The combination of intraneural microstimulation and 7T fMRI makes it possible to bridge the gap between first-order mechanoreceptive afferent input codes and their spatial, dynamic and perceptual representations in human cortex.

Precisely targeted, low current brain microstimulation is sufficient to enhance human memory.

Increasing microstimulation frequency in some regions of the human somatosensory cortex decreased the perceived intensity and evoked specific percepts, providing insight into cortical organization and sensory feedback approaches for brain–computer interfaces.

Electrical microstimulation of human somatosensory cortex elicited purely naturalistic proprioceptive and cutaneous sensations, with proprioceptive sensations more prominent at higher current amplitudes suggesting a relationship between amplitude and sensation type.

Evidence of an interaction between expected reward size and visual cortical microstimulation indicates that expected reward can affect sensory representations.

The spatial dimension of neural activity is an organizing feature of the neural code that controls motor actions.

The subthalamic nucleus contains distinct subpopulations that can support multifaceted roles for making decisions based on uncertain evidence.

Caudate neurons encode reward and sensory information and the effects of caudate microstimulation mimic the monkeys' voluntary reward bias strategy.

A behavioral model, neuronal recordings, and electrical microstimulation reveal that the ventrolateral prefrontal cortex plays a causal role in evaluating prior decisions and biasing future decisions.

Unequal recovery in colorectal cancer screening following the COVID-19 pandemic can widen disparities in colorectal cancer outcomes.