Articles tagged with Memory Consolidation
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A naturally occurring growth factor called IGF-II has been found to enhance retention and prevent forgetting of fear memories in rats. The study suggests that IGF-II could become a potential drug target for boosting memory, with the potential to address clinical problems such as post-traumatic stress disorder.
Research found that sleep deprivation eliminates fear-associated memories through both fear recognition and physiological fear reactions. This suggests a possible therapy for individuals with PTSD or other anxiety disorders.
New research shows sleep consolidates memories and reorganizes emotional details to aid in creative idea production. Studies have found that a person tends to retain the most emotional part of a memory, leading to improved recall.
Continuous positive airway pressure therapy helps restore memory consolidation in adults with obstructive sleep apnea, suggesting that CPAP is effective at recouping memory abilities impaired by OSA. Participants treated with CPAP outperformed untreated OSA patients on an overnight picture memory consolidation task.
Researchers found that the amygdala distinguishes between different fear memories and retrieves them selectively. The study suggests a more sophisticated storage and recall capacity than previously thought, with implications for addressing specific fear memories.
Researchers at New York University found that memory consolidation strengthens during periods of awake rest, not just sleep. This process boosts brain activity in the hippocampus and cortex, leading to better retention of information and improved cognitive function.
MCG scientists decoded memory-forming brain cell conversations using new technology and computational methods. The breakthrough enables researchers to identify the components of a memory and its retrieval at the network level, potentially pinpointing flawed memory formation stages.
Researchers at the University of California, Santa Cruz, found that new brain connections form quickly within one hour of training, leading to long-lasting memories. The study used mice with genetically altered fluorescent proteins to visualize changes in individual brain cells.
Researchers found that sounds presented during naps could guide rehearsal of specific information, strengthening spatial memories. The study suggests that deep sleep is a key time for memory processing, challenging the idea that memories are only processed during REM sleep.
A Rutgers University research team has identified the mechanism that causes learning and memory formation during sleep. Short transient brain events called sharp wave ripples are responsible for consolidating memory and transferring learned information from the hippocampus to the neocortex, where long-term memories are stored.
Macaque monkeys learned to control a robotic device using brain signals and formed stable motor memories, demonstrating stability, rapid recall, and resistance to interference. This breakthrough could lead to more natural neuroprosthetic devices for physically disabled individuals.
Researchers at UC Berkeley discovered that the brain can develop a mental map of a solution to achieve motor tasks with high proficiency, similar to how drivers stick to a given route. The study showed that the brain creates a stable neural pattern that adheres without deviation, enabling control of artificial limbs with intuitive ease.
A study found that sleep selectively preserves memories of emotionally salient scenes, with benefits lasting up to four months. The sleeping brain calculates what is most important about an experience and selects only the adaptive elements for consolidation and long-term storage.
Researchers found that consuming fat-rich foods enhances memory consolidation, triggering long-term memories of the activity. OEA, a compound produced in the small intestine, plays a key role in this process.
Research reveals that sleep consolidates cortical plasticity through strengthening responses to non-deprived eye stimulation. Key mechanisms include NMDAR- and protein kinase A-mediated intracellular cascades, promoting synaptic strengthening and neuronal remodeling.
Researchers found that a night's sleep restored abilities lost after 12 hours of training, and protected memory against loss over the next day. Sleep consolidation may help in learning language processes and eye-hand skills.
Researchers have developed a method to selectively and safely remove memories from mice by over-expressing a protein critical to brain cell communication. This technique eliminates new and old memories alike, with potential applications for treating traumatic war memories or unwanted fears.
A 90-minute daytime nap significantly speeds up memory consolidation, with participants showing improved performance in tasks requiring motor skills. This discovery may enable the development of methods to accelerate memory consolidation and create stable memories.
Researchers found that brain's memory consolidation process occurs at a rate of six or seven times faster than real-time experiences. This 'thought speed' allows the brain to replay memories in 8-10 minutes instead of an hour, revealing the biological trick behind this phenomenon.
Researchers at the University of Bristol have discovered how controlling glycogen synthase kinase-3 (GSK3) activity can improve neuronal connections and prevent memory erasure in brain disorders. This breakthrough sheds light on the role of GSK3 in normal neuronal function and may lead to the development of drugs to inhibit its activity.
MIT researchers report that replayed memories in rats' brains contain visual images, reinforcing the idea that animal dreams mimic human experiences. The study reveals simultaneous reactivation of memory traces in both the visual cortex and hippocampus during sleep.
Scientists at the Max Planck Institute for Medical Research have found that the cerebral cortex actively controls memory transfer during sleep. The researchers developed a new technique to investigate this largely under-researched field, discovering a link between interneurones and the cerebral cortex.
Researchers have discovered that sleep improves memory consolidation by strengthening recently learned word pairs and making them more resistant to interference. The study found that sleep benefits declarative memory, a type of memory linked to the brain's hippocampus, particularly when faced with competing information.
A team of researchers led by Ravi Allada from Northwestern University discovered that mushroom bodies play a crucial role in regulating sleep in fruitflies. The study suggests that the area may function to consolidate memories formed during the day, similar to vertebrates.
Researchers found that serotonin increases the amount and quality of sleep in fruit flies, even improving sleep in mutant flies with sleep deficits. The discovery highlights a potential link between serotonin's role in learning and memory and its effect on sleep.
Researchers found that directly reactivated memories are vulnerable to disruption, but associated memories remain unaffected. This study may pave the way for novel treatments of traumatic memories.
Researchers found that the hippocampus processes contextual memories, while the anterior cingulate cortex handles unpleasant stimuli. The amygdala consolidates both contextual and unpleasant information, suggesting a fragmented processing of memories.
Researchers successfully disrupted cocaine memories to battle addiction, utilizing anti-sense DNA treatment that blocked gene activation. This approach may provide a powerful and novel method to diminish the impact of drug cues, thereby reducing relapse rates.
New research shows that sleep plays a key role in improving motor skill performance, particularly in children and stroke patients. By consolidating memories and strengthening connections between brain cells, sleep enables more efficient storage and retrieval of information.
The study reveals that emotional pictures are recalled better than neutral ones, and this recall is associated with increased activity in the amygdala and hippocampus. The researchers propose a synergistic mechanism where emotion triggers recollection, creating a loop that could help understand traumatic memory recall in PTSD patients.
Researchers discovered that brain activity in the hippocampus, a key learning center, correlates with improved memory performance after sleep. Spatial memories were found to be strengthened during slow wave sleep, suggesting that sleep plays a crucial role in consolidating recent memory traces.
A novel protocol distinguishes retrieval from new learning in spatial memory loss, with rats showing improved recall of original platform location despite partial hippocampal damage. This finding suggests that at least part of amnesia associated with hippocampal damage is a failure of retrieval.
Researchers at the University of Pennsylvania have found that 'reconsolidation' of a forgotten memory is not permanent, contradicting previous studies. The study's results challenge existing theories on memory storage and retrieval, suggesting that traumatic memories may be more resilient than previously thought.
Researchers used neural recording technology to find 'reverberations' of brain wave patterns after novel experiences, which lingered in areas for up to 48 hours. The study suggests that slow-wave sleep amplifies memory traces and REM sleep triggers gene expression for memory storage.
Researchers at the University of Chicago found that sleep improves retention of word learning by consolidating memories and strengthening relevant associations. The study suggests that sleep plays a critical role in retaining what we learn, contradicting previous theories that focused solely on memory consolidation during wakefulness.
Researchers at Weizmann Institute have identified a new principle guiding brain memory systems, explaining inconsistencies in previous studies. This discovery may lead to the development of new methods for wiping out unwanted memories and treating psychological trauma.
Researchers found that sleep deprivation zero to five hours after learning impaired spatial orientation and recognition of physical surroundings, but not recollection of specific facts or events. The findings suggest that sleep helps regulate neuronal function in the hippocampus during memory consolidation.
Research shows that memories in the amygdala and hippocampus can be reactivated and require protein synthesis for restoration, contradicting long-held theories of memory storage. Dr. Nader's findings also explain false memory syndrome by revealing the biological basis of reconsolidation.
Researchers found that power naps of 30 minutes or more can prevent burnout and improve performance on tasks, with longer naps boosting performance even after waking. This is due to slow wave sleep, which refreses neural networks involved in the task, allowing for enhanced learning and restoration of perceptual performance.
A team of researchers has identified a key enzyme involved in the consolidation of long-term memories, revealing new insights into the molecular processes underlying learning and memory. The study found that eliminating this enzyme led to impaired memory retention, highlighting its critical role in memory consolidation.