Adriano B. L. Tort

The paper shows that prefrontal cortex activity in rats is time-locked to inhalations and exhalations with a constant 100 ms delay, suggesting respiratory signals are evoked sensory potentials.

This study investigates how movement transitions, speed, and acceleration modulate hippocampal theta oscillations in rats using a controlled treadmill setup, finding that speed, not acceleration, primarily modulates theta frequency.

This study reevaluates the synchronicity of hippocampal ripples, finding they are phase-locked within but not between hemispheres, with global time-locking and local phase coupling.

This study investigates how breathing affects neural activity in the prefrontal cortex during anxiety in rats, finding that faster breathing correlates with increased anxiety and modulates gamma oscillations.

The paper identifies a communication subspace in the olfactory pathway that enables feedforward and feedback transmission during nasal respiration.

This study examines how subanesthetic ketamine affects high-frequency cortical oscillations in cats, finding state-dependent changes and respiratory coupling.

This study shows that 5-MeO-DMT induces sleep-like LFP patterns in awake rats' hippocampus and prefrontal cortex, independent of locomotion and theta power changes.

This paper develops an unsupervised method to classify dentate spikes into types 1 and 2 based on waveform features, showing high accuracy and revealing differences in DS characteristics between apoE3 and apoE4 mice.

This study investigates how respiration drives gamma oscillations in the piriform cortex of awake mice, showing their role in local neuronal computations and sparse odor coding.

This study investigates delta oscillations in the hippocampus during treadmill running and finds they modulate gamma amplitude and convey running speed information.

This study investigates hippocampal-prefrontal interactions during spatial decision-making in rats, revealing frequency-specific communication patterns and spatial selectivity in electrophysiological signals.

The paper shows that theta-gamma coupling in mice depends on breathing rate, not phase, with maximal coupling at 4-6 Hz breathing frequencies.

The paper shows that synchronous neuronal OFF-periods during slow-wave sleep reduce electroencephalographic signal complexity by trapping cortical dynamics, making activity more recurrent and deterministic.

The paper investigates causal relationships between cortical network oscillations and breathing frequency in mice during REM sleep, finding directional influences between theta/gamma oscillations and respiration.

This study investigates the electrophysiological effects of ibogaine in rats, finding increased gamma oscillation power with reduced coherence and complexity, suggesting REM sleep traits in the psychedelic state.

The paper investigates whether cross-frequency coupling (CFC) between theta and fast gamma oscillations supports communication through coherence (CTC) by examining phase-dependent synchronization across the neocortex during REM sleep.

The paper adapts an attractor network model to simulate experimental findings on memory reconsolidation boundary conditions, showing compatibility with synaptic labilization dynamics.

This study investigates how respiration and theta oscillations interact in the parietal cortex of mice, finding they compete for modulating neurons.

This paper evaluates Gaussian mixture models for spike sorting, showing improved performance over existing methods in both simulated and real extracellular recordings.

This study observes reactivation of time cell sequences in the hippocampus of rats during reward consumption, suggesting a role in organizing temporal order for episodic memory.

The paper reports that respiration-coupled oscillations occur in multiple brain regions of mice alongside theta oscillations, suggesting they are a global rhythm for network communication.

This paper evaluates spatial coding metrics in hippocampal neurons, finding that existing metrics correlate less with spatial decoding accuracy than the original mutual information metric.

This study shows that hippocampal place cells exhibit asymmetric temporal coding, with spike timing coupling to theta phase before firing rate increases and decoupling as the animal leaves the place field.