The development of physiologically relevant in vitro 3D models is crucial for studying lung biology and disease mechanisms. While airway organoids have significantly improved our ability to mimic lung tissue, they lack key nonepithelial components that are essential for tissue homeostasis. Here, we describe the generation of human airway assembloids, combining airway organoids, stromal fibroblasts, and endothelial cells to better replicate the native lung environment. The model was generated from healthy lung tissue donors by using a scaffold-free culture system to promote cell self-organization. Assembloids exhibited long-term viability, maintained typical airway epithelial markers, and demonstrated functional characteristics, such as mucus production and ciliary beating. This technology provides a powerful platform for studying airway physiology, disease mechanisms, and therapeutic approaches, with potential applications in regenerative and personalized medicine. Our study established a novel, reproducible 3D assembloid model of the human airways, bridging the gap between traditional organoid cultures and complex tissue engineering strategies.

Generation of Human 3D Airway Assembloids for Advanced Modeling / M.C. Iachini, A. Coglot, D. Tace, N. Elia, F. Rusconi, F. Cosentino, G. Lopez, M. Crosti, T.D. Usal, E. Scarpa, A. D'Amore, V. Miceli, L. Rosso, L. Lazzari. - In: INTERNATIONAL JOURNAL OF BIOLOGICAL SCIENCES. - ISSN 1449-2288. - 21:14(2025 Oct 01), pp. 6234-6251. [10.7150/ijbs.113920]

Generation of Human 3D Airway Assembloids for Advanced Modeling

F. Rusconi;G. Lopez;E. Scarpa;L. Rosso
Penultimo
;
2025

Abstract

The development of physiologically relevant in vitro 3D models is crucial for studying lung biology and disease mechanisms. While airway organoids have significantly improved our ability to mimic lung tissue, they lack key nonepithelial components that are essential for tissue homeostasis. Here, we describe the generation of human airway assembloids, combining airway organoids, stromal fibroblasts, and endothelial cells to better replicate the native lung environment. The model was generated from healthy lung tissue donors by using a scaffold-free culture system to promote cell self-organization. Assembloids exhibited long-term viability, maintained typical airway epithelial markers, and demonstrated functional characteristics, such as mucus production and ciliary beating. This technology provides a powerful platform for studying airway physiology, disease mechanisms, and therapeutic approaches, with potential applications in regenerative and personalized medicine. Our study established a novel, reproducible 3D assembloid model of the human airways, bridging the gap between traditional organoid cultures and complex tissue engineering strategies.
3D model; airway; assembloids; lung; organoids;
Settore MEDS-13/A - Chirurgia toracica
Settore BIOS-11/A - Farmacologia
Settore BIOS-10/A - Biologia cellulare e applicata
Settore MEDS-04/A - Anatomia patologica
1-ott-2025
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/2434/1195437
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