Treatment of Congenital Ptosis
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Multipurpose Conical Orbital Implant in Evisceration
Ophthalmic Plastic and Reconstructive Surgery Vol. 21, No. 5, pp 376–378 ©2005 The American Society of Ophthalmic Plastic and Reconstructive Surgery, Inc. Multipurpose Conical Orbital Implant in Evisceration Harry Marshak, M.D., and Steven C. Dresner, M.D. Doheny Eye Institute, Keck School of Medicine, University of Southern California, Los Angeles, California, U.S.A. Purpose: To evaluate the safety and efficacy of the porous polyethylene multipurpose conical orbital implant for use in evisceration. Methods: A retrospective review of 31 eyes that underwent evisceration and received the multipurpose conical orbital implant. The orbits were evaluated at 1 week, 1 month, and 6 months after final prosthetic fitting for implant exposure, superior sulcus deformity, and prosthetic motility. Results: There were no cases of extrusion, migration, or infection. All patients had a good cosmetic result after final prosthetic fitting. Prosthetic motility was good in all patients. Exposure developed in one eye (3%) and a superior sulcus deformity developed in one eye (3%). Conclusions: Placement of an multipurpose conical orbital implant in conjunction with evisceration is a safe and effective treatment for blind painful eye that achieves good motility and a good cosmetic result. visceration has proved to be effective for the treat- forms anteriorly to the sclera to be closed over it, without Ement of blind painful eye from phthisis bulbi or crowding the fornices, and extends posteriorly through endophthalmitis. By retaining the sclera in its anatomic the posterior sclerotomies, providing needed volume to natural position, evisceration has the advantage of allow- the posterior orbit. ing the insertions of the extraocular muscles to remain intact, promoting better motility. -
Novel Anterior Segment Phenotypes Resulting from Forkhead Gene Alterations: Evidence for Cross-Species Conservation of Function
Novel Anterior Segment Phenotypes Resulting from Forkhead Gene Alterations: Evidence for Cross-Species Conservation of Function Ordan J. Lehmann,1 Stephen Tuft,2 Glen Brice,3 Richard Smith,4 Åsa Blixt,5 Rachel Bell,3 Bengt Johansson,6 Tim Jordan,1 Roger A. Hitchings,2 Peng T. Khaw,2 Simon W. M. John,4 Peter Carlsson,5 and Shomi S. Bhattacharya1 PURPOSE. Mutations in murine and human versions of an ances- cause it may affect the clinical management of certain trally related gene usually result in similar phenotypes. How- glaucoma subtypes and lead to excessive treatment. The ever, interspecies differences exist, and in the case of two FOXC1 and Foxe3 data, taken together with the novel ocular forkhead transcription factor genes (FOXC1 and FOXC2), phenotypes of FOXC2 mutations, highlight the remarkable these differences include corneal or anterior segment pheno- cross-species conservation of function among forkhead genes. types, respectively. This study was undertaken to determine (Invest Ophthalmol Vis Sci. 2003;44:2627–2633) DOI:10.1167/ whether such discrepancies provide an opportunity for iden- iovs.02-0609 tifying novel human–murine ocular phenotypes. METHODS. Four pedigrees with early-onset glaucoma pheno- types secondary to segmental chromosomal duplications or ecognition that mutations in orthologous genes frequently deletions encompassing FOXC1 and 18 individuals from 9 Rcause similar phenotypes has allowed the field of compar- FOXC2 mutation pedigrees underwent detailed ocular pheno- ative genetics to contribute to the understanding of human typing. Subsequently, mice with mutations in Foxc1 or a re- disease. As the human, murine, and Drosophila PAX6 mutants lated forkhead gene, Foxe3, were assessed for features of the (aniridia, Small eye, and eyeless) demonstrate, genotypic con- human phenotypes. -
Blepharophimosis, Ptosis, and Epicanthus Inversus Syndrome
Blepharophimosis, ptosis, and epicanthus inversus syndrome Case Report A rare case of adult-onset blepharophimosis, ptosis, and epicanthus inversus syndrome: Case report Mahesha S1, Shruthi Bhimalli2, Manoj Y Bhat2 From 1Chief Medical Officer, 2Fellow in IOL, Department of Cataract and Trauma, Sankara Eye Hospital, Harakere, Shimoga, Karnataka, India Correspondence to: Dr. Shruthi Bhimalli, Department of Cataract and Trauma, Sankara Eye Hospital, Harakere, Shimoga - 577202, Karnataka, India. E-mail: [email protected] Received - 02 June 2019 Initial Review - 24 June 2019 Accepted - 25 July 2019 ABSTRACT Blepharophimosis, ptosis, and epicanthus inversus syndrome (BPES) is a rare genetic condition caused by a mutation in the FOXL2 gene and it is inherited in an autosomal dominant pattern. Identification and diagnosis of BPES syndrome by an ophthalmologist are relatively easy, based on the characteristic ocular manifestations. The most common age group at the time of diagnosis is 4 to 8 years. Here, we present an unusual case of BPES in a patient who presented with the syndrome at the age of 52 years. There is a need for increased awareness about this condition among ophthalmologists as early diagnosis is the key factor in preventing long term complications. Keywords: Blepharophimosis, Epicanthus inversus syndrome, Ptosis. lepharophimosis, ptosis, and epicanthus inversus action, epicanthus inversus and telecanthus (Fig. 1). On acuity syndrome (BPES) is a genetic condition associated testing, his best vision was ‘finger counting close to face’ in his Bwith mutations in the Fork head Box L2 (FOXL2) gene. right eye and ‘finger counting at one meter’ in his left eye. He had The syndrome is inherited in an autosomal dominant pattern, with corneal ectasia with scarring and vascularization (Fig. -
P> Resident’S Day Submission Kelsie Morrison, OD Pediatric Optometry Resident University of Houston College of Optometry
Resident’s Day Submission Kelsie Morrison, OD Pediatric Optometry Resident University of Houston College of Optometry Title: Presumed Blepharophimosis Ptosis Epicanthus Inversus Syndrome (BPES) with Bilateral Type I Duane’s Retraction Syndrome Abstract: Blepharophimosis, ptosis, epicanthus inversus syndrome (BPES) is a rare congenital autosomal dominant condition characterized by bilateral ptosis, telecanthus, epicanthus inversus, and blepharphimosis. The following case highlights the management of ocular manifestations associated with BPES. I. Case History Patient demographics: 7 year old half Caucasian, half Asian male Chief complaint: Annual strabismus evaluation o The patient’s father reported good vision without glasses and non-compliance with spectacle wear. Ocular history: o (+) Bilateral Duane’s retraction syndrome type I o (+) Constant left esotropia with possible strabmismic amblyopia o (+) Telecanthus o (+) Epicanthal folds Medical history: o (+) Unbalanced translocation genetic mutation involving chromosomes 3 and 7 o (+) Developmental delays Systemic surgical history: o (+) Open heart surgery at 1 month old o (+) G-tube at 2 months old o (+) Hand surgery at 1 year old and 1.5 years old o (+) Current G-tube fed secondary to previous ‘failure to thrive’ diagnosis Medications o (+) Hydrocortisone cream o (+) Murolax o No known systemic or ocular medication allergies Family medical and ocular history: o No known family members with chromosomal anomalies Social history: o Attends a special needs school where he is in the -
Congenital Ocular Anomalies in Newborns: a Practical Atlas
www.jpnim.com Open Access eISSN: 2281-0692 Journal of Pediatric and Neonatal Individualized Medicine 2020;9(2):e090207 doi: 10.7363/090207 Received: 2019 Jul 19; revised: 2019 Jul 23; accepted: 2019 Jul 24; published online: 2020 Sept 04 Mini Atlas Congenital ocular anomalies in newborns: a practical atlas Federico Mecarini1, Vassilios Fanos1,2, Giangiorgio Crisponi1 1Neonatal Intensive Care Unit, Azienda Ospedaliero-Universitaria Cagliari, University of Cagliari, Cagliari, Italy 2Department of Surgery, University of Cagliari, Cagliari, Italy Abstract All newborns should be examined for ocular structural abnormalities, an essential part of the newborn assessment. Early detection of congenital ocular disorders is important to begin appropriate medical or surgical therapy and to prevent visual problems and blindness, which could deeply affect a child’s life. The present review aims to describe the main congenital ocular anomalies in newborns and provide images in order to help the physician in current clinical practice. Keywords Congenital ocular anomalies, newborn, anophthalmia, microphthalmia, aniridia, iris coloboma, glaucoma, blepharoptosis, epibulbar dermoids, eyelid haemangioma, hypertelorism, hypotelorism, ankyloblepharon filiforme adnatum, dacryocystitis, dacryostenosis, blepharophimosis, chemosis, blue sclera, corneal opacity. Corresponding author Federico Mecarini, MD, Neonatal Intensive Care Unit, Azienda Ospedaliero-Universitaria Cagliari, University of Cagliari, Cagliari, Italy; tel.: (+39) 3298343193; e-mail: [email protected]. -
The Management of Congenital Malpositions of Eyelids, Eyes and Orbits
Eye (\988) 2, 207-219 The Management of Congenital Malpositions of Eyelids, Eyes and Orbits S. MORAX AND T. HURBLl Paris Summary Congenital malformations of the eye and its adnexa which are multiple and varied can affect the whole eyeball or any part of it, as well as the orbit, eyelids, lacrimal ducts, extra-ocular muscles and conjunctiva. A classification of these malformations is presented together with the general principles of treatment, age of operating and surgical tactics. The authors give some examples of the anatomo-clinical forms, eyelid malpositions such as entropion, ectropion, ptosis, levator eyelid retraction, medial canthus malposition, congenital eyelid colobomas, and congenital orbital abnormalities (Craniofacial stenosis, orbi tal plagiocephalies, hypertelorism, anophthalmos, microphthalmos and cryptophthalmos) . Congenital malformations of the eye and its as echography, CT-scan and NMR, enzymatic adnexa are multiple and varied. They can work-up or genetic studies (Table I). affect the whole eyeball or any part of it, as Surgical treatment when feasible will well as the orbit, eyelids, lacrimal ducts extra encounter numerous problems; age will play a ocular muscles and conjunctiva. role, choice of a surgical protocol directly From the anatomical point of view, the fol related to the existing complaints, and coop lowing can be considered. eration between several surgical teams Position abnormalities (malpositions) of (ophthalmologic, plastic, cranio-maxillo-fac one or more elements and formation abnor ial and neurosurgical), the ideal being to treat malities (malformations) of the same organs. Some of these abnormalities are limited to Table I The manag ement of cong enital rna/positions one organ and can be subjected to a relatively of eyelid s, eyes and orbits simple and well recognised surgical treat Ocular Findings: ment. -
Ocular Colobomaâ
Eye (2021) 35:2086–2109 https://doi.org/10.1038/s41433-021-01501-5 REVIEW ARTICLE Ocular coloboma—a comprehensive review for the clinician 1,2,3 4 5 5 6 1,2,3,7 Gopal Lingam ● Alok C. Sen ● Vijaya Lingam ● Muna Bhende ● Tapas Ranjan Padhi ● Su Xinyi Received: 7 November 2020 / Revised: 9 February 2021 / Accepted: 1 March 2021 / Published online: 21 March 2021 © The Author(s) 2021. This article is published with open access Abstract Typical ocular coloboma is caused by defective closure of the embryonal fissure. The occurrence of coloboma can be sporadic, hereditary (known or unknown gene defects) or associated with chromosomal abnormalities. Ocular colobomata are more often associated with systemic abnormalities when caused by chromosomal abnormalities. The ocular manifestations vary widely. At one extreme, the eye is hardly recognisable and non-functional—having been compressed by an orbital cyst, while at the other, one finds minimalistic involvement that hardly affects the structure and function of the eye. In the fundus, the variability involves the size of the coloboma (anteroposterior and transverse extent) and the involvement of the optic disc and fovea. The visual acuity is affected when coloboma involves disc and fovea, or is complicated by occurrence of retinal detachment, choroidal neovascular membrane, cataract, amblyopia due to uncorrected refractive errors, etc. While the basic birth anomaly cannot be corrected, most of the complications listed above are correctable to a great 1234567890();,: 1234567890();,: extent. Current day surgical management of coloboma-related retinal detachments has evolved to yield consistently good results. Cataract surgery in these eyes can pose a challenge due to a combination of microphthalmos and relatively hard lenses, resulting in increased risk of intra-operative complications. -
Orbital Imaging in Thyroid-Related Orbitopathy
Orbital imaging in thyroid-related orbitopathy Christopher Lo, MD, Shoaib Ugradar, MD, and Daniel Rootman, MD, MS SUMMARY A broad understanding of the different imaging modalities used to assess the physiologic changes seen in Graves’ orbitopathy complement clinical examination. Subtle applications of radiographic imaging techniques allow for a better understanding of the overall physiology of the orbit, quantify progression of disease, and differentiate it from orbital diseases with overlapping features. A nuanced approach to interpreting imaging features may allow us to delineate inactive from active thyroid eye disease, and advances within this field may arm clinicians with the ability to better predict and prevent dysthyroid optic neuropathy. ( J AAPOS 2018;22:256.e1-256.e9) rbital imaging plays a central role in the diag- mean inferior rectus width, 4.8 mm; medial rectus width, nosis and management of thyroid-related orbit- 4.2 mm; superior rectus width, 4.6 mm; and lateral rectus O opathy (TRO). Diagnostically, it is used to width, 3.3 mm.8,9 These numbers can be used as a guide; compliment a careful ophthalmic examination, laboratory however, they represent population averages, each with values, and ancillary studies to confirm the presence of significant variation. Overlap in populations exist, and TRO and/or dysthyroid optic neuropathy (DON). It can both diseased and nondiseased muscles can have widths also be helpful in surgical planning and understanding close to these values. In the end, there are no strict rules. the progression of thyroid myopathy. Computed tomogra- In terms of muscle involvement, clinical myopathy is phy (CT), magnetic resonance imaging (MRI), ultrasound, thought to most often involve the inferior rectus muscle, and nuclear medicine all have applications in the field. -
Anatomy of the Periorbital Region Review Article Anatomia Da Região Periorbital
RevSurgicalV5N3Inglês_RevistaSurgical&CosmeticDermatol 21/01/14 17:54 Página 245 245 Anatomy of the periorbital region Review article Anatomia da região periorbital Authors: Eliandre Costa Palermo1 ABSTRACT A careful study of the anatomy of the orbit is very important for dermatologists, even for those who do not perform major surgical procedures. This is due to the high complexity of the structures involved in the dermatological procedures performed in this region. A 1 Dermatologist Physician, Lato sensu post- detailed knowledge of facial anatomy is what differentiates a qualified professional— graduate diploma in Dermatologic Surgery from the Faculdade de Medician whether in performing minimally invasive procedures (such as botulinum toxin and der- do ABC - Santo André (SP), Brazil mal fillings) or in conducting excisions of skin lesions—thereby avoiding complications and ensuring the best results, both aesthetically and correctively. The present review article focuses on the anatomy of the orbit and palpebral region and on the important structures related to the execution of dermatological procedures. Keywords: eyelids; anatomy; skin. RESU MO Um estudo cuidadoso da anatomia da órbita é muito importante para os dermatologistas, mesmo para os que não realizam grandes procedimentos cirúrgicos, devido à elevada complexidade de estruturas envolvidas nos procedimentos dermatológicos realizados nesta região. O conhecimento detalhado da anatomia facial é o que diferencia o profissional qualificado, seja na realização de procedimentos mini- mamente invasivos, como toxina botulínica e preenchimentos, seja nas exéreses de lesões dermatoló- Correspondence: Dr. Eliandre Costa Palermo gicas, evitando complicações e assegurando os melhores resultados, tanto estéticos quanto corretivos. Av. São Gualter, 615 Trataremos neste artigo da revisão da anatomia da região órbito-palpebral e das estruturas importan- Cep: 05455 000 Alto de Pinheiros—São tes correlacionadas à realização dos procedimentos dermatológicos. -
Extraocular Muscles. Conjugated Eye Movements. Strabismus
Extraocular muscles. Conjugated eye movements. Strabismus. Sándor Katz M.D., Ph.D. Conjugated eye movements Requirements: • Extraocular muscles • Innervation: CN. III., IV., VI. Precision and speed of muscle function rely on structural characteristics. Their motor innervation is well developed: 1 motor fiber/6 muscle fibers (in finger: 100-300 muscle fibers, in other muscles: 1500 muscle fibers) • Central pathways for eye movements, ensuring coordination Orbit Eye vs. Orbit • The medial wall runs in paramedian sagittal plane. • The lateral wall deviates laterally: 45°. • The AP (antero- posterior) axis of the eye is parallel with the sagittal axis. • The extraocular muscles run almost parallel with the axis of orbit. Orbit Orbit The eyeball is attached by membranes to the capsule of the orbital fat body, and it can move in all directions in the episcleral space. Movements are achieved by four recti and two oblique muscles. The tendons of the rectus muscles originate form a funnel-shaped ring around the optic canal: common tendinous ring. Orbit medial rectus nasociliary nerve superior rectus superior oblique lateral rectus lacrimal nerve frontal nerve lacrimal gland superior oblique medial rectus inferior rectus inferior oblique pes anserinus minor Possible eye movements Sagittal axis: Internal/medial rotation External/lateral rotation (difficult to see as the pupil is round in humans). Possible eye movements Horisontal axis: Elevation Depression Possible eye movements Vertical axis: Abduction Adduction Lateral rectus muscle – CN VI. Vertical axis: Abduction Origin: common tendinous ring Insertion: sclera, posterior to the limbus corneae Medial rectus muscle – CN III., inferior ramus Vertical axis: Adduction Origin: common tendinous ring Insertion: sclera, posterior to the limbus corneae Superior rectus muscle – CN. -
Double-Bellied Superior Rectus Muscle
Surgical and Radiologic Anatomy (2019) 41:713–715 https://doi.org/10.1007/s00276-019-02211-0 ANATOMIC VARIATIONS Double-bellied superior rectus muscle Satheesha B. Nayak1 · Surekha D. Shetty1 · Naveen Kumar1 · Ashwini P. Aithal1 Received: 3 September 2018 / Accepted: 23 February 2019 / Published online: 7 March 2019 © Springer-Verlag France SAS, part of Springer Nature 2019 Abstract Congenital variations of extraocular muscles are rare. We report a double-bellied superior rectus muscle, observed in an adult male cadaver aged 70 years. The superior rectus muscle had two equal-sized bellies, which took separate origins from the common tendinous ring and united to form a common belly 1 cm before the insertion. Due to the duplication, the muscle extended laterally beyond the levator palpebrae superioris. Both its bellies were supplied by oculomotor nerve. To the best of our knowledge, this is the first report on doubling of the belly of the superior rectus muscle. Keywords Extraocular · Orbit · Superior rectus muscle · Eye movement · Strabismus Introduction Case report Voluntary movements of the eyeball are performed by six During dissection classes for the first-year medical students, extraocular muscles, namely superior rectus muscle, the we observed a unique variation in the right orbit of an adult inferior rectus muscle, medial rectus muscle, lateral rectus male cadaver aged 70 years. The cadaver was donated to the muscle, superior oblique muscle, and inferior oblique mus- department for teaching and research purpose. No history of cles. Variations of these muscles can result in restrictions of strabismus or visual defects is available. The variation was movements of eyeball, causing strabismus. -
One-Stage Correction for Blepharophimosis Syndrome
Eye (2008) 22, 380–388 & 2008 Nature Publishing Group All rights reserved 0950-222X/08 $30.00 www.nature.com/eye CLINICAL STUDY One-stage S-Y Wu, L Ma, Y-J Tsai and JZ-C Kuo correction for blepharophimosis syndrome Abstract Introduction Purpose To classify the severity of Blepharophimosis-ptosis-epicanthus inversus blepharophimosis, describe associated (BPES) syndrome is a rare congenital disorder features and their effects on the incidence of and occurs either as an autosomal dominant amblyopia and to recommend guidelines for trait or sporadically.1–6 In 1971, Kohn and surgical treatment and management of surgical Romano2 described the tetrad of this complications. syndrome, which includes blepharophimosis, Methods The case records of 23 patients with blepharoptosis, epicanthus inversus, and blepharophimosis syndrome were examined telecanthus. It is also associated with ocular, retrospectively. Patients’ photographs and lacrimal, nasal, and auricular anomalies.4–6 measurements were reviewed to analyse the There are two subtypes of this syndrome severity of blepharophimosis, surgical proposed by Zlotogora et al:3 type I is more techniques undertaken, surgical outcomes, prevalent and affected female subjects are and complications. Statistical analyses were infertile and type II is transmitted both in performed using paired-sample t-tests to affected male and female subjects.3 evaluate the surgical outcome and Spearman Blepharophimosis syndrome (BPES) has a correlation to examine the influence of great impact on a patient’s functional status and blepharophimosis on the interpalpebral may cause poor visual development.7 Although fissure height (PFH). previous studies describe the demography and Results Eighteen out of 23 (78%) patients aetiology of children with blepharophimosis underwent one-stage surgery before the age syndrome,1–6,8–11 there is a little information in of 5 years.