Literature DB >> 23725395

Reliability in the location of hindlimb motor representations in Fischer-344 rats: laboratory investigation.

Shawn B Frost1, Maria Iliakova, Caleb Dunham, Scott Barbay, Paul Arnold, Randolph J Nudo.   

Abstract

OBJECT: The purpose of the present study was to determine the feasibility of using a common laboratory rat strain for reliably locating cortical motor representations of the hindlimb.
METHODS: Intracortical microstimulation techniques were used to derive detailed maps of the hindlimb motor representations in 6 adult Fischer-344 rats.
RESULTS: The organization of the hindlimb movement representation, while variable across individual rats in topographic detail, displayed several commonalities. The hindlimb representation was positioned posterior to the forelimb motor representation and posterolateral to the motor trunk representation. The areal extent of the hindlimb representation across the cortical surface averaged 2.00 ± 0.50 mm(2). Superimposing individual maps revealed an overlapping area measuring 0.35 mm(2), indicating that the location of the hindlimb representation can be predicted reliably based on stereotactic coordinates. Across the sample of rats, the hindlimb representation was found 1.25-3.75 mm posterior to the bregma, with an average center location approximately 2.6 mm posterior to the bregma. Likewise, the hindlimb representation was found 1-3.25 mm lateral to the midline, with an average center location approximately 2 mm lateral to the midline.
CONCLUSIONS: The location of the cortical hindlimb motor representation in Fischer-344 rats can be reliably located based on its stereotactic position posterior to the bregma and lateral to the longitudinal skull suture at midline. The ability to accurately predict the cortical localization of functional hindlimb territories in a rodent model is important, as such animal models are being increasingly used in the development of brain-computer interfaces for restoration of function after spinal cord injury.

Entities:  

Mesh:

Year:  2013        PMID: 23725395      PMCID: PMC3969793          DOI: 10.3171/2013.4.SPINE12961

Source DB:  PubMed          Journal:  J Neurosurg Spine        ISSN: 1547-5646


  25 in total

1.  Neurophysiological correlates of hand preference in primary motor cortex of adult squirrel monkeys.

Authors:  R J Nudo; W M Jenkins; M M Merzenich; T Prejean; R Grenda
Journal:  J Neurosci       Date:  1992-08       Impact factor: 6.167

2.  Functional reorganization of the rat motor cortex following motor skill learning.

Authors:  J A Kleim; S Barbay; R J Nudo
Journal:  J Neurophysiol       Date:  1998-12       Impact factor: 2.714

3.  Recovery of motor function after focal cortical injury in primates: compensatory movement patterns used during rehabilitative training.

Authors:  K M Friel; R J Nudo
Journal:  Somatosens Mot Res       Date:  1998       Impact factor: 1.111

4.  The organization of the rat motor cortex: a microstimulation mapping study.

Authors:  E J Neafsey; E L Bold; G Haas; K M Hurley-Gius; G Quirk; C F Sievert; R R Terreberry
Journal:  Brain Res       Date:  1986-03       Impact factor: 3.252

5.  Organization of the primate face motor cortex as revealed by intracortical microstimulation and electrophysiological identification of afferent inputs and corticobulbar projections.

Authors:  C S Huang; M A Sirisko; H Hiraba; G M Murray; B J Sessle
Journal:  J Neurophysiol       Date:  1988-03       Impact factor: 2.714

6.  Functional subdivisions of the rat somatic sensorimotor cortex.

Authors:  T M Barth; T A Jones; T Schallert
Journal:  Behav Brain Res       Date:  1990-06-18       Impact factor: 3.332

7.  Use-dependent alterations of movement representations in primary motor cortex of adult squirrel monkeys.

Authors:  R J Nudo; G W Milliken; W M Jenkins; M M Merzenich
Journal:  J Neurosci       Date:  1996-01-15       Impact factor: 6.167

8.  IGF-I gene delivery promotes corticospinal neuronal survival but not regeneration after adult CNS injury.

Authors:  Edmund R Hollis; Paul Lu; Armin Blesch; Mark H Tuszynski
Journal:  Exp Neurol       Date:  2008-10-02       Impact factor: 5.330

9.  In vivo high-resolution MR imaging of neuropathologic changes in the injured rat spinal cord.

Authors:  T Weber; M Vroemen; V Behr; T Neuberger; P Jakob; A Haase; G Schuierer; U Bogdahn; C Faber; N Weidner
Journal:  AJNR Am J Neuroradiol       Date:  2006-03       Impact factor: 3.825

10.  Sensorimotor cortical plasticity during recovery following spinal cord injury: a longitudinal fMRI study.

Authors:  Michael T Jurkiewicz; David J Mikulis; William E McIlroy; Michael G Fehlings; Mary C Verrier
Journal:  Neurorehabil Neural Repair       Date:  2007-05-16       Impact factor: 3.919

View more
  13 in total

Review 1.  Motor Cortex and Motor Cortical Interhemispheric Communication in Walking After Stroke: The Roles of Transcranial Magnetic Stimulation and Animal Models in Our Current and Future Understanding.

Authors:  Charalambos C Charalambous; Mark G Bowden; DeAnna L Adkins
Journal:  Neurorehabil Neural Repair       Date:  2015-04-15       Impact factor: 3.919

2.  Trunk robot rehabilitation training with active stepping reorganizes and enriches trunk motor cortex representations in spinal transected rats.

Authors:  Chintan S Oza; Simon F Giszter
Journal:  J Neurosci       Date:  2015-05-06       Impact factor: 6.167

3.  Bilateral lesions in a specific subregion of posterior insular cortex impair conditioned taste aversion expression in rats.

Authors:  Lindsey A Schier; Ginger D Blonde; Alan C Spector
Journal:  J Comp Neurol       Date:  2015-07-29       Impact factor: 3.215

4.  A 3D map of the hindlimb motor representation in the lumbar spinal cord in Sprague Dawley rats.

Authors:  Jordan A Borrell; Shawn B Frost; Jeremy Peterson; Randolph J Nudo
Journal:  J Neural Eng       Date:  2016-12-09       Impact factor: 5.379

5.  Output Properties of the Cortical Hindlimb Motor Area in Spinal Cord-Injured Rats.

Authors:  Shawn B Frost; Caleb L Dunham; Scott Barbay; Dora Krizsan-Agbas; Michelle K Winter; David J Guggenmos; Randolph J Nudo
Journal:  J Neurotrauma       Date:  2015-09-25       Impact factor: 5.269

6.  Plasticity and alterations of trunk motor cortex following spinal cord injury and non-stepping robot and treadmill training.

Authors:  Chintan S Oza; Simon F Giszter
Journal:  Exp Neurol       Date:  2014-04-03       Impact factor: 5.330

7.  Ipsilesional Motor Cortex Plasticity Participates in Spontaneous Hindlimb Recovery after Lateral Hemisection of the Thoracic Spinal Cord in the Rat.

Authors:  Andrew R Brown; Marina Martinez
Journal:  J Neurosci       Date:  2018-10-09       Impact factor: 6.167

8.  Analysis on bilateral hindlimb mapping in motor cortex of the rat by an intracortical microstimulation method.

Authors:  Han Yu Seong; Ji Young Cho; Byeong Sam Choi; Joong Kee Min; Yong Hwan Kim; Sung Woo Roh; Jeong Hoon Kim; Sang Ryong Jeon
Journal:  J Korean Med Sci       Date:  2014-04-01       Impact factor: 2.153

9.  Rapid Identification of Cortical Motor Areas in Rodents by High-Frequency Automatic Cortical Stimulation and Novel Motor Threshold Algorithm.

Authors:  Mitsuaki Takemi; Elisa Castagnola; Alberto Ansaldo; Davide Ricci; Luciano Fadiga; Miki Taoka; Atsushi Iriki; Junichi Ushiba
Journal:  Front Neurosci       Date:  2017-10-17       Impact factor: 4.677

10.  Effects of a contusive spinal cord injury on cortically-evoked spinal spiking activity in rats.

Authors:  Jordan A Borrell; Dora Krizsan-Agbas; Randolph J Nudo; Shawn B Frost
Journal:  J Neural Eng       Date:  2020-11-11       Impact factor: 5.379

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.