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Kikas, Katarina; Westbrook, R. Frederick; Holmes, Nathan M. – Learning & Memory, 2021
Four experiments examined the effects of a dangerous context and a systemic epinephrine injection on sensory preconditioning in rats. In each experiment, rats were exposed to presentations of a tone and light in stage 1, light-shock pairings in stage 2, and test presentations of the tone alone and light alone in stage 3. Presentations of the tone…
Descriptors: Sensory Experience, Conditioning, Animals, Visual Stimuli
Tovar-Díaz, Jorge; Morín, Jean-Pascal; Ríos-Carrillo, Jorge Eduardo; de Jesús, Hilda Sánchez; Roldán-Roldán, Gabriel – Learning & Memory, 2021
In conditioned odor aversion (COA), the association of a tasteless odorized solution (the conditioned stimulus [CS]) with an intraperitoneal injection of LiCl (the unconditioned stimulus [US]), which produces visceral malaise, results in its future avoidance. The strength of this associative memory is mainly dependent on two parameters, that is,…
Descriptors: Short Term Memory, Associative Learning, Conditioning, Olfactory Perception
Wong, J. Y. Hilary; Wan, Bo Angela; Bland, Tom; Montagnese, Marcella; McLachlan, Alex D.; O'Kane, Cahir J.; Zhang, Shuo Wei; Masuda-Nakagawa, Liria M. – Learning & Memory, 2021
Discrimination of sensory signals is essential for an organism to form and retrieve memories of relevance in a given behavioral context. Sensory representations are modified dynamically by changes in behavioral state, facilitating context-dependent selection of behavior, through signals carried by noradrenergic input in mammals, or octopamine (OA)…
Descriptors: Human Body, Olfactory Perception, Animal Behavior, Memory
McManus, Jeffrey M.; Chiel, Hillel J.; Susswein, Abraham J. – Learning & Memory, 2019
Sensory feedback shapes ongoing behavior and may produce learning and memory. Motor responses to edible or inedible food in a reduced Aplysia preparation were examined to test how sensory feedback affects behavior and memory. Feeding patterns were initiated by applying a cholinomimetic onto the cerebral ganglion. Feedback from buccal muscles…
Descriptors: Feedback (Response), Motor Reactions, Sensory Experience, Behavior
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
Arkell, Daisy; Groves, Isabelle; Wood, Emma R.; Hardt, Oliver – Learning & Memory, 2021
Reducing sensory experiences during the period that immediately follows learning improves long-term memory retention in healthy humans, and even preserves memory in patients with amnesia. To date, it is entirely unclear why this is the case, and identifying the neurobiological mechanisms underpinning this effect requires suitable animal models,…
Descriptors: Sensory Experience, Long Term Memory, Learning, Neurological Organization
The Role of the Gustatory Cortex in Incidental Experience-Evoked Enhancement of Later Taste Learning
Flores, Veronica L.; Parmet, Tamar; Mukherjee, Narendra; Nelson, Sacha; Katz, Donald B.; Levitan, David – Learning & Memory, 2018
The strength of learned associations between pairs of stimuli is affected by multiple factors, the most extensively studied of which is prior experience with the stimuli themselves. In contrast, little data is available regarding how experience with "incidental" stimuli (independent of any conditioning situation) impacts later learning.…
Descriptors: Sensory Experience, Memory, Incidental Learning, Neurology
Cho, Jin-Hyung; Rendall, Sam D.; Gray, Jesse M. – Learning & Memory, 2017
"Fos" induction during learning labels neuronal ensembles in the hippocampus that encode a specific physical environment, revealing a memory trace. In the cortex and other regions, the extent to which "Fos" induction during learning reveals specific sensory representations is unknown. Here we generate high-quality brain-wide…
Descriptors: Brain, Fear, Recall (Psychology), Memory
Holmes, Nathan M.; Westbrook, R. Frederick – Learning & Memory, 2017
Four experiments used a sensory preconditioning protocol to examine how a dangerous context influences learning about innocuous events. In Experiments 1, 2, and 3, rats were exposed to presentations of a tone followed immediately or 20-sec later by presentations of a light. These tone-light pairings occurred in a context that was either familiar…
Descriptors: Animals, Experiments, Light, Auditory Stimuli
Cholé, Hanna; Junca, Pierre; Sandoz, Jean-Christophe – Learning & Memory, 2015
In honeybees, two olfactory conditioning protocols allow the study of appetitive and aversive Pavlovian associations. Appetitive conditioning of the proboscis extension response (PER) involves associating an odor, the conditioned stimulus (CS) with a sucrose solution, the unconditioned stimulus (US). Conversely, aversive conditioning of the sting…
Descriptors: Entomology, Olfactory Perception, Conditioning, Animal Behavior
McGann, John P. – Learning & Memory, 2015
Historically, the body's sensory systems have been presumed to provide the brain with raw information about the external environment, which the brain must interpret to select a behavioral response. Consequently, studies of the neurobiology of learning and memory have focused on circuitry that interfaces between sensory inputs and behavioral…
Descriptors: Associative Learning, Sensory Experience, Brain, Perception
Singer, Bryan F.; Bryan, Myranda A.; Popov, Pavlo; Scarff, Raymond; Carter, Cody; Wright, Erin; Aragona, Brandon J.; Robinson, Terry E. – Learning & Memory, 2016
The sensory properties of a reward-paired cue (a conditioned stimulus; CS) may impact the motivational value attributed to the cue, and in turn influence the form of the conditioned response (CR) that develops. A cue with multiple sensory qualities, such as a moving lever-CS, may activate numerous neural pathways that process auditory and visual…
Descriptors: Food, Cues, Influences, Brain Hemisphere Functions
Urban-Ciecko, Joanna; Wen, Jing A.; Parekh, Puja K.; Barth, Alison L. – Learning & Memory, 2015
Sensory experience can selectively alter excitatory synaptic strength at neocortical synapses. The rapid increase in synaptic strength induced by selective whisker stimulation (single-row experience/SRE, where all but one row of whiskers has been removed from the mouse face) is due, at least in part, to the trafficking of AMPA receptors (AMPARs)…
Descriptors: Sensory Experience, Brain Hemisphere Functions, Animals, Animal Behavior
Remmelink, Esther; Smit, August B.; Verhage, Matthijs; Loos, Maarten – Learning & Memory, 2016
Many neurological and psychiatric disorders are characterized by deficits in cognitive flexibility. Modeling cognitive flexibility in mice enables the investigation of mechanisms underlying these deficits. The majority of currently available behavioral tests targeting this cognitive domain are reversal learning tasks that require scheduled food…
Descriptors: Animals, Food, Sensory Experience, Models
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