Purpose: To examine the characteristics of eyes with high-risk lattice degeneration treated with laser retinopexy and determine the indications, safety, and outcomes of the treatment. Methods: This interventional single-surgeon consecutive retrospective study was conducted at Wills Eye Hospital between 2014 and 2021. The series included eyes with lattice degeneration with high-risk lesions. Documented characteristics and outcomes of these eyes and fellow eyes were documented. Results: The study comprised 167 eyes of 143 patients (53.3% women; mean age [±SD], 50 ± 17 years). Complications after laser treatment included new posterior vitreous detachment (PVD) (n = 21), epiretinal membrane (ERM) (n = 13), retinal detachment (RD) (n = 5), and additional laser required (n = 22). Eyes that developed ERMs were more likely to develop PVDs (odds ratio, 5.39; 95% CI, 1.57-18.47). Patents who developed ERMs were older (mean, 60 ± 7 years vs 49 ± 17 years; P = .016), as were those developing PVDs (mean, 59 ± 8 years vs 48 ± 17; P = .005). No eye with a new ERM required surgery (n = 13). Four eyes with a new RD required laser retinopexy alone; 1 eye was treated surgically. No eye had an RD at the most recent evaluation. Conclusions: Despite high-risk lesions in areas of lattice degeneration, few eyes developed RDs after prophylactic laser retinopexy. Older patients may have a higher risk for ERM or PVD after laser treatment. Eyes with post-laser PVD were more likely to develop an ERM.

OBJECTIVE: To assess central and peripheral retinal and choroidal diseases using ultra-widefield (UWF) fundus imaging in combination with navigated central and peripheral cross-sectional and three-dimensional (3D) swept source optical coherence tomography (SS-OCT) scans.
METHODS: Retrospective study involving 332 consecutive patients, with a nearly equal distribution of males and females. The mean age of patients was 52 years (range 18-92 years). Average refractive error was -3.80 D (range +7.75 to -20.75 D).
RESULTS: The observations in this study demonstrate the efficacy of peripheral navigated SS-OCT in assessing various ocular conditions. The technology provides high-quality images of the peripheral vitreous, vitreoretinal interface, retina, and choroid, enabling visualization of vitreous floaters and opacities, retinal holes and tears, pigmented lesions, and peripheral retinal degenerations. 3D OCT scans enhance the visualization of these abnormalities and improve diagnostic and therapeutic decisions.
CONCLUSIONS: Navigated central and peripheral cross-sectional and 3D SS-OCT scans offer significant complementary benefits in the assessment and management of retinal diseases. Their addition to UWF imaging provides a comprehensive view of central and peripheral ocular structures, aiding in early detection, precise anatomical measurements, and objective monitoring of disease progression. In addition, this technology serves as a valuable tool for patient education, a teaching tool for trainees, and documentation for medico-legal purposes.

OBJECTIVE: To investigate a series of peripheral lattice degeneration cases using an ultra-widefield (UWF) swept-source optical coherence tomography (SS-OCT) system.
METHODS: From August 1, 2022 to July 31, 2023, 19 eyes from 16 patients with peripheral lattice degeneration were included. They all underwent a UWF SS-OCT examination. Anatomy of retina, vitreous, and associated pathologic changes were assessed.
RESULTS: UWF SS-OCT showed various anatomical changes of retina and vitreous in patients with lattice degeneration. Of 15 eyes from 12 patients whose UWF SS-OCT images were clearly obtained, eight eyes showed regional retinal thinning, seven eyes showed vitreous traction, two eyes showed detached vitreous, and three eyes showed retinal break.
CONCLUSIONS: UWF SS-OCT can be a useful tool to understand anatomical changes and pathophysiology of peripheral lattice degeneration.

暂无摘要。

Lattice degeneration (LD), routinely diagnosed with indirect ophthalmoscopy, is one of the most common and clinically significant peripheral retinal findings. In this review, we have summarized the data on currently available imaging techniques which help to improve diagnosis and our understanding of LD pathogenesis. Ultra-wide field imaging provides reliable color fundus capturing for the primary diagnosis of LD and may also be used as a screening tool. Wide-field imaging can be used for targeted documentation of LD lesions using true colors and with minimal optical distortions. Information on the status of the vitreoretinal interface, including detection of retinal holes, detachments, and vitreous tractions, can be obtained with peripheral structural optical coherence tomography (OCT) or scanning laser ophthalmoscopy in retro-mode. These techniques clarify the associated risks of rhegmatogenous retinal detachment. Fundus autofluorescence can provide details on atrophic changes. However, the risk of retinal detachment by means of this technique requires further investigation. OCT angiography may be successfully performed for some lesions. Taken together, OCT and OCT angiography demonstrate thinning of the choroid, alteration of local choroidal microcirculation, and, in severe lesions, involvement of the sclera. OCT angiography confirms loss of retinal microcirculation within LD lesion, which was previously shown with fluorescein angiography. In conclusion, despite relatively simple primary diagnosis, imaging of LD lesions remains challenging due to their peripheral localization. However, several new strategies, including ultra-wide field imaging, peripheral OCT, and scanning laser ophthalmoscopy, make LD imaging possible on a routine basis, improving diagnosis and understanding of LD pathogenesis.

UNASSIGNED: To report the incidence of and evaluate demographic, ocular comorbidities, and intraoperative factors for rhegmatogenous retinal detachment (RRD) and retinal tear (RT) after cataract surgery in the American Academy of Ophthalmology IRIS® Registry (Intelligent Research in Sight).
UNASSIGNED: Retrospective cohort study.
UNASSIGNED: Patients aged ≥ 40 years who underwent cataract surgery between 2014 and 2017.
UNASSIGNED: Multivariable logistic regression was used to evaluate demographic, comorbidity, and intraoperative factors associated with RRD and RT after cataract surgery.
UNASSIGNED: Incidence and risk factors for RRD or RT within 1 year of cataract surgery.
UNASSIGNED: Of the 3 177 195 eyes of 1 983 712 patients included, 6690 (0.21%) developed RRD and 5489 (0.17%) developed RT without RRD within 1 year after cataract surgery. Multivariable logistic regression odds ratios (ORs) showed increased risk of RRD and RT, respectively, among men (OR 3.15; 95% confidence interval [CI], 2.99-3.32; P < 0.001 and 1.79; 95% CI, 1.70-1.89; P < 0.001), and younger ages compared with patients aged > 70, peaking at age 40 to 50 for RRD (8.61; 95% CI, 7.74-9.58; P < 0.001) and age 50 to 60 for RT (2.74; 95% CI, 2.52-2.98; P < 0.001). Increased odds of RRD were observed for procedure eyes with lattice degeneration (LD) (10.53; 95% CI, 9.82-11.28; P < 0.001), hypermature cataract (1.61; 95% CI, 1.06-2.45; P = 0.03), complex cataract surgery (1.52; 95% CI, 1.4-1.66; P < 0.001), posterior vitreous detachment (PVD) (1.24; 95% CI, 1.15-1.34; P < 0.001), and high myopia (1.2; 95% CI, 1.14-1.27; P < 0.001). Lattice degeneration conferred the highest odds of RT (43.86; 95% CI, 41.39-46.49; P < 0.001).
UNASSIGNED: In the IRIS Registry, RRD occurs in approximately 1 in 500 cataract surgeries in patients aged > 40 years within 1 year of surgery. The presence of LD conferred the highest odds for RRD and RT after surgery. Additional risk factors for RRD included male gender, younger age, hypermature cataract, PVD, and high myopia. These data may be useful during the informed consent process for cataract surgery and help identify patients at a higher risk of retinal complications.
UNASSIGNED: The author(s) have no proprietary or commercial interest in any materials discussed in this article.

UNASSIGNED: To describe a series of cases of lattice degeneration of the retina imaged with optical coherence tomography angiography (OCTA).
UNASSIGNED: Four eyes of four patients were included and evaluated with green reflectance using a confocal scanning laser ophthalmoscopy and OCTA. In each case, the microcirculation of the retina and choriocapillaris within the lesion, as well as choroidal thickness beneath the lesion, were assessed.
UNASSIGNED: OCTA showed regional loss of retinal perfusion and rarefication of the choriocapillaris network within the lesion and the presence of venous collectors in the choroid beneath the lesion. The choroid was substantially thinner beneath the lesion compared to the adjacent normal region. Cross-sectional OCT scans showed retinal thinning, vitreal adhesion, atrophic holes, and subretinal fluid within the lesions.
UNASSIGNED: Lattice degeneration is characterized by significant local changes in retinal and choroidal microcirculation which may play an important role in the pathophysiology of lattice degeneration.

To determine the long-term incidence of and risk factors for delayed retinal tears after acute, symptomatic posterior vitreous detachment (PVD) without concurrent retinal tears.
Retrospective, observational case series.
Patients diagnosed with an acute, symptomatic PVD without concurrent retinal tears at a tertiary eye center between 2013 and 2018.
This is a retrospective, consecutive, and observational case series. Acute and symptomatic PVD was defined as experiencing flashes or floaters for 1 month or less at the time of diagnosis. Patients with a retinal tear or detachment at or before the time of diagnosis were not included. The occurrence and timing of subsequent retinal tears after initial PVD diagnosis were recorded. The age, sex, race, refractive error, lens status, lattice degeneration status, and type of physician (retina specialist vs. nonretina specialist) who saw the patient were also recorded.
Time to the development of a delayed retinal tear.
A total of 389 eyes from 389 patients had acute and symptomatic PVDs without concurrent retinal tears or detachments at diagnosis. Kaplan-Meier analysis showed that 7.39% of eyes developed delayed retinal tears by 6.24 years after initial PVD diagnosis. Of these tears, 50% occurred within 4.63 months of PVD diagnosis, and 63.46% occurred within 1 year of PVD diagnosis. Cox-Mantel log-rank analysis showed that those who were younger (age < 60 years), myopic, or had lattice degeneration were more likely to develop tears. A multivariate Cox proportional-hazards models controlling for other significant risk factors supported lattice degeneration as a likely risk factor for delayed retinal tear.
This study demonstrates that 7.39% of patients with acute, symptomatic PVD without concurrent retinal tears develop delayed retinal tears by 6.24 years after PVD diagnosis, with many developing tears well after a typical 6-week follow-up time for PVD. Lattice degeneration is a significant risk factor for delayed tears. These findings can guide clinicians in establishing optimal follow-up protocols for patients with acute, symptomatic PVD.
The author(s) have no proprietary or commercial interest in any materials discussed in this article.

Background Even though significant improvements have been made in the field of ophthalmology, retinal detachment is still an ever-increasing issue in both developing and developed countries. The present study evaluated the risk factors of rhegmatogenous retinal detachment (RRD). Methodology A cross-sectional study was conducted at a tertiary care center between June 2020 and March 2021. A total of 100 patients diagnosed with RRD were enrolled in the study. Patients with inconclusive diagnoses and multiple comorbidities were excluded from the study. A detailed history was taken, including previous surgery and ocular trauma or infections. A comprehensive ocular examination was conducted by an experienced ophthalmologist, including a dilated fundus examination. The causes and type of RRD were documented. Results In the study, a majority of the patients were males, with a mean age of 37.84 (18.29) years and a range of 5-74 years. The majority of those with total RRD were males, i.e., 37%; however, the difference was statistically insignificant (p=0.476). The study revealed that most of the RRD were diagnosed in patients <45 years of age; however, the difference was not statistically significant (p<0.227). The most frequent cause of RRD was lattice degeneration. While 23% of patients with RRD had a history of ocular trauma, uncomplicated phaco was detected in 17 cases. It was found that patients aged less than 45 years more frequently reported ocular trauma as the cause of RRD (p=0.004). Similarly, the cause of RRD was also significantly associated with the type of RRD (p=0.001). Conclusion The present study concludes that lattice degeneration, ocular trauma, uncomplicated, and complicated phaco are the main predisposing factors associated with RRD. Furthermore, the majority of the patients were males in their late thirties. Age, gender, and eye involvement were not significantly associated with the type of RRD.

OBJECTIVE: To investigate the detection of lattice degeneration, retinal breaks, and retinal detachment in tessellated eyes using ultra-wide-field fundus imaging system (Optos) with convolutional neural network technology.
METHODS: This study included 1500 Optos color images for tessellated fundus confirmation and peripheral retinal lesion (lattice degeneration, retinal breaks, and retinal detachment) assessment. Three retinal specialists evaluated all images and proposed the reference standard when an agreement was achieved. Then, 722 images were used to train and verify a combined deep-learning system of 3 optimal binary classification models trained using seResNext50 algorithm with 2 preprocessing methods (original resizing and cropping), and a test set of 189 images were applied to verify the performance compared to the reference standard.
RESULTS: With optimal preprocessing approach (original resizing method for lattice degeneration and retinal detachment, cropping method for retinal breaks), the combined deep-learning system exhibited an area under curve of 0.888, 0.953, and 1.000 for detection of lattice degeneration, retinal breaks, and retinal detachment respectively in tessellated eyes. The referral accuracy of this system was 79.8% compared to the reference standard.
CONCLUSIONS: A deep-learning system is feasible to detect lattice degeneration, retinal breaks, and retinal detachment in tessellated eyes using ultra-wide-field images. And this system may be considered for screening and telemedicine.