Repair Of Macula-off Retinal Detachment Research Articles

Outcomes of chronic macula-off retinal detachment repair.

PurposeThere have been disparate outcomes in the few studies that have looked at anatomic success and visual acuity (VA) in chronic retinal rhegmatogenous detachment (RRD) repair. Chronic retinal detachments (RD) without a posterior vitreous detachment (PVD) occur in young myopes often secondary to an atrophic hole. These patients are often asymptomatic, and studies report good surgical anatomic results. However, chronic RD with a PVD is symptomatic but presents late due to patient compliance. This paper aims to evaluate this lesser-studied chronic macula-off RD with PVD.MethodsAfter obtaining Institutional Review Board (IRB) approval, patients who had undergone surgical intervention for all diagnosis codes of RD were identified in the Denver Health Medical Center database. Medical records were reviewed, and patients found to have open-globe injuries, tractional RD due to proliferative diabetic retinopathy, macula-on detachments, and RD due to previous ocular surgery were excluded. Similarly, patients without PVD were also excluded. A total of 37 patients with PVD-type chronic macula-off RD were thus identified and preoperative characteristics, surgical intervention, and complications were analyzed.ResultsThe average patient age was 53.8 years. The length of RRD duration ranged from 30 to 365 days (mean 136.7 days). Twenty-six (70.3% patients had proliferative vitreoretinopathy (PVR) grade C or greater. Initial anatomic success—defined as re-attachment after one surgery—was 54.1%. The final attachment was 94.6%. Fifteen of 37 (40.5%) of the patients had issues with drop adherence, positioning, or missing post-operative appointments.ConclusionChronic macula-off RD with a PVD should be identified as it is associated with much lower rates of initial re-attachment. Socioeconomic factors likely are the driving factor for patients with PVD-type chronic macula-off RD to present late, struggle with positioning, and have difficulty with follow-up and drop compliance. These extended periods without treatment then lead to high rates of PVR and poor initial anatomic success. However, repair of PVD-type chronic macula-off RD should still be pursued as final anatomic success is high.

Retinal Microvasculature Changes After Repair of Macula-off Retinal Detachment Assessed with Optical Coherence Tomography Angiography.

ObjectiveTo characterize the microvascular retinal changes after repair of macula-off rhegmatogenous retinal detachment (RRD) using optical coherence tomography angiography (OCT-A).Patients and MethodsA retrospective review of patients who underwent repair of macula-off RRD. Fellow unaffected eyes were used as controls. Post-operative OCT-A allowed comparison of vessel density (VD) and foveal avascular zone (FAZ) area in the superficial and deep retinal capillary plexus (DCP) as well as VD in the choriocapillaris layer.ResultsSeventeen eyes of 17 RRD patients were included in the final analysis. There was a reduction in VD of the deep retinal capillary plexus in affected eyes compared to fellow eyes (p = 0.046). RRD eyes with reduced VD in DCP compared with their fellow control eyes had worse visual acuity after repair compared to those without (p = 0.032). No significant microvasculature changes were detected in the FAZ area and VD in the superficial capillary plexus and choriocapillaris compared to fellow eyes.ConclusionIn macula-off RRD eyes, significant microvascular changes were detected in the DCP using OCT-A even after successful anatomical repair. Decreased VD in the DCP compared to the fellow healthy eyes was correlated with worse visual acuity.

LONGITUDINAL QUANTITATIVE EVALUATION OF PHOTORECEPTOR VOLUME FOLLOWING REPAIR OF MACULA-OFF RETINAL DETACHMENT.

To quantify photoreceptor volume changes after successful surgical repair of macula-off retinal detachment and to correlate these volumetric changes to postoperative best-corrected visual acuity (BCVA). Retrospective study of 15 eyes of 15 patients with macula-off retinal detachment who underwent successful surgical repair. A minimum of 4 optical coherence tomography scans that straddled the foveal center was used to quantify the central photoreceptor volume (central 1 mm). Mean photoreceptor volume at the first postoperative visit was 0.451 mm, increasing to 0.523 mm at the final postoperative visit (P = 0.004). Mean BCVA improved from 1.13 ± 0.59 logarithm of the minimum angle of resolution units (∼20/270) preoperatively to 0.52 ± 0.42 logarithm of the minimum angle of resolution units (∼20/66) at the final postoperative visit (P = 0.001). Mean photoreceptor volume at either the initial or final visit demonstrated significant correlations with final postoperative BCVA (r = -0.670, P = 0.017 and r = -0.753, P = 0.005, respectively). Shorter time interval from diagnosis to surgery was significantly associated with greater mean final postoperative photoreceptor volume (r = -0.588, P = 0.021) and better mean final postoperative BCVA (r = 0.709, P = 0.003). We observed a significant increase in photoreceptor volume after successful retinal detachment repair; photoreceptor volume was positively associated with BCVA and time to surgery. Our series emphasizes the importance of prompt surgical repair and shows that photoreceptor recovery and volumetric improvement correlate significantly with BCVA.

Restoration of foveal thickness and architecture after macula-off retinal detachment repair.

To investigate the foveal changes after repair of macula-off rhegmatogenous retinal detachment (RRD). Prospective comparative case series. Twenty-four eyes of 24 patients with macula-off/fovea-on detachment (n = 9) and fovea-off detachment (n = 15) were studied. Serial optical coherence tomography (OCT) images taken at the same location were recorded at months 1, 3, 6, and 12 after operation. Fellow eyes were used as controls. No significant changes of the central foveal thickness (CFT) were recorded in the fovea-on group over the follow-up. From month 1 to month 12, CFT increased significantly in the fovea-off group (P < 0.00001). In this group, a significant increase of the Henle fiber and outer nuclear layer (HFL + ONL, P = 0.007), external limiting membrane (ELM)-ellipsoid zone (EZ; P = 0.03), and EZ-retinal pigment epithelium (RPE) thicknesses (P < 0.00001) was recorded. Significant restoration of the integrity of the ELM in the fovea-off group (P < 0.001) and of the EZ and cone interdigitation zone in the fovea-on group and the fovea-off group was observed (P = 0.02 and P < 0.001, and P = 0.002 and P < 0.001, respectively). Twelve months after operation the foveal bulge restored in 8 of 15 eyes of the fovea-off group. Multiple regression analysis showed that in the fovea-off group BCVA correlated with EZ-RPE thickness at months 1 and 12, whereas the improvement of BCVA during the 12 months follow-up correlated with the increase of ELM-RPE thickness. Optical coherence tomography scans taken serially at the same location showed a progressive increase of HNL+ONL, ELM-EZ, and EZ-RPE thicknesses and restoration of the integrity of outer retinal bands after repair of fovea-off RRD. The use of software able to rescan at exactly the same area is crucial to correctly follow and interpret the reconstitution of the retinal bands and to correlate them to BCVA recovery.

Optical coherence tomography study of foveal microstructure after successful retinal detachment surgery

PurposeTo evaluate foveal anatomical abnormalities after the successful repair of rhegmatogenous retinal detachments (RRDs) and to investigate the relationship between foveal microstructural changes and postoperative best-corrected visual acuity (BCVA). Materials and methodsThis study was a retrospective consecutive case series comprising all RRD patients with anatomical reattachment performed by a single surgeon from January 2009 to June 2010. Complete medical and ophthalmic histories, BCVA, duration of symptoms, number of breaks, extent of the retinal detachment (RD), lens status, and type of surgery were preoperatively recorded. The main outcome measurements for data analysis were postoperative BCVA and optical coherence tomography (OCT) imaging of the foveal microstructure. ResultsClinical data and OCT images were obtained from 83 eyes of 80 patients who underwent successful RRD surgeries. Anatomic foveal abnormalities were identified in 72% of eyes, including disruption of the junction between the inner and outer photoreceptor segments (IS/OS) in 59% of all cases with or without external limiting membrane (ELM) disruptions, residual subretinal fluid (7%), epiretinal membranes (22%), cystoid macular edema (7%), uneven surface (4%), retinal pigment epithelium (RPE) defects (1%), RPE folding (1%), and macular holes (2%). Multiple linear regression analysis showed that the significant factors associated with postoperative BCVA were ELM disruption and macular holes. Foveal photoreceptor layer integrity as determined by OCT imaging after a successful macula-off RD repair was used to classify each eye included in the study into one of three subgroups: intact IS/OS junction and ELM (11), disrupted IS/OS junction but intact ELM (11), and disruption of the IS/OS junction and ELM (37). Mean postoperative BCVA (0.18 ± 0.13 logMAR units, 0.43 ± 0.26 logMAR units, and 0.69 ± 0.42 logMAR units, respectively) was significantly different among these subgroups (p < 0.001). ConclusionOCT is a useful, noninvasive tool for evaluating foveal microstructural abnormalities and predicting visual outcomes after a successful RRD repair.

Does unintentional macular translocation after retinal detachment repair influence visual outcome? Comment

Background: To document the occurrence of postoperative macular translocation after retinal detachment repair and discuss its influence on visual outcome. Design: Retrospective case series in a tertiary care setting. Participants: Five eyes of five patients presenting to our clinic with macula-off rhegmatogenous retinal detachment. Methods: All patients underwent surgical repair of the retinal detachment, with regular postoperative follow-up, including macular optical coherence tomography and fundus autofluorescence. Main Outcome Measures: Visual acuity and subjective visual symptoms in patients with anatomically successful retinal detachment repair, in whom inadvertent macular translocation was noted. Results: Our series demonstrates the presence of unintentional macular translocation after retinal detachment repair, detected by fundus autofluorescence imaging. In contrast to previous reports, we document inadvertent macular translocation in one patient after scleral buckling surgery. In each case, the retina was fully reattached postoperatively and no other complications were identified. There was variability in the symptoms and objective visual outcomes after surgery. Conclusions: Inadvertent macular translocation can occur following repair of macula-off retinal detachment, and may be a significant contributor to poorer visual outcome after retinal detachment, despite objective surgical success.

Does unintentional macular translocation after retinal detachment repair influence visual outcome?

To document the occurrence of postoperative macular translocation after retinal detachment repair and discuss its influence on visual outcome. Retrospective case series in a tertiary care setting. Five eyes of five patients presenting to our clinic with macula-off rhegmatogenous retinal detachment. All patients underwent surgical repair of the retinal detachment, with regular postoperative follow-up, including macular optical coherence tomography and fundus autofluorescence. Visual acuity and subjective visual symptoms in patients with anatomically successful retinal detachment repair, in whom inadvertent macular translocation was noted. Our series demonstrates the presence of unintentional macular translocation after retinal detachment repair, detected by fundus autofluorescence imaging. In contrast to previous reports, we document inadvertent macular translocation in one patient after scleral buckling surgery. In each case, the retina was fully reattached postoperatively and no other complications were identified. There was variability in the symptoms and objective visual outcomes after surgery. Inadvertent macular translocation can occur following repair of macula-off retinal detachment, and may be a significant contributor to poorer visual outcome after retinal detachment, despite objective surgical success.

Long-term follow-up with optical coherence tomography and microperimetry in eyes with metamorphopsia after macula-off retinal detachment repair

to report the long-term sequential morphological and functional results in eyes with metamorphopsia after retinal detachment (RD) repair. in six eyes of six patients aged 58.7 ± 11.0 years with metamorphopsia after successful buckling surgery for macula-off RD, best-corrected visual acuity (BCVA), fundus biomicroscopy, Amsler grid test, time-domain optical coherence tomography (TD-OCT) and central 12° microperimetry (MP-1) were performed at months 1, 3, 6, 12, and 18. At 5 to 6 years after surgery all patients underwent also spectral domain (SD)-OCT. three eyes slowly recovered pre-RD BCVA. In the remaining three eyes-with good final BCVA-the interrupted junction line between photoreceptor cell inner and outer segments (IS/OS) was progressively less evident after RD surgery; and the external limiting membrane was preserved on SD-OCT examination. In all eyes post-operative metamorphopsia faded with time, but fully disappeared in 6 years only in two eyes without photoreceptor abnormalities. One of the two eyes with subretinal fluid up to 6 months and IS/OS disruption had central dense scotoma with relatively unstable fixation on MP-1 and persistent metamorphopsia. Macular sensitivity (MS) increased from 9.7 ± 7.1 at month 1 to 13.5 ± 5.6 dB at the final check, and was weakly (r=0.33) correlated with post-operative BCVA and OCT abnormalities. long-standing metamorphopsia can occur after successful macula-off RD repair even without detectable photoreceptor disruption on OCT. Post-operative BCVA recovery weakly correlates with increasing MS, and late restoration of the photoreceptor layer may be observed.

High-resolution Fourier-Domain Optical Coherence Tomography and Microperimetric Findings After Macula-off Retinal Detachment Repair

To evaluate the morphologic changes in the macula of subjects with repaired macula-off retinal detachment (RD) using high-resolution Fourier-domain optical coherence tomography (FD OCT) and to perform functional correlation in a subset of patients using microperimetry (MP-1). Prospective observational case series. Seventeen eyes from 17 subjects who had undergone anatomically successful repair for macula-off, rhegmatogenous RD at least 3 months earlier and without visually significant maculopathy on funduscopy. FD OCT with axial and transverse resolution of 4.5 mum and 10 to 15 mum, respectively, was used to obtain rapid serial B-scans of the macula, which were compared with that from Stratus OCT. The FD OCT B-scans were used to create a 3-dimensional volume, from which en face C-scans were created. Among 11 patients, MP-1 was performed to correlate morphologic changes with visual function. Stratus OCT scans, FD OCT scans, and MP-1 data. Stratus OCT and FD OCT images of the macula were obtained 3 to 30 months (mean 7 months) postoperatively in all eyes. Although Stratus OCT revealed photoreceptor disruption in 2 eyes (12%), FD OCT showed photoreceptor disruption in 13 eyes (76%). This difference was statistically significant (P<0.001, chi(2)). Both imaging modalities revealed persistent subretinal fluid in 2 eyes (12%) and lamellar hole in 1 eye. Among 7 subjects who had reliable MP-1 data, areas of abnormal function corresponded to areas of photoreceptor layer disruptions or persistent subretinal fluid in 5 subjects (71%); one subject had normal FD OCT and MP-1. Photoreceptor disruption after macula-off RD repair is a common abnormality in the macula that is detected better with FD OCT than Stratus OCT. A good correlation between MP-1 abnormality and presence of photoreceptor disruption or subretinal fluid on FD OCT demonstrates that these anatomic abnormalities contribute to decreased visual function after successful repair.