Effects of low-level laser therapy on utricular hair cell regeneration: a review of the efficacy of available treatment parameters
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Low-level laser therapy (LLLT) for vestibular treatments need further development in the sense to be used in clinical applications. One hurdle of LLLT on vestibular treatment studies is the lack of relevant parameters other researchers can reference for further studies. In this paper, we would like to provide laser parameters that are currently used in different body parts which may prove effective on vestibular hair cell regeneration at the cellular level. Following relevant parameters for laser therapy, some irradiation techniques provide protective mechanisms against ototoxic damage. The following review includes the possible mechanisms of LLLT which promote cellular and tissue regeneration capabilities with promising results. These treatments may be of use in potentially mitigating functional decline under optimized irradiation conditions. This review focused on, but is not limited to, the availability of 633 nm and 808 nm LLLT administration. These treatments provide therapeutic results in different structures under in vitro, in vivo, or ex vivo conditions. The relevant findings on the use of LLLT show similar effects of irradiation regardless of the designated area of interest. This data suggests the possibilities of using similar or modified parameters of LLLT within the vestibular organs.
Abstract
Low-level laser therapy (LLLT) for vestibular treatments need further development in the sense to be used in clinical applications. One hurdle of LLLT on vestibular treatment studies is the lack of relevant parameters other researchers can reference for further studies. In this paper, we would like to provide laser parameters that are currently used in different body parts which may prove effective on vestibular hair cell regeneration at the cellular level. Following relevant parameters for laser therapy, some irradiation techniques provide protective mechanisms against ototoxic damage. The following review includes the possible mechanisms of LLLT which promote cellular and tissue regeneration capabilities with promising results. These treatments may be of use in potentially mitigating functional decline under optimized irradiation conditions. This review focused on, but is not limited to, the availability of 633 nm and 808 nm LLLT administration. These treatments provide therapeutic results in different structures under in vitro, in vivo, or ex vivo conditions. The relevant findings on the use of LLLT show similar effects of irradiation regardless of the designated area of interest. This data suggests the possibilities of using similar or modified parameters of LLLT within the vestibular organs.
참고문헌 (39)
- Lee H, "Drop attacks in elderly patients secondary to otologic causes with Meniere's syndrome or non-Meniere peripheral vestibulopathy", J Neurol Sci, 232, pp.71~76 (2005)
- Wagner EL, "Mechanisms of hair cell damage and repair", Trends Neurosci, 42, pp.414~424 (2019)
- Rubel EW, "A brief history of hair cell regeneration research and speculations on the future", Hear Res, 297, pp.42~51 (2013)
- Selimoglu E, "Aminoglycoside-induced ototoxicity", Curr Pharm Des, 13, pp.119~126 (2007)
- Rybak LP, "Ototoxicity", Kidney Int, 72, pp.931~935 (2007)
- Maroto AF, "Relationship between vestibular hair cell loss and deficits in two anti-gravity reflexes in the rat", Hear Res, 410, pp.108336~ (2021)
- Greguske EA, "Assessment of cochlear toxicity in response to chronic 3, 3'-iminodipropionitrile in mice reveals early and reversible functional loss that precedes overt histopathology", Arch Toxicol, 95, pp.1003~1021 (2021)
- Brzak BL, "Different protocols of photobiomodulation therapy of hyposalivation", Photomed Laser Surg, 36, pp.78~82 (2018)
- Hochman L, "Photobiomodulation therapy in veterinary medicine : a review", Top Companion Anim Med, 33, pp.83~88 (2018)
- Karu TI, "Cellular and molecular mechanisms of photobiomodulation(low-power laser therapy)", IEEE J Sel Top Quantum Electron, 20, pp.143~148 (2013)
- Poyton RO, "Therapeutic photobiomodulation : nitric oxide and a novel function of mitochondrial cytochrome c oxidase", Discov Med, 11, pp.154~159 (2011)
- Wong-Riley MT, "Photobiomodulation directly benefits primary neurons functionally inactivated by toxins : role of cytochrome c oxidase", J Biol Chem, 280, pp.4761~4771 (2005)
- Chang SY, "Enhanced mitochondrial membrane potential and ATP synthesis by photobiomodulation increases viability of the auditory cell line after gentamicin-induced intrinsic apoptosis", Sci Rep, 9, pp.19248~ (2019)
- Karu T, "Mitochondrial mechanisms of photobiomodulation in context of new data about multiple roles of ATP", Photomed Laser Surg, 28, pp.159~160 (2010)
- Anders JJ, "Light supports neurite outgrowth of human neural progenitor cells in vitro : the role of P2Y receptors", IEEE J Sel Top Quantum Electron, 14, pp.118~125 (2008)
- Farivar S, "Biological effects of low level laser therapy", J Lasers Med Sci, 5, pp.58~62 (2014)
- Hamblin MR, "The role of nitric oxide in low level light therapy", Proceedings Volume 6846, Mechanisms for Low-Light Therapy III (2008), SPIE
- Liu H, "Redox-dependent transcriptional regulation", Circ Res, 97, pp.967~974 (2005)
- Zhang L, "Near infrared(NIr)light increases expression of a marker of mitochondrial function in the mouse vestibular sensory epithelium", J Vis Exp, (97), pp.52265~ (2015)
- Pogrel MA, "Effects of low-energy galliumaluminum-arsenide laser irradiation on cultured fibroblasts and keratinocytes", Lasers Surg Med, 20, pp.426~432 (1997)
- Rahmathulla G, "Laser interstitial thermal therapy for focal cerebral radiation necrosis : a case report and literature review", Stereotact Funct Neurosurg, 90, pp.192~200 (2012)
- Jung JY, "Effect of low-level laser and fm1-43 on prevention of ototoxicity in postnatal organotypic cultures of rat utricles", J Int Adv Otol, 7, pp.333~338 (2011)
- 정용원, "신생 흰쥐 난형낭의 조직배양 모델군에서 이독성 유발 후저출력 레이저에 의한 전정유모세포 재생 증진 효과에 대한 연구", 대한이비인후-두경부외과학회지, 50(1), pp.25~30 (2007), 대한이비인후과학회
- Anders JJ, "Low power laser irradiation alters the rate of regeneration of the rat facial nerve", Lasers Surg Med, 13, pp.72~82 (1993)
- Ren DD, "Experimental study on thermic effects, morphology and function of guinea pig cochlea : a comparison between the erbium : yttrium-aluminum-garnet laser and carbon dioxide laser", Lasers Surg Med, 40, pp.407~414 (2008)
- Tunér J, "It's all in the parameters : a critical analysis of some well-known negative studies on low-level laser therapy", J Clin Laser Med Surg, 16, pp.245~248 (1998)
- Rhee CK, "Effect of low-level laser treatment on cochlea hair-cell recovery after ototoxic hearing loss", J Biomed Opt, 18, pp.128003~ (2013)
- Demirkol N, "Efficacy of low-level laser therapy in subjective tinnitus patients with temporomandibular disorders", Photomed Laser Surg, 35, pp.427~431 (2017)
- Avci P, "Low-level laser(light)therapy(LLLT)in skin : stimulating, healing, restoring", Semin Cutan Med Surg, 32, pp.41~52 (2013)
- AlGhamdi KM, "Low-level laser therapy : a useful technique for enhancing the proliferation of various cultured cells", Lasers Med Sci, 27, pp.237~249 (2012)
- Jenkins PA, "How to report low-level laser therapy(LLLT)", photomedicine dose and beam parameters in clinical and laboratory studies, 2011, pp.29, 785~787
- Rhee CK, "Effect of low level laser therapy on hair cell regeneration following gentamicin induced ototoxicity in postnatal organotypic culture of rat cochlea", Proceedings Volume 7552, Mechanisms for Low-Light Therapy V (2010), SPIE
- Barbosa RI, "Comparative effects of wavelengths of low-power laser in regeneration of sciatic nerve in rats following crushing lesion", Lasers Med Sci, 25, pp.423~430 (2010)
- Medalha CC, "Low-level laser therapy improves repair following complete resection of the sciatic nerve in rats", Lasers Med Sci, 27, pp.629~635 (2012)
- Diker N, "Comparative effects of photobiomodulation therapy at wavelengths of 660 and 808nm on regeneration of inferior alveolar nerve in rats following crush injury", Lasers Med Sci, 35, pp.413~420 (2020)
- Lee JH, "Photobiomodulation at a wavelength of 633 nm leads to faster functional recovery than 804 nm after facial nerve injury", J Biophotonics, 14, pp.e202100159~ (2021)
- Xia N, "Pulsed 808-nm infrared laser stimulation of the auditory nerve in guinea pig cochlea", Lasers Med Sci, 29, pp.343~349 (2014)
- Tamura A, "Low-level laser therapy for prevention of noiseinduced hearing loss in rats", Neurosci Lett, 595, pp.81~86 (2015)
- Jovanovic S, "Thermic effects in the"vestibule"during laser stapedotomy with pulsed laser systems", Lasers Surg Med, 23, pp.7~17 (1998)