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Amorim, Felippe E.; Chapot, Renata L.; Chapot, Renata L.; Lee, Jonathan L. C.; Amaral, Olavo B. – Learning & Memory, 2021
Remembering is not a static process: When retrieved, a memory can be destabilized and become prone to modifications. This phenomenon has been demonstrated in a number of brain regions, but the neuronal mechanisms that rule memory destabilization and its boundary conditions remain elusive. Using two distinct computational models that combine…
Descriptors: Memory, Brain Hemisphere Functions, Biochemistry, Behavior Patterns
Jin, Iksung; Kassabov, Stefan; Kandel, Eric R.; Hawkins, Robert D. – Learning & Memory, 2021
Most studies of molecular mechanisms of synaptic plasticity have focused on the sequence of changes either at individual synapses or in the cell nucleus. However, studies of long-term facilitation at "Aplysia" sensory neuron--motor neuron synapses in isolated cell culture suggest two additional features of facilitation. First, that there…
Descriptors: Animals, Neurological Organization, Molecular Structure, Physiology
Hegde, Ashok N.; Smith, Spencer G. – Learning & Memory, 2019
Formation of long-term synaptic plasticity that underlies long-term memory requires new protein synthesis. Years of research has elucidated some of the transcriptional and translational mechanisms that contribute to the production of new proteins. Early research on transcription focused on the transcription factor cAMP-responsive element binding…
Descriptors: Memory, Brain Hemisphere Functions, Biochemistry, Molecular Structure
Briskin-Luchinsky, Valeria; Levy, Roi; Halfon, Maayan; Susswein, Abraham J. – Learning & Memory, 2018
Training "Aplysia" with inedible food for a period that is too brief to produce long-term memory becomes effective in producing memory when training is paired with a nitric oxide (NO) donor. Lip stimulation for the same period of time paired with an NO donor is ineffective. Using qPCR, we examined molecular correlates of brief training…
Descriptors: Animals, Training, Food, Long Term Memory
Jia, Margaret; Travaglia, Alessio; Pollonini, Gabriella; Fedele, Giuseppe; Alberini, Cristina M. – Learning & Memory, 2018
The medial prefrontal cortex (mPFC) plays a critical role in complex brain functions including decision-making, integration of emotional, and cognitive aspects in memory processing and memory consolidation. Because relatively little is known about the molecular mechanisms underlying its development, we quantified rat mPFC basal expression levels…
Descriptors: Animals, Brain Hemisphere Functions, Biochemistry, Cognitive Processes
Lyons, Lisa C.; Gardner, Jacob S.; Gandour, Catherine E.; Krishnan, Harini C. – Learning & Memory, 2017
We investigated the in vivo role of protein degradation during intermediate (ITM) and long-term memory (LTM) in "Aplysia" using an operant learning paradigm. The proteasome inhibitor MG-132 inhibited the induction and molecular consolidation of LTM with no effect on ITM. Remarkably, maintenance of steady-state protein levels through…
Descriptors: Memory, Biochemistry, Brain Hemisphere Functions, Role
Briggs, Sherri B.; Hafenbreidel, Madalyn; Young, Erica J.; Rumbaugh, Gavin; Miller, Courtney A. – Learning & Memory, 2018
Using pharmacologic and genetic approaches targeting actin or the actin-driving molecular motor, nonmuscle myosin II (NMII), we previously discovered an immediate, retrieval-independent, and long-lasting disruption of methamphetamine- (METH-) and amphetamine-associated memories. A single intrabasolateral amygdala complex infusion or systemic…
Descriptors: Role, Memory, Genetics, Drug Therapy
Zheng, Fei; Zhang, Ming; Ding, Qi; Sethna, Ferzin; Yan, Lily; Moon, Changjong; Yang, Miyoung; Wang, Hongbing – Learning & Memory, 2016
Mental health and cognitive functions are influenced by both genetic and environmental factors. Although having active lifestyle with physical exercise improves learning and memory, how it interacts with the specific key molecular regulators of synaptic plasticity is largely unknown. Here, we examined the effects of voluntary running on long-term…
Descriptors: Memory, Physical Activities, Molecular Structure, Neurological Organization
Smolen, Paul; Baxter, Douglas A.; Byrne, John H. – Learning & Memory, 2016
With memory encoding reliant on persistent changes in the properties of synapses, a key question is how can memories be maintained from days to months or a lifetime given molecular turnover? It is likely that positive feedback loops are necessary to persistently maintain the strength of synapses that participate in encoding. Such feedback may…
Descriptors: Long Term Memory, Models, Molecular Structure, Feedback (Response)
Zhang, Yili; Smolen, Paul; Alberini, Cristina M.; Baxter, Douglas A.; Byrne, John H. – Learning & Memory, 2016
Inhibitory avoidance (IA) training in rodents initiates a molecular cascade within hippocampal neurons. This cascade contributes to the transition of short- to long-term memory (i.e., consolidation). Here, a differential equation-based model was developed to describe a positive feedback loop within this molecular cascade. The feedback loop begins…
Descriptors: Inhibition, Animals, Animal Behavior, Brain Hemisphere Functions
O'Dell, Thomas J.; Connor, Steven A.; Guglietta, Ryan; Nguyen, Peter V. – Learning & Memory, 2015
Encoding new information in the brain requires changes in synaptic strength. Neuromodulatory transmitters can facilitate synaptic plasticity by modifying the actions and expression of specific signaling cascades, transmitter receptors and their associated signaling complexes, genes, and effector proteins. One critical neuromodulator in the…
Descriptors: Cognitive Processes, Brain, Neurological Organization, Animals
Schacher, Samuel; Hu, Jiang-Yuan – Learning & Memory, 2014
An important cellular mechanism contributing to the strength and duration of memories is activity-dependent alterations in the strength of synaptic connections within the neural circuit encoding the memory. Reversal of the memory is typically correlated with a reversal of the cellular changes to levels expressed prior to the stimulation. Thus, for…
Descriptors: Brain Hemisphere Functions, Stimuli, Molecular Structure, Neurological Organization
Jalil, Sajiya J.; Sacktor, Todd Charlton; Shouval, Harel Z. – Learning & Memory, 2015
Memories that last a lifetime are thought to be stored, at least in part, as persistent enhancement of the strength of particular synapses. The synaptic mechanism of these persistent changes, late long-term potentiation (L-LTP), depends on the state and number of specific synaptic proteins. Synaptic proteins, however, have limited dwell times due…
Descriptors: Long Term Memory, Brain Hemisphere Functions, Neurological Organization, Maintenance
Filonova, Irina; Trotter, Justin H.; Banko, Jessica L.; Weeber, Edwin J. – Learning & Memory, 2014
Angelman Syndrome (AS) is a devastating neurological disorder caused by disruption of the maternal "UBE3A" gene. Ube3a protein is identified as an E3 ubiquitin ligase that shows neuron-specific imprinting. Despite extensive research evaluating the localization and basal expression profiles of Ube3a in mouse models, the molecular…
Descriptors: Genetic Disorders, Animals, Molecular Structure, Brain Hemisphere Functions
Kondo, Makoto; Nakamura, Yukiko; Ishida, Yusuke; Yamada, Takahiro; Shimada, Shoichi – Learning & Memory, 2014
The 5-HT [subscript 3] receptor, the only ionotropic 5-HT receptor, is expressed in limbic regions, including the hippocampus, amygdala, and cortex. However, it is not known whether it has a role in fear memory processes. Analysis of 5-HT [subscript 3A] receptor knockout mice in fear conditioning paradigms revealed that the 5-HT [subscript 3A]…
Descriptors: Fear, Memory, Cognitive Psychology, Cognitive Processes
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