New Surgical Technique Looking at LENSAR® Laser System–fs 3D for Femtosecond Cataract Surgery

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The peer-reviewed journal, US Ophthalmology publish cutting-edge article authored by Mark Packer, Stephen D Klyce looking at New surgical technique looking at LENSAR® Laser System–fs 3D for Femtosecond Cataract Surgery

Augmented Reality Performs Two Scans from  Each of Five Viewing Aspects to Produce 10 Images  for 3D Reconstruction

Augmented Reality Performs Two Scans from Each of Five Viewing Aspects to Produce 10 Images for 3D Reconstruction

The LENSAR® Laser System’s ergonomic design permits flexible functionality in any operating environment. Its low-pressure liquid interface eliminates corneal compression and facilitates accurate and complete capsulotomy construction.

Since the introduction of ultrasound phacoemulsification in 1967, cataract surgery has become the most commonly performed outpatient operation in the US. While phacoemulsification has shown to be safe and effective, application of ultrasound power within the eye does carry some risk for ocular injury, such as endothelial cell loss. In addition, the manual method of creating the anterior capsulotomy, which is performed using the continuous curvilinear capsulorhexis (CCC), cannot ensure that the capsulotomy is consistently centered or circular,1–3 thereby affecting the effective lens position (ELP). This is especially significant for multifocal, accommodating and toric intraocular lenses (IOLs) with more complex optical designs.

Recently, there has been increasing interest in the use of femtosecond lasers as an adjunct to ultrasound phacoemulsification in cataract surgery. Clinical studies have demonstrated incremental improvements with femtosecond laser-assisted cataract surgery compared with standard ultrasound.4 Femtosecond lasers deliver ultrashort pulses of infrared energy so that collateral tissue damage is avoided. They cut tissue by photodisruption, that is, vaporization of targeted tissue, generation of cavitation bubbles, and creation of cleavage planes within tissue. As transparent tissues do not absorb the lasers’ infrared wavelengths, photodisruption can be focused precisely at a given depth within the anterior segment of the eye.

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Barney Kent
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