Influence of Calibration Method on Distortion-Product Otoacoustic Emission Measurements: I. Test Performance

被引:26
作者
Burke, Sienna R. [1 ,2 ]
Rogers, Abigail R. [1 ,3 ]
Neely, Stephen T. [1 ]
Kopun, Judy G. [1 ]
Tan, Hongyang [1 ]
Gorga, Michael P. [1 ]
机构
[1] Boys Town Natl Res Hosp, Omaha, NE 68131 USA
[2] Univ Maryland, Dept Hearing & Speech Sci, College Pk, MD 20742 USA
[3] Indiana Univ, Dept Speech & Hearing Sci, Bloomington, IN 47405 USA
关键词
CANAL STANDING WAVES; NORMAL-HEARING; AUDITORY-SENSITIVITY; SOUND CALIBRATION; FREQUENCY; LEVEL; EARS; CHEMOTHERAPY; PRESSURE;
D O I
10.1097/AUD.0b013e3181d86b3d
中图分类号
R36 [病理学]; R76 [耳鼻咽喉科学];
学科分类号
100104 ; 100213 ;
摘要
Objective: Calibration errors in distortion-product otoacoustic emission (DPOAE) measurements because of standing waves cause unpredictable changes in stimulus and DPOAE response level. The purpose of this study was to assess the extent to which these errors affect DPOAE test performance. Standard calibration procedures use sound pressure level (SPL) to determine specified levels. Forward pressure level (FPL) is an alternate calibration method that is less susceptible to standing waves. However, FPL derivation requires prior cavity measurements, which have associated variability. In an attempt to address this variability, four FPL methods were compared with SPL: a reference calibration derived from 25 measurements before all data collection and a daily calibration measurement, both of which were made at body and room temperature. Design: Data were collected from 52 normal-hearing and 103 hearingimpaired subjects. DPOAEs were measured for f(2) frequencies ranging from 2 to 8 kHz in half-octave steps, with L-2 ranging from -20 to 70 dB SPL (5-dB steps). At each f(2), DPOAEs were measured in five calibration conditions: SPL, daily FPL at body temperature (daily body), daily FPL at room temperature (daily room), reference FPL at body temperature (ref body), and reference FPL at room temperature (ref room). Data were used to construct receiver operating characteristic (ROC) curves for each f(2), calibration method, and L-2. From these curves, areas under the ROC curve (A(ROC)) were estimated. Results: The results of this study are summarized by the following observations: (1) DPOAE test performance was sensitive to stimulus level, regardless of calibration method, with the best test performance observed for moderate stimulus level conditions. (2) An effect of frequency was observed for all calibration methods, with the best test performance at 6 kHz and the worst performance at 8 kHz. (3) At clinically applicable stimulus levels, little difference in test performance among calibration methods was noted across frequencies, except at 8 kHz. At 8 kHz, FPL-based calibration methods provided superior performance compared with the standard SPL calibration. (4) A difference between FPL calibration methods was observed at 8 kHz, with the best test performance occurring for daily calibrations at body temperature. Conclusions: With the exception of 8 kHz, there was little difference in test performance across calibration methods. At 8 kHz, A(ROC)s and specificities for fixed sensitivities indicate that FPL-based calibration methods provide superior performance compared with the standard SPL calibration for clinically relevant levels. Temperature may have an impact on FPL calculations relative to DPOAE test performance. Although the differences in AROC among calibration procedures were not statistically significant, the present results indicate that standing wave errors may impact DPOAE test performance and can be reduced by using FPL, although the largest effects were restricted to 8 kHz. (Ear & Hearing 2010; 31; 533-545)
引用
收藏
页码:533 / 545
页数:13
相关论文
共 46 条
[1]  
[Anonymous], OTOACOUSTIC EMISSION
[2]   AREA ABOVE ORDINAL DOMINANCE GRAPH AND AREA BELOW RECEIVER OPERATING CHARACTERISTIC GRAPH [J].
BAMBER, D .
JOURNAL OF MATHEMATICAL PSYCHOLOGY, 1975, 12 (04) :387-415
[3]  
BROWN R G B, 1984, Polar Research, V2, P1, DOI 10.1111/j.1751-8369.1984.tb00482.x
[4]  
Brownell W.E., 1983, Mechanisms of Hearing, P5
[5]   A POWER PRIMER [J].
COHEN, J .
PSYCHOLOGICAL BULLETIN, 1992, 112 (01) :155-159
[6]   Distortion-product otoacoustic emission: Early detection in deferoxamine induced ototoxicity [J].
Delehaye, Emilio ;
Capobianco, Saverio ;
Bertetto, Ivano Bruno ;
Meloni, Francesco .
AURIS NASUS LARYNX, 2008, 35 (02) :198-202
[7]   Distortion product otoacoustic emissions: An objective technique for the screening of hearing loss in children treated with platin derivatives [J].
Dhooge, Ingeborg ;
Dhooge, Catharina ;
Geukens, Sven ;
De Clerck, Bieke ;
De Vel, Eddy ;
Vinck, Bart M. .
INTERNATIONAL JOURNAL OF AUDIOLOGY, 2006, 45 (06) :337-343
[8]   BASIC ACOUSTIC CONSIDERATIONS OF EAR CANAL PROBE MEASUREMENTS [J].
DIRKS, DD ;
KINCAID, GE .
EAR AND HEARING, 1987, 8 (05) :S60-S67
[9]   Distortion product otoacoustic emission input/output functions in normal-hearing and hearing-impaired human ears [J].
Dorn, PA ;
Konrad-Martin, D ;
Neely, ST ;
Keefe, DH ;
Cyr, E ;
Gorga, MP .
JOURNAL OF THE ACOUSTICAL SOCIETY OF AMERICA, 2001, 110 (06) :3119-3131
[10]   Distortion-product otoacoustic emissions measured at high frequencies in humans [J].
Dreisbach, LE ;
Siegel, JH .
JOURNAL OF THE ACOUSTICAL SOCIETY OF AMERICA, 2001, 110 (05) :2456-2469