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Ju, Jangkyu; Cho, Yang Seok – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2023
Previous studies on value-driven attentional capture (VDAC) have demonstrated that the uncertainty of reward value modulates attentional allocation via associative learning. However, it is unclear whether such attentional exploration is executed based on the amount of potential reward information available for refining value prediction or the…
Descriptors: Attention, Attention Control, Rewards, Associative Learning
Engle, Jae; Baker-Harvey, Hazel; Nguyen, Hieu-Kevin; Carney, Hunter; Stavropoulos, Katherine; Carver, Leslie J. – Child Development, 2021
The ability to learn from expectations is foundational to social and nonsocial learning in children. However, we know little about the brain basis of reward expectation in development. Here, 3- to 4-year-olds (N = 26) were shown a passive associative learning paradigm with dynamic stimuli. Anticipation for reward-related stimuli was measured via…
Descriptors: Brain, Preschool Children, Stimuli, Rewards
Reactivation of Learned Reward Association Reduces Retroactive Interference from New Reward Learning
Huang, Zhibang; Li, Sheng – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2022
Learning to associate specific objects with value contributes to the human's adaptive behavior. However, the intrinsic nature of associative memory posits a challenge that newly learned associations may interfere with the old ones if they share common features (e.g., a reward). In the present study, we conducted a set of behavioral experiments and…
Descriptors: Rewards, Interference (Learning), Associative Learning, Memory
Weiglein, Alice; Gerstner, Florian; Mancini, Nino; Schleyer, Michael; Gerber, Bertram – Learning & Memory, 2019
Animals of many species are capable of "small data" learning, that is, of learning without repetition. Here we introduce larval "Drosophila melanogaster" as a relatively simple study case for such one-trial learning. Using odor-food associative conditioning, we first show that a sugar that is both sweet and nutritious…
Descriptors: Animals, Associative Learning, Conditioning, Memory
Tong, Michelle T.; Kim, Tae-Young P.; Cleland, Thomas A. – Learning & Memory, 2018
Long-term fear memory formation in the hippocampus and neocortex depends upon brain-derived neurotrophic factor (BDNF) signaling after acquisition. Incremental, appetitive odor discrimination learning is thought to depend substantially on the differentiation of adult-born neurons within the olfactory bulb (OB)--a process that is closely associated…
Descriptors: Memory, Olfactory Perception, Role, Animals
Kleber, Jörg; Chen, Yi-Chun; Michels, Birgit; Saumweber, Timo; Schleyer, Michael; Kähne, Thilo; Buchner, Erich; Gerber, Bertram – Learning & Memory, 2016
Synapsin is an evolutionarily conserved presynaptic phosphoprotein. It is encoded by only one gene in the "Drosophila" genome and is expressed throughout the nervous system. It regulates the balance between reserve and releasable vesicles, is required to maintain transmission upon heavy demand, and is essential for proper memory function…
Descriptors: Associative Learning, Genetics, Scores, Short Term Memory
Hanson, Jamie L.; van den Bos, Wouter; Roeber, Barbara J.; Rudolph, Karen D.; Davidson, Richard J.; Pollak, Seth D. – Journal of Child Psychology and Psychiatry, 2017
Background: Children who experience early adversity often develop emotion regulatory problems, but little is known about the mechanisms that mediate this relation. We tested whether general associative learning processes contribute to associations between adversity, in the form of child maltreatment, and negative behavioral outcomes. Methods:…
Descriptors: At Risk Persons, Child Abuse, Child Behavior, Behavior Problems
Eisenhardt, Dorothea – Learning & Memory, 2014
The honeybee ("Apis mellifera") has long served as an invertebrate model organism for reward learning and memory research. Its capacity for learning and memory formation is rooted in the ecological need to efficiently collect nectar and pollen during summer to ensure survival of the hive during winter. Foraging bees learn to associate a…
Descriptors: Entomology, Rewards, Memory, Learning Processes
Bedecarrats, Alexis; Cornet, Charles; Simmers, John; Nargeot, Romuald – Learning & Memory, 2013
Feeding in "Aplysia" provides an amenable model system for analyzing the neuronal substrates of motivated behavior and its adaptability by associative reward learning and neuromodulation. Among such learning processes, appetitive operant conditioning that leads to a compulsive-like expression of feeding actions is known to be associated…
Descriptors: Animals, Animal Behavior, Eating Habits, Associative Learning
Freedberg, Michael; Schacherer, Jonathan; Hazeltine, Eliot – Journal of Experimental Psychology: Learning, Memory, and Cognition, 2016
Reward has been shown to change behavior as a result of incentive learning (by motivating the individual to increase their effort) and instrumental learning (by increasing the frequency of a particular behavior). However, Palminteri et al. (2011) demonstrated that reward can also improve the incidental learning of a motor skill even when…
Descriptors: Incidental Learning, Associative Learning, Rewards, Incentives
Mota, Theo; Giurfa, Martin; Sandoz, Jean-Christophe – Learning & Memory, 2011
A sophisticated form of nonelemental learning is provided by occasion setting. In this paradigm, animals learn to disambiguate an uncertain conditioned stimulus using alternative stimuli that do not enter into direct association with the unconditioned stimulus. For instance, animals may learn to discriminate odor rewarded from odor nonrewarded…
Descriptors: Animals, Stimuli, Entomology, Color
Mattfeld, Aaron T.; Gluck, Mark A.; Stark, Craig E. L. – Learning & Memory, 2011
The goal of the present study was to elucidate the role of the human striatum in learning via reward and punishment during an associative learning task. Previous studies have identified the striatum as a critical component in the neural circuitry of reward-related learning. It remains unclear, however, under what task conditions, and to what…
Descriptors: Feedback (Response), Associative Learning, Specialization, Rewards
Tort, Adriano B. L.; Komorowski, Robert; Kopell, Nancy; Eichenbaum, Howard – Learning & Memory, 2011
The association of specific events with the context in which they occur is a fundamental feature of episodic memory. However, the underlying network mechanisms generating what-where associations are poorly understood. Recently we reported that some hippocampal principal neurons develop representations of specific events occurring in particular…
Descriptors: Animals, Brain Hemisphere Functions, Context Effect, Correlation
Speekenbrink, Maarten; Shanks, David R. – Journal of Experimental Psychology: General, 2010
Multiple cue probability learning studies have typically focused on stationary environments. We present 3 experiments investigating learning in changing environments. A fine-grained analysis of the learning dynamics shows that participants were responsive to both abrupt and gradual changes in cue-outcome relations. We found no evidence that…
Descriptors: Prediction, Stimuli, Rewards, Associative Learning
Roitman, Mitchell F.; Wheeler, Robert A.; Tiesinga, Paul H. E.; Roitman, Jamie D.; Carelli, Regina M. – Learning & Memory, 2010
The nucleus accumbens (NAc) plays a role in hedonic reactivity to taste stimuli. Learning can alter the hedonic valence of a given stimulus, and it remains unclear how the NAc encodes this shift. The present study examined whether the population response of NAc neurons to a taste stimulus is plastic using a conditioned taste aversion (CTA)…
Descriptors: Conditioning, Rewards, Brain Hemisphere Functions, Role
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