The latest state-of-the-art equipment is required to give the safest, most reliable and consistent results from investigation and treatment of eye and vision problems.
The following are examples of some of the technology this practice invests in.

OCT (Optical Coherence Topography)

OCT is mainly used to diagnose optic disc and macular disorders in a variety of diseases including Glaucoma, Macular Degeneration (AMD), Diabetic Retinopathy, Retinal Vein Occlusions and other conditions.

Corneal Topography

Used in diagnosing corneal conditions such as keratoconus and dry eye but is also used pre-cataract surgery to ensure there are no corneal diseases present that could compromise the success of surgery.

Glaucoma Tests

These are used to screen for glaucoma and to follow up the disease in people receiving treatment, which helps determine if treatment is successful. As glaucoma is a life long disease, these tests need to be performed periodically to ensure the disease is not progressing.

Fluorescein angiography

To detect abnormalities in the blood circulation of structures in the eye including the retina, choroid, optic disc and occasionally in the iris. Conditions in which fluorescein angiography may be used include diabetes, macular degeneration, retinal vein occlusions as well as many other diseases.

Ultra Wide Field (UWF) Retinal Photography

High definition, ultra widefield imaging enables detection and monitoring of disease states from the centre to the far periphery of the retina.

Dry Eye tests

For the detection and monitoring of dry eye disease to track improvement with treatment.

Intense Pulsed Light treatment for dry eye

Intense Pulsed Light (IPL) uses broad wavelengths of light ranging from 515nm to 1200nm to target specific pigments on the skin. IPL applied to the skin helps ease the symptoms and signs of blepharitis, meibomian gland dysfunction and dry eye disease. IPL warms the dermis to temperatures up to 43º C. By a process known as photomodulation, IPL can stimulate cells and glands to function normally and this may be the mechanism through which meibomian gland function can be improved.

Laser photocoagulation

Laser photocoagulation uses a laser to shrink, heat or destroy tissues in the eye, or to intentionally cause scarring.
Photocoagulation takes place by using the laser to create a microscopic burn in the target tissue.

Some examples of how laser photocoagulation is used are shown in the videos below:

YAG laser

Neodymium:YAG lasers are used in the eye to cause photodisruption. This form of minimally invasive surgery causes tissue to form plasma, which then causes acoustic (or sound) shock waves. The shock waves are used to affect eye tissue like the iris or capsule of the eye lens. The tissue ruptures as a result of the vapor bubble produced by the laser; the temperature required to produce this effect is between 100 and 305 °C. Some examples of YAG laser use are shown below:

Vitreolysis Laser

This is a type of YAG laser that is directed at floaters in the jelly-like substance in the centre of the eye that cause shadows to float in your vision. Floaters are permanent - they never dissolve or disappear although your perception of them can decrease over time. However, they tend to reappear at odd, sometimes inconvenient, times. Vitreolysis laser or Laser Floater Treatment removes floaters permanently.

Selective Laser Trabeculoplasty

This is a type of gentle laser used on the drainage system of the eye. The laser is so mild, very little if  any damage is done to tissues. The change the laser causes results in increased drainage of fluid from the eye and reduced pressure which is a benefit in glaucoma. The benefit is greater, is more consistent and lasts longer than the benefit seen with eye drops.

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Any surgical or invasive procedure carries risks. Before proceeding, you should seek a second opinion from an appropriately qualified health practitioner