Fibrin gels and their clinical and bioengineering applications

Фибриновые гели и их клиническое и биоинженерное применение
Paul A. Janmey, Jessamine Winer‐Jones, John W. Weisel
2008-09-18

fibrin gelsfibrin polymerizationnonlinear elasticitytissue engineeringwound healing
Fibrin gels, prepared from fibrinogen and thrombin, the key proteins involved in blood clotting, were among the first biomaterials used to prevent bleeding and promote wound healing. The unique polymerization mechanism of fibrin, which allows control of gelation times and network architecture by variation in reaction conditions, allows formation of a wide array of soft substrates under physiological conditions. Fibrin gels have been extensively studied rheologically in part because their nonlinear elasticity, characterized by soft compliance at small strains and impressive stiffening to resist larger deformations, appears essential for their function as haemostatic plugs and as matrices for cell migration and wound healing. The filaments forming a fibrin network are among the softest in nature, allowing them to deform to large extents and stiffen but not break. The biochemical and mechanical properties of fibrin have recently been exploited in numerous studies that suggest its potential for applications in medicine and bioengineering.
1
Fibrin gels exhibit nonlinear elasticity, combining compliance at small strains with strong stiffening under larger deformations.
2
Fibrin gels, formed from fibrinogen and thrombin, were among the earliest biomaterials used for haemostasis and wound healing.
3
Fibrin network filaments can undergo large deformations and stiffen without breaking, supporting their function in haemostatic plugs and cell-migration matrices.
4
Fibrin polymerization enables control over gelation time and network architecture by varying reaction conditions, producing diverse soft substrates under physiological conditions.
5
The biochemical and mechanical properties of fibrin support expanding medical and bioengineering applications, although the abstract does not specify particular clinical outcomes.

Fibrin gels and fibrin networks formed from fibrinogen and thrombin

The polymerization, nonlinear mechanical properties, and clinical and bioengineering applications of fibrin gels

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2008-09-18
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Paul A. Janmey
Jessamine Winer‐Jones
John W. Weisel
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