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Background: Open rhinoplasty has been performed for over 50 years. Rhinoplasty procedures have a risk of complications and it is important to follow each step diligently in order to avoid complications. Periorbital edema is the most common complication of septorhinoplasty. As far as we are aware, there are no studies in the available literature examining the impact of the septorhinoplasty on intraocular pressure and the retina. Objectives: The aim of this study was to evaluate the effects of septorhinoplasty-related periorbital edema on intraocular pressure and the retina by means of objective tests. Methods: Ten patients with phase 4 periorbital edema (5 males and 5 females) who underwent open rhinoplasty with bilateral lateral osteotomies were enrolled in the study. All the patients were examined by an eye specialist for visual acuity, intraocular pressure, retinal nerve fiber layer, and ganglion cell complex pathologies with optical coherence tomography preoperatively and postoperatively on the seventh day. Results: Preoperative and postoperative best-corrected visual acuity; intraocular pressure; average, superior, and inferior retinal nerve fiber layer thickness; and total, superior, and inferior ganglion cell complex thickness in both eyes for all patients were within normal limits. There was no statistical difference between preoperative and postoperative values ( P > .05). Conclusion: We concluded that periorbital edema after septorhinoplasty causes no significant complications affecting intraocular pressure and visual acuity. We believe that when osteotomies and local anesthetic injections are undertaken correctly, periorbital complications do not affect vision.

This study aims to investigate the effects of inferior turbinate outfracture on the nasolacrimal system and tear flow. Forty-seven patients (26 males, 21 females) between the ages 18 and 52 years (mean age—29.0 ± 9.6 years) were included in the study. Preoperative nasal examinations and paranasal sinus computed tomography of the patients were carried out; the direction, location, nasal septum deviation classification and inferior turbinate hypertrophy size classification were evaluated. Lacrimal irrigation test was performed preoperatively and 14 days postoperatively. The study included 47 patients who underwent septoplasty and inferior turbinate outfracture. The mean duration of lacrimal irrigation test was 2.9 ± 0.8 s on the right side and 3.0 ± 1.1 s on the left side preoperatively, and 2.1 ± 0.8 s on the right side and 2.2 ± 1.0 s on the left side postoperatively. No significant relationship between direction, location classification, angle nasal septum deviation classification and lacrimal irrigation test duration was found. A significant relationship between size classification of the left inferior turbinate and preoperative lacrimal irrigation test duration was noted (p = 0.030). Moreover, a significant decrease between preoperative and postoperative lacrimal irrigation test duration after inferior turbinate outfracture (p = 0.000) was noted. We concluded that outfracture of the inferior turbinate with septoplasty surgery may benefit the regulation of tear flow. In addition, we concluded that lacrimal irrigation test duration may be effective in determining the patients with subclinical nasolacrimal duct partial obstruction due to inferior turbinate pathologies.

Otitis media with effusion is common middle ear mucosa disease that can cause hearing loss in children. Adenoid hypertrophy can cause recurrent acute otitis media in addition to otitis media with effusion as a result of eustachian tube dysfunction and primary infection focus. The aim of this study was to investigate the effect of adenoid hypertrophy on the hearing threshold in children suffering from otitis media with effusion.Children of school age with otitis media with effusion were included in the study. The size and location of the adenoid tissue were determined by examination with a flexible endoscope. Four adenoid size groups were determined according to the percentage of choanal closure. The coverage was 0-25% in the first group, 26-50% in the second group, 51-75% in the third group and 76-100% in the 4th group. The location of the adenoid tissue in the nasopharynx was divided into three groups. In group A, the adenoid tissue was not in contact with torus tubarius. In group B, the adenoid tissue was in contact with the torus tubarius but did not cover it. In group C, the adenoid tissue covered the torus tubarius completely. Bone and air conduction thresholds were determined using standard procedures. The statistical relationship between the size and location of adenoid tissue and the hearing thresholds was investigated.The study was conducted with the 88 ears of 50 children aged 5-15 years. The median values of mean air conduction thresholds at 500 Hz, 1000 Hz, and 2000 Hz in the adenoid tissue size groups 1-4 were 22 dB HL, 20 dB HL, 15 dB HL, and 20 dB HL respectively. The median values of the mean air conduction thresholds were 20 dB HL, 20 dBHL and 18 dB HL in the adenoid location group A-C, respectively. No significant correlation was found between the groups (p:0.213) and the relevant hearing values (p:0.670). Type B tympanogram was identified in 46 ears and type C tympanogram in 42 ears. The mean hearing thresholds were significantly higher in the ears with a type B tympanogram in the otitis media with effusion cases. (P 0.001).There was no significant correlation between the duration of effusion and the adenoid size (p:0.931), adenoid location (p:0.626) and hearing threshold (p:0.815).We concluded that adenoid tissue size and location have no effect on hearing thresholds and the duration of effusion in otitis media with effusion. We suggest caution before deciding on adenoidectomy in otitis media with effusion cases. Adenoidectomy should not be performed in children over 4 years of age unless there is a definite indication such as nasal obstruction or chronic adenitis.