Neuroscience

Articles and news from the latest research reports.

60 notes


Unique spinal nerve cell activity discovery
Scientists from the University of Leicester have hit upon unique forms of spinal nerve activity that shape output of nerve cell networks controlling motor behaviours.
The breakthrough in the Department of Biology at the University of Leicester is announced in the journal Current Biology. The three-year study was funded by the Biotechnology and Biological Sciences Research Council (BBSRC).
Although the neural basis of motor control has been studied for over a century, the processes controlling maturation of locomotor behaviours – like walking and swimming - are not fully understood.
The University of Leicester research into nerve cells responsible for motor behaviours was carried out on fish. The team aimed to understand how spinal networks produce rhythmic activity from a very immature stage - and how such activity changes during maturation.
The team used zebrafish, a freshwater fish native to northern India and Bangladesh, because their motor networks are similar to humans.  However, as they are fertilized outside the mother and their embryos are transparent, scientists can readily monitor motor network development from its onset - something that is very difficult to do in mammals.

Unique spinal nerve cell activity discovery

Scientists from the University of Leicester have hit upon unique forms of spinal nerve activity that shape output of nerve cell networks controlling motor behaviours.

The breakthrough in the Department of Biology at the University of Leicester is announced in the journal Current Biology. The three-year study was funded by the Biotechnology and Biological Sciences Research Council (BBSRC).

Although the neural basis of motor control has been studied for over a century, the processes controlling maturation of locomotor behaviours – like walking and swimming - are not fully understood.

The University of Leicester research into nerve cells responsible for motor behaviours was carried out on fish. The team aimed to understand how spinal networks produce rhythmic activity from a very immature stage - and how such activity changes during maturation.

The team used zebrafish, a freshwater fish native to northern India and Bangladesh, because their motor networks are similar to humans.  However, as they are fertilized outside the mother and their embryos are transparent, scientists can readily monitor motor network development from its onset - something that is very difficult to do in mammals.

Filed under nerve cells cell networks spinal nerve neuroscience science

  1. evermean reblogged this from neurosciencestuff
  2. science-and-logic reblogged this from neurosciencestuff
  3. turkofgallifrey reblogged this from neurosciencestuff
  4. dermoosealini reblogged this from neurosciencestuff
  5. jeffreyjefferson reblogged this from neurosciencestuff
  6. genius-vision reblogged this from neurosciencestuff
  7. scienceinquiries reblogged this from neurosciencestuff
  8. infectiousdiseases reblogged this from neurosciencestuff
  9. jacknotzak reblogged this from neurosciencestuff
  10. taggartmd reblogged this from neurosciencestuff
  11. carlos-penafiel reblogged this from biognosis
  12. biognosis reblogged this from neurosciencestuff
  13. no-hope-for-fools reblogged this from neurosciencestuff
  14. hanselhearsawho reblogged this from thoughtfulcynic
  15. necroparasite reblogged this from neurosciencestuff and added:
    Unique spinal nerve cell activity discovery Scientists from the University of Leicester have hit upon unique forms of...
  16. thenicesthingdss reblogged this from neurosciencestuff
  17. butitwasfunnyha reblogged this from neurosciencestuff
  18. nohayverdadreal reblogged this from neurosciencestuff
  19. moonfirelilithgwydion reblogged this from neurosciencestuff
  20. thoughtfulcynic reblogged this from neurosciencestuff
  21. cursedluck reblogged this from neurosciencestuff
  22. hopefulveterinarian reblogged this from neurosciencestuff
  23. abovoadfinem reblogged this from neurosciencestuff
free counters