Cinzia Rotondo 1 and Giuseppe Lopalco 1 and Florenzo Iannone 1 and Antonio Vitale 2 and Rosaria Talarico 3 and Mauro Galeazzi 2 and Giovanni Lapadula 1 and Luca Cantarini 2
Academic Editor:Julio Galvez
1, Interdisciplinary Department of Medicine, University of Bari, Piazza Giulio Cesare 11, 70124 Bari, Italy
2, Research Center of Systemic Autoimmune and Autoinflammatory Diseases, University of Siena, Viale Bracci 1, 53100 Siena, Italy
3, Rheumatology Unit, Department of Clinical and Experimental Medicine, University of Pisa, Via Roma 67, 56126 Pisa, Italy
Received 12 April 2015; Accepted 19 May 2015; 22 June 2015
This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.
1. Introduction
Behçet's disease (BD) is an inflammatory disorder of undetermined aetiology, which is recently and unanimously recognized as both autoimmune and autoinflammatory disease [1]. Indeed, many of its classical manifestations and the characteristics of the recurrent course overlap with those of monogenic autoinflammatory disorders [2-5].
It is hypothesized that the main pathogenetic elements are represented by genetic predisposition, mainly HLA dependent, and environmental factors. Furthermore, it is believed that a misdirected immune response, triggered by some microbial agents (as herpes simplex virus-1 and Streptococcus sanguinis ), could play a pivotal role in the pathogenesis of BD [6]. In this regard, the abnormal activation of either innate and adaptive immunity with consequent interaction of both T lymphocytes (mainly Th1 and Th17 phenotype) and activated neutrophils would seem to be involved in the disease onset [7-9]. Many cytokines may contribute to the pathological mechanism of BD [6, 10-12]; high sera title of tumor necrosis factor- (TNF-) alpha is found in patients with active BD [13] and the role of TNF-alpha inhibition in the pathogenesis of ocular inflammation was described in mice models [14]. Interleukin- (IL-) 6 has been demonstrated to be related to BD activity and central nervous system involvement, as confirmed by its high levels in CSF [15]. Recent studies have suggested a role of IL-1 in BD; actually IL-1 high title is found in sera [16] and synovial fluid of BD patients [17]. Indeed IL-1 may play a key role in the pathogenesis of ocular [18] and mucocutaneous involvement [19], although in the latter case evidence from literature is not entirely encouraging [20-23].
BD is clinically characterised by multiple organ involvement, in particular by the "triple symptom complex," consisting of recurrent oral aphthosis, genital ulcers, and recurrent bilateral uveitis. Besides this classical clinical trial, BD recognizes also other organ involvements, as summarised in Table 1 [24-28].
Table 1: Brief summary of the main clinical manifestations of Behçet's disease.
Organ involvements | Clinical manifestations | Recommended treatment |
Mucocutaneous | Oral aphthae, genital ulcers, pseudofolliculitis, papulopustular lesions, erythema nodosum-like lesions, and pathergy reaction | Colchicine, azathioprine, interferon-α , and TNF-α antagonist |
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Eye disease | Recurrent bilateral uveitis (anterior segment, posterior segment, or both), retinal vasculitis, retinal vein occlusion, and optic neuritis | Azathioprine, local or systemic corticosteroids, cyclosporine, infliximab (in combination with azathioprine and corticosteroids), and interferon-α . |
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Gastrointestinal tract | Anorexia, vomiting, dyspepsia, diarrhea, abdominal pain, ulcers, ischemic perforation, thrombosis in the terminal ileum, ileocecal region, and colon | Sulfasalazine, corticosteroids, azathioprine, TNF-α antagonista, and thalidomide. In emergency surgical procedures are required such as ileocolectomy or hemicolectomy |
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Musculoskeletal system | Nonerosive arthritis, nondeforming oligoarthritis, back pain, and sacroiliitis | Colchicine, interferon-α , azathioprine, and TNF-α antagonists |
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Cardiovascular system | Vasculitis, superficial thrombophlebitis, deep vein thrombosis, dural sinus thrombosis, occlusion of suprahepatic veins, pericarditis, myocarditis, endocarditis, intracardiac thrombosis, coronary vasculitis, and ventricular aneurysm | Corticosteroids, azathioprine, cyclosporine, and cyclophosphamide |
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Central nervous system | Severe headache and pyramidal and extrapyramidal symptom (seizures, hemiplegia, and cranial nerve palsies) Central nervous system: focal necrotic cerebral lesions, vascular thrombosis, arterial vasculitis, and aseptic meningoencephalitisPeripheral nervous system: peripheral neuropathies and multiplex mononeuritis | Corticosteroids, interferon-α , azathioprine, cyclophosphamide, methotrexate, and TNF-α antagonists. |
Mucocutaneous lesions are the earliest and the most frequent manifestations of BD which may anticipate by many years other typical clinical symptoms. The most common mucocutaneous lesions are oral aphthae (OA), which are included in the BD classification criteria. OA are characterized by recurrent and painful oral mucosa ulcerations. They manifest themselves, more frequently as minor aphthous ulcers (<10 mm in diameter) or, less frequently, as major ulcers (>10 mm in diameter, deeper and more painful than minor ulcers) or also as herpetiform ulcers (numerous, shallow, and small-pinpoint ulcers occurring in coalescing clusters). The genital ulcers (GU) are the second main symptom reported in the literature. They are similar in appearance and course to OA. The most frequently involved body areas are the scrotum in males and the major and minor labia in females. Cutaneous lesions, important characteristics of the disease, have been described as a major criterion for the classification. They mainly include erythema nodosum-like lesions, papulopustular lesions (sterile folliculitis-like lesions on an erythematous base), superficial thrombophlebitis, extragenital ulceration, and other cutaneous vasculitic lesions [29]. Skin pathergy reaction represents the unifying feature of the typical BD inflammation and is characterised by the presence of an abnormal skin reaction to traumatic insults or different types of inflammatory stimuli [30]. Moreover, pathergy phenomenon has no association with specific organ involvement or disease activity and is not only restricted to the skin [31].
The mucocutaneous manifestations are characterized by recurrent relapses; they usually have moderate to long-term course and their spontaneous resolution is rarely described. A wide number of conventional immunosuppressive drugs could be used to treat these lesions, but several failures, with lesion relapses, are commonly reported. The concomitant BD manifestations often drive the therapy management [32].
Herewith, we provide a review of the literature published on treatment strategies for mucocutaneous BD involvement, focusing on how treatment has changed in the last decades and on possible future perspectives.
Hints from Treatment Guidelines . In 2008 the EULAR treatment recommendations were published; they suggested treating skin and mucosa involvement both depending on the perceived severity and shared doctor-patient decision and according to dominant or concomitant manifestations. Topical measures (i.e., local corticosteroids) should be the first-line treatment for isolated oral and genital ulcers and acne-like lesions. Colchicine should be preferred when the dominant lesion is erythema nodosum. Azathioprine, INF-alpha, and TNF-alpha antagonist may be considered in resistant cases [32]. Some immunomodulator drugs, as tocilizumab and mycophenolate mofetil, have failed to reach a clinical improvement in the mucocutaneous lesions [28]. New drugs as apremilast seem to be effective in the treatment of oral and genital aphthosis [33]. Further studies may be necessary to prove the drug efficacy. The improvement of knowledge about the pathogenetic mechanism could add important changes in the treatment management of the BD clinical manifestation.
2. Literature Review
An electronic literature search was conducted using SCHOLAR, SCOPUS, and PUBMED. Case reports, open and double-blind trials, and cohort studies published up until 2015 were evaluated (Table 2). With regard to the drugs under clinical experimentation, the "clinicaltrials.gov" web site was consulted.
Table 2: Overview of works derived from the medical literature reporting treatment indications of mucocutaneous lesions in Behçet's disease.
Drugs | Dose | Authors (year) | Number of patients | Study | Effectiveness |
Azathioprine | 2,5 mg/kg/day | Yazici et al. (1990) [34] | 45 | Randomized controlled trial | Oral and genital ulcers and eye involvement |
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Colchicine | - | Aktulga et al. (1980) [35] | 35 | Double-blind trial | Erythema nodosum-like lesions |
1-2 mg/day | Yurdakul et al. (2001) [36] | 116 | Randomized controlled trial | Genital ulcers | |
1 mg/day | Davatchi et al. (2009) [37] | 169 | Randomized controlled trial | Genital and oral ulcers and pseudofolliculitis | |
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Colchicine versus benzathine penicillin + colchicine | - | Çalgüneri et al. (1996) [38] | 60/94 | Open study | Oral ulcers and erythema nodosum and genital ulcers |
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Benzathine penicillin versus colchicine versus benzathine penicillin + colchicine | Benzathine penicillin 1.2 million units by injection monthly/colchicine 1 mg day/benzathine penicillin + colchicine | Al-Waiz et al. (2005) [39] | 20/21/25 | Open study | Oral ulcers and erythema nodosum |
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Azithromycin |
| Mumcu et al. (2005) [42] | 8 | Case series | Folliculitis and oral ulcers |
1500 mg/week for 4 weeks | Mumcu et al. (2013) [43] | 10 | Case series | Folliculitis and oral ulcers | |
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Minocycline | - | Kaneko et al. (1997) [44] | - | - | - |
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Thalidomide | 100-300 mg/day | Hamuryudan et al. (1998) [45] | 98 | Randomized controlled trial | Oral and genital ulcers and folliculitis lesions |
50 mg/day | De Wazières et al. (1999) [46] | 17 | Open study | Oral and genital ulcers | |
400 mg/day for 5 days and then 200 mg/day for 4 weeks | Gardner-Medwin et al. (1994) [47] | 23 | Open study | Oral and genital ulcers | |
400 mg/day for 5 days and then 200 mg/day | Saylan and Saltik (1982) [48] | 22 | Open study | Oral and genital ulcers | |
- | Hamza (1986) [49] | - | Open study | - | |
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Cyclosporine | 10 mg/kg/day versus colchicine (1 mg/day) | Masuda et al. (1989) [50] | 96 | Randomized controlled trial | Oral aphthous, dermal lesion, and genital ulcers |
5 mg/kg/day | Assaad-Khalil (1991) [51] | - | Controlled study | Orogenital ulcers and skin lesion | |
- | Avci et al. (1997) [52] | - | - | - | |
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Dapsone | 100 mg/day | Sharquie et al. (2002) [55] | - | Double-blind placebo-controlled trial | Orogenital ulcers |
- | Sharquie (1984) [54] | - | Open study | - | |
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Interferon alpha 2a | 6 million units subcutaneously 3 times per week | Alpsoy et al. (2002) [57] | 50 | Randomized placebo-controlled and double-blind study | Oral ulcers, genital ulcers, and papulopustular lesion |
9 million units/day three times a week versus colchicine 1,5 mg/day | Boyvat et al. (2000) [58] | 20/16 | Randomized controlled trial | - | |
3 million units subcutaneously daily for 6 months | O'Duffy et al. (1998) [59] | 10 | Randomized controlled trial | - | |
6 million units per day 3 times per week for 2 months | Georgiou et al. (1998) [60] | 12 | - | Oral aphthae, genital ulcers, erythema nodosum, and pseudofolliculitis | |
3 million units/day in the first week (three times a week), 6 million units/day in the second week (three times a week), 9 million units IU/day in the third week and thereafter (three times a week) | Azizlerli et al. (1996) [61] | 18 | - | Oral aphthae, genital ulcers, erythema nodosum, and pseudofolliculitis | |
3 million units three times per week versus 9 million units once a month | Alpsoy et al. (1994) [62] | 14 | Randomized controlled trial | - | |
9 million units three times a week for 6 months | Zouboulis et al. (1993) [64] | 10 | - | Oral aphthae, genital ulcers, erythema nodosum, pseudofolliculitis | |
5 million units 3 times a week for 6 weeks followed by 5 million units once a week for 10 weeks | Hamuryudan et al. (1994) [63] | 21 | Randomized controlled trial | Oral aphthae, genital ulcers, erythema nodosum, and pseudofolliculitis | |
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Alemtuzumab | - | Perez-Pampin et al. (2013) [67] | 1 | Case report | Orogenital aphthosis and erythema nodosum |
134 mg | Lockwood et al. (2003) [68] | 18 | Open study | Orogenital ulcerations | |
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Infliximab | 5 mg/kg every 8 weeks | Olivieri et al. (2009) [74] | - | Case report | Mucocutaneous lesions |
5 mg/kg for 4th infusion [figure omitted; refer to PDF] 0, 2, 6, and 15 weeks [figure omitted; refer to PDF] | Haugeberg et al. (2004) [71] | - | Case report | Genital ulcers | |
5 mg/kg every 8 + sulfasalazine | Ordahan et al. (2014) [72] | 1 | Case report | Oral and genital aphthosis | |
5 mg/kg every 8 + cyclosporine | Olivieri et al. (2008) [73] | 1 | Case report | Papulopustulosa, erythema nodosum | |
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Etanercept | 50/mg/weekly for 12 months [azatioprine + colchicine] | Mohammed (2014) [75] | 15 | Open study | Mucocutaneous lesions |
25 mg twice a week | Melikoglu et al. (2005) [76] | 40 | Randomized controlled trial | Oral ulcers, papulopustular lesions, and modular lesions | |
25 mg twice a week | Atzeni et al. (2005) [77] | 1 | Case report | Genital ulcers | |
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Apremilast | 30 mg/twice a day | Hatemi et al. (2013) [33] | 55/56 | Placebo-controlled double-blind trial | Oral and genital ulcers |
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Rebamipide | 300 mg/day | Matsuda et al. (2003) [56] | 14/17 | Placebo-controlled double-blind trial | Oral ulcers |
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Anakinra | 100 mg/day | Botsios et al. (2008) [19] | 1 | Case report | Oral and genital ulcers |
1 mg/kg/day + colchicine | Bilginer et al. (2010) [79] | 1 | Case report | Oral ulcers and erythema nodosum | |
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Canakinumab | 150 mg every 8 weeks | Cantarini et al. (2012) [80] | 1 | Case report | Recurrent oral and genital aphthosis, erythema nodosum, and pseudofolliculitis |
150 mg every 6 weeks | Vitale et al. (2014) [21] | 3 | Case series | Mucosal ulcers |
2.1. Past Decades
A wide range of drugs is available for treating mucocutaneous lesions in BD. In the past decades, traditional immunosuppressive agents were largely used to reduce the ulcers disability, but some contrasting results were observed, particularly in terms of maintaining remission effectiveness.
2.1.1. Azathioprine
Azathioprine seems to be effective in controlling the progression of BD, especially in most critical manifestations, such as eye diseases. IARCT described a favourable effect on mucocutaneous lesions, as proven by statistically significant reductions in the frequency of oral and genital ulcerations; in particular, preventive effects were observed for GU and a healing improvement for OA [34].
2.1.2. Colchicine and Antibiotics
It is well known that colchicine is recommended as a first-line therapy in erythema nodosum-like lesions in BD [32]. The effects on erythema nodosum were described in three double-blind, placebo-controlled trials [35-37]. In a double-blind trial the colchicine effects on reducing of GU were proven. No effects on OA and folliculitis were observed (the dose of colchicine was adjusted according to body weight) [36]. On the contrary, in another double-blind controlled crossover trial, OA, GU, and pseudofolliculitis improvements were described [37]. Two prospective studies, evaluating the association of colchicine and benzathine penicillin, have described the decrease in the frequency and duration of OA and erythema nodosum and an improvement of the frequency of GU [38, 39]. The beneficial effects of antibacterial therapy may be supported by the hypothesized role of streptococci in BD [1].
2.1.3. Azithromycin
Azithromycin is a macrolide antibiotic characterized by wide spectrum of action. Its immunomodulatory effects are supposed [40]. The use of azithromycin in BD is based on previous hypothesis that Streptococcus sanguinis play a main role in pathogenesis of BD [41]. Two case series [42, 43] described the effectiveness of azithromycin in decreasing folliculitis and in fastening the healing time of oral ulcers.
2.1.4. Minocycline
Minocycline is described to decrease the frequency of the OA, erythema nodosum lesions, and papulopustular lesions in an open study [44].
2.1.5. Thalidomide
Despite failing in the treatment of eye involvement, one RCT [45], a pilot study [46], and three open studies [47-49] have demonstrated thalidomide effectiveness in the treatment of OA, GU, and papulopustular lesions, while an increase in the frequency of nodular lesion was reported. However, it is well known that thalidomide is associated with severe adverse events and birth defects, whereby its use is limited.
2.1.6. Cyclosporine
Cyclosporine, a synthesis and release inhibitor of the IL-1 and IL-2, is frequently used in the treatment of eye involvements in BD, but just few evidences are described about mucocutaneous lesions. A double-blind trial [50], a controlled study [51], and an open study [52] showed that cyclosporine is effective in the GU and dermal lesion. The administrated dose is ranged from 5 to 10 mg/kg/day.
2.1.7. Dapsone
Dapsone has proven to inhibit the chemotaxis of neutrophils [53]. A dose of 100 mg per day has been demonstrated to be very effective in healing the mucocutaneous lesions; as evidenced in an open study [54] and in a double-blind placebo-controlled clinical trial, dapsone showed relevant effects by decreasing the frequency and the duration of OA and the number and the frequency of GU [55]. No data are available regarding the duration of remission over time.
2.1.8. Rebamipide
Rebamipide, a well-known gastric mucoprotective agent, used to treat gastritis and gastric ulcer in Japan, is observed to improve the aphthae count and to relieve the pain secondary to oral ulcers in a double placebo-controlled study. The authors conclude that it could be recommended as a long-term treatment for recurrent OA, also in association with other indicated drugs [56].
2.1.9. Interferon-Alpha
Interferon-alpha, a large family of glycoproteins, seems to provide a cellular response to the foreign constituents of microbes, tumor, and antigens and is used in the treatment of several diseases. Although its mechanism of action is not well defined, INF-alpha seems to restore the low natural killer cell activity in patients with BD to a near normal level. Interferon alpha 2a, in BD has proven to reduce the duration and the pain of OA and the frequency of GU and papulopustular lesion, as well as erythema nodosum-like lesion, compared to placebo in a randomized placebo-controlled and double-blind study [57]. Similar results were found in 7 open studies [58-64]. In two previous reviews, the author highlighted that a treatment period of 2 to 4 months is at least necessary to obtain the highest effectiveness and declared a trend to disease relapse immediately or up to 7 months after treatment discontinuation [65] and rapidly responded after reinstitution of INF-alpha treatment [66]. An initially high dose (9 million units 3 times per week) for 3 months and then a low maintenance dose (3 million units 3 times per week) are recommended [53].
2.1.10. Anti-CD 52
Alemtuzumab is a humanized immunoglobulin G1 monoclonal antibody that targets CD 52, a glicosilate antigen that is present on lymphocytes and macrophages. Its main effect is T-cell depletion. In a case report, an 18-year-old woman with polyarthralgias, orogenital aphthosis, and erythema nodosum resisted conventional immunosuppressive therapy, describing a long lasting remission after the sixth subcutaneous administration [67]. In an open trial, 18 patients with orogenital ulcerations, ocular involvement, and neurological involvement, treated with Alemtuzumab (134 mg), in 6 months in 72% reached a complete remission and the daily dose of prednisolone was reduced; therapy was discontinued in 33% for stable remission. The hypothyroidism development was the most common adverse effect recorded [68].
2.2. Current Treatment Option
In the last decade, the good efficacy of biotechnological drugs in the treatment of resistant mucocutaneous lesions has been demonstrated in several published works. In particular, the use of TNF-alpha inhibitors and IL-1 inhibitors has been described to improve these lesions.
Cytokines produced by T helper cells, including TNF-alpha are described to play an important role in the molecular genesis of BD [69]. Higher soluble TNF-alpha receptors and TNF-alpha sera levels are found in active BD, with their spontaneous secretion by monocytes [70]. This finding supports the possible effective use of anti-TNF-alpha therapy in BD.
2.2.1. Anti-TNF-α Inhibitors
In two clinical cases, patients with genital ulcers resistant to azathioprine and prednisone therapy, treated with infliximab (5 mg/kg for a total of 4 infusion) reached a complete remission of the lesion [71, 72]. Hence, infliximab seems to produce good and long-lasting remission of mucocutaneous lesion, after its discontinuation at the 13th infusion as described in two clinical cases in which the patients were treated with infliximab, respectively, in association with azathioprine (0.7 mg/kg/day) and cyclosporine (3 mg/kg/day) [73, 74].
In an open study, the researchers described a good therapeutic response in patients with refractory mucocutaneous lesions, after 12 months of etanercept (50 mg/wk) therapy in addition to conventional immunosuppressive drug (azathioprine and colchicine) with a reduction of oral prednisolone [75]. In a randomized controlled trial (RCT) the effectiveness of etanercept in suppressing most of the mucocutaneous manifestations, such as the oral ulcers, the papulopustular lesions and nodular lesions has been demonstrated, and a lower probability of recurrence of oral ulcers has been described; the genital ulcers do not seem to improve after the treatment [76]. The improvement of genital ulcers after etanercept treatment (25 mg twice week) is described in a case report [77].
2.2.2. Interleukin-1 Inhibitors
Recent studies have explained the role of different chemokines in cellular and molecular pathophysiology of BD [7], and, in particular, interleukin-1 (IL-1) cytokine family is described to play a complex network of minor proinflammatory mediators and subsequent expression of integrins on leukocytes and endothelial cells, with many influences on the inflammatory response [78]. IL-1 has been recently described as a mediator of BD. This innovative concept introduces the identification of new potential targets for biological therapy [6]. Lately, the recombinant human IL-1 receptor antagonist (anakinra), the human immunoglobulin G1 (IgG1) anti-IL-1 beta monoclonal antibody (canakinumab), and the recombinant humanized anti-IL-1 beta antibody (gevokizumab) are proven to be partially useful in the treatment of BD, while appearing to be more effective in ocular involvement [22]. However, with regard to the mucocutaneous lesions, good responses to anakinra have been reported in a patient with oral and genital ulcers resistant to conventional therapy [19] and in a teenager with aphthous lesions and cutaneous lesions unresponsive to traditional treatments [79]. In a case report and in a case series, canakinumab has proved to be successfully used in oral and genital aphthosis, skin lesions, and granuloma annulare [21, 80].
2.2.3. Phosphodiesterase 4 Inhibitors
Finally, apremilast, an inhibitor of phosphodiesterase 4 (PDE), a drug approved for psoriasis and psoriatic arthritis, seems to be a good alternative treatment in BD. In a phase II randomized, placebo-controlled, double-blind study, the apremilast is observed to be effective in the treatment of oral ulcers and in treating genital ulcers [33].
3. Conclusions
BD is a complex syndrome, characterized by several clinical manifestations with usually frequent relapses. The mucocutaneous lesions represent nagging and typical manifestations in BD, and their treatment management is usually driven by codominant clinical involvements, such as eyes and gastrointestinal and neurological involvement, or by the subject comorbidity. Although the traditional immunosuppressive drugs, as colchicine, corticosteroids, and azathioprine, are generally effective, several treatment failures, with severe and frequent relapses, troubled the course of the disease. In the last years, new pathogenetic hypothesis supported the use of new biotechnological drugs, as IL-1 inhibitors and TNFα inhibitors, in the treatment of BD. Many clinical trials, open studies, and clinical case reports described their efficacy in the treatment of severe mucocutaneous manifestations. Further scientific demonstrations on large scale are necessary to prove their effects on reducing the frequency of mucocutaneous manifestations and on maintaining long-term effects. Several new drugs are under clinical study, but no data are reported yet. A wider drug range, with less adverse events risks, may provide alternative treatment tools for the clinicians, useful in nonresponding patients or in case of adverse events. The main unmet need in the overall management of BD is the lack of a specific treatment to target strategy; therefore, despite several available drugs, the treatment strategy of BD patients is still tailored according to the severity and type of organ involvement. The main goal of therapy in patients with BD is to induce and maintain disease remission and improve quality of life; in this regard, biologics are rapidly becoming effective alternatives to conventional treatments, also in mucocutaneous lesions. Since OA and GU represent relevant threats for quality of life impairment, biological drugs are recommended in mucocutaneous involvement, mainly when traditional drugs miss the mark.
Conflict of Interests
The authors declare that they have no conflict of interests regarding the publication of this paper.
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Abstract
Behçet's disease (BD) is a multisystemic disorder of unknown etiology characterized by the "triple symptom complex" consisting of recurrent oral aphthosis, genital ulcers, and chronic relapsing bilateral uveitis. Recurrent mucocutaneous lesions are generally considered the hallmark of the disease, being the most common symptoms presenting at the onset of disease. Although the improvement of knowledge about the pathogenetic mechanism added important changes in the treatment management of BD clinical manifestations, thus avoiding the appearance of serious life-threatening complications which are disease related, the mucocutaneous lesions are still the most nagging clinical manifestations to be treated. In this work we reviewed the current state of knowledge regarding the therapeutic approaches for mucocutaneous lesions of BD mainly based on controlled studies to provide a rational framework for selecting the appropriate therapy for treating these troublesome features of the disease.
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Neither ProQuest nor its licensors make any representations or warranties with respect to the translations. The translations are automatically generated "AS IS" and "AS AVAILABLE" and are not retained in our systems. PROQUEST AND ITS LICENSORS SPECIFICALLY DISCLAIM ANY AND ALL EXPRESS OR IMPLIED WARRANTIES, INCLUDING WITHOUT LIMITATION, ANY WARRANTIES FOR AVAILABILITY, ACCURACY, TIMELINESS, COMPLETENESS, NON-INFRINGMENT, MERCHANTABILITY OR FITNESS FOR A PARTICULAR PURPOSE. Your use of the translations is subject to all use restrictions contained in your Electronic Products License Agreement and by using the translation functionality you agree to forgo any and all claims against ProQuest or its licensors for your use of the translation functionality and any output derived there from. Hide full disclaimer