Results 31 to 40 of about 6,796 (246)
Quiet Quitting: os principais motivos
O presente trabalho efetua a análise do fenómeno de Quiet Quitting, tal como os possíveis motivos que promovem este estado e contribuem para o aumento crescente deste acontecimento.
Rente, José +3 more
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Suppression of cholinergic receptors and inactivation of the septum impair short-term memory, and disrupt place cell and grid cell activity in the medial temporal lobe (MTL). Location-dependent hippocampal place cell firing during active waking, when the
Motoharu eYoshida +3 more
doaj +1 more source
(A) Larger delay period activity of ALM RS neurons in Active versus Quiet hit trials. Left: baseline-subtracted (1 second prior to whisker onset) population firing rate (mean ± SEM) overlaid for Quiet (blue) and Active (red) hit trials in Expert mice ...
Georgios Foustoukos (11995097) +8 more
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Drifting states and synchronization induced chaos in autonomous networks of excitable neurons.
The study of balanced networks of excitatory and inhibitory neurons has led to several open questions. On the one hand it is yet unclear whether the asynchronous state observed in the brain is autonomously generated, or if it results from the interplay ...
Rodrigo Echeveste, Claudius Gros
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Unraveling the role of collective bursting neurons, quiet waking, and structural plasticity in memory consolidation using a computational approach [PDF]
editorial reviewedWhen memorizing new information, it is commonly accepted that breaks associated with brain rest can improve performance. We investigate this hypothesis using a computational approach.
Drion, Guillaume +4 more
core
Cholinergic Signals in Mouse Barrel Cortex during Active Whisker Sensing
Summary: Internal brain states affect sensory perception, cognition, and learning. Many neocortical areas exhibit changes in the pattern and synchrony of neuronal activity during quiet versus active behaviors.
Emmanuel Eggermann +3 more
doaj +1 more source
Changes in membrane potential dynamics in quiet vs whisking states across cortical layers.
Related to Fig 4. (A) Difference in firing rate (whisking minus quiet wakefulness) across cortical layers for each cell class. Bars and error bars represent mean and SD, respectively.
Taro Kiritani (16324901) +4 more
core +1 more source
Perception of stochastically undersampled sound waveforms: A model of auditory deafferentation
Auditory deafferentation, or permanent loss of auditory nerve afferent terminals, occurs after noise overexposure and aging and may accompany many forms of hearing loss. It could cause significant auditory impairment but is undetected by regular clinical
Enrique A Lopez-Poveda +4 more
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Ionic channels governing spontaneous firing of Cartwheel neurons from dorsal cochear nucleus
Células Cartwheel (CW) são interneurônios glicinérgicos do Núcleo Coclear Dorsal (NCD) responsáveis pela maior parte da inibição sobre as células Fusiformes, o principal neurônio de saída do núcleo.
Strazza Júnior, Paulo Sergio
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Supra- and sub-threshold membrane potential fluctuations during quiet wakefulness.
(A) Example Vm recordings from excitatory (EXC), PV-expressing, VIP-expressing and SST-expressing neurons, during 1 s of quiet wakefulness. Averaged action potentials (APs) are shown above on an expanded timescale.
Taro Kiritani (16324901) +4 more
core +1 more source

