Experience-dependent plasticity is the ability of brain circuits to undergo molecular, structural and functional changes as a function of neural activity. Neural activity continuously shapes our brain during all the stages of our life, from infancy through adulthood and beyond. Epigenetic modifications of histone proteins and DNA seem to be a leading molecular mechanism to modulate the transcriptional changes underlying the fine-tuning of synaptic connections and circuitry rewiring during activity-dependent plasticity. The recent discovery that cytosine methylation is an epigenetic mark particularly dynamic in brain cells has strongly increased the interest of neuroscientists in understanding the role of covalent modifications of DNA in act...
AbstractEpigenetic mechanisms including altered DNA methylation are critical for altered gene transc...
Dynamic variations in DNA methylation regulate neuronal gene expression in an experience-dependent m...
The epigenome dynamically regulates chromatin structure to control cellular function and homeostasis...
Experience-dependent plasticity is the ability of brain circuits to undergo molecular, structural an...
During brain development there are periods, called critical or sensitive period, in which specific r...
Gene expression in the brain is dramatically regulated by a variety of stimuli. While the role of ne...
Although all neurons carry the same genetic information, they vary considerably in morphology and fu...
Epigenomic settings control gene regulation in both developing and postmitotic tissue, whereas abnor...
The pristine formation of complex organs depends on sharp temporal and spatial control of gene expre...
Developmental processes, genes and environmental factors interact to produce changes in cognition an...
The role of DNA cytosine methylation, an epigenetic regulator of chromatin structure and function, d...
Neuronal circuitries in the mammalian visual system change as a function of experience. Sensory expe...
DNA methylation is implicated in mammalian brain development and plasticity underlying learning and ...
The nervous system acts at the interface between an organism and its surrounding environment: the in...
For the past 40 years, technological advances have made it possible to interrogate the entire genome...
AbstractEpigenetic mechanisms including altered DNA methylation are critical for altered gene transc...
Dynamic variations in DNA methylation regulate neuronal gene expression in an experience-dependent m...
The epigenome dynamically regulates chromatin structure to control cellular function and homeostasis...
Experience-dependent plasticity is the ability of brain circuits to undergo molecular, structural an...
During brain development there are periods, called critical or sensitive period, in which specific r...
Gene expression in the brain is dramatically regulated by a variety of stimuli. While the role of ne...
Although all neurons carry the same genetic information, they vary considerably in morphology and fu...
Epigenomic settings control gene regulation in both developing and postmitotic tissue, whereas abnor...
The pristine formation of complex organs depends on sharp temporal and spatial control of gene expre...
Developmental processes, genes and environmental factors interact to produce changes in cognition an...
The role of DNA cytosine methylation, an epigenetic regulator of chromatin structure and function, d...
Neuronal circuitries in the mammalian visual system change as a function of experience. Sensory expe...
DNA methylation is implicated in mammalian brain development and plasticity underlying learning and ...
The nervous system acts at the interface between an organism and its surrounding environment: the in...
For the past 40 years, technological advances have made it possible to interrogate the entire genome...
AbstractEpigenetic mechanisms including altered DNA methylation are critical for altered gene transc...
Dynamic variations in DNA methylation regulate neuronal gene expression in an experience-dependent m...
The epigenome dynamically regulates chromatin structure to control cellular function and homeostasis...