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Part I Peripheral/Cochlear Processing<br/>1. Otoacoustic emissions theories can be tested with behavioral methods.<br/>ENRIQUE A. LOPEZ-POVEDA, PETER JOHANNESEN<br/>2. Basilar membrane responses to simultaneous presentations of white noise and a single tone.<br/>ALBERTO RECIO-SPINOSO, ENRIQUE A. LOPEZ-POVEDA<br/>3. The influence of the helicotrema on low-frequency hearing.<br/>TORSTEN MARQUARDT, CHRISTIAN SEJER PEDERSEN<br/>4. Mechanisms of masking by Schroeder-phase complexes.<br/>MAGDALENA WOJTCZAK, ANDREW J. OXENHAM<br/>5. The frequency selectivity of gain reduction masking: Analysis using two equally-effective maskers.<br/>SKYLER G. JENNINGS, ELIZABETH A. STRICKLAND<br/>6. Investigating cortical descending control of the peripheral auditory system.<br/>DARREN EDWARDS, ALAN R. PALMER<br/>7. Exploiting transgenic mice to explore the role of the tectorial membrane in cochlear sensory processing.<br/>GUY P. RICHARDSON, VICTORIA LUKASHKINA, ANDREI N. LUKASHKIN, IAN J. RUSSELL<br/>8. Auditory prepulse inhibition of neuronal activity in the rat cochlear root nucleus.<br/>RICARDO GOMEZ-NIETO, JOSE ANCHIETA DE CASTRO E HORTA JUNIOR, ORLANDO CASTELLANO, DONAL G. SINEX, DOLORES E. LOPEZ<br/><br/>Part II Masking<br/>9. FM forward masking: Implications for FM processing.<br/>NEAL VIEMEISTER, ANDREW BYRNE, MAGDALENA WOJTCZAK, MARK STELLMACK<br/>10. Electrophysiological correlates of intensity resolution under forward masking.<br/>DANIEL OBERFELD<br/>11. Neuronal measures of threshold and magnitude of forward masking in primary auditory cortex.<br/>ANA ALVES-PINTO, SYLVIE BAUDOUX, ALAN PALMER, CHRIS J. SUMNER<br/>12. Effect of presence of cue tone on tuning of auditory filter derived from simultaneous masking.<br/>SHUNSUKE KIDANI, MASASHI UNOKI<br/><br/>Part III Spectral processing and coding<br/>13. Tone in noise detection: Observed discrepancies in spectral integration.<br/>NICOLAS LE GOFF, ARMIN KOHLRAUSCHB, JEROEN BREEBAARTC, STEVEN VAN DE PAR<br/>14. Linear and nonlinear coding of sound spectra by discharge rate in neurons comprising the ascending pathway through the lateral superior olive.<br/>DANIEL J. TOLLIN, KANTHAIAH KOKA<br/>15. Enhancement in the marmoset inferior colliculus: neural correlates of perceptual "pop out".<br/>PAUL NELSON, ERIC YOUNG<br/>16. Auditory temporal integration at threshold: Evidence of a cortical origin.<br/>BERND LUETKENHOENER<br/><br/>Part IV Pitch and Timbre<br/>17. Spatiotemporal characteristics of cortical responses to a new dichotic pitch stimulus.<br/>CAROLINE WITTON, ARJAN HILLEBRAND, G. BRUCE HENNING<br/>18. A temporal code for Huggins pitch?<br/>CHRISTOPHER J. PLACK, SUZANNE FITZPATRICK, ROBERT P. CARLYON, HEDWIG E. GOCKEL<br/>19. Understanding pitch perception as a hierarchical process with top-down modulation.<br/>EMILI BALAGUER-BALLESTER, NICHOLAS R. CLARK, MARTIN COATH, KATRIN KRUMBHOLZ, SUSAN DENHAM<br/>20. The Harmonic Organization of Auditory Cortex.<br/>XIAOQIN WANG<br/>21. Reviewing the definition of timbre as it pertains to the perception of speech and musical sounds.<br/>ROY D. PATTERSON, THOMAS C. WALTERS, JESSICA J. M. MONAGHAN, ETIENNE GAUDRAIN<br/>22. Size Perception for acoustically scaled sounds of naturally pronounced and whispered words.<br/>TOSHIO IRINO, YOSHIE AOKI, HIDEKI KAWAHARA, ROY D. PATTERSON<br/><br/>Part V Binaural hearing<br/>23. Subcomponent cues in binaural unmasking.<br/>JOHN CULLING<br/>24. Interaural correlations between +1 and -1 on a Thurstone scale: psychometric functions and a two-parameter model.<br/>HELGE LUEDDEMANN, HELMUT RIEDEL, ANDRE RUPP<br/>25. Dynamic ITDs, not ILDs, underlie binaural detection of a tone in wideband noise.<br/>MARCEL VAN DER HEIJDEN, PHILIP X. JORIS<br/>26. Effect of reverberation on directional sensitivity of auditory neurons: Central and peripheral factors.<br/>SASHA DEVORE, ANDREW SCHWARTZ, BERTRAND DELGUTTE<br/>27. New experiments employing raised-sine stimuli suggest an unknown factor affects sensitivity to envelope-based ITDs for stimuli having low depths of modulation.<br/>LESLIE R. BERNSTEIN, CONSTANTINE TRAHIOTIS<br/>28. Modeling Physiological and Psychophysical Responses to Precedence Effect Stimuli.<br/>JING XIA, ANDREW BRUGHERA, H. STEVEN COLBURN, BARBARA SHINN-CUNNINGHAM<br/>29. Binaurally-coherent jitter improves neural and perceptual ITD sensitivity in normal and electric hearing.<br/>M. GOUPELL, K. HANCOCK, P. MAJDAK, B. LABACK, B. DELGUTTE<br/>30. Lateralization of tone complexes in noise: the role of monaural envelope processing in binaural hearing.<br/>STEVEN VAN DE PAR, ARMIN KOHLRAUSCH, NICOLAS LE GOFF<br/>31. Adjustment of interaural-time-difference analysis to sound level.<br/>IDA SIVEKE, CHRISTIAN LEIBOLD, KATHARINA KAISER, BENEDIKT GROTHE, LUTZ WIEGREBE<br/>32. The role of envelope wave form, adaptation, and attacks in binaural perception.<br/>STEPHAN D. EWERT, MATHIAS DIETZ, MARTIN KLEIN-HENNIG, VOLKER HOHMANN<br/>33. Short-term synaptic plasticity and adaptation contribute to the coding of timing and intensity information.<br/>KATRINA MACLEOD, GO ASHIDA, CHRIS GLAZE AND CATHERINE CARR<br/>34. Adaptive coding for auditory spatial cues.<br/>PHILLIPP HEHRMANN, JULIA MAIER, NICOL HARPER, DAVID MCALPINE, MANEESH SAHANI<br/>35. Phase shifts in monaural field potentials of the medial superior olive.<br/>MYLES MC LAUGHLIN, MARCEL VAN DER HEIJDEN, PHILIP X. JORIS<br/><br/>Part VI Speech Processing and Perception<br/>36. Representation of intelligible and distorted speech in human auditory cortex.<br/>STEFAN UPPENKAMP, HAGEN WIERSTORF<br/>37. Intelligibility of time-compressed speech with periodic and aperiodic insertions of silence: Evidence for endogenous brain rhythms in speech perception?<br/>ODED GHITZA, STEVEN GREENBERG<br/>38. The representation of the pitch of vowel sounds in ferret auditory cortex.<br/>JAN SCHNUPP, ANDREW KING, KERRY WALKER, JENNIFER BIZLEY<br/>39. Macroscopic and microscopic analysis of speech recognition in noise: What can be understood at which level?<br/>THOMAS BRAND, TIM JUERGENS, RAINER BEUTELMANN, RALPH M. MEYER, BIRGER KOLLMEIER<br/>40. Effects of peripheral tuning on the auditory nerve's representation of speech envelope and temporal fine structure cues.<br/>RASHA A. IBRAHIM, IAN C. BRUCE<br/>41. Room reflections and constancy in speech-like sounds: Within-band effects.<br/>A. J. WATKINS, A. RAIMOND, S. J. MAKIN<br/>42. Identification of perceptual cues for consonant sounds and the influence of sensorineural hearing loss on speech perception.<br/>FEIPENG LI, JONT B. ALLEN<br/><br/>Part VII Auditory Scene Analysis<br/>43. A comparative view on the perception of mistuning: constraints of the auditory periphery.<br/>ASTRID KLINGE, NAOYA ITATANI, GEORG M. KLUMP<br/>44. Stability of perceptual organisation in auditory streaming.<br/>SUSAN L. DENHAM, KINGA GYIMESI, GABOR STEFANICS, ISTVAN WINKLER<br/>45. Sequential and simultaneous auditory grouping measured with synchrony detection.<br/>CHRISTOPHE MICHEYL, SHIHAB SHAMMA, MOUNYA ELHILALI, ANDREW J. OXENHAM<br/>46. Rate vs. temporal code? A spatio-temporal coherence model of the cortical basis of streaming.<br/>MOUNYA ELHILALI, LING MA, CHRISTOPHE MICHEYL, ANDREW J. OXENHAM, SHIHAB A. SHAMMA<br/>47. Objective measures of Auditory Scene Analysis.<br/>ROBERT P. CARLYON, SARAH K. THOMPSON, ANTJE HEINRICH, FRIEDEMANN PULVERMULLER, MATTHEW H. DAVIS, YURY SHTYROV, RHODRI CUSACK, INGRID S. JOHNSRUDE<br/>48. Perception of concurrent sentences with harmonic or frequency-shifted voiced excitation: Performance of human listeners and of computational models based on autocorrelation.<br/>BRIAN ROBERTS, STEPHEN D. HOLMES, CHRISTOPHER J. DARWIN, GUY J. BROWN<br/><br/>Part VIII Novelty detection, Attention and Learning<br/>49. Is there stimulus-specific adaptation in the medial geniculate body of the rat?<br/>FLORA ANTUNES, ELLEN COVEY, MANUEL S. MALMIERCA<br/>50. Auditory streaming at the cocktail party: Simultaneous neural and behavioral studies of auditory attention.<br/>MOUNYA ELHILALI, JUANJUAN XIANG, SHIHAB A. SHAMMA, JONATHAN Z. SIMON<br/>51. Correlates of auditory attention and task performance in primary auditory and prefrontal cortex.<br/>SHIHAB SHAMMA, JONATHAN FRITZ, STEPHEN DAVID, MOUNYA ELHILALI, DANIEL WINKOWSKI, PINGBO YIN<br/>52. The implicit learning of noise: Behavioural data and computational models.<br/>TREVOR R. AGUS, MARION BEAUVAIS, SIMON J. THORPE, DANIEL PRESSNITZER<br/>53. Role of primary auditory cortex in acoustic orientation and approach-to-target responses.<br/>FERNANDO R. NODAL, VICTORIA M. BAJO, ANDREW J. KING<br/><br/>Part IX Hearing impairment<br/>54. Objective and behavioral estimates of cochlear response times in<br/>normal-hearing and hearing-impaired human listeners.<br/>OLAF STRELCYK, TORSTEN DAU<br/>55. Why do hearing-impaired listeners fail to benefit from masker fluctuations?<br/>JOSHUA G. W. BERNSTEIN<br/>56. Across-fiber coding of temporal fine-structure: Effects of noise-induced hearing loss on auditory-nerve responses.<br/>MICHAEL G. HEINZ, JAYAGANESH SWAMINATHAN, JONATHAN D. BOLEY, SUSHRUT KALE<br/>57. Beyond the audiogram: identifying and modelling patterns of hearing deficits.<br/>RAY MEDDIS, WENDY LECLUYSE, CHRISTINE M. TAN, MANASA R. PANDA, ROBERT T. FERRY |
