Subretinal injection damage has implication for experimental control and treatment in rat model of retinopathy of prematurity

In their 2017 article, “Effect of subretinal injection on retinal structure and function in a rat oxygen-induced retinopathy model,” Becker et al used the Phoenix MICRON IV fundus camera, Phoenix MICRON OCT2 and corresponding layer analysis software Insight 2D, and the Phoenix MICRON focal ERG to find that subretinal injection of saline or even introduction


A year-long longitudinal pattern dystrophy fundus study with the Phoenix MICRON™ IV imaging platform

In their 2019 paper, “Novel molecular mechanisms for Prph2‐associated pattern dystrophy,” Chakraborty et al use the Phoenix MICRON™ IV retinal imaging platform to longitudinally study the effect of a very specific mutation affecting the Peripherin 2 protein. Peripherin 2 is a protein in rods and cones which, if mutated, can lead to retinitis pigmentosa, cone-rod


RPE mutations lead to retinal hypopigmentation, vasculature changes, and decreased function

In their paper, “The microphthalmia-associated transcription factor (Mitf) gene and its role in regulating eye function,” García-Llorca et al use the Phoenix MICRON™ IV to examine the outer eye appearance, retinal pigmentation, and retinal vasculature through fluorescein angiography to study several different mouse mutants. Combined with electroretinography and histology, the fundus images tell a story


Phoenix MICRON FA reveals more leakage in iron-overload model of diabetic retinopathy

Diabetic retinopathy is a crippling complication of diabetes that can lead to loss of vision, characterized by retinal inflammation, neurodegeneration, and disorganized microvascularization . Oxidative stress is crucial to the development of diabetic retinopathy. Iron is an essential micronutrient but, in excess, can become a highly damaging oxidative species. Excessive iron has been implicated in Parkinson’s


Phoenix MICRON™ OCT tracks individual stem cells in the rat retina

In the July edition of Nanomedicine journal, Chemla et al demonstrate a fascinating and novel way to label and track individual photoreceptor precursor cells migrating within the retina with fluorescence and gold nanoparticle tagging using the Phoenix MICRON and OCT. Many retinal diseases such as age-related macular degeneration and retinitis pigmentosa are characterized by photoreceptor


Using the Phoenix MICRON™ IV to examine a potential treatment for disrupted retinal vasculature

Many eye diseases, including age-related macular degeneration, diabetic macular edema, cancer growth, and uveitis, involve disrupted blood vessel growth and leakage. Curing the leakage and growth helps modulate and treat the underlying disease. The Phoenix MICRON™ IV fundus camera allows for clear visualization of the rodent vasculature in bright field and with fluorescein angiography. Mirando

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