Literature DB >> 10208574

Magnetic resonance imaging of the cochlea, spiral ganglia and eighth nerve of the guinea pig.

S A Counter1, B Bjelke, T Klason, Z Chen, E Borg.   

Abstract

The membranous labyrinth of the guinea pig cochlea and retrocochlear neural structures were investigated by magnetic resonance imaging (MRI) using an experimental system with a field strength of 4.7T and a single turn surface coil 25 mm in diameter, or standard resonators of 34 or 70 mm in diameter and gradient field strengths of 950 mTm and 200 mTm. High-resolution 2-D and 3-D images of 0.3-1.0 mm slice thickness were acquired by a rapid acquisition with relaxation enhancement (RARE) sequence and a standard multi-echo technique. Structural and dimensional aspects of the cochlea were resolved in vitro and in vivo down to <50 microm, showing the scala vestibule, scala media, scala tympani, spiral ganglia and the cochlear (eighth) nerve. In vivo perfusions with the gadodiamide (GdDTPA-BMA) chelate-bound paramagnetic gadolinium ion resulted in dynamic temporal enhancement of the scala vestibule and scala tympani, but did not penetrate the scala media.

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Year:  1999        PMID: 10208574     DOI: 10.1097/00001756-199902250-00006

Source DB:  PubMed          Journal:  Neuroreport        ISSN: 0959-4965            Impact factor:   1.837


  10 in total

1.  Observation of contrast enhancement in the cochlear fluid space of healthy subjects using a 3D-FLAIR sequence at 3 Tesla.

Authors:  Shinji Naganawa; Tomomi Komada; Hiroshi Fukatsu; Takeo Ishigaki; Osamu Takizawa
Journal:  Eur Radiol       Date:  2005-11-03       Impact factor: 5.315

2.  In situ active control of noise in a 4 T MRI scanner.

Authors:  Mingfeng Li; Brent Rudd; Teik C Lim; Jing-Huei Lee
Journal:  J Magn Reson Imaging       Date:  2011-07-12       Impact factor: 4.813

3.  Simulation study on active noise control for a 4-T MRI scanner.

Authors:  Mingfeng Li; Teik C Lim; Jing-Huei Lee
Journal:  Magn Reson Imaging       Date:  2007-12-03       Impact factor: 2.546

4.  [Hydropic inner ear disease of the vestibular type].

Authors:  V Volgger; E Krause; B Ertl-Wagner; R Gürkov
Journal:  HNO       Date:  2016-09       Impact factor: 1.284

5.  Manufacturing and in vivo inner ear visualization of MRI traceable liposome nanoparticles encapsulating gadolinium.

Authors:  Jing Zou; Rohit Sood; Sanjeev Ranjan; Dennis Poe; Usama A Ramadan; Paavo Kj Kinnunen; Ilmari Pyykkö
Journal:  J Nanobiotechnology       Date:  2010-12-18       Impact factor: 10.435

6.  Experimental Fusion of Contrast Enhanced High-Field Magnetic Resonance Imaging and High-Resolution Micro-Computed Tomography in Imaging the Mouse Inner Ear.

Authors:  S Allen Counter; Peter Damberg; Sahar Nikkhou Aski; Kálmán Nagy; Cecilia Engmér Berglin; Göran Laurell
Journal:  Open Neuroimag J       Date:  2015-07-31

7.  Toxicity of silver nanoparticle in rat ear and BALB/c 3T3 cell line.

Authors:  Jing Zou; Hao Feng; Marika Mannerström; Tuula Heinonen; Ilmari Pyykkö
Journal:  J Nanobiotechnology       Date:  2014-12-03       Impact factor: 10.435

8.  MRI With Gadolinium as a Measure of Blood-Labyrinth Barrier Integrity in Patients With Inner Ear Symptoms: A Scoping Review.

Authors:  Christopher I Song; Jacob M Pogson; Nicholas S Andresen; Bryan K Ward
Journal:  Front Neurol       Date:  2021-05-20       Impact factor: 4.003

9.  MRI evidence of endolymphatic impermeability to the gadolinium molecule in the in vivo mouse inner ear at 9.4 tesla.

Authors:  S Allen Counter; Sahar Nikkhou; Stefan Brené; Peter Damberg; Adam Sierakowiak; Tomas Klason; Cecilia Engmér Berglin; Göran Laurell
Journal:  Open Neuroimag J       Date:  2013-06-28

Review 10.  Inner ear barriers to nanomedicine-augmented drug delivery and imaging.

Authors:  Jing Zou; Ilmari Pyykkö; Jari Hyttinen
Journal:  J Otol       Date:  2016-11-25
  10 in total

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