Mathew E. Diamond

The paper investigates temporal tactile attention in humans, identifying distinct behavioral strategies for suppressing irrelevant stimuli and showing no association with autistic traits or aberrant salience.

The paper investigates individual differences in temporal attention strategies in rats, finding distinct neural signatures and behavioral strategies that reflect varied approaches to ignoring irrelevant information.

The paper shows that perceptual history affects judgments of different stimulus features independently, using a computational model to explain feature-specific serial dependence.

The paper shows that frontal cortex integrates current sensory inputs with prior information to influence decision-making, while sensory cortex does not account for this history-dependence.

This study shows that contractive and repulsive perceptual biases emerge from Hebbian plasticity in a recurrent neural network model across multiple tasks and datasets.

The paper investigates how stimulus history influences tactile perception in rats and humans, finding a repulsive effect where past stimuli bias current judgments, and shows this effect can be modeled with a single-parameter decision criterion model.

The paper investigates how time perception is encoded in sensory cortex by manipulating neuronal activity in rats and shows that time perception is governed by sensory coding mechanisms.

This study shows that Long-Evans rats can discriminate visual form under red light, challenging the assumption of red-light blindness in dichromats.

This study develops a computational model linking sensory processing to time perception by integrating neuronal firing data with psychophysical experiments in humans and rats.

The paper investigates how behavioral states affect information processing in the mouse somatosensory cortex, finding that high behavioral states enhance population-level information transmission.

This study shows that somatosensory experience in adult rats alters white matter structure and myelin-related gene expression, suggesting myelination as an underlying mechanism.

This study shows that the posterior parietal cortex (PPC) represents sensory history and its effects on behavior, with optogenetic silencing improving performance by reducing prior sensory influence.