstrates that cardiac organoids based on the model system are useful platforms for studying human cardiac biology and pathophysiology. Despite significant advancements, the development of cardiac organoids has not progressed as far as other types of organoids due to the intricate cellular structure and microenvironment of the heart. In this review, we highlight the current classification and bioengineering strategies for establishing cardiac organoids using Matrigel and decellularized extracellular matrix derived culture platforms followed by a review of contemporary reports of their use in development biology, disease modeling, drug testing and efficacy evaluation. We also shed the light in the current limitations and future perspective of the cardiac organoid to motivate future research and accelerate the widespread adoption of organoids platforms.
心脏类器官是一种由祖细胞或干细胞生长而成的微型且简化的三维(3D)细胞模型系统,与传统的二维(2D)模型相比,它能更准确地模拟正常心脏系统的重要生物学特征和功能。随着3D培养方法的不断进步,在发育诱导条件下通过自组织策略产生的心脏类器官模型表现出更高的代谢相似性和生理相关性。越来越多的证据表明,基于该模型系统的心脏类器官是研究人类心脏生物学和病理生理学的有用平台。尽管取得了重大进展,但由于心脏复杂的细胞结构和微环境,心脏类器官的发展尚未达到其他类型类器官的水平。在本综述中,我们重点介绍了使用基质胶和脱细胞细胞外基质衍生培养平台建立心脏类器官的当前分类和生物工程策略,随后回顾了它们在发育生物学、疾病建模、药物测试和疗效评估中的当代应用报告。我们还阐明了心脏类器官目前的局限性和未来前景,以推动未来的研究并加速类器官平台的广泛应用。