Literature DB >> 7310685

The direction of growth of differentiating neurones and myoblasts from frog embryos in an applied electric field.

L Hinkle, C D McCaig, K R Robinson.   

Abstract

1. Disaggregated single neurones and myoblasts obtained from the neural tube and somites of Xenopus laevis embryos (stages 17-21) were cultured in the presence of steady small electric fields. 2. Neurites grew preferentially towards the negative pole, or cathode, in field strengths of 7-190 mV/mm. Many turned through considerable angles to do so. This effect disappeared below a threshold level of about 7 mV/mm. 3. Greater numbers of neurones sprouted neurites in cultures exposed to an electric field compared to control cultures. The difference could be as much as tenfold. The threshold level of this phenomenon was about 6-8 mV/mm. Other cell types such as pigment cells and fibroblasts were also stimulated to differentiate in culture by an electric field, although to a lesser extent than neurones. 4. Applied electric fields had no effect on the location of the origin of neurites on the cell body. 5. Spherical myoblasts cultured in applied electric fields (36-170 mV/mm) elongated with a bipolar axis of growth which was perpendicular to the electric field. The response was graded and disappeared at field strengths below 36 mV/mm. 6. It is suggested that in vivo, the direction of neural outgrowth from the neural tube and the strict spatial organization of somites might be under the control, in part, of endogenous electric fields. Possible sources of these are discussed.

Entities:  

Mesh:

Year:  1981        PMID: 7310685      PMCID: PMC1249421          DOI: 10.1113/jphysiol.1981.sp013695

Source DB:  PubMed          Journal:  J Physiol        ISSN: 0022-3751            Impact factor:   5.182


  21 in total

1.  TRANSEPIDERMAL POTENTIAL DIFFERENCE: DEVELOPMENT IN ANURAN LARVAE.

Authors:  R E TAYLOR; S B BARKER
Journal:  Science       Date:  1965-06-18       Impact factor: 47.728

2.  Intracellular and intercellular potentials in the early amphibian embryo.

Authors:  C Slack; A E Warner
Journal:  J Physiol       Date:  1973-07       Impact factor: 5.182

3.  Cell locomotion, nerve elongation, and microfilaments.

Authors:  M A Ludueña; N K Wessells
Journal:  Dev Biol       Date:  1973-02       Impact factor: 3.582

4.  The formation of somites in Xenopus.

Authors:  L Hamilton
Journal:  J Embryol Exp Morphol       Date:  1969-09

5.  Surface movements during the growth of single explanted neurons.

Authors:  D Bray
Journal:  Proc Natl Acad Sci U S A       Date:  1970-04       Impact factor: 11.205

6.  Cytoplasmic filaments and morphogenetic movement in the amphibian neural tube.

Authors:  P C Baker; T E Schroeder
Journal:  Dev Biol       Date:  1967-05       Impact factor: 3.582

7.  Sodium and chloride transport in tadpoles of the bullfrog Rana catesbeiana.

Authors:  R H Alvarado; A Moody
Journal:  Am J Physiol       Date:  1970-05

8.  Lateral electrophoresis and diffusion of Concanavalin A receptors in the membrane of embryonic muscle cell.

Authors:  M M Poo; W J Poo; J W Lam
Journal:  J Cell Biol       Date:  1978-02       Impact factor: 10.539

9.  Fine structure of nerve fibers and growth cones of isolated sympathetic neurons in culture.

Authors:  M B Bunge
Journal:  J Cell Biol       Date:  1973-03       Impact factor: 10.539

10.  Ultrastructure and function of growth cones and axons of cultured nerve cells.

Authors:  K M Yamada; B S Spooner; N K Wessells
Journal:  J Cell Biol       Date:  1971-06       Impact factor: 10.539

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  55 in total

1.  Guided migration of neural stem cells derived from human embryonic stem cells by an electric field.

Authors:  Jun-Feng Feng; Jing Liu; Xiu-Zhen Zhang; Lei Zhang; Ji-Yao Jiang; Jan Nolta; Min Zhao
Journal:  Stem Cells       Date:  2012-02       Impact factor: 6.277

Review 2.  Guiding neuronal growth cones using Ca2+ signals.

Authors:  John Henley; Mu-ming Poo
Journal:  Trends Cell Biol       Date:  2004-06       Impact factor: 20.808

3.  The embryonic development of Xenopus laevis under a low frequency electric field.

Authors:  Ayper Boga; Secil Binokay; Mustafa Emre; Yasar Sertdemir
Journal:  In Vitro Cell Dev Biol Anim       Date:  2012-06-22       Impact factor: 2.416

4.  Directional migration and transcriptional analysis of oligodendrocyte precursors subjected to stimulation of electrical signal.

Authors:  Yongchao Li; Xinkun Wang; Li Yao
Journal:  Am J Physiol Cell Physiol       Date:  2015-08-12       Impact factor: 4.249

5.  Embryonic zebrafish neuronal growth is not affected by an applied electric field in vitro.

Authors:  Peter Cormie; Kenneth R Robinson
Journal:  Neurosci Lett       Date:  2006-11-07       Impact factor: 3.046

Review 6.  The Electrical Response to Injury: Molecular Mechanisms and Wound Healing.

Authors:  Brian Reid; Min Zhao
Journal:  Adv Wound Care (New Rochelle)       Date:  2014-02-01       Impact factor: 4.730

7.  Wound healing in rat cornea: the role of electric currents.

Authors:  Brian Reid; Bing Song; Colin D McCaig; Min Zhao
Journal:  FASEB J       Date:  2005-03       Impact factor: 5.191

Review 8.  Animal models of transcranial direct current stimulation: Methods and mechanisms.

Authors:  Mark P Jackson; Asif Rahman; Belen Lafon; Gregory Kronberg; Doris Ling; Lucas C Parra; Marom Bikson
Journal:  Clin Neurophysiol       Date:  2016-09-10       Impact factor: 3.708

9.  Myoblasts and myoblast-conditioned medium attract the earliest spinal neurites from frog embryos.

Authors:  C D McCaig
Journal:  J Physiol       Date:  1986-06       Impact factor: 5.182

Review 10.  Role of electrical stimulation for rehabilitation and regeneration after spinal cord injury: an overview.

Authors:  Samar Hamid; Ray Hayek
Journal:  Eur Spine J       Date:  2008-08-02       Impact factor: 3.134

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