CXL

A new Die Ophthalmologie review explains ELZA-sub400 cross-linking, an individualised protocol that fits the UV dose to each cornea, making cross-linking possible in keratoconus corneas as thin as 214 µm.
ELZA researchers report 12-month outcomes for a second-generation sub400 cross-linking protocol that extends CXL to ultra-thin keratoconus and post-LASIK ectasia corneas below 400 micrometres, halting progression in 76% of eyes while shortening treatment to about 18 minutes.
The Second Global Consensus on Keratoconus and Ectatic Diseases was published today, and ELZA played a key role in its development.
ECO-CAIRS, developed at ELZA, uses ultra-high-fluence CXL to optimize donor corneal ring segments for keratoconus surgery. Now published in JRS.
New CXL research challenges the role of oxygen in corneal cross-linking. Can oxygen-independent CXL improve keratoconus treatment? Find out how this breakthrough could change clinical practice.
Our latest review on corneal cross-linking (CXL), published in Progress in Retinal and Eye Research, explores its evolution, advanced protocols like ELZA-PACE, and clinical applications.
The article by Lu et al. reports an in vitro study, conducted to determine whether high-fluence PACK-CXL can be accelerated while still maintaining its antibacterial efficacy. The study found that high-fluence PACK-CXL did indeed decrease the bacterial concentration of several clinically significant bacterial strains, including S. aureus, P. aeruginosa, and S. epidermidis. These strains are commonly implicated in bacterial keratitis and contact lens-associated keratitis. Furthermore, the authors found that higher total fluence PACK-CXL protocols led to a corresponding increase in bacterial killing ratio (BKR).
EMAGine's Chief Scientific Officer, Professor Farhad Hafezi of the ELZA Institute in Zurich, Switzerland, has prepared a presentation that provides a comprehensive overview of how oxygen concentration is at the center of all these decisions.