Nonspecific Orbital Inflammation (Idiopathic orbital inflammation, Orbital inflammatory syndrome, Orbital pseudotumor)
|Nonspecific Orbital Inflammation (Idiopathic orbital inflammation, Orbital inflammatory syndrome, Orbital pseudotumor)|
|Classification and external resources|
Axial CT of NSOI of extraocular muscles (orbital myositis)
Nonspecific orbital inflammation (NSOI), also known as orbital inflammatory pseudotumor, idiopathic orbital inflammation and orbital inflammatory syndrome is the most common cause of painful orbital mass in adults. NSOI can be localized or diffuse. When localized, inflammation can affect the extraocular muscles (orbital myositis), lacrimal gland (dacryoadenitis), sclera (scleritis), uvea (uveitis), and the superior orbital fissure and cavernous sinus (Tolosa-Hunt syndrome). When diffuse, NSOI may diffusely involve the orbital fatty tissues. NSOI is the third most common orbital disease after thyroid eye disease and orbital lymphoma. NSOI can both radiologically and clinically mimic a malignant process. Therefore, it is a diagnosis of exclusion, only after all other causes of inflammation have been eliminated. Treatment options are varied and can include surgery, steroids, chemotherapeutic agents and irradiation.
International Classification of Disease (ICD)
Nonspecific orbital inflammation was first described in 1905 by Birch-Hirschfeld. It was named as inflammatory pseudotumor in 1954 by Umiker et al. because of its propensity to mimic a malignant process. Since that time NSOI has been called many different names including plasma cell granuloma, histiocytoma, xanthoma, solitary mast granuloma, fibrous xanthoma and others. Presently, Nonspecific orbital inflammation and orbital inflammatory pseudotumor can be used interchangeably.
NSOI is a benign inflammatory process of the orbit characterized by a polymorphous lymphoid infiltrate with varying degrees of fibrosis, without a known local or systemic cause.
The true incidence of NSOI is difficult to assess given the wide range of manifestation and lack of universally accepted definition. NSOI has been shown to account for up to 6.3% of orbital disorders. Pediatric cases account for about 6-17% of the total incidence.,
Frequency of NSOI subtypes
Swamy et al. reviewed 24 patients with biopsy proven NSOI and found that the lacrimal gland was affected 54.2% of the time (13/24), extraocular muscles 50.0% (12/24), orbital fat 75.0% (18/24), sclera 4.2% (1/24), optic nerve 20.8% (5/24) and other 8.3% (2/27). Yuen and Rubin reviewed 65 patients with diagnosis of NSOI and found that the lacrimal gland was affected 32% (21/65), extraocular muscles 29% (19/65), lacrimal gland and extraocular muscles 8% (5/65), orbital apex 9% (6/65), and other 22% (14/65).
The histopathologic spectrum of NSOI is typically nondiagnostic secondary to the wide range of presentation ranging from the typical diffuse polymorphous infiltrate to lymphoid, granulomatous, sclerosing, eosinophilic or vasculitic inflammation. Granulomatous NSOI is rare but has been reported. In the early stages the polymorphous inflammatory response predominates; in later stages fibrosis is a predominant feature. Fibrosis is often seen with interspersed lymphoid follicles with germinal centers and may replace orbital fat and encase extraocular muscles and the optic nerve. Several histopathologic classification schemes have been proposed; Blodi and Gass presented 9 subdivisions, Reese presented 5 subdivisions and Farrow proposed 2 classes. However, to date, no one classification scheme has been universally accepted. This is likely due to the lack of clear-cut differences among the histopathological types.
The etiology and pathogenesis of NSOI is currently unknown. Both infectious and immune-mediate etiologies have been implicated. Purcell and Taulbee reported a case of new onset orbital myositis within two weeks after confirmed streptococcal pharyngitis. Others have reported association with Lyme disease as well as herpes zoster ophthalmicus. Wirostko et al. has suggested that the parasitisation of orbital leukocytes by organisms that resemble Mollicutes (MLO) may be the underlying mechanism of some forms of vasculitic NSOI.
NSOI has also been observed in association with a variety or rheumatologic conditions including Crohn's disease, systemic lupus erythematous, rheumatoid arthritis, myasthenia gravis, and ankylosing spondylitis. Mombaerts et al. found in their series that 10% of their patients with NSOI also had a concurrent autoimmune disease. In another study by Sobrin et al., 21 of 27 patients that were treated with infliximab for ocular inflammation were found to have coincidental rheumatologic disease. Atabay et al. reported that circulating antibodies against eye muscle antigens are present in patients with orbital myositis. They found autoantibodies active against eye muscle membrane proteins of 55 and 64 kilodaltons which were seen in 63% of the orbital myositis patients compared with 16-20% in healthy patients. It has been proposed that this autoimmunity may be the ocular mechanism for some forms of orbital myositis. However, antibodies to this protein have also been seen in thyroid orbitopathy. Additionally, the typical unilateral presentation of NSOI argues against this type of autoimmunity as being the primary mechanism of NSOI.
The sclerosing form of NSOI has been shown to be similar to fibroproliferative disorders with Levine et al. describing a patient with bilateral sclerosing orbital inflammation and retroperitoneal fibrosis. Rootman et al. proposed that in sclerosing NSOI, fibroproliferation occurs via production of immune-mediated fibrogenic cytokines. Histologically, sclerosing NSOI consists of dense fibrotic tissue with infiltrates consisting of predominantly T-cells. Recent evidence has suggested that Immunoglobulin G4 positive plasmacytic infiltrates can be markers of sclerosing NSOI.
Mottow-Lippe et al. suggest that trauma may cause increased vascular permeability resulting in release of antigenic substances which in turn incite an inflammatory cascade. They propose that the variable nature and multi-focality of NSOI can be explained by the network of connective tissue and capillaries delivering antigenic agents to a variety of orbital structures. Wladis et al. performed quantitative cytokine assays for 9 different molecules and noted that six cytokines were significantly elevated in NSOI (interleukin-2, -8, -10, -12, gamma interferon, and tumor necrosis factor alpha). An animal model has been proposed however more complete models are needed to better understand NSOI pathophysiology and optimum treatment protocol. Differentiation of NSOI from lymphoid tumors can be accomplished by investigating clonality of lymphocytes, polyclonal (NSOI) and monoclonal (lymphoma). Interference of CD20, CD25 and Toll-like receptors may provide the basis for future therapies. An immune-mediated pathophysiology is strongly suggested by increased cytokines and favorable, rapid responses of inflammation to systemic corticosteroids and other immunosuppressive agents. These therapies will be discussed further in the management section.
All patients with suspected NSOI require a full ophthalmic assessment/workup. NSOI is typically characterized by the abrupt onset of pain, proptosis and other inflammatory signs such as swelling and erythema. Unilateral presentation is more typical but bilateral presentations are not uncommon. Pediatric NSOI differs from the adult presentation and is more commonly characterized by bilateral manifestation, uveitis, disc edema and eosinophilia. Pain is the most common symptom in adult NSOI and occurs 58-69% of the time followed by diplopia (31-38%). Periorbital edema/swelling is the most common sign and occurs 75-79.2% of the time (figure) followed by proptosis (32-62.5%), EOM restriction (54.2%) red eye (48%), chemosis (29%), decreased vision (20.8%), and ptosis (16.7%).34-35 Therefore, physical examination of patients with suspected NSOI involves lid assessment (retraction/lid lag/lagophthalmos), orbital assessment (proptosis), extraocular muscles (restriction), globe (injection/chemosis), and optic nerve function (visual acuity/color plates/relative afferent pupillary defect). Because of the association between rheumatologic disease and NSOI the typical laboratory work-up for suspected NSOI should include a complete blood count, basic metabolic panel, thyroid function studies, erythrocyte sedimentation rate, antinuclear antibodies, antineutrophil cytoplasmic antibodies, angiotensin-converting enzyme level, rapid plasma reagin test, and rheumatoid factor.
Evaluation of NSOI will frequently involve high-resolution computed tomography (CT) or contrast-enhanced magnetic resonance imaging (MRI). CT is the preferred method because of its good inherent contrast of orbital fat, muscle, bony structures, and air in the adjacent paranasal sinuses. MRI is preferred in demonstrating soft tissue changes in the region of the cavernous sinus/superior orbital fissure due to beam hardening and bone streak artifacts seen in CT. Kapur et al. have noted different intensities diffusion-weighted imaging (DWI) between NSOI, orbital cellulitis and orbital lymphoid. Therefore, DWI may help differentiate these entities. Radiologic findings allow subtypes of NSOI to be more precisely classified and are as follows:
The lacrimal gland will appear diffusely enlarged with overall preservation of its shape. There may be blurring at the gland margin with marked expansion along the lateral orbital wall and lateral rectus muscle (Figure 2).
Figure 2: Diffusely enlarged right lacrimal gland with blurring of gland margin. Courtesy of Professor M Chua
Enlargement of the extraocular muscles will be seen (single or multiple). Unilateral single muscle inflammation with tendon involvement is most common. The most frequently involved muscle is the medial rectus followed by the superior rectus, lateral rectus and inferior rectus. The tendon may also enlarge and together with enlargement of the muscle bundle lead to a tubular configuration (Figure 3). There may be infiltrates throughout the orbital fat bordering the muscle, blurring the margin of the muscle.
Inflammatory tissues surrounding an unenhanced optic nerve may demonstrate the classical, "tramline" sign (Figure 4). There may be streaky densities in the contiguous orbital fat.
Sclera, episclera, Tenon's capsule, and uvea:Imaging will demonstrate non-specific thickening of structures. Blurring of the sclera margin may be seen (Figure 5).
Figure 5: CT image showing thickening and blurring of left eye uveoscleral (asterisks). Courtesy of Z.X. Ding
Diffuse infiltration and inflammation will be seen in the orbital fat and may envelop the globe and optic nerve sheath complex (Figure 6).
Orbital apex, cavernous sinus and intracranial involvement:
There may be compression, obliteration or displacement of the optic nerve. The cavernous sinus (Figure 7) and middle cranial fossa are the two most common locations for intracranial extension of NSOI. Intracranial involvement can feature abnormal soft tissue in the superior orbital fissure, expansion of the ipsilateral cavernous sinus and thickening of the meninges contiguous with the orbital inflammation.
Biopsy for NSOI is not usually indicated. There may be not be a distinct mass to biopsy or the lesion may be unapproachable and response to therapy can be confirmatory. Biopsy may be considered if there are progressive neurologic deficits, lack of steroid responsiveness and persistent imaging abnormalities. In their 10-year retrospective review of NSOI, Yuen and Rubin noted that biopsies were performed in 19 or 29% of NSOI patients. Fourteen of those biopsies revealed non-specific inflammatory pattern and the remaining showed a sclerosing pattern with dense fibrosis. Approach to biopsy varies greatly depending on location. Direct skin incision (Figure 8) or orbitotomy is required for tissue biopsy. Ultrasound or CT guided fine needle aspiration (FNA) has also been shown to be a useful tool in evaluating patients with suspected NSOI.
There are many processes that can mimic NSOI. The most common orbital processes that present with similar clinical pictures as NSOI are thyroid eye disease and orbital cellulitis.9 Thyroid eye disease is the most common cause of orbital inflammation in adults and has been found to account for nearly 60% of cases of orbital inflammation in the 21-60 year old age group. Orbital cellulitis risk factors include history of sinusitis, dental work/disease, or trauma. Table 1 outlines common differential diagnosis for NSOI.
Observation for NSOI for mild cases of inflammation may be acceptable. Swamy et al. reviewed the treatment of 24 NSOI patients with a minimum 6 month follow-up and found that 20.8% (5/24) that were treated with observation alone had maintained remission. If there is no clinical resolution or worsening of symptoms then additional therapy is indicated.
Non-steroidal anti-inflammatory drugs (NSAIDs)
NSAIDs, such as ibuprofen, have been used in mild cases of NSOI. There has been no formal study evaluating the use of NSAIDS in NSOI. Mannor et al. reported that NSAIDs could be used up to 3 weeks as long as clinical resolution was being observed, with steroids reserved for refractory cases. The side effects to NSAIDs are dose-dependent with an estimated 10-20% of NSAID patients experiencing dyspepsia which can be reduced through suppressing acid production, via a proton pump inhibitor, e.g. omeprazole or esomeprazole.
Systemic corticosteroids are generally considered mainstay therapy for NSOI. Typically, response to steroids is rapid with a dramatic improvement in all symptoms and findings. In their review of 65 NSOI patients, Yuen and Ruben found that 69% were treated with steroids alone, 12% with steroids and radiation therapy and 9% with steroids and NSAIDs. Yuen and Ruben also noted that 24 patients had treatment failures with steroid dependence and steroid intolerance occurring 33% and 13% of the time, respectively. In an earlier study, Mombaerts et al. found that 78% of patients with NSOI had a positive initial response to steroids but only 37% were cured with 52% having disease recurrence. In the same study Mombaerts et al., noted that optic neuropathy caused by NSOI had a excellent 95% response rate. It has been shown that the sclerosing and vasculitic subtypes of NSOI have poorer responses to steroid treatment. Treatment doses can differ in range but are generally 1.0-1.5 mg/kg or 50-100 mg/day for 1-2 weeks followed by slow taper for 5-8 weeks. If there is a reoccurrence of NSOI as steroids are tapered, dosage may need to be increased until NSOI is under control again or alternative treatments may be considered. Bijlsma et al. compared intravenous methylprednisolone (IVMP) plus oral prednisone with oral prednisone alone and found that IVMP did not result in a shorter duration of prednisone therapy or difference in symptom-free outcome or recurrence rate. With long-term use of systemic corticosteroids bone density must be monitored. Adverse side effects include mood or weight changes, hyperglycemia, GI distress and accelerated loss of bone density.
Radiation therapy can be used in the treatment of NSOI. It is generally used when NSOI is found to be resistant to or intolerant to corticosteroid therapy. The results of radiotherapy have been reported to have success rates ranging between 50-75%. Other authors have published greater long-term control to ranging from 66%-100% success after a total dosage of 2000 cGy. In there review of 24 NSOI patients treated with radiation therapy, Lanciano et al. found that 87% of patients had soft tissue swelling improvement, 82% with improvement in proptosis, 78% with improved ocular motility restriction and 75% had decreased pain. Kennerdell et al. showed benefit at doses of 2500 to 3000 cGy over ten days, Sergott et al. at doses of 1000 to 2000 cGy over 10-15 days and Orcutt et al. at 2500 cGy over 15 days. Response may vary pending the subtype of NSOI. It has been demonstrated that myositis subtype may respond well, whereas sclerosing or granulomatous variants may respond poorly. The vasculitic subtype has been shown to be successfully treated with radiation therapy, while some have noted poor response. At approximately 2000 cGy of irradiation, the lens is at risk for developing a cataract. Other side effects such as dry eye, retinopathy and optic neuropathy are typically observe with radiation doses greater than 3000 to 4000 cGy.
Cyclosporine-A (CsA)CsA is an imT-lymphocytes. It inhibits synthesis T-cell growth cytokines, IL-2 and IFN-γ. A few studies have shown that cyclosporine can be efficacious in diabetic NSOI patients who cannot tolerate steroids. Diaz-Llopis and Menezo recommend treating NSOI with 5mg/kg/day then tapering to 2mg/kg/day over ten months. Zacharopoulos et al. treated a patient using 4mg/kg/day for 6 weeks and this patient remained symptom free for 5 years without any medication. Topical .05% CsA (Restasis) in combination with topical dexamethasone .1% eye drops have also been shown to be useful in one case report of a 35-year old women who was intolerant to systemic CsA. For immunosuppression, Hemady et al., recommend cyclosporine trough levels between .1 and .4 mg/ml. Cyclosporine has numerous side effects. It is imperative to monitor renal function as levels greater than 300 to 350 ng/ml can cause permanent renal damage. Other complications include hypertension, tremor, hirsutism, hyperlipedemia, transient liver dysfunction and gingival hyperplasia. CsA has been implicated in secondary malignancies however a meta-analysis review by Buell and Koo indicated that there was no statistically significant increased risk of malignancy with CsA use.
Tacrolimus Tacrolimus has been shown to be useful for ocular immunosupression, but literature regarding treatment of NSOI has been very limited. Winn and Rootman reviewed all cases of sclerosing orbital disease from 1976 to 2008 and found one patient who developed recurrence while on tacrolimus and another with poor response to oral steroids but good response to radiation therapy combined with tacrolimus. Tacrolimus side effects can be severe and range greatly from infection, hypertension, liver and nephrotoxicity, metabolic abnormalities and lung damage.
Antiproliferative drugs (Cytotoxic):
Azathioprinemercaptopurine analong which inhibits purine metabolism enzymes. There are only case reports regarding azathioprine treatment for NSOI. Garrity et al. noted that azathioprine was ineffective in a patient with vasculitic NSOI, however, Rootman et al. found azathioprine useful in one patient in conjunction with systemic corticosteroids. Azathioprine can cause bone marrow suppression, skin rashes, liver dysfunction, nausea and vomiting and oncogenesis (non-hodgkin’s lymphoma, squamous cell carcinomas and mesenchymal tumors).
Chlorambucil is a chemotherapy drug that is used mostly in the treatment of chronic lymphocytic leukemia. Only one case report documents use of chlorambucil in NSOI. Paris et al. reported that pulsed therapy of chlorambucil combined with prednisone was effective in NSOI refractive to both corticosteroids and radiation therapy. As with other alkylating agents bone marrow suppression and subsequent anemia, neutropenia and thrombocytopenia can occur.
Cyclophosphamide There are only limited case reports of cyclophosphamide used in NSOI. Paris et al. reported effectiveness with pulsed cyclophosphamide combined with prednisone. Other cases reports have demonstrated durable anti-inflammatory effect for up to 7 years. In cases of sclerosing NSOI, Winn and Rootman noted one patient with improvement with cyclophosphamide but with recurrence 6 years later, another patient with good response to cyclophosphamide, one that developed recurrence but achieved control with cyclophosphamide, and one that appeared stable with cyclophosphamide plus colchicine. Adverse drug reactions include nausea and vomiting, bone marrow suppression, gastrointestinal distress, diarrhea, alopecia and lethargy. Hemorrhagic cystitis can also occur but is prevented by fluid intake and mesna. A long-term complication can be the development of transitional cell carcinoma of the bladder.
Leflunomide is a pyrimidine synthesis inhibitor which has anti-inflammatory, immunosuppresive and antiproliferative properties. It has been shown to be effective in the treatment of severe psoriatic and rheumatoid arthritis. Only one case report has documented use of leflunomide in NSOI. Marino and Wason reported the successful treatment of a 25 year old woman with leflunomide 40mg daily after discontinuation of methotrexate resulted in recurrence. After one week the patient's leflunomide dose was reduced to 20mg daily and she remained free of symptoms and without adverse effects for 5 months. Leflunomide's most serious adverse effect can be liver damage. More common side effects include diarrhea, alopecia and rash.
Methotrexatedihydrofolate reductase, an enzyme needed in folic acid synthesis. This results in suppression of both T-cell and B-cell functions. Methotrexate is also known to enhance the release of adenosine, which has potent anti-inflammatory effects. Methotrexate has a long history of success in the treatment of rheumatoid arthritis. For ocular immunosupression Hemady et al recommend 10 to 25 mg divided over 36 to 48 hours every 1 to 4 weeks. Smith and Rosenbaum reported treating seven NSOI patients with methotrexate ranging from 15 to 25 mg/week for periods of 4 weeks to 34 months. Of those seven patients 4 demonstrated clinical benefit, in one patient methotrexate was stopped due to side effects, in one there was no response, and 2 patients did not complete the 4 months trial for undisclosed reasons. Shah et al. evaluated methotrexate use in NSOI at low doses of 12.5 mg/wk and reported 16 out of 22 patients that had a reduction of inflammatory activity. Fourteen of the 16 patients were able to taper or discontinue corticosteroid therapy and 5 patients had complete remission. Six patients did not response to methotrexate. Prominent side effects of methotrexate include gastrointestinal disturbances, arthralgias, liver abnormalities, alopecia, fatigue and headache. Dietary supplements of folate, restriction of alcohol intake and parenteral administration of methotrexate can prevent these side effects.
Mycophenolate mofetil (MMF)
Mycophenolate mofetil is an antimetabolite with immunosuppressive activity. It has been shown to be effective in the treatment of uveitis, scleritis and mucus membrane pemphigoid. Hatton et al. reviewed of 4 NSOI patients treated with MMF and concurrent corticosteroids and 1 patient. Severe nausea developed in one patient and required discontinuation but the remaining 4 were found to complete resolution of inflammation, with median follow up of 8.5 months. The average dose of MMF was 2.2 g/d. A case report Patel et al. describes one patient with sclerosing NSOI that poorly responded to 60 mg of daily prednisone and MMF was started resulting in drastic improvement in visual field and visual acuity. Most recently MMF has been shown to be effective in IgG4-related NSOI of the central nervous system. MMF is generally well tolerated, with the most common side effect being gastrointestinal disturbances, nausea, increased cholesterol and metabolic abnormalities. To minimize these side effects dosing can be started at 500mg/day and slowly increased.
Cytokine/protein specific biologic agents:
Abatacept is a soluble, fully human, recombinant fusion protein that selectively modulates that CD80/CD86:CD28 co-stimulatory signal for T-cell activation. Abatacept has been reported to be effective in methotrexate-resistant active rheumatoid arthritis and refractory juvenile idiopathic arthritis (JIA) related uveitis. There have been no reports regarding treatment of NSOI with Abatacept. The most common side effects may include headache, nasopharyngitis and nausea. The incidence of infection has been shown to be increased when compared to that of a placebo. As this drug is administered as an infusion, infusion reactions may also occur.
AdalimumabIgG1 monoclonal antibody containing 100% human peptide sequences targeting tumor necrosis factor alpha (TNF-α). TNF-α is a cytokinic key factor in the inflammatory cascade. Adalimumab has been proven to be effective in adult patients with rheumatoid arthritis, ankylosing spondylitis and psoriatic arthritis. Case series have documented benefit in patients with anterior uveitis, Behçet uveitis and pediatric uveitis. Adams et al. describe 2 patients with refractory, steroid-dependent, recurrent orbital myositis who both improved after adalimumab treatment without disease flare. As with any other immunosuppressive agent, the risk of infection is increased. Risk of lymphoma has been shown to be increased in patients with long-standing rheumatoid arthritis, a group already at increased risk for development of lymphoma. In pooled analysis of four trials Injection site reactions with adalimumab occurred in about 20.9% of patients compared with 13.8% with placebo. Common site reactions including erythema, itching, hemorrhage and pain/swelling. Chung et al. have described cases of optic neuritis associated with adalimumab.
Daclizumab is a recombinant monoclonal human-murine immunoglobulin that binds to IL-2 receptors inhibiting activation of lymphocytes. Daclizumab was reported to be successful in the treatment of 10 patients with various types of uveitis, scleritis, ocular cicatricial pemphigoid, keratouveitis and birdshot chorioretinopathy. Garcia-Pous et al. reported benefit in a patient with chronic orbital myositis when daclizumab was used in combination with corticosteroids and cyclosporine. Daclizumab has been known to cause increased fatigue, increased rate of infection and dermatitis.
Etanercept The results of etanercept for eye related diseases have been mixed. In a randomized, double blind trial of 18 patient with ocular sarcoidosis there was found to be no therapeutic benefit over placebo. A similar results was reported in the treatment of JIA uveitis. The Wegener's Granulomatosis Etanercept Trial (WEGET) was a randomized, placebo-controlled trial where etanercept was evaluated for maintenance of remission in 180 patients. The study found that etanercept was ineffective, but also those treated with etanercept were found to have a higher risk of developing solid tumors in comparison with those treated with cyclophosphamide. Paridaens et al. reported 10 thyroid eye disease patients who benefited from subcutaneous injections of 25mg of etanercept with an improvement of clinical activity score by 60% and an ophthalmology index improvement of 24%. Side effects of etanercept include cytopenia, infections and injection site reactions. Paradoxically, there have been reports etanercept-associated uveitis, scleritis and orbital myositis. Given these findings etanercept should be used cautiously when attempting to treat refractory NSOI.
Infliximab is a chimeric monoclonal antibody against TNF-α. As infliximab is one of the first specific agents to be directed against TNF-α, there has been more evidence regarding its use in variety of ocular disease. It has been so successful in Behçet's disease that it is becoming the treatment of choice for this disorder. There has been increasing body of evidence that infliximab is a useful therapeutic option in NSOI. Garrity et al. reported the treatment of 7 patients with chronic and refractory orbital myositis. Patients received a dosing schedule of 3 to 5 mg/kg (up to 10 mg/kg) given at weeks 0,2,and 6 with treatments every 4 to 8 weeks afterwards. It was noted that all 7 patients had a favorable response to treatment with no untoward effects after a mean follow-up of 15.7 months (range, 4 to 31 months). Miguel et al. has reported two cases of steroid dependent NSOI who developed adverse effects from conventional steroid-sparing agents, in both cases symptoms had disappeared with infliximab with follow-up of at least 20 months. Sahlin et al. described successful treatment of 1 patient with sclerosing NSOI with combination infliximab and methotrexate therapy. Wilson et al. has reported success in the treatment in a pediatric patient with refractory bilateral NSOI and has remained symptom free and off corticosteroids 2 years since initial diagnosis Side effects include rash, headache, respiratory congestion, hypotension, development of autoantibodies and possible risk of lymphoma. The incidence of autoantibody formation has been shown to be lessened with concomitant use of methotrexate. Some have reported that infliximab is the biologic agent of choice, given its proven efficacy in NSOI and well studied profile regarding other inflammatory disorders.
Rituximab is a chimeric mouse-human monoclonal antibody against the protein CD20, which is primarily found on B-cells as a cell-surface protein. Although ritixumab is a monoclonal antibody it tends to act more as a cytotoxic agent than other biologic agents. On et al. first reported the use of rituximab in the successful management of one patient with refractory NSOI in combination with CyberKnife radiosurgery with rituximab dosing at 375mg/m2 IV weekly for 4 weeks. Schafranksi reported success with rituximab in one patient with NSOI refractory to azathioprine therapy, at dosing of two 1000-mg infusions on days 0 and 15. Lastly, Ibrahim et al. has reported successful treatment one patient with rheumatoid arthritis who developed NSOI refractory to adalimumab with ritixumab dosing of 1000-mg infusions administered 2 weeks apart. The side effects of rituximab include infusion site reactions, rash, rigors, fever, headache, infection, and bronchospasm.
Tocilizumab is an anti-interleukin-6 receptor antibody that has been shown to be effective in the treatment of systemic-onset juvenile idiopathic arthritis and rheumatoid arthritis. A review of 392 patients with noninfectious anterior scleritis showed 1 patient with successful treatment of scleritis with Tocilizumab. Tappeiner et al. reported 3 patients with JIA-associated uveitis that were treated with tocilizumab. Two out of the three patients achieved inactivity of uveitis while 1 patient required increased in the osage of topical steroids. In all three patients arthritis improved. To date toclizumab has not been reported in treating NSOI. The most common side effects of tocilizumab include upper respiratory tract infections, nasopharyngitis, headache, hypertension, and transient elevation of serum liver enzyme levels. More serious side effects include neutropenia, serious infection, and thrombocytopenia.
Intravenous Immunoglobulin and Plasmapheresis
Both intravenous immunoglobulin (IVIG) and plasmapheresis act via removal of autoantibodies by neutralization and filtration, respectively. However, the exact mechanism of action of IVIG in immune-mediated diseases remains unknown. It has been suggested that IVIG may activate the inhibitory Fc receptor pathway. In one study, Rosenbaum et al. treated 10 patients with refractory bilateral uveitis with IVIG and observed sustained and substaintial benefit in 5 out of the 10 patients for over 11 months. Shambal et al. treated 1 patient with refractory orbital myositis with .3 g/kg/weight for 3 days and considerable improvement was noted. Symon et al. reported the successful treatment of resistant NSOI with a total dose of 2g/kg divided over 4 days as an 8-hour infusion with resolution of pain and proptosis. IVIG has also been used successfully in the thyroid eye disease. There have been no case reports of the use of plasmapheresis in the treatment of NSOI. IVIG is associated with thromboembolism, aseptic meningitis and the risk of transmission of blood-borne infection. Despite the promise, IVIG is a limited resource and, therefore, is an extremely costly therapy. As a result its use should probably be limited to those who have failed virtually all other available treatments.
Surgical resection can be an effective form of treatment in NSOI refractory to treatment. However, lesions must be localized for best surgical outcome. For diffuse, fibrotic lesions or lesions near vital structures surgical resection may not be viable. In an eye with a confirmed diagnosis of NSOI that becomes blind and painful or is completely refractory to all treatments exenteration may be considered.
Outcomes regarding NSOI differ in the literature given the variability in both disease presentation and treatment protocols. Retrospective data from academic centers may reflect an overall higher rate of corticosteroid failures than observed in the community as these centers will generally see more severe or recalcitrant disease.
Mombaerts et al. found that 78% of patients with NSOI had a positive initial response to steroids but only 37% were cured with 52% having disease recurrence. Mombaerts et al., also noted that optic neuropathy caused by NSOI had a excellent 95% response rate. It has been shown that the sclerosing and vasculitic subtypes of NSOI have poorer responses to steroid treatment. In 2002, Yuen and Ruben reviewed 65 NSOI patients who were treated at the Massachusetts Eye and Ear Infirmary from January 1991 to April 2001. Treatment modalities used included steroids, steroids and radiation, steroids and NSAIDs, radiation and NSAIDs, NSAIDs alone, surgical debulking and observation only. Of the 65 patients 41 (63%) had treatment success and had complete symptom relief; whereas 24 (37%) represented treatment failures. Of the 24 treatment failure patients, 14 (58%) inflammation had returned after a period of quiescence. For 9 (38%) of the 24 patients, the disease was severe with unremitting inflammation. It is important to note that the use of alternative therapies for NSOI was not commonly used at the time of Yuen and Rubin’s review.
Five years after Yuen and Rubin, Swamy et al. published treatment outcomes of 24 patients with biopsy proven NSOI. Therapeutic modalities included observation alone, antibiotics, oral corticosteroids, intravenous corticosteroids, adjunctive radiation therapy and systemic immunosuppressive drugs (methotrexate, azathioprine, mycophenolate, and ciclosporine). Of the 24 patients, 16 (67%) had complete resolution of symptoms, 4 (17%) had partial resolution and 4 (17%) had no improvement in their symptoms. In 2012 Pemberton and Fay reviewed all published cases of sclerosing NSOI. Seventeen articles with 56 biopsy-proven sclerosing NSOI with documented outcomes were reviewed. There were 15 different treatment regimens including steroids, radiation therapy and immunomodulatory drugs. Regardless of treatment modality the overall response was good in 19 (34%) patients, partial in 24 (43%), and poor in 13 (23%).
NSOI is diagnosis of exclusion and is highly variable. Given the variable nature of the disease and the emergence of immunosuppresive drugs many therapeutic regimens exist. Retrospective studies have demonstrated that patients on average have symptomatic improvement. It is generally agreed upon that steroids are the initial treatment of choice for moderate to severe NSOI. There has yet to be long-term prospective studies evaluating the most appropriate treatment protocol. Given the infrequency and variable presentation of the disease it is unlikely large scale prospective studies will be completed in the near future. Pemberton and Fay propose the creation of a multidisciplinary consortium of clinical and research scientists to develop standardized clinical criteria and management for sclerosing NSOI. Such collaboration would likely be helpful for any NSOI subtype. In the future newer therapeutic modalities may become standard of care.
- ↑ 1.0 1.1 1.2 Weber AL, Romo LV, Sabates NR. Pseudotumor of the orbit: clinical, pathologic, and radiologic evaluation. Radiol Clin North Am 1999;37:151-168
- ↑ 2.0 2.1 2.2 2.3 Narla LD, Newman B, Spottswood SS, Narla S, Kolli R: Inflammatory Pseudotumor. Radiographics, online publication 2003;23:719-720
- ↑ Birch-Hirschfeld A. Zur Diagnostic and Pathologic der Orbital Tumoren. Bericht uber die Zusammenkunft der Deutschen Ophthalmologischen Gesellschaft 1905;32:127e35.
- ↑ Umiker WO, Iverson LC. Post inflammatory tumor of the lung: report of four cases simulating xanthoma, firboma, or plasma cell granuloma. J. Thorac Surg 1954;28:55-62
- ↑ Orbits, Eyelids, and Lacrimal System, AAO, BCSC Section 7, 2011-2012 pg. 59
- ↑ Yuen SJ, Rubin P. Idiopathic orbital inflammation: ocular mechanisms and clinicopathology. Ophthalmol Clin N Am 2002;15:121-126
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