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Modelling Corneal Disease with RAFT
Product News

Modelling Corneal Disease with RAFT

Modelling Corneal Disease with RAFT
Product News

Modelling Corneal Disease with RAFT


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Lonza’s RAFT™ 3D Cell Culture System has been used to develop corneal models for research into treatment for a painful and potentially blinding corneal disease. During a recent Nature webinar, now available on demand, Julie Daniels, Professor of Regenerative Medicine and Cellular Therapy at University College London, explained how her laboratory has successfully developed multilayer corneal models using RAFT™ 3D Cell Cultures and applied this research to address the current gaps in limbal stem cell deficiency (LSCD) treatment. Her lab aspires to take their research to the next level – that is, into clinical applications – with the ultimate aim of improving patient care. 

Limbal epithelial stem cells (LESCs) are responsible for maintenance and repair of the corneal surface. Injury or loss of these cells can lead to LSCD in which the cornea becomes opaque, vascularized and inflamed, potentially leading to blindness. Transplantation of cultured human limbal epithelial cells (hLE) sourced from the patient or from cadaver tissue on human amniotic membrane (HAM) may restore vision but clinical graft manufacture can be costly and un-reliable. Alternative carrier methods are sought that display the correct optical and mechanical properties to be as transparent as possible, that improve treatment reliability and that also have the capability to expand and carry cells to the cornea. 

Professor Daniels’ team has developed a reliable and robust tissue equivalent to HAM that uses Lonza’s RAFT™ 3D Cell Culture System. Her team’s research shows promising opportunities to potentially improve treatment success rate for LESC deficiency. Although RAFT™ 3D Cell Culture System offered by Lonza is not suitable for clinical transplantations, it offers a stepping stone to potentially develop a clinical-grade equivalent method that can replace HAM. 

“3D cell culture is transforming cell biology and tissue engineering applications,” explains Lubna Hussain, Product Manager at Lonza. “There is a trending shift within research to more biologically relevant models to understand cell behavior and improve outcomes for human diseases. The RAFT™ 3D Culture System creates cell cultures within high-density collagen scaffolds that are robust and transparent, making the system particularly suited to support research into corneal applications.”

An important differentiator of the RAFT™ 3D Cell Culture System from other 3D platforms or 2D culture methods is its usability in developing complex in vitro models. The versatility of the system has been particularly beneficial in applications where a multi-layer co-culture setup is difficult to achieve with alternative methods, such as in corneal modeling.

Source:

Story from Lonza. Please note: The content above may have been edited to ensure it is in keeping with Technology Networks’ style and length guidelines.

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