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Ivanova, Tamara N.; Gross, Christina; Mappus, Rudolph C.; Kwon, Yong Jun; Bassell, Gary J.; Liu, Robert C. – Learning & Memory, 2017
Learning to recognize a stimulus category requires experience with its many natural variations. However, the mechanisms that allow a category's sensorineural representation to be updated after experiencing new exemplars are not well understood, particularly at the molecular level. Here we investigate how a natural vocal category induces expression…
Descriptors: Brain Hemisphere Functions, Animals, Auditory Stimuli, Genetics
Wigestrand, Mattis B.; Schiff, Hillary C.; Fyhn, Marianne; LeDoux, Joseph E.; Sears, Robert M. – Learning & Memory, 2017
Distinguishing threatening from nonthreatening stimuli is essential for survival and stimulus generalization is a hallmark of anxiety disorders. While auditory threat learning produces long-lasting plasticity in primary auditory cortex (Au1), it is not clear whether such Au1 plasticity regulates memory specificity or generalization. We used…
Descriptors: Memory, Brain Hemisphere Functions, Stimuli, Generalization
Stark, Craig E. L.; Okado, Yoko; Loftus, Elizabeth F. – Learning & Memory, 2010
Many current theories of false memories propose that, when we retrieve a memory, we are not reactivating a veridical, fixed representation of a past event, but are rather reactivating incomplete fragments that may be accurate or distorted and may have arisen from other events. By presenting the two phases of the misinformation paradigm in…
Descriptors: Brain Hemisphere Functions, Memory, Auditory Perception, Visual Perception
Halverson, Hunter E.; Poremba, Amy; Freeman, John H. – Learning & Memory, 2008
The auditory conditioned stimulus (CS) pathway that is necessary for delay eyeblink conditioning was investigated using reversible inactivation of the medial auditory thalamic nuclei (MATN) consisting of the medial division of the medial geniculate (MGm), suprageniculate (SG), and posterior intralaminar nucleus (PIN). Rats were given saline or…
Descriptors: Stimuli, Conditioning, Auditory Perception, Animals
Mossbridge, Julia A.; Scissors, Beth N.; Wright, Beverly A. – Learning & Memory, 2008
Normal auditory perception relies on accurate judgments about the temporal relationships between sounds. Previously, we used a perceptual-learning paradigm to investigate the neural substrates of two such relative-timing judgments made at sound onset: detecting stimulus asynchrony and discriminating stimulus order. Here, we conducted parallel…
Descriptors: Auditory Perception, Infants, Adults, Auditory Stimuli
Metherate, Raju – Learning & Memory, 2004
Acetylcholine release in sensory neocortex contributes to higher-order sensory function, in part by activating nicotinic acetylcholine receptors (nAChRs). Molecular studies have revealed a bewildering array of nAChR subtypes and cellular actions; however, there is some consensus emerging about the major nAChR subtypes and their functions in…
Descriptors: Auditory Perception, Stimulation, Biochemistry, Neurology
Campolattaro, Matthew M.; Halverson, Hunter E.; Freeman, John H. – Learning & Memory, 2007
The neural pathways that convey conditioned stimulus (CS) information to the cerebellum during eyeblink conditioning have not been fully delineated. It is well established that pontine mossy fiber inputs to the cerebellum convey CS-related stimulation for different sensory modalities (e.g., auditory, visual, tactile). Less is known about the…
Descriptors: Conditioning, Stimulation, Eye Movements, Auditory Stimuli
Kudoh, Masaharu; Shibuki, Katsuei – Learning & Memory, 2006
We have previously reported that sound sequence discrimination learning requires cholinergic inputs to the auditory cortex (AC) in rats. In that study, reward was used for motivating discrimination behavior in rats. Therefore, dopaminergic inputs mediating reward signals may have an important role in the learning. We tested the possibility in the…
Descriptors: Stimuli, Auditory Perception, Discrimination Learning, Rewards

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