Nuo Li

The paper shows that noisy spiking networks can approximate integration through random connectivity and noise, validated by experimental results on tactile decision-making.

The paper shows that motor cortical circuits integrate distorted proprioceptive feedback by separating activity subspaces to maintain task-relevant movement output.

The paper maps brainstem neural activity related to breathing, licking, and swallowing in mice, revealing coordinated rhythms and a premotor network involved in orofacial movements.

This study shows that motor memories are stably retained in mice through context-specific neural representations, which protect existing memories during new learning.

The paper records brain-wide neural activity in mice during a memory-guided task, showing distributed coding of choice and action across brain regions.

The paper measures motor planning in mice using a delayed response task and finds that motor readiness affects reaction time and movement accuracy, with online readouts of prepared actions.

This study maps movement-related activity across the brain in mice, finding systematic differences in signal strength and encoding structures across regions.

This study shows that specific cell types in the superior colliculus modulate choice activity in frontal cortex through bidirectional interactions during decision-making.

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

The paper develops a workflow to accurately localize electrodes in Neuropixels probes across multiple brains using imaging and electrophysiological data.

This study develops an autonomous system for mouse behavioral and optogenetic experiments in home-cage, revealing brain regions involved in tactile decision-making.

The paper shows that attractor dynamics in the frontal cortex gate sensory information flow during decision-making, making choices more robust to distractors over time.

The paper investigates how mouse cortical networks respond to optogenetic stimulation of PV neurons, finding paradoxical activity changes in layer 5 and proposing network architectures that explain these responses.

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