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1 istent uveitis, persistent hyphema, hypotony maculopathy).
2 users or severe retinal toxicity (bull's eye maculopathy).
3 1.0/1.0 for severe DR, 0.79/1.0 for diabetic maculopathy).
4 ip between PPS exposure and diagnosis of any maculopathy.
5 ndus photographs for retinal hemorrhages and maculopathy.
6 xhibit features resembling pathologic myopic maculopathy.
7 ith or without maculopathy or mild NPDR with maculopathy.
8 G), all conferring a reduced risk for toxic maculopathy.
9 AMD-associated variants on the risk of toxic maculopathy.
10 stitution with evidence of tamoxifen-induced maculopathy.
11 r evidence for any other cause of bull's eye maculopathy.
12 e, or until patients' first diagnosis with a maculopathy.
13 tion of the pathologic findings of optic pit maculopathy.
14 e users, including those at highest risk for maculopathy.
15 sease and describe 3 stages of a CRF-related maculopathy.
16 bleb revision to correct persistent hypotony maculopathy.
17 of eye care visits and diagnostic tests for maculopathy.
18 ar diseases, except those caused by diabetic maculopathy.
19 sence of coexisting paracentral acute middle maculopathy.
20 roviders and diagnostic testing to check for maculopathy.
21 We describe 3 stages of a unique CRF-related maculopathy.
22 R, majority had NPDR (93.4%), while 5.3% had maculopathy.
23 assic disease; and clearly distinct from PPS maculopathy.
24 dence of concurrent paracentral acute middle maculopathy.
25 g420Ser mutation presented with a bull's eye maculopathy.
26 accessible, and sensitive to the severity of maculopathy.
27 underwent grid photocoagulation for diabetic maculopathy.
28 No eye had associated maculopathy.
29 as glaucoma, retinal detachment, and myopic maculopathy.
30 ification and Grading System for Age-Related Maculopathy.
31 suppress radiation optic neuropathy (RON) or maculopathy.
32 ions in RDH5 and suffered from FAP with mild maculopathy.
33 vidence of disease clearly distinct from PPS maculopathy.
34 field in early stages of hydroxychloroquine maculopathy.
35 ermany) in persons with and without diabetic maculopathy.
36 rix and previously implicated in early-onset maculopathy.
37 control subjects and patients with diabetic maculopathy.
38 ared with those in aged control eyes without maculopathy.
39 despread retinal degeneration with prominent maculopathy.
40 the management of radiation retinopathy and maculopathy.
41 oven treatments for radiation retinopathy or maculopathy.
42 expansion is an early change in age-related maculopathy.
43 , and even heterozygous carriers can exhibit maculopathy.
44 dystrophy and one with bilateral progressive maculopathy.
45 ative AMD, hereditary maculopathy, and toxic maculopathy.
46 e were categorized incorrectly as having PPS maculopathy.
47 y dystrophy, or an aggregate variable of any maculopathy.
48 ed with a new presentation of optic disc pit maculopathy.
49 set were correctly categorized as having PPS maculopathy.
50 eview of previously untreated optic disc pit maculopathy.
51 ve the timing and the management of diabetic maculopathy.
52 limit vision loss associated with radiation maculopathy.
53 een PPS exposure and subsequent diagnosis of maculopathy.
54 l-domain (SD) OCT documentation of radiation maculopathy.
55 culopathies such as paracentral acute middle maculopathy.
56 ociation between binary PPS exposure and any maculopathy.
57 tional Classification System for Age-Related Maculopathy.
58 macular fluid resolution, and recurrence of maculopathy.
59 r fluid and long-term avoidance of recurrent maculopathy.
60 l atrophy, which resembles pathologic myopic maculopathy.
61 should be performed to rule out preexisting maculopathy.
62 important implications in the management of maculopathies.
63 enetic association studies of rare inherited maculopathies.
64 intraretinal fluid across various exudative maculopathies.
65 ded to regions of SSPiM in several exudative maculopathies.
66 rusen (0.8%), nonexudative AMD (0.3%), toxic maculopathy (0.1%), and hereditary dystrophy (0.04%).
67 prescription and were diagnosed later with a maculopathy (2.37%) was very similar to the percentage o
70 as having findings highly suggestive of PPS maculopathy; 25 patients showed some features resembling
72 duals without any maculopathy, 200 with mild maculopathy, 325 with intermediate disease, and 222 with
73 therapy-related complications were radiation maculopathy (43.1%) and radiation optic neuropathy (20.8
74 phototoxicity resulting from laser or solar maculopathy (5 eyes); and macular telangiectasia type 2
75 (75%); proliferative retinopathy, 24% (32%); maculopathy, 56% (65%); papillopathy, 61% (77%); catarac
76 hytherapy-related complication was radiation maculopathy (66% of patients), followed by radiation opt
77 cidence of bleb revision in patients who had maculopathy (7.6 vs. 1.9 revisions/100 person-years; for
78 s, 35% of CD and 51% of CRD had a bull's eye maculopathy; 70% of CRD showed absolute peripheral visua
79 en patients (76.5%) had a clinical radiation maculopathy; 8 patients (47.1%) had macular cysts on OCT
80 nal case series of 4 patients with optic pit maculopathy, a complete ophthalmic evaluation, with fund
84 of IOP and improved VA in eyes with hypotony maculopathy after previous glaucoma filtering surgery.
85 een January 2011 and July 2014 for radiation maculopathy after proton beam therapy were included.
88 tive paraneoplastic polymorphous vitelliform maculopathy, although with less distinct appearance and
89 e patient-specific hiPSCs to model and study maculopathies, an important class of blinding disorders
90 o be significantly enriched in patients with maculopathies and cone disorders (6/488) compared with e
91 l thickness is an important factor in myopic maculopathy and can be a better indicator of its severit
92 full-thickness LC defects unassociated with maculopathy and different from glaucomatous acquired pit
94 wo-generation family with autosomal dominant maculopathy and identified a rare variant p.Glu1144Lys i
98 tional Classification System for age-related maculopathy and stratified using the Rotterdam staging s
99 also referred to as paracentral acute middle maculopathy, and 5 eyes (4 patients) had type 2 SD-OCT l
101 nt for additional glaucoma surgery, hypotony maculopathy, and serious complications were also conside
102 and cumulative incidence of any retinopathy, maculopathy, and sight-threatening diabetic retinopathy
103 primary goal of therapy for paraproteinemic maculopathy, and this can be achieved by a systemic rout
104 isease (HFMD) and concurrent acute monocular maculopathy, and to describe multimodal imaging findings
107 These data indicate signs of age-related maculopathy are common in people 75 years of age or olde
110 ng in ARMA, a study of aging and age-related maculopathy (ARM) ancillary to the Health, Aging, and Bo
115 Macular drusen are hallmarks of age-related maculopathy (ARM), but these focal extracellular lesions
117 tary factors have been linked to age-related maculopathy (ARM), the early form of age-related macular
118 tudies of families affected with age-related maculopathy (ARM), we previously identified a significan
123 y, chronic central serous chorioretinopathy, maculopathy associated with hydroxychloroquine, and heal
124 d population, many patients at high risk for maculopathy associated with the use of chloroquine or hy
125 out generalized photoreceptor dysfunction to maculopathy associated with very severe rod-cone dysfunc
126 l case series of patients presented by solar maculopathy at Ophthalmology department, Sohag Universit
129 ) were performed in patients with bull's-eye maculopathy (BEM) to identify phenotypic markers that ca
130 patients showed some features resembling PPS maculopathy but not classic disease; and 1091 patients s
131 per-reflective spot resembling that in ghost maculopathy, but corresponding SD OCT images were consis
132 PS maculopathy; some features resembling PPS maculopathy, but not classic disease; and clearly distin
133 libercept is effective in treating radiation maculopathy, but requires an ongoing treatment approach.
134 nt vitreoretinal surgery for myopic traction maculopathy by a single surgeon at a tertiary referral c
135 99.6% specificity for identification of PPS maculopathy by masked review of fundus imaging in this d
136 The peculiar features of cavitary optic disc maculopathy can be explained only by considering the pre
137 BCVA reduction in eyes with dry-type myopic maculopathy can be related to a thinner macular choroida
139 Acute exudative polymorphous vitelliform maculopathy can present with a more variable natural cou
141 pathy, traumatic choroidal rupture, diabetic maculopathy, central serous retinopathy, and macular dru
143 cavitation, are associated with an enigmatic maculopathy characterized by schisis-like thickening and
144 ients showed visually compromising radiation maculopathy confirmed by a decline in best-corrected vis
145 hearing loss was referred for an unspecified maculopathy detected during screening evaluation for dia
149 inflammatory, ischemic foveolitis, and outer maculopathy (DIII-FOM) and assess the serial changes in
153 sociated with retinoschisis, myopic traction maculopathy, epiretinal membrane, vitreoretinal traction
154 D can occur in cases of high myopic traction maculopathy, especially in those without obvious vitreom
155 f 22 consecutive patients with cavitary disc maculopathy evaluated by a single surgeon between 1991 a
156 hy allow for differentiation from hereditary maculopathies even in the absence of known exposure to t
158 d markedly reduced visual acuity, bull's eye maculopathy, foveal hyperpigmentation, peripapillary atr
159 ed by using a modified Wisconsin Age-Related Maculopathy Grading Scale (a 6-level scale: 10, no AMD;
161 graded according to the Clinical Age-Related Maculopathy Grading System (CARMS) as grade 1 (no AMD),
163 raphs according to the Wisconsin Age-Related Maculopathy Grading System and Airlie House classificati
164 assessed by use of the Wisconsin Age-Related Maculopathy Grading System on retinal photographs and ad
166 was assessed using the Wisconsin Age-related Maculopathy Grading System, and severity was defined usi
167 g classifications (the Wisconsin age-related maculopathy grading system, the international classifica
178 usen, nonexudative AMD, exudative AMD, toxic maculopathy, hereditary dystrophy, or an aggregate varia
180 lated macular degeneration (AMD), a frequent maculopathy in individuals over 55 years of age, and (2)
184 al vasculopathy and paracentral acute middle maculopathy include eye compression injury causing globa
189 asia is a phenocopy of grade 1 NCMD, torpedo maculopathy is a phenocopy of grade 2 NCMD, and in this
192 people in the United States with age-related maculopathy is increasing in recent years because of inc
199 from 5 centers with paracentral acute middle maculopathy lesions and previously unreported retinal va
201 T analysis of these paracentral acute middle maculopathy lesions demonstrated subsequent thinning of
208 macular edema, clinically evident radiation maculopathy, moderate vision loss, and poor visual acuit
210 cal pathogenic mechanism responsible for the maculopathy, namely, dynamic fluctuations in the gradien
211 rum of acute oxygenation-based hypoperfusion maculopathy (OHM) is consistent with that predictable fr
214 ve complications include characterization of maculopathy or corneal wound integrity, assessment of IO
217 STDR; defined as proliferative DR, referable maculopathy, or both) was 21.0% (95% CI, 16.7%-25.3%).
222 (P = 0.045) and clinically evident radiation maculopathy (P = 0.040) in the bevacizumab group compare
224 lusion illustrating paracentral acute middle maculopathy (PAMM) in a perivenular fern-like pattern wi
225 (SD-OCT) finding of paracentral acute middle maculopathy (PAMM) that can be associated with acute mac
226 tion complications, which included radiation maculopathy, papillopathy, retinal detachment, and rubeo
229 inopathy (human graded as either ungradable, maculopathy, preproliferative, or proliferative), 99.6%
238 g of CERKL as a first candidate: early-onset maculopathy, severe generalized retinal dysfunction, per
240 images as follows: highly suggestive of PPS maculopathy; some features resembling PPS maculopathy, b
242 f AMD as defined by the Clinical Age-Related Maculopathy Staging system based on color fundus photogr
245 s: the Cardiovascular Health and Age-Related Maculopathy Study (2001-2002) and the Age-Related Maculo
246 tcomeMeasures: Mean Early Treatment Diabetic Maculopathy Study (ETDRS) BCVA change from baseline.
248 evious GWS on AMD (FARMS [Family Age-Related Maculopathy Study]sample of 34 extended families) lookin
249 idiopathic condition resembling other acute maculopathies such as paracentral acute middle maculopat
250 sterile vitreitis, endophthalmitis, hypotony maculopathy, suprachoroidal hemorrhage, retinal detachme
251 r 2 alleles associated with AMD, age-related maculopathy susceptibility 2 (ARMS2) and complement fact
252 body mass index, smoking status, age-related maculopathy susceptibility 2 (ARMS2) and complement fact
253 s of the A69S risk allele in the age-related maculopathy susceptibility 2 (ARMS2) gene (P < .001).
254 the complement factor H (CFH) or age-related maculopathy susceptibility 2 (ARMS2) genes, genotyped or
256 ent Factor H (CFH) RS1061170 and Age Related Maculopathy Susceptibility 2 (ARMS2) RS3793917 were inde
257 ent factor H (CFH)-rs1061170 and age-related maculopathy susceptibility 2 (ARMS2)-rs10490924 polymorp
258 complement factor H (rs1061170), age-related maculopathy susceptibility 2 (rs10490924), complement co
259 amino acid substitutions in the age-related maculopathy susceptibility 2 gene linked to AMD, Ala(69)
260 es in a joint effect analysis of Age-Related Maculopathy Susceptibility 2 rs10490924 and Complement F
261 established AMD risk loci ARMS2 (age-related maculopathy susceptibility 2)-HTRA1 (HtrA serine peptida
262 AMD genes [complement factor H, age-related maculopathy susceptibility 2/high-temperature requiremen
263 enes [complement factor H (CFH), age-related maculopathy susceptibility 2/high-temperature requiremen
265 andheld laser devices can cause a variety of maculopathies that can reduce central vision permanently
266 ly variable with clear impact on the risk of maculopathy, the dose to 20% of the optic disc had the l
267 quine users and those at high risk for toxic maculopathy, the proportions with regular eye care visit
268 e "ghost image" in this phenomenon of "ghost maculopathy." The ghost image was present consistently o
271 that now can be expanded to include torpedo maculopathy, vascular changes, and hemorrhagic retinopat
273 ntravitreal ranibizumab therapy for diabetic maculopathy was 0.9981 QALY, equating to an 11.6% improv
274 ively; that for clinically evident radiation maculopathy was 16% versus 31% (P = 0.001), respectively
280 notypes including exudative and nonexudative maculopathy was observed, with onset in the late fifth d
282 ch for "diabetic macular edema" or "diabetic maculopathy" was performed using the PubMed, Cochrane Li
283 sen and other lesions typical of age-related maculopathy were determined by grading stereoscopic colo
285 62 patients with various forms of exudative maculopathy were evaluated; 60 eyes with DR, 9 eyes with
291 retinal pathologies, retinal hemorrhage, and maculopathy were substantial both for the ophthalmologis
292 otherwise known as paracentral acute middle maculopathy, were observed in all patients at baseline p
293 itions, such as poppers retinopathy or solar maculopathy, which may have similar findings on OCT imag
294 Medical records of 33 patients with hypotony maculopathy who underwent primary bleb revision between
295 sed study, 20 eyes of 10 patients presenting maculopathies with various degrees of impairment of the
296 has the potential to provide patients having maculopathy with a new tool to monitor their vision at h
298 gment epithelium and cystoid or schisis-like maculopathy with typical functional findings remain clas
299 rfamilial variability, ranging from isolated maculopathy without generalized photoreceptor dysfunctio