Hiroyuki Manabe

The paper identifies a novel 40-kHz inverted-U ultrasonic vocalization subtype in rats during chocolate consumption using machine learning, showing it is opioid-modulated and linked to reward states.

The paper examines electrophysiological features of ACo neurons during an odor-guided task, revealing distinct patterns of odor and reward anticipation.

The paper shows that task engagement in the orbitofrontal cortex aligns population activity along a confidence axis, enabling confidence-based behavior in rats.

This paper introduces a novel behavioral task for flavor discrimination in mice, showing that intraoral flavor, not olfactory input, is critical for task performance.

This study shows that minocycline prevents early aging phenotypes in Rp58 hetero-KO mice by mitigating DNA damage and cognitive decline.

The paper examines how nLOT neurons encode odor signals and behavioral states in mice during odor-guided tasks, finding bi-directional cue encoding and context-based odor-outcome associations.

The paper investigates how vTT neurons in mice are tuned to different scenes during feeding behaviors, showing scene-specific firing patterns and top-down modulation.

The paper examines how perirhinal cortical neurons encode different choice directions across task epochs and identifies neural subspaces that reflect coordinated patterns.

The paper investigates how non-sensory neurons in V1 and PPC contribute to population-level computations that drive visually-evoked choice behavior during a detection task.

The paper identifies a novel GABAergic neuron population in the olfactory cortex of mice that project to the lateral hypothalamus and integrate olfactory and top-down inputs.

This study shows that D1 and D2 neurons in the anteromedial olfactory tubercle of mice have opposing roles in mediating attractive and aversive behaviors during place preference tests.

The paper investigates how olfactory cortex pyramidal cells switch between processing sensory and top-down inputs based on respiration phases, revealing distinct current patterns in different layers during inhalation and exhalation.

This study investigates neural activity patterns in the mouse piriform cortex during sharp wave events, finding non-random organization and coordinated activation of specific neuron pairs.