Thyroid Eye Disease

2019 ◽  
pp. 207-212
Author(s):  
Matthew J. Thurtell ◽  
Robert L. Tomsak

Thyroid eye disease is the most common cause of orbital disease encountered in clinical practice. It most often occurs in patients with Graves disease, but can also occur in the absence of thyroid dysfunction. In this chapter, we begin by reviewing the clinical features and natural history of thyroid eye disease. We next discuss the diagnostic evaluation of thyroid eye disease, including the roles of imaging and visual field testing. We then briefly review the differential diagnosis, which includes idiopathic orbital inflammation, orbital cellulitis, and carotid-cavernous fistula. Lastly, we discuss the management approach for thyroid eye disease. Many patients have only mild disease and can be managed with supportive treatments, such as artificial tears, prisms, and selenium supplementation. However, patients with moderate to severe thyroid eye disease often require more aggressive treatments, such as immunosuppression with systemic corticosteroids, orbital irradiation, and orbital decompression surgery.

2021 ◽  
Vol 21 (1) ◽  
Author(s):  
Jie Guo ◽  
Xiaofeng Li ◽  
Ruiqi Ma ◽  
Jiang Qian

Abstract Background Postoperative ocular imbalance is an important problem for orbital decompression surgery in thyroid eye disease (TED). The aim of this study was to evaluate the changes in unilateral ocular deviation and duction following orbital decompression and discuss the biomechanics of ocular imbalance. Methods Fifty-four TED patients who underwent unilateral orbital decompression were included. Fifteen patients underwent 1-wall (deep lateral wall) decompression, 18 patients underwent 2-wall (deep lateral and medial wall) decompression and 21 patients underwent 3-wall (deep lateral, medial and inferior wall) decompression. Objective and subjective deviation of the operated eyes were evaluated using the prism test and synoptophore, respectively. Ocular ductions were measured using Hirschberg’s method. The diameters of the extraocular rectus were measured by computed tomography. Results Ocular deviation and duction showed no significant difference after 1-wall decompression (p = 0.25–0.89). Esotropia increased after 2-wall decompression (p = 0.001–0.02), and hypotropia increased after 3-wall decompression (p = 0.02). Adduction increased but abduction decreased following 2-wall and 3-wall decompression (p < 0.05). Infraduction increased following 3-wall decompression (p < 0.001). Additionally, the increase in esotropia was significantly correlated with the increase in adduction and with the decrease in abduction (r = 0.37–0.63, p < 0.05). There were significant correlations between the diameter of the medial rectus and the increase in esotropia, the increase in adduction and the decrease in abduction postoperatively (r = 0.35–0.48, p < 0.05). Conclusions The changes in ocular deviation and duction were different after 1-wall, 2-wall and 3-wall orbital decompression. The increased contractile force of the rectus may be an important reason for strabismus changes after orbital decompression surgery.


2017 ◽  
Vol 23 (4) ◽  
pp. 475-484
Author(s):  
Sadie Wickwar ◽  
Hayley McBain ◽  
Matthew R. Edmunds ◽  
Daniel G. Ezra ◽  
Geoffrey E. Rose ◽  
...  

2020 ◽  
Author(s):  
Jie Guo ◽  
Xiaofeng Li ◽  
Ruiqi Ma ◽  
Jiang Qian

Abstract Background: Postoperative ocular imbalance is an important problem for orbital decompression surgery in thyroid eye disease (TED). To evaluate the changes of unilateral ocular deviation and duction following orbital decompression and discuss the possible biomechanics of ocular imbalance.Methods: Fifty-four TED patients who underwent unilateral orbital decompression were included. 15 patients underwent 1-wall (deep lateral wall) decompression, 18 patients underwent 2-wall (deep lateral and medial wall) decompression and 21 patients underwent 3-wall (deep lateral, medial and inferior wall) decompression. Objective and subjective deviation of the operated eyes compared with the fellow eyes were evaluated using prism test and synoptophore, respectively. Ocular ductions were measured using Hirschberg’s method. The diameters of extraocular rectus were measured by computed tomography.Results: Ocular deviation and duction showed no significant difference after 1-wall decompression (p=0.25~0.89). Esotropia increased after 2-wall decompression (p=0.001~0.02). Hypotropia increased after 3-wall decompression (p=0.02). Adduction increased but abduction decreased following 2-wall and 3-wall decompression (p<0.05). Infraduction increased following 3-wall decompression (p<0.001). Additionally, the increase of esotropia had significant correlations with the increase of adduction and with the decrease of abduction (r=0.37~0.63, p<0.05). There were significant correlations between the diameter of medial rectus and the increase of esotropia, the increase of adduction and the decrease of abduction postoperatively (r=0.35~0.48, p<0.05).Conclusions: The changes in ocular deviation and duction were different after 1-wall, 2-wall and 3-wall orbital decompression. The expansion of orbital cavity and the increased contractile force of rectus might be important reasons for strabismus changes following decompression surgery.


2019 ◽  
Vol 30 (5) ◽  
pp. 1004-1007 ◽  
Author(s):  
Shoaib Ugradar ◽  
Daniel B Rootman

Purpose: To objectively measure the differential expansion of orbital fat and muscle volume in patients with thyroid eye disease. Methods: In this retrospective study, eligible participants were adults with clinical evidence of thyroid eye disease and high-resolution computed tomography scans of their orbits. Patients with a history of decompression surgery and/or medical or other conditions that could alter the orbital anatomy were excluded. Three dimensional reconstructions of the orbits allowed the calculation of the fat volume, muscle volume and bony orbital volume using the MIMICS imaging analysis tool. Both orbits from each patient were included without bias through the use of the generalized estimating equation. The primary outcome was the measurement of fat volume. Secondary outcome measures included the correlation of the muscle volume, bony orbital volume and exophthalmometry with age. Results: Fifty patients with thyroid eye disease who were included contributed 100 orbits. The sample included 29 females (age 57, standard deviation = 14.8) and 21 males (age 52, standard deviation = 18.14). Mean (standard deviation) exophthalmometry measurement was 21.58 (4.01). Fat volume and exophthalmometry were negatively correlated with age (p = 0.00001 and p = 0.00001, respectively). Muscle volume (p = 0.985) and bony orbital volume (p = 0.484) did not correlate with age. Conclusion: Older patients with thyroid eye disease have less expansion of fat volume compared with younger patients. There are no associations between age and the bony orbital volume or muscle volume. These results support the growing body of evidence which suggests that the pathophysiology of TED is different in older patient.


2019 ◽  
Vol 104 (2) ◽  
pp. 254-259
Author(s):  
Dong Cheol Lee ◽  
Stephanie M Young ◽  
Yoon-Duck Kim ◽  
Kyung In Woo

AimsTo evaluate the natural course of upper eyelid retraction (UER) in patients with thyroid eye disease (TED) and factors affecting its course.MethodsRetrospective non-interventional cohort study in a single tertiary institution from March 2006 to March 2015 on patients with TED with (1) unilateral or bilateral UER within 6 months from initial presentation, and (2) no prior interventions nor surgical treatment for their UER. Main outcomes and measures were mean margin reflex distance 1 (MRD1) and factors associated with UER improvement.ResultsThere were a total of 61 patients and 81 eyes (41 unilateral and 20 bilateral UER). Mean age was 42.3±15.1 years. Mean MRD1 decreased from 6.1 mm at presentation to 4.8 mm at 12 months, and 4.4 mm at 24 months. The proportion of eyes with normalisation of lid height increased from 0% at presentation to 22.2% at 6 months, 37.0% at 12 months and 49.4% at 24 months. Mean time to normalisation of MRD1 was 18.0±12.4 months. A positive family history of TED was found to be associated with a 6.2 times lower likelihood of normalisation. Change in exophthalmometry, clinical activity score and thyroid-stimulating immunoglobulin were significantly correlated to change in MRD1 (p<0.05). There was no correlation between change in MRD1 and thyroid-stimulating hormone receptor antibodies.ConclusionAn improved knowledge of the natural history of UER in TED will allow us to better decide and evaluate the optimal management for such patients.


2006 ◽  
Vol 23 (3) ◽  
pp. 183-189 ◽  
Author(s):  
L. Stannard ◽  
R. M. Slater ◽  
B. Leatherbarrow

2021 ◽  
Author(s):  
Byeong-Cheol Jeong ◽  
Chi-Seung Lee ◽  
Dong-man Ryu ◽  
Jungyul Park

Abstract Background To evaluate the risk of general orbital decompression in patients with thyroid eye disease (TED).Methods In this study, we replicated the behavior of intraorbital tissue in patients with TED based on finite element analysis. The orbit and intraorbital tissues of TED patient who underwent orbital decompression were modeled as finite element models. The stress was examined at a specific location of the removed orbital wall of a patient with TED who had undergone orbital decompression, and its variation was investigated and analyzed as a function of the shape and dimension (to be removed).Results In orbital decompression surgery which removes the orbital wall in a rectangular shape, the stress at the orbital wall decreased as the width and depth of the removed orbital wall increased. In addition, the stress of the non-chamfered model (a form of general orbital decompression) was higher than that of the chamfered model. Especially, in the case of orbital decompression, it can be seen that the chamfered model compared to the non-chamfered model have the stress reduction rate from 11.08% to 97.88%.Conclusions It is inferred that if orbital decompression surgery considering the chamfered model is performed on an actual TED patient, it is expected that the damage to the extraocular muscle caused by the removed orbital wall will be reduced.


Author(s):  
J.D. Perry ◽  
Craig Lewis

In 1835 Graves first described the characteristic exophthalmos of thyroid eye disease, and his name has since become synonymous with thyrotoxic ophthalmopathy. Graves disease is relatively common, with a prevalence and incidence of 1% and 0.1%, respectively. Although subtle signs of ophthalmopathy are present in most patients with Graves disease, only 30% have obvious eye findings, and only 5% develop ophthalmopathy severe enough to warrant specific treatment with radiotherapy, immunosuppression, or orbital decompression surgery. Graves disease and Graves ophthalmopathy are more common in females than in males, though males tend to have more severe eye disease. Cigarette smokers have an increased risk of developing Graves disease, an increased risk of developing associated ophthalmopathy, and a progressively increased risk of severe ocular manifestations. While the onset of Graves disease usually occurs when people are in their forties, thyroid optic neuropathy tends to occur in the fifties and sixties, underscoring the importance of careful long-term follow-up of these patients. The ophthalmopathy of Graves disease is usually associated with hyperthyroidism, but it occurs in euthyroid and hypothyroid patients as well. The clinical course of the ophthalmopathy does not directly correlate with the thyroid status, although more than 80% of thyroid patients who develop severe ophthalmopathy do so within 18 months of the detection of the thyroid disease. The early findings of thyroid ophthalmopathy include conjunctival injection, lacrimation, ocular surface irritation, orbital and periorbital swelling, and mild eyelid retraction. Progression of the disease can result in severe orbital congestion, massive enlargement of the extraocular muscles with secondary diplopia, proptosis, compressive optic neuropathy, prominent eyelid retraction, spontaneous subluxation of the globe anterior to the eyelids, and exposure keratopathy. Treatment options for these serious complications of Graves disease include systemic corticosteroids, radiation therapy, and orbital decompression surgery. The role of radiation therapy in the management of Graves ophthalmopathy remains controversial. In 1973, Donaldson et al. first reported results of radiotherapy for Graves ophthalmopathy using a megavoltage linear accelerator. This series and multiple subsequent series have reported favorable results in approximately 60% of patients.


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