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Yokose, Jun; Marks, William D.; Yamamoto, Naoki; Ogawa, Sachie K.; Kitamura, Takashi – Learning & Memory, 2021
Temporal association learning (TAL) allows for the linkage of distinct, nonsynchronous events across a period of time. This function is driven by neural interactions in the entorhinal cortical-hippocampal network, especially the neural input from the pyramidal cells in layer III of medial entorhinal cortex (MECIII) to hippocampal CA1 is crucial…
Descriptors: Associative Learning, Brain Hemisphere Functions, Neurological Organization, Stimuli
Goode, Travis D.; Maren, Stephen – Learning & Memory, 2017
Surviving threats in the environment requires brain circuits for detecting (or anticipating) danger and for coordinating appropriate defensive responses (e.g., increased cardiac output, stress hormone release, and freezing behavior). The bed nucleus of the stria terminalis (BNST) is a critical interface between the "affective…
Descriptors: Learning Processes, Fear, Brain, Neurology
Graham, Bronwyn M.; Richardson, Rick – Learning & Memory, 2016
These experiments examined the relationship between the neurotrophic factor fibroblast growth factor 2 (FGF2) and individual differences in the expression of conditioned fear. Experiments 1 and 2 demonstrated that rats naturally expressing low levels of contextual or cued fear have higher levels of hippocampal FGF2 relative to rats that express…
Descriptors: Individual Differences, Correlation, Fear, Animals
Kirschmann, Erin K. Z.; Mauna, Jocelyn C.; Willis, Cory M.; Foster, Rebecca L.; Chipman, Amanda M.; Thiels, Edda – Learning & Memory, 2014
Conditioned stimuli (CS) can modulate reward-seeking behavior. This modulatory effect can be maladaptive and has been implicated in excessive reward seeking and relapse to drug addiction. We previously demonstrated that exposure to an appetitive CS causes an increase in the activation of extracellular signal-regulated kinase (ERK) and cyclic-AMP…
Descriptors: Conditioning, Stimuli, Cues, Rewards
Kwon, Jeong-Tae; Nakajima, Ryuichi; Hyung-Su, Kim; Jeong, Yire; Augustine, George J.; Han, Jin-Hee – Learning & Memory, 2014
In Pavlovian fear conditioning, the lateral amygdala (LA) has been highlighted as a key brain site for association between sensory cues and aversive stimuli. However, learning-related changes are also found in upstream sensory regions such as thalamus and cortex. To isolate the essential neural circuit components for fear memory association, we…
Descriptors: Conditioning, Brain Hemisphere Functions, Sensory Experience, Cues
Fuchs, Jason R.; Robinson, Gain M.; Dean, Aaron M.; Schoenberg, Heidi E.; Williams, Michael R.; Morielli, Anthony D.; Green, John T. – Learning & Memory, 2014
We have previously shown that intracerebellar infusion of the neuropeptide secretin enhances the acquisition phase of eyeblink conditioning (EBC). Here, we sought to test whether endogenous secretin also regulates EBC and to test whether the effect of exogenous and endogenous secretin is specific to acquisition. In Experiment 1, rats received…
Descriptors: Classical Conditioning, Neurological Organization, Animals, Behavioral Science Research
Moustafa, Ahmed A.; Gilbertson, Mark W.; Orr, Scott P.; Herzallah, Mohammad M.; Servatius, Richard J.; Myers, Catherine E. – Brain and Cognition, 2013
Empirical research has shown that the amygdala, hippocampus, and ventromedial prefrontal cortex (vmPFC) are involved in fear conditioning. However, the functional contribution of each brain area and the nature of their interactions are not clearly understood. Here, we extend existing neural network models of the functional roles of the hippocampus…
Descriptors: Prediction, Animals, Fear, Classical Conditioning
Raccuglia, Davide; Mueller, Uli – Learning & Memory, 2013
Throughout the animal kingdom, the inhibitory neurotransmitter ?-aminobutyric acid (GABA) is a key modulator of physiological processes including learning. With respect to associative learning, the exact time in which GABA interferes with the molecular events of learning has not yet been clearly defined. To address this issue, we used two…
Descriptors: Learning Processes, Associative Learning, Olfactory Perception, Animals
Fritsch, Nathalie; Kuchinke, Lars – Brain and Language, 2013
The present study examined how contextual learning and in particular emotionality conditioning impacts the neural processing of words, as possible key factors for the acquisition of words' emotional connotation. 21 participants learned on five consecutive days associations between meaningless pseudowords and unpleasant or neutral pictures using an…
Descriptors: Context Effect, Emotional Response, Cognitive Processes, Word Recognition
Cole, Sindy; Richardson, Rick; McNally, Gavan P. – Learning & Memory, 2011
Six experiments used a within-subjects renewal design to examine the involvement of kappa opioid receptors (KORs) in regulating the expression and recovery of extinguished fear. Rats were trained to fear a tone conditioned stimulus (CS) via pairings with foot shock in a distinctive context (A). This was followed by extinction training of the CS in…
Descriptors: Stimuli, Conditioning, Fear, Brain Hemisphere Functions
Cromer, Jason A.; Machon, Michelle; Miller, Earl K. – Journal of Cognitive Neuroscience, 2011
The PFC plays a central role in our ability to learn arbitrary rules, such as "green means go." Previous experiments from our laboratory have used conditional association learning to show that slow, gradual changes in PFC neural activity mirror monkeys' slow acquisition of associations. These previous experiments required monkeys to repeatedly…
Descriptors: Stimuli, Prior Learning, Brain Hemisphere Functions, Animals
De Leonibus, Elvira; Costantini, Vivian J. A.; Massaro, Antonio; Mandolesi, Georgia; Vanni, Valentina; Luvisetto, Siro; Pavone, Flaminia; Oliverio, Alberto; Mele, Andrea – Learning & Memory, 2011
Response strategy in the dual-solution plus maze is regarded as a form of stimulus-response learning. In this study, by using an outcome devaluation procedure, we show that it can be based on both action-outcome and stimulus-response habit learning, depending on the amount of training that the animals receive. Furthermore, we show that…
Descriptors: Brain Hemisphere Functions, Task Analysis, Stimuli, Responses
Park, Junchol; Choi, June-Seek – Learning & Memory, 2010
Plasticity in two input pathways into the lateral nucleus of the amygdala (LA), the medial prefrontal cortex (mPFC) and the sensory thalamus, have been suggested to underlie extinction, suppression of a previously acquired conditioned response (CR) following repeated presentations of the conditioned stimulus (CS). However, little is known about…
Descriptors: Stimuli, Stimulation, Brain Hemisphere Functions, Fear
Laurent, Vincent; Westbrook, R. Frederick – Learning & Memory, 2010
Four experiments used rats to study the role of the basolateral amygdala (BLA) in the reinstatement and extinction of fear responses (freezing) to a previously extinguished conditioned stimulus (CS). In Experiment 1, BLA inactivation before pairing the extinguished CS with the shock unconditioned stimulus (US) or before US-alone exposure impaired…
Descriptors: Stimuli, Brain Hemisphere Functions, Inhibition, Fear
Gamiz, Fernando; Gallo, Milagros – Learning & Memory, 2011
We have investigated the effect of protein kinase Mzeta (PKM[zeta]) inhibition in the basolateral amygdala (BLA) upon the retention of a nonspatial learned active avoidance response and conditioned taste-aversion (CTA) acquisition in rats. ZIP (10 nmol/[mu]L) injected into the BLA 24 h after training impaired retention of a learned…
Descriptors: Stimuli, Control Groups, Memory, Animals