Serous macular detachment in lymphoproliferative disorders

Two patients, one with Hodgkin's disease and the other with non-Hodgkin's lymphoma, presented with bilateral diminution of vision. Examination showed bilateral serous detachment of the macula. To our knowledge, this is only the second report in the literature of serous detachment of the macula in lymphomatous disorders.     

Serous macular detachment in central retinal vein occlusion

PURPOSE: To describe serous macular detachment in patients with central retinal vein occlusion (CRVO) by using optical coherence tomography (OCT). METHODS: This study included 22 eyes of 22 consecutive patients with CRVO. The patients underwent complete ophthalmic examination, including corrected visual acuity measurement, slit-lamp biomicroscopy, indirect ophthalmoscopy, color fundus photography, fluorescein angiography, and OCT. RESULTS: Twenty-two patients (22 eyes) with cystoid macular edema associated with CRVO (10 women and 12 men; age range, 48-75 years [average, 62.5 years]) made up the study population. Angiographically, all patients had typical cystoid macular edema. At the time of initial examination, no patient was suspected of having a serous macular detachment associated with CRVO. The mean foveal thickness as determined by OCT was 567.4 microm. In all cases, the increased thickness of the retina was related primarily to the hyporeflective intraretinal cavities. A serous macular detachment composed of retinal elevation over a nonreflective cavity with minimal shadowing of the underlying tissues was seen in 18 eyes (81.8%). CONCLUSION: OCT findings in this study showed that serous macular detachment in patients with CRVO occurs more often than previously thought. Our data also showed that noncontact fundus ophthalmoscopy and fluorescein angiography were not sufficient to diagnose serous macular detachment in CRVO.     

Serous macular detachment in branch retinal vein occlusion

PURPOSE: To evaluate the relationship between the extent of branch retinal vein occlusion (BRVO) and the incidence of serous retinal detachment (SRD) in the macular area. METHODS: One hundred nine eyes of 109 consecutive patients with BRVO comprised the study population. These eyes were characterized as having either macular BRVO or major BRVO. We compared the tomographic macular findings between the two groups. RESULTS: Thirty-nine eyes had macular BRVO, and 70 eyes had major BRVO. The incidence of SRD was higher in the group with major BRVO (63%) than in the group with macular BRVO (21%) (P < 0.001). The incidence of cystoid macular edema was similar in both groups (macular BRVO, 97%; and major BRVO, 90%). Foveal thickness of major BRVO (610 +/- 190 micro m) was significantly greater than that of macular BRVO (500 +/- 140 micro m) (P < 0.01). There was no significant difference in thickness of the neurosensory retina between the group with macular BRVO (450 +/- 120 micro m) and the group with major BRVO (480 +/- 140 micro m). CONCLUSIONS: Serous macular detachment occurs more frequently in major BRVO than in macular BRVO. Vascular leakage from congested retinal veins outside the macular area appears to be a major source of subretinal fluid at the fovea.     

Serous macular detachment combined with branch retinal vein occlusion

PURPOSE: To report frequency, clinical characteristics, treatment, and the complications of branch retinal vein occlusion (BRVO) with serous macular detachment. PATIENTS AND METHODS: We retrospectively studied 22 eyes of 22 patients in 111 eyes with acute BRVO, whose eyes had serous macular detachment that was detected by optical coherence tomography (OCT). Fluorescein angiography was conducted in 19 of the 22 eyes. Fourteen of the 22 eyes underwent scatter laser photocoagulation of the BRVO area. We observed serial OCT findings before and after treatment. RESULTS: Approximately 20% of the BRVO eyes had serous macular detachment. The superotemporal vein was occluded in 15 eyes and the inferotemporal vein was involved in 7 eyes. Four eyes were ischemic and 15 eyes were not ischemic. Extensive dye leakage was observed in the BRVO area in all examined eyes (19 eyes). The occlusion area of perifoveal capillary network ranged from 5 to 60%, with an average of 40%. OCT demonstrated pure serous macular detachment in 13 eyes and the remaining 9 eyes had both serous macular detachment and cystoid macular edema(CME). The occlusion area of perifoveal capillaries in these 9 eyes was more than 20%. Serous macular detachment was resolved in 11 of 14 eyes (80%) 6 months after laser treatment. The average period for resolution of macular detachment was 3.4 months after treatment. Visual acuity was improved more than 2 lines in 8 of the treated 11 eyes (73%). Hard exudates appeared in the posterior fundus in 13 of 14 treated eyes (93%) and in 16 of the total of 22 eyes (73%) in the follow-up period. Massive macular hard exudates and ensuing macular atrophy resulted in poor visual outcome. CONCLUSIONS: Serous macular detachment is one of the patterns of macular edema in BRVO. OCT is an essential tool to detect it. Leakage from the entire BRVO area seems to travel via subretinal space by gravity or other factors and may form serous detachment in the macular area. Laser photocoagulation is indicated for early resolution of serous macular detachment. The major complication of serous detachment is the deposit of macular hard exudates, which may result in poor visual outcome.     

Serous retinal detachment and cystoid macular edema in hypotony maculopathy

PURPOSE: To report the foveal structural findings of hypotony maculopathy imaged with optical coherence tomography. METHODS: Case report of a 39-year-old white woman with a 20 year history of uveitis, who underwent pars plana vitrectomy and pars plana Baerveldt implant for intractable glaucoma. Four months postoperatively, decreased vision and hypotony maculopathy ensued. Optical coherence tomographic (OCT) images were taken horizontally through the macula. RESULTS: OCT demonstrated large intraretinal cysts, serous macular detachment, and choroidal folds, which resolved upon resolution of hypotony. CONCLUSION: Cystic macular changes and serous macular detachment can be prominent features of hypotony maculopathy.     

Serous macular detachment in diabetic cystoid macular oedema

PURPOSE: To define serous macular detachment in patients with diabetic cystoid macular oedema (CME). METHODS: This study involved 78 eyes of 58 patients with diabetic CME. The patients underwent complete ophthalmic examination, fluorescein angiography and optical coherence tomography (OCT). Eyes with epiretinal membrane or vitreo-macular traction were not included in the study. Optical coherence tomography-3 was used in all patients and fundi were scanned on the horizontal, vertical and four oblique planes through the centre of the fovea. RESULTS: In all cases the increased thickness of the retina was related primarily to the hyporeflective intraretinal cavities. With OCT, 24 of 78 eyes (31%) had serous macular detachment as shown by retinal elevation over a non-reflective cavity with minimal shadowing of the underlying tissues. Fluorescein angiography did not show serous macular detachment in any patient. CONCLUSIONS: Our data showed that the incidence of serous macular detachment in diabetic CME was much higher than previously reported. Optical coherence tomography-3 allows an in vivo cross-sectional observation of very subtle serous macular detachment that is difficult to diagnose at the slit-lamp or by fluorescein angiography in patients with diabetic CME.     

视网膜静脉阻塞继发黄斑部浆液性视网膜脱离临床观察

目的观察视网膜静脉阻塞（retinal vein occlusion,RVO）继发黄斑部浆液性视网膜脱离的发病情况和临床特点。方法收集2005年5月至2006年4月在我院就诊的96例（97眼）视网膜中央静脉阻塞和视网膜分支静脉阻塞患者,对其眼底荧光血管造影和光学相干断层扫描检查的结果进行分析。结果97眼中有48眼继发黄斑部浆液性视网膜脱离,黄斑部脱离高度为66～937μm,平均（293.21±56.26）μm,脱离范围大多局限于中心凹。4眼严重者脱离可达近下方血管弓处,脱离边缘可见视网膜下积血。在RVO继发黄斑囊样水肿患者中,同时继发黄斑部浆液性视网膜脱离的占53.03%.结论RVO继发黄斑部浆液性视网膜脱离的发病率远高于以往报道,是引起RVO患者视力下降的主要原因之一,治疗中应给予充分的重视。     

Serous macular detachment associated with dysplastic disc

The article describes a case of abnormal looking optic disc (dysplastic) associated with serous macular detachment similar to what is described in cases of optic pit. However clinically as well as on fluorescein angiography, no optic pit or coloboma could be identified. Gas injection, prone positioning and laser along the temporal border of the disc could correct the macular detachment.     

Serous macular detachment associated with optic nerve pits

Between September 1972 and March 1989, we examined 25 eyes of 24 patients exhibiting optic nerve-head pits associated with serous macular detachment. We followed 21 patients for a period of 1–15 years (mean, 62 months). Various treatment modalities were applied, depending on the time of initial examination. Five eyes underwent no treatment and three eyes underwent two distinct treatment modalities. Photocoagulation treatment was performed in ten eyes. Argon laser photocoagulation was combined with intravitreal injection of pure SF6 in eight eyes and of C3F8 in three. Intravitreal injection of pure C3F8 without photocoagulation was carried out in two eyes. The results of biomicroscopy of the vitreous gel and of fluorescein angiography and the responses to the various treatment modalities support the hypothesis that the mechanism underlying serous macular detachment complicating optic nerve-head pits is traction retinal detachment combined with a rhegmatogenous component in the roof of the optic pit.     

Serous retinal detachment following glaucoma surgery.

The authors report the occurrence and clinical course of serous retinal detachment following glaucoma surgery in three patients. Serous detachment resolved in all patients spontaneously following treatment with oral and topical steroids.