Publication Date
In 2025 | 0 |
Since 2024 | 0 |
Since 2021 (last 5 years) | 1 |
Since 2016 (last 10 years) | 4 |
Since 2006 (last 20 years) | 9 |
Descriptor
Associative Learning | 11 |
Comparative Analysis | 11 |
Animals | 6 |
Cognitive Processes | 4 |
Biochemistry | 3 |
Brain | 3 |
Brain Hemisphere Functions | 3 |
Conditioning | 3 |
Task Analysis | 3 |
Correlation | 2 |
Diagnostic Tests | 2 |
More ▼ |
Source
Learning & Memory | 11 |
Author
Abel, Ted | 1 |
Baxter, Douglas A. | 1 |
Bellebaum, Christian | 1 |
Born, Jan | 1 |
Byrne, John H. | 1 |
Castellano, Claudio | 1 |
Cheng, Sen | 1 |
Daum, Irene | 1 |
De Leonibus, Elvira | 1 |
Didier, Anne | 1 |
Diekelmann, Susanne | 1 |
More ▼ |
Publication Type
Journal Articles | 11 |
Reports - Research | 10 |
Reports - Descriptive | 1 |
Education Level
Higher Education | 1 |
Audience
Location
Germany | 1 |
Laws, Policies, & Programs
Assessments and Surveys
What Works Clearinghouse Rating
Hakobyan, Olya; Cheng, Sen – Learning & Memory, 2021
Despite its name, associative recognition is a paradigm thought to rely on memory recall. However, it remains unclear how associative information may be represented and retrieved from memory and what its relationship to other information, such as item memory, is. Here, we propose a computational model of associative recognition, where relational…
Descriptors: Associative Learning, Recall (Psychology), Correlation, Cognitive Processes
Zerbes, Gundula; Schwabe, Lars – Learning & Memory, 2019
Successful episodic memory requires binding of event details across spatial and temporal gaps. The neural processes underlying mnemonic binding, however, are not fully understood. Moreover, although acute stress is known to modulate memory, if and how stress changes mnemonic integration across time and space is unknown. To elucidate these issues,…
Descriptors: Spatial Ability, Stress Variables, Cognitive Processes, Memory
Merschbaecher, Katja; Hatko, Lucyna; Folz, Jennifer; Mueller, Uli – Learning & Memory, 2016
Acetylation of histones changes the efficiency of the transcription processes and thus contributes to the formation of long-term memory (LTM). In our comparative study, we used two inhibitors to characterize the contribution of different histone acetyl transferases (HATs) to appetitive associative learning in the honeybee. For one we applied…
Descriptors: Inhibition, Long Term Memory, Cognitive Processes, Comparative Analysis
Vinera, Jennifer; Kermen, Florence; Sacquet, Joëlle; Didier, Anne; Mandairon, Nathalie; Richard, Marion – Learning & Memory, 2015
Noradrenaline contributes to olfactory-guided behaviors but its role in olfactory learning during adulthood is poorly documented. We investigated its implication in olfactory associative and perceptual learning using local infusion of mixed a1-ß adrenergic receptor antagonist (labetalol) in the adult mouse olfactory bulb. We reported that…
Descriptors: Olfactory Perception, Associative Learning, Comparative Analysis, Perceptual Motor Learning
Zander, Thea; Volz, Kirsten G.; Born, Jan; Diekelmann, Susanne – Learning & Memory, 2017
Sleep fosters the generation of explicit knowledge. Whether sleep also benefits implicit intuitive decisions about underlying patterns is unclear. We examined sleep's role in explicit and intuitive semantic coherence judgments. Participants encoded sets of three words and after a sleep or wake period were required to judge the potential…
Descriptors: Sleep, Semantics, Intuition, Decision Making
Manago, Francesca; Castellano, Claudio; Oliverio, Alberto; Mele, Andrea; De Leonibus, Elvira – Learning & Memory, 2009
Recent evidence demonstrated that dopamine within the nucleus accumbens mediates consolidation of both associative and nonassociative memories. However, the specific contribution of the nucleus accumbens subregions, core and shell, and of D1 and D2 receptors subtypes has not been yet clarified. The aim of this study was, therefore, to directly…
Descriptors: Memory, Task Analysis, Associative Learning, Brain Hemisphere Functions
Weiler, Julia A.; Bellebaum, Christian; Daum, Irene – Learning & Memory, 2008
Reward-based associative learning is mediated by a distributed network of brain regions that are dependent on the dopaminergic system. Age-related changes in key regions of this system, the striatum and the prefrontal cortex, may adversely affect the ability to use reward information for the guidance of behavior. The present study investigated the…
Descriptors: Stimuli, Transfer of Training, Associative Learning, Rewards
Weible, Aldis P.; Oh, M. Matthew; Lee, Grace; Disterhoft, John F. – Learning & Memory, 2004
Cholinergic systems are critical to the neural mechanisms mediating learning. Reduced nicotinic cholinergic receptor (nAChR) binding is a hallmark of normal aging. These reductions are markedly more severe in some dementias, such as Alzheimer's disease. Pharmacological central nervous system therapies are a means to ameliorate the cognitive…
Descriptors: Conditioning, Animals, Eye Movements, Pharmacology
Baxter, Douglas A.; Byrne, John H. – Learning & Memory, 2006
Feeding behavior of Aplysia provides an excellent model system for analyzing and comparing mechanisms underlying appetitive classical conditioning and reward operant conditioning. Behavioral protocols have been developed for both forms of associative learning, both of which increase the occurrence of biting following training. Because the neural…
Descriptors: Comparative Analysis, Operant Conditioning, Classical Conditioning, Associative Learning
Ross, Robert S.; McGaughy, Jill; Eichenbaum, Howard – Learning & Memory, 2005
The social transmission of food preference task (STFP) has been used to examine the involvement of the hippocampus in learning and memory for a natural odor-odor association. However, cortical involvement in STFP has not been extensively studied. The orbitofrontal cortex (OFC) is important in odor-guided learning, and cholinergic depletion of the…
Descriptors: Associative Learning, Animals, Interpersonal Relationship, Sexuality
Isiegas, Carolina; Stein, Joel; Hellman, Kevin; Hannenhalli, Sridhar; Abel, Ted; Keeley, Michael B.; Wood, Marcelo A. – Learning & Memory, 2006
Classical fear conditioning requires the recognition of conditioned stimuli (CS) and the association of the CS with an aversive stimulus. We used Affymetrix oligonucleotide microarrays to characterize changes in gene expression compared to naive mice in both the amygdala and the hippocampus 30 min after classical fear conditioning and 30 min after…
Descriptors: Fear, Genetics, Stimuli, Animals