Any change in the invariant aspects of the auditory environment is of potential importance. The human brain preattentively or automatically detects such changes. The mismatch negativity (MMN) of event-related potentials (ERPs) reflects this initial stage of auditory change detection. The origin of MMN is held to be cortical. The hippocampus is associated with a later generated P3a of ERPs reflecting involuntarily attention switches towards auditory changes that are high in magnitude. The evidence for this cortico-hippocampal dichotomy is scarce, however. To shed further light on this issue, auditory cortical and hippocampal-system (CA1, dentate gyrus, subiculum) local-field potentials were recorded in urethane-anesthetized rats. A rare tone...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Understanding speech is based on neural representations of individual speech sounds. In humans, suc...
In humans, automatic change detection is reflected by an electrical brain response called mismatch n...
Any change in the invariant aspects of the auditory environment is of potential importance. The huma...
Any change in the invariant aspects of the auditory environment is of potential importance. The huma...
Any occasional changes in the acoustic environment are of potential importance for survival. In huma...
The human brain can automatically detect auditory changes, as indexed by the mismatch negativity of ...
Any occasional changes in the acoustic environment are of potential importance for survival. In huma...
The capacity of the human brain to detect deviance in the acoustic environment pre-attentively is re...
The capacity of the human brain to detect deviance in the acoustic environment pre-attentively is re...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Mismatch Negativity (MMN) is an N-methyl-d-aspartic acid (NMDA)-mediated, negative deflection in hum...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Understanding speech is based on neural representations of individual speech sounds. In humans, suc...
In humans, automatic change detection is reflected by an electrical brain response called mismatch n...
Any change in the invariant aspects of the auditory environment is of potential importance. The huma...
Any change in the invariant aspects of the auditory environment is of potential importance. The huma...
Any occasional changes in the acoustic environment are of potential importance for survival. In huma...
The human brain can automatically detect auditory changes, as indexed by the mismatch negativity of ...
Any occasional changes in the acoustic environment are of potential importance for survival. In huma...
The capacity of the human brain to detect deviance in the acoustic environment pre-attentively is re...
The capacity of the human brain to detect deviance in the acoustic environment pre-attentively is re...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Mismatch Negativity (MMN) is an N-methyl-d-aspartic acid (NMDA)-mediated, negative deflection in hum...
Detecting sudden environmental changes is crucial for the survival of humans and animals. In the hum...
Understanding speech is based on neural representations of individual speech sounds. In humans, suc...
In humans, automatic change detection is reflected by an electrical brain response called mismatch n...