Neurons are submitted to an exceptional variety of stimuli and are able to convert these into
high-order functions, such as storing memories, controlling behavior, and governing …

Neurons are dynamic cells that respond and adapt to stimuli throughout their long
postmitotic lives. The structural and functional plasticity of neurons requires the regulated …

The development and function of neurons require the regulated expression of large
numbers of very specific gene sets. Epigenetic modifications of both DNA and histone …

Neural stem cells generate distinct cell types for tissue formation and cell replacement
during development and throughout adulthood. Neural development and plasticity are …

Epigenetic regulation has been long considered to be a critical mechanism in the control of
key aspects of cellular functions such as cell division, growth, and cell fate determination …

Although the critical role for epigenetic mechanisms in development and cell differentiation
has long been appreciated, recent evidence reveals that these mechanisms are also …

Epigenetics and epigenomic medicine encompass a new science of brain and behavior that
are already providing unique insights into the mechanisms underlying brain development …

Neuroepigenetics is a newly emerging field in neurobiology that addresses the epigenetic
mechanism of gene expression regulation in various postmitotic neurons, both over time and …

The epigenetic marking of chromatin provides a ubiquitous means for cells to shape and
maintain their identity, and to react to environmental stimuli via specific remodeling. Such an …

Neural development requires the orchestration of dynamic changes in gene expression to
regulate cell fate decisions. This regulation is heavily influenced by epigenetics, heritable …