This chapter addresses the following questions: What are the key regulatory genes that specify a neuronal fate and a particular neuronal identity? What do they do? How are they controlled? In addition of identifying key regulatory genes, an attempt is also made to address the “logic” of neuronal determination and differentiation. It argues that current knowledge of the details of the underlying molecular genetic circuitry that determines the identity of any kind of neuron, in any organism, remains sketchy. However, a few general principles are beginning to emerge, particularly the idea that neuronal identity is implemented in series and in parallel in a collection of subprograms, rather than one coordinately active “master” program
AbstractNeurons share many features in common but are distinguished by expression of phenotypic char...
The epigenetic control of neuronal gene expression patterns has emerged as an underlying regulatory ...
The nervous system displays a daunting cellular diversity. Neuronal subtypes differ from each other ...
This chapter addresses the following questions: What are the key regulatory genes that specify a neu...
A complete understanding of nervous system function cannot be achieved without the identification of...
The specification of neurotransmitter phenotype is an important aspect of neuronal fate determinatio...
The specification of neurotransmitter phenotype is an important aspect of neuronal fate determinatio...
The specification of neurotransmitter phenotype is an important aspect of neuronal fate determinatio...
The diversification of cellular subtype during development is directed by combinatorially acting tra...
A complete understanding of nervous system function cannot be achieved without the identification of...
The generation of the enormous diversity of neuronal cell types in a differentiating nervous system ...
The formation of neuronal circuits is driven by complex developmental programs. A key feature of suc...
16 páginas, 2 figurasNeuronal diversity is an intrinsic feature of the nervous system. Transcription...
Understanding the organizational logic of neural circuits requires deciphering the biological basis ...
Neuronal differentiation relies on a set of interconnected molecular events to achieve the different...
AbstractNeurons share many features in common but are distinguished by expression of phenotypic char...
The epigenetic control of neuronal gene expression patterns has emerged as an underlying regulatory ...
The nervous system displays a daunting cellular diversity. Neuronal subtypes differ from each other ...
This chapter addresses the following questions: What are the key regulatory genes that specify a neu...
A complete understanding of nervous system function cannot be achieved without the identification of...
The specification of neurotransmitter phenotype is an important aspect of neuronal fate determinatio...
The specification of neurotransmitter phenotype is an important aspect of neuronal fate determinatio...
The specification of neurotransmitter phenotype is an important aspect of neuronal fate determinatio...
The diversification of cellular subtype during development is directed by combinatorially acting tra...
A complete understanding of nervous system function cannot be achieved without the identification of...
The generation of the enormous diversity of neuronal cell types in a differentiating nervous system ...
The formation of neuronal circuits is driven by complex developmental programs. A key feature of suc...
16 páginas, 2 figurasNeuronal diversity is an intrinsic feature of the nervous system. Transcription...
Understanding the organizational logic of neural circuits requires deciphering the biological basis ...
Neuronal differentiation relies on a set of interconnected molecular events to achieve the different...
AbstractNeurons share many features in common but are distinguished by expression of phenotypic char...
The epigenetic control of neuronal gene expression patterns has emerged as an underlying regulatory ...
The nervous system displays a daunting cellular diversity. Neuronal subtypes differ from each other ...