Literature DB >> 23825414

Binaural gain modulation of spectrotemporal tuning in the interaural level difference-coding pathway.

Louisa J Steinberg1, Brian J Fischer, Jose L Peña.   

Abstract

In the brainstem, the auditory system diverges into two pathways that process different sound localization cues, interaural time differences (ITDs) and level differences (ILDs). We investigated the site where ILD is detected in the auditory system of barn owls, the posterior part of the lateral lemniscus (LLDp). This structure is equivalent to the lateral superior olive in mammals. The LLDp is unique in that it is the first place of binaural convergence in the brainstem where monaural excitatory and inhibitory inputs converge. Using binaurally uncorrelated noise and a generalized linear model, we were able to estimate the spectrotemporal tuning of excitatory and inhibitory inputs to these cells. We show that the response of LLDp neurons is highly locked to the stimulus envelope. Our data demonstrate that spectrotemporally tuned, temporally delayed inhibition enhances the reliability of envelope locking by modulating the gain of LLDp neurons' responses. The dependence of gain modulation on ILD shown here constitutes a means for space-dependent coding of stimulus identity by the initial stages of the auditory pathway.

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Year:  2013        PMID: 23825414      PMCID: PMC3718367          DOI: 10.1523/JNEUROSCI.4941-12.2013

Source DB:  PubMed          Journal:  J Neurosci        ISSN: 0270-6474            Impact factor:   6.167


  65 in total

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Journal:  Nature       Date:  2002-03-07       Impact factor: 49.962

2.  Microelectrode study of superior olivary nuclei.

Authors:  R GALAMBOS; J SCHWARTZKOPFF; A RUPERT
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3.  Tuning for spectro-temporal modulations as a mechanism for auditory discrimination of natural sounds.

Authors:  Sarah M N Woolley; Thane E Fremouw; Anne Hsu; Frédéric E Theunissen
Journal:  Nat Neurosci       Date:  2005-09-04       Impact factor: 24.884

4.  Delayed inhibition in cortical receptive fields and the discrimination of complex stimuli.

Authors:  Rajiv Narayan; Ayla Ergün; Kamal Sen
Journal:  J Neurophysiol       Date:  2005-05-25       Impact factor: 2.714

5.  Correlation index: a new metric to quantify temporal coding.

Authors:  Philip X Joris; Dries H Louage; Liesbeth Cardoen; Marcel van der Heijden
Journal:  Hear Res       Date:  2006-04-27       Impact factor: 3.208

6.  Projections of the cochlear nuclei and nucleus laminaris to the inferior colliculus of the barn owl.

Authors:  T T Takahashi; M Konishi
Journal:  J Comp Neurol       Date:  1988-08-08       Impact factor: 3.215

7.  Time and intensity cues are processed independently in the auditory system of the owl.

Authors:  T Takahashi; A Moiseff; M Konishi
Journal:  J Neurosci       Date:  1984-07       Impact factor: 6.167

8.  How the contrast gain control modifies the frequency responses of cat retinal ganglion cells.

Authors:  R M Shapley; J D Victor
Journal:  J Physiol       Date:  1981-09       Impact factor: 5.182

9.  A point process model for auditory neurons considering both their intrinsic dynamics and the spectrotemporal properties of an extrinsic signal.

Authors:  Eric Plourde; Bertrand Delgutte; Emery N Brown
Journal:  IEEE Trans Biomed Eng       Date:  2011-02-10       Impact factor: 4.538

Review 10.  On hearing with more than one ear: lessons from evolution.

Authors:  Jan W H Schnupp; Catherine E Carr
Journal:  Nat Neurosci       Date:  2009-05-26       Impact factor: 24.884

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  11 in total

1.  Neural coding and perception of auditory motion direction based on interaural time differences.

Authors:  Nathaniel J Zuk; Bertrand Delgutte
Journal:  J Neurophysiol       Date:  2019-08-28       Impact factor: 2.714

2.  Multidimensional stimulus encoding in the auditory nerve of the barn owl.

Authors:  Brian J Fischer; Jacob L Wydick; Christine Köppl; José L Peña
Journal:  J Acoust Soc Am       Date:  2018-10       Impact factor: 1.840

3.  Azimuth and envelope coding in the inferior colliculus of the unanesthetized rabbit: effect of reverberation and distance.

Authors:  Shigeyuki Kuwada; Brian Bishop; Duck O Kim
Journal:  J Neurophysiol       Date:  2014-06-18       Impact factor: 2.714

4.  Emergence of band-pass filtering through adaptive spiking in the owl's cochlear nucleus.

Authors:  Bertrand Fontaine; Katrina M MacLeod; Susan T Lubejko; Louisa J Steinberg; Christine Köppl; Jose L Peña
Journal:  J Neurophysiol       Date:  2014-04-30       Impact factor: 2.714

5.  Spike threshold adaptation diversifies neuronal operating modes in the auditory brain stem.

Authors:  Susan T Lubejko; Bertrand Fontaine; Sara E Soueidan; Katrina M MacLeod
Journal:  J Neurophysiol       Date:  2019-10-02       Impact factor: 2.714

6.  Effect of Stimulus-Dependent Spike Timing on Population Coding of Sound Location in the Owl's Auditory Midbrain.

Authors:  M V Beckert; B J Fischer; J L Pena
Journal:  eNeuro       Date:  2020-04-23

7.  Bilateral gain control; an "innate predisposition" for all sorts of things.

Authors:  Nicholas Wilkinson; Giorgio Metta
Journal:  Front Neurorobot       Date:  2014-02-25       Impact factor: 2.650

Review 8.  Neuronal specializations for the processing of interaural difference cues in the chick.

Authors:  Harunori Ohmori
Journal:  Front Neural Circuits       Date:  2014-05-09       Impact factor: 3.492

9.  The natural history of sound localization in mammals--a story of neuronal inhibition.

Authors:  Benedikt Grothe; Michael Pecka
Journal:  Front Neural Circuits       Date:  2014-10-01       Impact factor: 3.492

10.  Synaptic Inhibition in Avian Interaural Level Difference Sound Localizing Neurons.

Authors:  Rebecca J Curry; Yong Lu
Journal:  eNeuro       Date:  2016-12-20
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