The marriage of cognitive neurophysiology and mathematical psychology to understand
decision-making has been exceptionally productive. This interdisciplinary area is based on …

Nervous systems evolved to effectively navigate the dynamics of the environment to achieve
their goals. One framework used to study this fundamental problem arose in the study of …

This article presents a theory in which motor execution in perceptual decision-making tasks
is determined by the same evolving decision variable that drives response time. The theory …

The medial frontal cortex (MFC) plays an important but disputed role in speed-accuracy
trade-off (SAT). In samples of neural spiking in the supplementary eye field (SEF) in the MFC …

Generative models of decision now permeate all subfields of psychology, cognitive, and
clinical neuroscience. To successfully investigate decision mechanisms from behavior, it is …

Many studies on the drift-diffusion model (DDM) explain decision-making based on a unified
analysis of both accuracy and response times. This review provides an in-depth account of …

In many domains of psychological research, decisions are subject to a speed-accuracy trade-
off: faster responses are more often incorrect. This trade-off makes it difficult to focus on one …

Humans and other animals are able to adjust their speed–accuracy trade-off (SAT) at will
depending on the urge to act, favoring either cautious or hasty decision policies in different …

Decisions about actions typically involve a period of deliberation that ends with the
commitment to a choice and the motor processes overtly expressing that choice. Previous …

Countermanding behavior has long been seen as a cornerstone of executive control—the
human ability to selectively inhibit undesirable responses and change plans. However …