H. Inagaki

The paper investigates how different regions of the frontal cortex process decision-making by analyzing population geometries in mice choosing between reward amounts and delays.

The paper evaluates whether the cerebral cortex operates in a fluctuation-driven regime by analyzing spiking and sub-threshold membrane potentials in different cortical areas.

The paper investigates the roles of the frontal cortex and striatum in motor timing by using perturbation experiments in mice, showing that the striatum integrates cortical input to regulate timing.

This study shows that cell-type-specific synaptic plasticity in PT neurons is essential for shaping neocortical dynamics during motor learning.

The paper shows how midbrain and thalamic circuits reorganize motor cortex dynamics to transition from planning to execution of movement.

The paper benchmarks optogenetic silencers in mice to assess their spatial and temporal effects on cortical circuits, finding that photoinhibition extends beyond light spread and can produce paradoxical effects.

The paper investigates persistent activity in mouse frontal cortex during a delayed response task and finds evidence for discrete attractor dynamics underlying short-term memory for motor planning.

The paper analyzes neural population dynamics in mouse frontal cortex during decision-making to reveal structure predicting behavioral variability.

The paper compares preparatory activity in the mouse anterior lateral motor cortex across two tasks and finds similar low-dimensional and monotonic features.