How does the location of a retinal detachment affect its prognosis? However, it is sometimes difficult to differentiate, dislocations of the retina depending on the size of the eye, surgery, and/or postoperative medications. There are some factors that are relevant. Photo published here Shigeyoshi Yuki/Kyodo The degree of detachment and the size of the retinal detachment can lead to high risk of poor prognosis and potentially devastating complications. This does not mean that the presence of a light-adaptive or fluorescent lesion is a cause of any obvious outcome. In cases of detachment from a retinal pigment epithelial lesion, its location in the visual field, the retina, or even the eye can be very important. In these cases, the location and size of the glaucoma, the detachment itself, the light sensitivity, the presence of an ocular lens, or the rest of the characteristics of the lesion can have an influence on the prognosis. For such areas of glaucoma, we have developed artificial ocular lenses, which are used to look for a light-adaptive or reflectory lesion by looking at the anterior chamber of the eye. When a light-adaptive or reflective lesion in the eye is present, the location and the size of the retinal detachment can be important in the prognosis. Also, there are imaging studies that have shown that this phenomenon is not always a cause of blindness. At the same time, retinal detachment, that is, a light-adaptive or reflectory lesion, makes up the majority of the complications in the eye. An artificial retinal detachment usually leads to blindness in 30% to 60% of those that are treated for cataract surgery. This is a complication that is as much a consequence of the size and location of the lesion as it is from the sight. This results in serious potential complications in the eye. Since the location of this event should be detected in the blind eye,How does the location of a retinal detachment affect its prognosis? {#S0003} ============================================================= A. Bestogonov et al. estimated prognosis for retinal detachment syndrome (retinal detachment) by *Clinically Elaborative Anatomy of Retinal Devascularization in the Retinal Glaucoma* in 2008, which had confirmed the low correlation between retinal detachment and intraocular pressure (IOP) \[[@CIT0003]\]. Patients with IOP \< 25 mmHg and Retinal detachment due to corneal dysplasia have a 5% to 4% mortality rate \[[@CIT0004], [@CIT0006]\]. Moreover, an important prognostic factor reflecting age, gender, type of vessel and number of vessels could be observed in patients with retinal detachment, especially in patients in the third or the fourth decade of life next page B. Fruhman et al.
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estimated that cumulative PBO/cGFR ratio is a marker of disease-free survival of 100 postoperative years in retinal detachment patients, i.e. after six months of follow-up according previously published clinical trials \[[@CIT0008]\]. In total of 20 eyes with clinical evidence of IOP reduction—retinal detachment (*V: n*= 10), intermediate zone partial detachment (*V: n*= 9), central detachment (*V: n*= 10) and subretinal lesions (*V: n*= 4)—age, type of CDA (*X* = 2) *A: V* = 2,n’timulus threshold IOP \< 30 mmHg and ICP (NPPI) ≥ 30 mmHg were identified \[[@CIT0009]\]. N. A. Gilferino et al. evaluated both of IOP criteria derived from myopic or non-myHow does the location of a retinal detachment affect its prognosis? Type 1 diabetic retinopathy (DRG) is characterized by microscopic features of retinal detachment and severe progressive hyperexcitability in ophthalmoscopy-positive patients with type A diabetes mellitus (T2DM). There are no effective therapies for DRG in patients without retinal detachment or ophthalmoscopy, thus we hypothesized that the retinal detachment would affect microvascular supply for the retinal ganglion cell (RDGC), a potential disease of DRG. The study consisted of 16 patients 65 years of age and with complete glycaemic retinopathy who underwent (1) interventional in situ keratomileusis in diabetic sclerosing choriari. Each patient underwent two retinal detachment mitoses and both included ophthalmoscopy. The RDGC in the eyes with no vitreous detachment included patients with microvascular obstruction/debris ipsilateral to the detachment and bilateral ophthalmoscopy. The RDGC loss was counted by means of digital photography in at least two centers in a defined geographic area. Retinal detachment was diagnosed according to classic DRG criteria of EYFA. After surgery, retina was removed with a peripheral retina for further analysis. Fifty-one eyes were excluded; the remaining 784 eyes from 164 patients were reclassified in 15 different centers. The retinal detachment rate in the eyes treated with no vitreous detachment was compared with that seen in eyes with vitreous detachment after surgery. Mean age was 59 years (range 28-90) compared with 12 years in the control group (range 43-80). After surgery the RDGC and RDGC thickness on the 3rd, and the remaining RDGC ratio were not different after a minimum of thirty months. Retinal detachment was significantly associated with microvasculature in the eyes treated with a medium to high vitreodyne, or medium to high vitreotaxis with 3rd instar vitrectomy, in patients with type A
