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Literature DB >> 23729924

The spindles: are they still thalamic?

Igor Timofeev, Sylvain Chauvette.

Abstract

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Year: 2013 PMID： 23729924 PMCID： PMC3649824 DOI： 10.5665/sleep.2702

Source DB: PubMed Journal: Sleep ISSN： 0161-8105 Impact factor: 5.849

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14 in total

1. Self-sustained rhythmic activity in the thalamic reticular nucleus mediated by depolarizing GABAA receptor potentials.

Authors: M Bazhenov; I Timofeev; M Steriade; T J Sejnowski
Journal: Nat Neurosci Date: 1999-02 Impact factor: 24.884

2. Spindle oscillation in cats: the role of corticothalamic feedback in a thalamically generated rhythm.

Authors: D Contreras; M Steriade
Journal: J Physiol Date: 1996-01-01 Impact factor: 5.182

3. Low-frequency rhythms in the thalamus of intact-cortex and decorticated cats.

Authors: I Timofeev; M Steriade
Journal: J Neurophysiol Date: 1996-12 Impact factor: 2.714

4. Regional slow waves and spindles in human sleep.

Authors: Yuval Nir; Richard J Staba; Thomas Andrillon; Vladyslav V Vyazovskiy; Chiara Cirelli; Itzhak Fried; Giulio Tononi
Journal: Neuron Date: 2011-04-14 Impact factor: 17.173

5. Nature of thalamo-cortical relations during spontaneous barbiturate spindle activity.

Authors: P Andersen; S A Andersson; T Lomo
Journal: J Physiol Date: 1967-09 Impact factor: 5.182

6. The deafferented reticular thalamic nucleus generates spindle rhythmicity.

Authors: M Steriade; L Domich; G Oakson; M Deschênes
Journal: J Neurophysiol Date: 1987-01 Impact factor: 2.714

7. Corticothalamic feedback controls sleep spindle duration in vivo.

Authors: Maxime Bonjean; Tanya Baker; Maxime Lemieux; Igor Timofeev; Terrence Sejnowski; Maxim Bazhenov
Journal: J Neurosci Date: 2011-06-22 Impact factor: 6.167

8. Divergent cortical generators of MEG and EEG during human sleep spindles suggested by distributed source modeling.

Authors: Nima Dehghani; Sydney S Cash; Chih C Chen; Donald J Hagler; Mingxiong Huang; Anders M Dale; Eric Halgren
Journal: PLoS One Date: 2010-07-07 Impact factor: 3.240

9. Differential effects on fast and slow spindle activity, and the sleep slow oscillation in humans with carbamazepine and flunarizine to antagonize voltage-dependent Na+ and Ca2+ channel activity.

Authors: Amr Ayoub; Dominic Aumann; Anne Hörschelmann; Atossa Kouchekmanesch; Pia Paul; Jan Born; Lisa Marshall
Journal: Sleep Date: 2013-06-01 Impact factor: 5.849

10. Role of the ferret perigeniculate nucleus in the generation of synchronized oscillations in vitro.

Authors: T Bal; M von Krosigk; D A McCormick
Journal: J Physiol Date: 1995-03-15 Impact factor: 5.182

17 in total

1. Neocortical inhibitory activities and long-range afferents contribute to the synchronous onset of silent states of the neocortical slow oscillation.

Authors: Maxime Lemieux; Sylvain Chauvette; Igor Timofeev
Journal: J Neurophysiol Date: 2014-11-12 Impact factor: 2.714

The spindles: are they still thalamic?

1. Self-sustained rhythmic activity in the thalamic reticular nucleus mediated by depolarizing GABAA receptor potentials.

2. Spindle oscillation in cats: the role of corticothalamic feedback in a thalamically generated rhythm.

3. Low-frequency rhythms in the thalamus of intact-cortex and decorticated cats.

4. Regional slow waves and spindles in human sleep.

5. Nature of thalamo-cortical relations during spontaneous barbiturate spindle activity.

6. The deafferented reticular thalamic nucleus generates spindle rhythmicity.

7. Corticothalamic feedback controls sleep spindle duration in vivo.

8. Divergent cortical generators of MEG and EEG during human sleep spindles suggested by distributed source modeling.

9. Differential effects on fast and slow spindle activity, and the sleep slow oscillation in humans with carbamazepine and flunarizine to antagonize voltage-dependent Na+ and Ca2+ channel activity.

10. Role of the ferret perigeniculate nucleus in the generation of synchronized oscillations in vitro.

1. Neocortical inhibitory activities and long-range afferents contribute to the synchronous onset of silent states of the neocortical slow oscillation.

2. Human Spindle Variability.

3. Theta Bursts Precede, and Spindles Follow, Cortical and Thalamic Downstates in Human NREM Sleep.

4. Looking for a precursor of spontaneous Sleep Slow Oscillations in human sleep: The role of the sigma activity.

5. A time-frequency analysis of the dynamics of cortical networks of sleep spindles from MEG-EEG recordings.

6. EEG Bands of Wakeful Rest, Slow-Wave and Rapid-Eye-Movement Sleep at Different Brain Areas in Rats.

7. Developmental Changes in Sleep Oscillations during Early Childhood.

Review 8. Spindle Activity Orchestrates Plasticity during Development and Sleep.

9. Thalamic Circuit Mechanisms Link Sensory Processing in Sleep and Attention.

Review 10. The Contribution of Thalamocortical Core and Matrix Pathways to Sleep Spindles.