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16.
Haben CM, Kost K, Papagiannis G. Mucosal wave asymmetries in the clin- ical voice laboratory. J Otolaryngol . 2002;31:275–280 .17.
Shaw HS, Deliyski DD. Mucosal wave: a normophonic study across visu- alization techniques. J Voice . 2006;22:23–33 .18.
Rousseau B, Hirano S, Scheidt TD, Welham NV, Thibeault SL, Chan RW, Bless DM. Characterization of vocal fold scarring in a canine model. Laryn- goscope . 2003;113:620–627 .19.
Rousseau B, Hirano S, Chan RW, Welham NV, Thibeault SL, Ford C, Bless DM. Characterization of chronic vocal fold scarring in a rabbit model. J Voice . 2004;18:116–124 .20.
Hansen JK, Thibeault SL. Current understanding and review of the litera- ture: vocal fold scarring. J Voice . 2006;20:110–120 .21.
Kishimoto Y, Hirano S, Tateya I, Kanemaru S, Ito J. Temporal changes in vocal functions of human scarred vocal folds after cordectomy. Laryngo- scope . 2010;120:1597–1601 .22.
Patel R, Dailey S, Bless D. Comparison of high-speed digital imaging with stroboscopy for laryngeal imaging of glottal disorders. Ann Otol Rhinol Laryngol . 2008;117:413–424 .23.
George NA, de Mul FF, Qiu Q, Rakhorst G, Schutte HK. Depth kymogra- phy: high-speed calibrated 3D imaging of human vocal fold vibration dy- namics. Phys Med Biol . 2008;53:2667–2675 .24.
Krausert CR, Olszewski AE, Taylor LN, McMurray JS, Dailey SH, Jiang JJ. Mucosal wave measurement and visualization techniques. J Voice . 2011; 25:395–405.
25.
Verikas A, Uloza V, Bacauskiene M, Gelzinis A, Kelertas E. Advances in laryngeal imaging. Eur Arch Otorhinolaryngol . 2009;266: 1509–1520 .26.
Chang J, Fang TJ, Yung K, et al. Clinical and histologic predictors of voice and disease outcome in patients with early glottic cancer. Laryngoscope . 2012;122:2240–2247 .Journal of Voice, Vol. 28, No. 2, 2014
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