Endothelial Migration and Regeneration after Penetrating Trauma Injury in a Deep Anterior Lamellar Keratoplasty Graft: Case Presentation and Literature Overview.
Luca PaganoAlfredo BorgiaFadi AlfaqawiAruni MakuloluwaGiulia CocoGiuseppe GiannaccareMarco MessinaVito RomanoKunal GadhviPublished in: Journal of clinical medicine (2024)
Background : Traumatic injuries in eyes previously treated with Deep Anterior Lamellar Keratoplasty (DALK) can lead to ruptures in the Descemet Membrane (DM) and damage to the corneal endothelium, a crucial layer for maintaining corneal clarity. Due to cell cycle constraints, the human corneal endothelium cannot proliferate; instead, it compensates for injury through cell enlargement and migration from adjacent areas. Methods : This study examines a notable case of corneal endothelial cell migration following a penetrating eye injury in a patient previously treated with DALK for keratoconus, supplemented by a review of relevant literature to contextualize the regenerative response. Results : A 39-year-old male with a history of DALK suffered a traumatic eye injury, resulting in damage to the Descemet Membrane and loss of the crystalline lens. After primary repair and considerations for further surgery, the patient's cornea cleared remarkably, with an improved visual acuity. This demonstrates the DM's potential for self-repair through endothelial cell migration. Conclusions : The outcomes suggest that delaying corneal transplant surgery for up to 3 months following Descemet Membrane injury due to ocular trauma could be advantageous. Allowing time for natural healing processes might eliminate the need for further invasive surgeries, thereby improving patient recovery outcomes.
Keyphrases
- cell migration
- optical coherence tomography
- cell cycle
- endothelial cells
- wound healing
- case report
- cataract surgery
- stem cells
- minimally invasive
- spinal cord injury
- systematic review
- cell proliferation
- oxidative stress
- mesenchymal stem cells
- single cell
- acute coronary syndrome
- skeletal muscle
- coronary artery disease
- adipose tissue
- trauma patients
- room temperature
- bone marrow
- human health