Literature DB >> 22120438

Organization of the auditory brainstem in a lizard, Gekko gecko. I. Auditory nerve, cochlear nuclei, and superior olivary nuclei.

Yezhong Tang1, Jakob Christensen-Dalsgaard, Catherine E Carr.   

Abstract

We used tract tracing to reveal the connections of the auditory brainstem in the Tokay gecko (Gekko gecko). The auditory nerve has two divisions, a rostroventrally directed projection of mid- to high best-frequency fibers to the nucleus angularis (NA) and a more dorsal and caudal projection of low to middle best-frequency fibers that bifurcate to project to both the NA and the nucleus magnocellularis (NM). The projection to NM formed large somatic terminals and bouton terminals. NM projected bilaterally to the second-order nucleus laminaris (NL), such that the ipsilateral projection innervated the dorsal NL neuropil, whereas the contralateral projection crossed the midline and innervated the ventral dendrites of NL neurons. Neurons in NL were generally bitufted, with dorsoventrally oriented dendrites. NL projected to the contralateral torus semicircularis and to the contralateral ventral superior olive (SOv). NA projected to ipsilateral dorsal superior olive (SOd), sent a major projection to the contralateral SOv, and projected to torus semicircularis. The SOd projected to the contralateral SOv, which projected back to the ipsilateral NM, NL, and NA. These results suggest homologous patterns of auditory connections in lizards and archosaurs but also different processing of low- and high-frequency information in the brainstem.
Copyright © 2011 Wiley Periodicals, Inc.

Entities:  

Mesh:

Year:  2012        PMID: 22120438      PMCID: PMC4300985          DOI: 10.1002/cne.23013

Source DB:  PubMed          Journal:  J Comp Neurol        ISSN: 0021-9967            Impact factor:   3.215


  59 in total

Review 1.  Mechanisms of sound localization in mammals.

Authors:  Benedikt Grothe; Michael Pecka; David McAlpine
Journal:  Physiol Rev       Date:  2010-07       Impact factor: 37.312

2.  Central projections of auditory nerve fibers in the barn owl.

Authors:  C E Carr; R E Boudreau
Journal:  J Comp Neurol       Date:  1991-12-08       Impact factor: 3.215

3.  Connections of the auditory brainstem in a songbird, Taeniopygia guttata. III. Projections of the superior olive and lateral lemniscal nuclei.

Authors:  J Martin Wild; Nils O E Krützfeldt; M Fabiana Kubke
Journal:  J Comp Neurol       Date:  2010-06-01       Impact factor: 3.215

4.  Connections of the auditory brainstem in a songbird, Taeniopygia guttata. I. Projections of nucleus angularis and nucleus laminaris to the auditory torus.

Authors:  Nils O E Krützfeldt; Priscilla Logerot; M Fabiana Kubke; J Martin Wild
Journal:  J Comp Neurol       Date:  2010-06-01       Impact factor: 3.215

5.  Connections of the auditory brainstem in a songbird, Taeniopygia guttata. II. Projections of nucleus angularis and nucleus laminaris to the superior olive and lateral lemniscal nuclei.

Authors:  Nils O E Krützfeldt; Priscilla Logerot; M Fabiana Kubke; J Martin Wild
Journal:  J Comp Neurol       Date:  2010-06-01       Impact factor: 3.215

6.  Three subdivisions of the auditory midbrain in chicks (Gallus gallus) identified by their afferent and commissural projections.

Authors:  Yuan Wang; Harvey J Karten
Journal:  J Comp Neurol       Date:  2010-04-15       Impact factor: 3.215

Review 7.  Processing of temporal information in the brain.

Authors:  C E Carr
Journal:  Annu Rev Neurosci       Date:  1993       Impact factor: 12.449

8.  A circuit for detection of interaural time differences in the brain stem of the barn owl.

Authors:  C E Carr; M Konishi
Journal:  J Neurosci       Date:  1990-10       Impact factor: 6.167

9.  Calcium-binding protein immunoreactivity characterizes the auditory system of Gekko gecko.

Authors:  Kai Yan; Ye-Zhong Tang; Catherine E Carr
Journal:  J Comp Neurol       Date:  2010-09-01       Impact factor: 3.215

10.  Afferents to the cochlear nuclei and nucleus laminaris from the ventral nucleus of the lateral lemniscus in the zebra finch (Taeniopygia guttata).

Authors:  J M Wild; N O E Krützfeldt; M F Kubke
Journal:  Hear Res       Date:  2009-07-23       Impact factor: 3.208

View more
  8 in total

Review 1.  Sound localization in the alligator.

Authors:  Hilary S Bierman; Catherine E Carr
Journal:  Hear Res       Date:  2015-06-03       Impact factor: 3.208

2.  Neural Maps of Interaural Time Difference in the American Alligator: A Stable Feature in Modern Archosaurs.

Authors:  Lutz Kettler; Catherine E Carr
Journal:  J Neurosci       Date:  2019-03-18       Impact factor: 6.167

Review 3.  Coupled ears in lizards and crocodilians.

Authors:  Catherine E Carr; Jakob Christensen-Dalsgaard; Hilary Bierman
Journal:  Biol Cybern       Date:  2016-10-12       Impact factor: 2.086

Review 4.  Sound Localization Strategies in Three Predators.

Authors:  Catherine E Carr; Jakob Christensen-Dalsgaard
Journal:  Brain Behav Evol       Date:  2015-09-24       Impact factor: 1.808

Review 5.  Evolutionary trends in directional hearing.

Authors:  Catherine E Carr; Jakob Christensen-Dalsgaard
Journal:  Curr Opin Neurobiol       Date:  2016-07-22       Impact factor: 6.627

6.  Evolution of Sound Source Localization Circuits in the Nonmammalian Vertebrate Brainstem.

Authors:  Peggy L Walton; Jakob Christensen-Dalsgaard; Catherine E Carr
Journal:  Brain Behav Evol       Date:  2017-10-09       Impact factor: 1.808

7.  Strongly directional responses to tones and conspecific calls in the auditory nerve of the Tokay gecko, Gekko gecko.

Authors:  Jakob Christensen-Dalsgaard; Paula Kuokkanen; Jamie Emoto Matthews; Catherine E Carr
Journal:  J Neurophysiol       Date:  2021-02-03       Impact factor: 2.714

8.  Middle ear cavity morphology is consistent with an aquatic origin for testudines.

Authors:  Katie L Willis; Jakob Christensen-Dalsgaard; Darlene R Ketten; Catherine E Carr
Journal:  PLoS One       Date:  2013-01-14       Impact factor: 3.240

  8 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.