Shreesh P. Mysore

This paper develops a theoretical framework to quantify information stored in synaptic connections of neural networks, showing synergistic interactions among synapses.

This study inhibits vmPFC-projecting BLA neurons in mice and finds it promotes avoidance behaviors in an elevated zero maze task, contrasting previous findings on BLA projections to mPFC.

The paper investigates competitive stimulus interactions in the mouse superior colliculus, finding different inhibition rules at local and global spatial scales.

The paper evaluates how different methodological choices affect neuronal selectivity classification in calcium imaging data and identifies optimal parameter settings for reliable analysis.

This paper proposes a neuroplasticity rule that mathematically replicates backpropagation in neural networks without requiring biologically implausible assumptions.

The paper investigates how classical and extraclassical inhibitory surrounds in midbrain inhibitory neurons are constructed, showing classical surrounds originate from the optic tectum while extraclassical surrounds are formed internally.

This study identifies PLTi neurons in the brainstem as critical for selective spatial attention, showing they control decision boundaries by shaping neural representations in the superior colliculus.

The paper shows a donut-like inhibitory mechanism in the midbrain generates categorical neural responses, outperforming other models in spatial selection.

This study quantifies the time course of visual perceptual decision-making in mice, identifying two distinct stages and estimating their durations under varying conditions.

The paper identifies neural markers of anxiety vulnerability after traumatic brain injury by analyzing molecular profiles in vulnerable mice.

This study develops two behavioral paradigms to study selective visuospatial attention in freely behaving mice and identifies both endogenous and exogenous attentional mechanisms.

This study investigates how Imc neurons in barn owls signal the strongest stimulus through competitive interactions, showing categorical signaling with greater precision and earlier than the optic tectum.

The paper shows that sparse inhibitory neurons use combinatorial coding to suppress stimuli across space, optimizing for metabolic and wiring costs.