Medical Policy

This document addresses rhinophototherapy as a treatment of allergic rhinitis and potentially other nasal or sinus conditions. Rhinophototherapy involves the use of a light emitting device inserted into the nose to expose sinus and nasal tissues to ultraviolet (UV) and visible light, with the goal of decreasing the symptoms and disease processes associated with various nasal conditions.

Investigational and Not Medically Necessary:

The use of rhinophototherapy is considered investigational and not medically necessary for all conditions, including but not limited to the treatment of allergic rhinitis and other nasal or sinus conditions.

There have been a limited number of articles published in the peer-reviewed literature addressing the use of rhinophototherapy, a technique which exposes the sinus cavity to light (5% UVB, 25% UVA and 70% visible light).

Koreck and colleagues (2005) describe the use of a device (Rhinolight^®, Rhinolight Ltd., Szeged, Hungary) that emits a mixture of ultraviolet A (UVA), ultraviolet B (UVB), and visible light in the treatment of allergic rhinitis. This double-blind study included 49 subjects with ragweed-induced hay fever unresponsive to antiallergic drugs. Study participants were randomized to treatment with either low-level visible light or with rhinophototherapy. Treatment and control groups received their respective interventions 3 times a week for 3 weeks. Light intensity was increased over the course of treatment. The authors reported significant reductions in sneezing, itching, rhinorrhea and total nasal score in the rhinophototherapy group compared to the visible light group. Nasal obstruction, as measured by acoustic rhinometry, was significantly less in the rhinophototherapy group. Examination of nasal lavage samples found significantly lower concentrations of eosinophils, eosinophil cationic protein, and IL-5 in the rhinophototherapy group.

In a small case series of 8 subjects with allergic rhinitis (Koreck, 2007), following treatment with rhinophototherapy, a modified Comet assay technique was used to assess the degree of DNA damage detected in nasal mucosal cells using the UV-specific photoproduct cyclobutane pyrimidine dimers. The results of this study concluded that the UV-induced mucosal damage was repaired after 2 months. This study did not investigate the impact of rhinophototherapy on symptomology or clinical health outcomes.

Cingi (2010) described a prospective randomized controlled trial (RCT) involving the use of rhinophototherapy in 75 subjects with severe to moderate drug-refractory rhinitis. Subjects were assigned to treatment with either the Rhinolight device (n=41) or low-intensity visible light (n=38) and followed for 4 weeks. Subjects were treated in each nasal cavity three times a week for 2 weeks with increasing length of exposure times. No rescue or concomitant medications were allowed. A significant difference was reported in both groups with regard to nasal obstruction, nasal itching, nasal discharge, and sneezing (p<0.001 for all, in both groups). No between group differences were reported. Total nasal symptom score (TNSS) results improved in both groups but were significantly better in the rhinophototherapy group (p<0.001). In this study, the control group demonstrated a significant improvement in symptoms, similar to the treatment group, while results on TNSS were significantly favorable to the rhinophototherapy group. These findings indicate a strong placebo effect in this study, and more robust trials designed to account for this effect are needed.

Garaczi and colleagues (2011) studied 31 subjects randomly assigned to receive either rhinophototherapy 3 times a week for 2 weeks, or 180 mg fexofenadine HCl per day for 2 weeks. The authors reported that in the rhinophototherapy group, the individual total nasal score (TNS), a sum of scores for nasal symptoms, significantly decreased compared with baseline for all of the parameters. In the fexofenadine HCl group, only sneezing improved significantly at the end of treatment. Study limitations include a lack of blinding, small numbers of subjects in each group, and the absence of objective study measures.

Albu and Baschir (2013) described the results of a randomized controlled trial comparing rhinophototherapy to azelastine in 77 subjects with allergic rhinitis. The authors reported that both azelastine and intranasal phototherapy significantly improved the TNS (p<0.05), but that phototherapy reduced nasal obstruction better than azelastine (p=0.038). The authors concluded that while rhinophototherapy demonstrated significant benefits, they indicated that this treatment method should be appraised in future studies and clinical trials.

Tatar and colleagues (2013) published the results of a prospective, non-blinded, randomized study involving 65 subjects with persistent allergic rhinitis. Subjects were assigned to receive treatment with either topical mometasone furoate (200 mcg per day) and levocetirizine (5 mg per day) for 1 month (n=33), or the same medical regimen augmented with rhinophototherapy, administered twice a week for 3 weeks (n=32). At the first and third month time points, the authors reported a statistically significant difference in favor of the rhinophototherapy group for measures of nasal obstruction, sneezing, rhinorrhea, and nasal itching (p<0.05 for each). Similarly, significantly improved results were reported on all seven domains on the Rhinoconjunctivitis Quality of Life (RQOL) questionnaire at both 1 and 3 months (limited activity, sleep quality, non-nasal non-eye symptoms, practical problems, nasal symptoms, eye symptoms and emotional functions) (p<0.05 for each time point). Thirty-four subjects had mild to moderate dryness of nasal mucosa during the study and 1 subject had anosmia, which disappeared after 1 week. There was no data indicating what groups these subjects were in, or if there was any differences between groups with regard to adverse events.

Lee (2013) reported a case series study involving the use of a 650nm low-level laser device (Rhini Care^®) to treat 42 subjects with drug-refractory allergic rhinitis. Twice-daily treatments were applied for 4 weeks. At the end of the study, the authors reported significant improvement in nasal obstruction (p<0.001), rhinorrhea (p=0.005), sneezing (p=0.001), and itching (p=0.003) in 68% of subjects. Nasal obstruction scores decreased by 36%, rhinorrhea scores decreased by 34%, sneezing scores decreased by 33%, and itching scores decreased by 25%. No adverse events were reported during the study period. This is the first report of treatment involving the Rhini Care device. While the results of this uncontrolled trial report improvement in rhinitis symptoms, further investigation in the form of large RCTs is needed.

Alyasin and colleagues (2016) performed a randomized single-blind study, which involved 62 subjects above 25 years of age with moderate to severe allergic rhinitis. The authors do not specify who was blinded. The subjects were randomly divided into two groups, which each consisted of 31 subjects. A mixture of UVA, UVB, and visible light was used in the treatment group. In the control group, only visible light was used as the placebo. An evaluation of the level of response to treatment was performed on both groups, which was compared according to TNS, Global Severity Scores, and RQOL questionnaires. The authors found that phototherapy in the treatment group in comparison with placebo was effective in treatment of allergic rhinitis (p<0.001); however, the authors recommended further investigations.

Bella and colleagues (2017) studied 34 subjects with persistent allergic rhinitis in two randomized, double-blind groups; however, only 25 subjects completed the study. This 26% decrease in study participation resulted from subject poor compliance or withdrawal. The treatment group received a combination of UVB, UVA, and high-intensity visible light, and the control group received low-intensity visible white light intranasal phototherapy on a total of 13 occasions in 6 weeks. The assessment was based on the diary of symptoms, nasal inspiratory peak flow, quantitative smell threshold, mucociliary transport function, and intracellular adhesion molecule 1 expression of the epithelial cells. A significant improvement in symptoms was found in the treatment group versus the control group immediately after treatment (p<0.05) and after 4 weeks of follow-up (p<0.05). A study limitation is the small sample size. The authors stated this made statistical evaluation difficult and necessitates a larger, multicenter study to confirm the results.

Dulguerov and colleagues (2017) investigated the efficacy of rhinophototherapy in subjects with chronic rhinosinusitis (CRS) without nasal polyps through a randomized triple-blind (subject, investigators, and statistician), placebo-controlled trial. The trial consisted of 50 subjects, who received either mixed visible and ultraviolet light source application (n=26) or visible light alone (n=24) for 3 weeks. The authors found no significant difference between the two groups immediately after the completion of treatment (T1) and 4 weeks after the treatment (T2) in reducing Rhinosinusits Disability Index (T1 p=0.84; T2 p=0.96), nasal obstruction visual analog scale (VAS) (T1 p=0.63; T2 p=0.17), sense of smell VAS (T1 p=0.54; T2 p=0.85), rhinorrhea VAS (T1 p=0.09; T2 p=0.26), facial pain VAS (T1 p=0.43; T2 p=0.87), total nasal resistance (T1 p=0.88; T2 p=0.38), olfactory threshold (T1 p=0.68; T2 p=0.76), and nasal nitric oxide production (T1 p=0.21; T2 p=0.17).

In 2019, Jiang and Wang published the results of a non-blinded, randomized controlled trial that evaluated the effect of rhinophototherapy on nasal patency in individuals with allergic rhinitis. Individuals were randomized to either the study group (n=30) or the control group (n=30). After all participants received a nasal patency test using both anterior rhinomanometry and acoustic rhinometry, the study group received one treatment session of rhinophototherapy. Individuals were questioned about the severity and the level of change of their rhinitis symptoms, and any adverse events. Mometasone furoate nasal spray, 4 sprays, once a day, along with levocetirizine 5 mg every day was given for continued management of the allergic rhinitis. Finally, 2 days post-treatment, individuals were asked the same questions as 30 minutes post-treatment. Individuals in the control group were treated with mometasone furoate nasal spray, 4 sprays, once a day, along with levocetirizine 5 mg every day, and asked the same questions as the study group 2 days post-treatment. While all rhinitis symptoms significantly improved 30 minutes after the rhinophototherapy (total rhinitis score: p<0.0001), rhinitis symptoms in the study group significantly worsened between the 30 minute post-treatment evaluation and the 2-day post-treatment evaluation (total rhinitis score: p<0.0001). For the control group, all rhinitis symptoms significantly improved 2 days post-treatment (total rhinitis score: p<0.0001). No significant improvements in nasal patency were found after treatment with rhinophototherapy. There were no major adverse events reported. The results of this trial show that treatment of allergic rhinitis with rhinophototherapy does not result in any improvement.

Kiricsi (2021) reported an RCT investigating the use of rhinophototherapy with the Rhinolight device to treat postoperative nasal polyps. The study involved 30 subjects with recurrent, drug-refractory nasal polyps undergoing functional endoscopic sinus surgery (FESS) who were assigned to receive postoperative therapy with rhinophototherapy (3 times per week for 12 weeks) plus intranasal steroids (mometasone furoate, 2×100–100 ug) or intranasal steroids alone. Each group included 15 subjects and only 15 (50%) of the population completed the trial, 7 in the Rhinolight group and 8 in the control group. While the authors reported significant improvements in the rhinophototherapy group vs. the control group with regard to recurrence, size and grade polyps, as well as nasal obstruction, these findings are ungeneralizable due to the low power of the study, lack of blinding, and significant loss to follow-up.

Costa and colleagues (2021) investigated the effectiveness of phototherapy in the treatment of allergic rhinitis through a meta-analysis. The researchers selected 56 articles from databases, 17 met the eligibility criteria for the systematic literature review and 12 articles had the necessary data to perform the statistical evaluation (mean and standard deviation). It was established that randomized and non-randomized studies would be included. The researchers included both types of studies because the same research questions were addressed and the limitation of the review to randomized control trials would provide the investigators with an incomplete summary related to the assessed treatment. The assessed symptoms were rhinorrhea (12 studies, 449 participants), sneezing (11 studies, 424 participants), nasal pruitus (10 studies, 409 participants) and nasal obstruction (12 studies, 449 participants). The meta-analysis result showed a positive effect of phototherapy for the treatment of allergic rhinitis. The individuals with phototherapy showed a 1.35-fold lower mean values in the self-reported analog scale than untreated individuals (z = −8.71; standard error (SE) = 0.1546; p< 0.0001; confidence interval (CI) = −1.65; −1.04 ) for the rhinorrhea symptom. It is unclear whether the mean reduction represents a clinically meaningful effect. The effects were more significant in perennial allergic rhinitis than in the seasonal type. Although the effect size is significant, there was a high heterogeneity between studies, with I²= 91.84%. The variance between the studies was true and significant (Q = 224.32, p< 0.0001). The investigators concluded rhinophototherapy showed to be an effective treatment for the reduction of nasal symptom scores triggered by allergic rhinitis. However, it was concluded there were limitations of the study that require further discussion.

The following can be pointed out as limitations of this study: the small number of articles with randomized clinical trials for evaluation and increased risk of bias in most studies. Regarding the quality of the clinical trials, there is a great diversity regarding the methodological designs, few places where research is carried out in this area and the number of samples is small, which make it difficult to obtain randomized clinical intervention studies with adequate allocation and blinding procedures.

The studies described are too small and of poor quality to allow wider application of their results to the general population, to other types of allergic rhinitis, or other sinus or nasal conditions. Additionally, there are concerns regarding the use of UV light on sensitive tissues such as sinus membranes. UV light may have a deleterious effect on skin and other tissue and further data is needed regarding any potential adverse effects of UV irradiation on the nasal mucosa and surrounding skin of the face, as delivered by rhinophototherapy.

Currently, no device has been approved or cleared by the U.S. Food and Drug Administration (FDA) for provision of rhinophototherapy.

Allergic rhinitis is a type of chronic nasal mucosa inflammation “mediated by immunoglobulin E (IgE) and induced by allergens, which affects one in six individuals worldwide.” The cause of allergic rhinitis is determined by a combination of genetic, environmental and familial predisposition factors (Costa, 2020). Common symptoms include sneezing, itching, rhinorrhea, nasal congestion, erythema and tearing eyes. However, nasal congestion is usually the symptom that mostly affects an individual’s quality of life (Karali, 2021). Rhinophototherapy is a medical therapy proposed for the treatment of allergic rhinitis and other nasal conditions. This treatment method involves the use of a device that emits a combination of UVA, UVB, and visible light to cause a reaction in the nasal tissue and decrease the symptoms of allergic rhinitis.

Currently, only one device has been proposed for administration of this therapy, the Rhinolight (Rhinolight Ltd., Szeged, Hungary), which has not received FDA PMA approval or 510k clearance for use in the United States.

Allergic rhinitis: A group of symptoms affecting the nose. These symptoms occur when someone breathes in something they are allergic to, such as dust, dander, insect venom, or pollen.

Rhinophototherapy: A proposed treatment for allergic rhinitis that involves exposure of the sinuses to a combination of ultraviolet and visible light.

The following codes for treatments and procedures applicable to this document are included below for informational purposes. Inclusion or exclusion of a procedure, diagnosis or device code(s) does not constitute or imply member coverage or provider reimbursement policy. Please refer to the member's contract benefits in effect at the time of service to determine coverage or non-coverage of these services as it applies to an individual member.

When services are Investigational and Not Medically Necessary:
When the code describes a procedure indicated in the Position Statement section as investigational and not medically necessary.

Peer Reviewed Publications:

1. Albu S, Baschir S. Intranasal phototherapy versus azelastine in the treatment of seasonal allergic rhinitis. Auris Nasus Larynx. 2013; 40(5):447-451.
2. Alyasin S, Nabavizadeh SH, Houshmand H, et al. Short Time Efficiency of Rhinophototherapy in management of patients with allergic rhinitis resistant to medical therapy. Iran J Allergy Asthma Immunol. 2016; 15(4):317-327.
3. Bella Z, Kiricsi Á, Viharosné ÉD, et al. Rhinophototherapy in persistent allergic rhinitis. Eur Arch Otorhinolaryngol. 2017; 274(3):1543-1550.
4. Cinti C, Cakli H, Yaz A, et al. Phototherapy for allergic rhinitis: a prospective, randomized, single-blind, placebo-controlled study. Ther Adv Respir Dis. 2010; 4(4):209-213.
5. Costa TMR, Carneiro FM, Oliveira KAS de, et al. Rhinophototherapy, an alternative treatment of allergic rhinitis: Systematic review and meta-analysis. Braz J Otorhinolaryngol. 2021; 87(6):742-752..
6. Dulguerov N, Guinand N, Courvoiser D, et al. Rhinophototherapy in chronic rhinosinusitis: a double blind randomized placebo-controlled trial. Rhinology. 2017; 55(2):106-112.
7. Garaczi E, Boros-Gyevi M, Bella Z, et al. Intranasal phototherapy is more effective than fexofenadine hydrochloride in the treatment of seasonal allergic rhinitis: results of a pilot study. Photochem Photobiol. 2011; 87(2):474-477.
8. Jiang RS, Wang JJ. Effect of red light rhinophototherapy on nasal patency in patients with allergic rhinitis. Int J Otolaryngol. 2018; 2018:6270614.
9. Karali E, Gunes A, Ural A, et al. Effect of Rhinophototherapy on nasal congestion in patients with seasonal allergic rhinitis. Acta Otorhinolaryngol Ital. 2021; 41(2): 151-158.
10. Kiricsi Á, Kiricsi M, Szabó Z, et al. Open, prospective, multicenter study on postoperative intranasal phototherapy in nasal polyposis. Ir J Med Sci. 2022; 191(1):375-383.
11. Koreck AI, Csoma Z, Bodai L, et al. Rhinophototherapy: a new therapeutic tool for the management of allergic rhinitis. J Allergy Clin Immunol. 2005; 115(3):541-547.
12. Koreck A, Szechenyi A, Morocz M, et al. Effects of intranasal phototherapy on nasal mucosa in patients with allergic rhinitis. J Photochem Photobiol B. 2007; 89(2-3):163-169.
13. Lee HM, Park MS, Park IH, et al. A comparative pilot study of symptom improvement before and after phototherapy in Korean patients with perennial allergic rhinitis. Photochem Photobiol. 2013; 89(3):751-757.
14. Tatar EÇ, Korkmaz H, Sürenoğlu UA, et al. Effects of rhinophototherapy on quality of life in persistant allergic rhinitis. Clin Exp Otorhinolaryngol. 2013; 6(2):73-77.

1. American Academy of Otolaryngology−Head and Neck Surgery. Nose. Available at: https://www.enthealth.org/nose-landing-page. Accessed on November 14,, 2023.
2. National Library of Medicine. Medical Encyclopedia: Allergic Rhinitis. Last updated August 5, 2021. Available at: http://www.nlm.nih.gov/medlineplus/ency/article/000813.htm. Accessed on November 14, 2023 .

LumiMed^®
Rhini Care
Rhinolight
Rhinophototherapy
Ultraviolet Light
UVA
UVB

The use of specific product names is illustrative only. It is not intended to be a recommendation of one product over another, and is not intended to represent a complete listing of all products available. 

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