Abstract
We present 2 cases of rosacea that were successfully managed with off-label treatment. The first is a case of painful, exuding papulopustular lesions of the nose treated with rifaximin, and the other is a case of severe, debilitating and painful flushing treated with sumatriptan. The cases support previous notions that gastrointestinal comorbidities may be related to papulopustular lesions and that flushing may be related to neurogenic inflammation and migraine. The cases also imply that a new approach to rosacea management, based on endotypes and comorbidities, may be warranted.
Keywords: Flushing, Rifaximin, Rosacea, Sumatriptan
Introduction
The rosacea umbrella comprises various clinical manifestations which may act alone or in concert, including facial erythema, papules/pustules, phymatous changes, and ocular symptoms. The disease is difficult to effectively manage, few rosacea-specific treatments exist, and off-label treatment is often warranted. We have listed some of the most recently suggested off-label treatments for rosacea in Table 1 and Table 2 (for references for Table 1 and Table 2, see online suppl. material; www.karger.com/doi/10.1159/000511984). Rosacea has been associated with a number of comorbidities. Some comorbidities appear to be related to specific subtypes, e.g., papulopustular subtype to gastrointestinal comorbidities [1], and erythematotelangiectatic rosacea (ETR) and ocular rosacea to neurological disease [2, 3]. We here present 2 cases of rosacea that were effectively managed according to this concept with off-label treatment of their symptoms with nonrosacea medication.
Table 1.
Management option | Subtype | Quality of Evidenceb |
---|---|---|
Topical Artemether emulsion [1] |
PPR | C |
Crotamiton [2] (+ benzyl benzoate) [3] |
ETR PPR |
C |
Dapsone gel 5% [4, 5] | PPR | C |
1% 4-ethoxybenzaldehyde | ETR | C |
Gluthathione-C4 (0.1%), beta-glycyrrhetinic (0.5%), and azelaic acid (10%) [6] | C | |
Honevo (Kanuka Honey) [7] | ETR PPR |
C |
Hydroxypropyl chitosan and potassium azeloyl diglycinate (5%) [8] | ETR | C |
Liposomal polyvinylpyrrolidone-iodine hydrogel [9] | ETR PPR |
C |
Liposomal sodium copper chlorophyllin complex [10] | ETR | C |
1-Methylnicotinamide [11] | ETR PPR |
C |
Permethrin gel [12, 13, 14] | ETR PPR |
B |
Pimecrolimus 1%c [15, 16, 17, 18, 19] | ETR PPR |
B |
Praziquantel [20] | ETR PPR |
C |
Serine protease inhibitor [21] | PPR | C |
Tacrolimus 0.1%c [22] | ETR | C |
Timolol maleate 0.5% [23] | ETR PPR |
C |
Tranexamic acid [24–27] | ETR | C |
Oral Phosphodiesterase type 4 inhibitor (apremilast) [28] |
ETR PPR |
C |
Escherichia coli Nissle 1917 + regular topical therapy for rosacea [29] Hydroxychloroquine [30, 31] |
PPR ETR PPR |
C C |
Rifaximin [32-37] | PPR | B |
Thalidomide [38] (+ pimecrolimus) [19] |
ETR PPR |
C |
Turmeric polyherbal formulation [39] | ETR | C |
Devices and surgical interventions (Abo/Inco) Botulinumtoxin A [40–44] |
ETR | B |
Dual-frequency ultrasound [45] | ETR PPR |
C |
Coupled blue and red light-emitting diodes therapy [46] | PPR | C |
Interleukin-17 blockade [47] | PPR | C |
Long-pulsed 1,064-nm neodynium:yttrium-aluminum-garnet laser [48] | PPR | C |
Microfocused ultrasound [49] | ETR | C |
Microneedling radiofrequency [50] | ETR | C |
Photodynamic therapy + (methyl) aminolevulinate [51,52] | ETR PPR |
C |
PPR, papulopustular rosacea; ETR, erythematotelangiectatic rosacea.
Table with references is available as online supplementary material.
Quality of evidence (A, B, or C): A: Randomized controlled trials; B: Systematic review/meta-analysis of lower-quality clinical trials or studies with limitations and inconsistent findings; lower-quality clinical trial; cohort study; case-control study; C: Consensus guidelines; usual practice; expert opinion; case series; limited trial data.
May also cause rosacea-like eruption in the face.
Case Presentation
The first case is a 46-year-old male presenting with an acute flare-up of painful, exuding papulopustular lesions primarily affecting the nose. Lesions were associated with itching, stinging and increased nasal skin sensitivity. He was diagnosed with rosacea 10 years before, predominantly of the papulopustular subtype. He had been treated with topical metronidazole on/off for 4 years, and later with low-dose oral isotretinoin with some effect. Since 2017, he had used topical azelaic acid and topical metronidazole for recurring lesions. Due to increased skin sensitivity in the current flare-up, azelaic acid was painful. As the patient wanted to avoid long-lasting antibiotic treatment with doxycycline, we decided to try oral rifaximin 200 mg 3 times a day for 3 days in addition to his current maintenance therapy (topical metronidazole twice daily). Five days after initiating rifaximin, exudation was stopped, lesions healed, and the nose felt less swollen (Fig. 1). Discrete subjective skin tightness and dryness remained but could be relieved with continued use of topical metronidazole.
The second case is a 52-year-old female known with ETR. She experienced recurrent painful and disabling flares of flushing (erythema, edema, and severe burning sensation) lasting for days or sometimes weeks. Flares were associated with photosensitivity and a general feeling of discomfort/illness. These flares share some likeness with the neurological disorder, migraine, which has previously been shown to be associated with rosacea [3, 4]. The patient reported that she rarely had headache and had never had a migraine. For the flare-ups, she had previously tried topical metronidazole and brimonidine tartrate with some effect on chronic erythema, but not on the flares. We administered oral sumatriptan (50 mg) for the flares resulting in a significant reduction of burning, edema, erythema, and pain 30–60 min after intake (Fig. 2). Symptoms did not recur in the days following treatment. The patient tried oral sumatriptan on several flare occasions with sustained efficacy.
Discussion
As illustrated in the present cases, the pathophysiology behind rosacea seems to be multifactorial, involving cathelicidin and inflammasome-associated pathways for papules and pustules [5, 6], whereas neurogenic inflammation with release of vasoactive neuropeptides, such as calcitonin gene-related peptide (CGRP), may be more prominent in ETR [6].
Gastrointestinal comorbidities, such as small intestinal bacterial overgrowth (SIBO) [1, 7, 8], Helicobacter pylori infection [8, 9], and irritable bowel syndrome, are common in rosacea [8]. SIBO may lead to circulating cytokines which can trigger rosacea [7, 10], and interestingly, eradication of SIBO with rifaximin has been shown to improve papulopustular symptoms in more than half of rosacea patients, possibly due to either an effect on gut bacteria, regulation of the immune system, or anti-inflammatory activity [1, 11]. Rifaximin is currently undergoing clinical testing in rosacea (ClinicalTrials.gov NCT03864978).
Rosacea has been consistently linked with migraine in observational studies [3, 4]. It is unclear exactly how migraine and rosacea are linked, but they are suggested to share common pathophysiologic pathways [12]. The signaling neuropeptide CGRP has been widely investigated in relation to migraine and is known to induce vasodilation and neurogenic inflammation [13]. Interestingly, infusion of CGRP in patients with migraine induces flushing and can trigger migraine attacks [14]. The anti-migraine drug sumatriptan has been found to block release of CGRP [15], which may explain the effect in the presented case.
Conclusion
It seems that rosacea should not be regarded as one homogenous disease, but that subtypes under the umbrella may in fact represent endotypes with different pathophysiologic pathways related to different organ systems, i.e., gut or brain. Thus, endotypes with related comorbidities may be considered for a more effective management of rosacea in the future.
Statement of Ethics
The authors have no ethical conflicts to disclose. The patients gave written informed consent for publication of their cases (including publication of images). The study was conducted in accordance with the Helsinki II Declaration of 1964, with revisions until the Brazil conference in 2013.
Conflict of Interest Statement
The authors have no conflicts of interest to declare in relation to these cases.
Funding Sources
None.
Author Contributions
Dr. Wienholtz contributed to conception, design, interpretation, and manuscript preparation. Dr. Ashina contributed to acquisition, design, interpretation, and manuscript preparation. Dr. Thyssen contributed to conception, design, interpretation, and manuscript preparation. Dr. Egeberg contributed to acquisition, conception, design, interpretation, and manuscript preparation. All authors read and approved the final manuscript.
Supplementary Material
References
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