Your browser doesn't support javascript.
loading
Show: 20 | 50 | 100
Results 1 - 7 de 7
Filter
1.
J Fr Ophtalmol ; 46(4): 369-376, 2023 Apr.
Article in French | MEDLINE | ID: mdl-36740463

ABSTRACT

INTRODUCTION: Sustained-release corticosteroid implants are injected into the vitreous cavity using preloaded pens. The fluocinolone (FAc) implant is approximately half the size of the dexamethasone implant (Dex-I). It is simply introduced in the vitreous base rather than propelled into the vitreous cavity as is Dex-I. Verification of its positioning after injection is thus difficult by indirect ophthalmoscopy. The goal of our study is to compare the performance of available clinical and imaging tools to confirm the presence of the FAc in the vitreous cavity following injection. METHODS: Twelve eyes of 12 consecutive patients were included in a retrospective, single-center, observational study carried out at the Bordeaux University Hospital, France. All patients were injected with the FAc after pupil dilation, and presence of the implant was immediately checked by indirect biomicroscopy, wide-field retinography (Clarus®, Carl-Zeiss-Meditec, Dublin, CA, USA) and ultra-wide-field retinography (California®, Optos, Edinburgh, United-Kingdom). Seven days later, a B-mode ultrasonography (10MHz, AVISO, Quantel-medical, France) and an UBM ultrasonography (50MHz, AVISO, Quantel-medical, France) were performed. RESULTS: Indirect biomicroscopy and wide-field retinography detected 4/12 implants (33.3%). Ultra-wide-field retinophotography detected 6/12 implants (50%). All the implants seen using indirect biomicroscopy and wide-field retinography were also visualized with ultra-wide-field. B-mode ultrasonography showed 5/12 implants (41.6%) and UBM 9/12 implants (75%). Finally, one implant dislocated into the anterior chamber and was seen in the iridocorneal angle on gonioscopy. CONCLUSION: Objective confirmation of the proper positioning of the FAc implant in the vitreous cavity is mandatory. If both indirect ophthalmoscopy and anterior examination fail to detect it, ultra-wide field retinography along with UBM ultrasonography, if necessary, appear to be the two best imaging modalities to use.


Subject(s)
Diabetic Retinopathy , Macular Edema , Humans , Fluocinolone Acetonide/pharmacology , Fluocinolone Acetonide/therapeutic use , Glucocorticoids/pharmacology , Glucocorticoids/therapeutic use , Diabetic Retinopathy/drug therapy , Retrospective Studies , Macular Edema/drug therapy , Drug Implants , Intravitreal Injections
6.
J Fr Ophtalmol ; 44(7): 968-976, 2021 Sep.
Article in French | MEDLINE | ID: mdl-34247873

ABSTRACT

INTRODUCTION: Toxoplasma retinochoroiditis (TRC) is the main cause of posterior uveitis in immunocompetent patients. Several studies have shown safety and efficacy of treatment with intravitreal clindamycin injection in patients with contraindications, inadequate response or side effects with classic oral therapy. The goal of this study is to describe anatomic and functional results of local treatment with intravitreal clindamycin injection. MATERIALS AND METHODS: We performed an observational, retrospective, single-center study in the ophthalmology service of Bordeaux university medical center between December 2017 and January 2020 on management of toxoplasma retinochoroiditis by intravitreal clindamycin injection. We analyzed the efficacy of this treatment on improvement in visual acuity, decrease in size of the retinal lesion and decrease in macular thickness. RESULTS: A total of 10 eyes of 9 patients were injected. Only a single injection was required in 9 of the 10 cases. Injections demonstrated improvement in the 3 study criteria; visual acuity went from a mean of 1 LogMAR (1.07±0.77) pre-injection to 0.4 LogMAR (0.43±0.53) at 6 months, lesion size decreased by 51%, and macular thickness decreased by 78µm over the follow-up period. CONCLUSION: Intravitreal clindamycin injections are safe and effective for the treatment of TRC. They offer an alternative in patients with allergies, side effects or inadequate response to classic oral therapy.


Subject(s)
Chorioretinitis , Ophthalmology , Toxoplasma , Anti-Bacterial Agents/therapeutic use , Chorioretinitis/drug therapy , Clindamycin , Follow-Up Studies , Humans , Intravitreal Injections , Retrospective Studies , Tomography, Optical Coherence , Treatment Outcome
SELECTION OF CITATIONS
SEARCH DETAIL
...