Abstract

We have only just begun to decipher the complexity of our brain, including its maturation. Correct brain development and communication among brain areas are crucial for proper cognitive behavior. Brain area-specific genes expressed within a particular time window direct neurodevelopmental events such as proliferation, migration, axon guidance, dendritic arborization, and synaptogenesis. These genes can pose as susceptibility factors in neurodevelopmental disorders eventually resulting in area-specific cognitive deficits. Therefore, in utero electroporation (IUE)-mediated gene transfer can aid in creating valuable animal models in which the regionality and time of expression can be restricted for the targeted gene(s). Moreover, through the use of cell-type-specific molecular constructs, expression can be altered in a particular neuronal subset within a distinct area such that we are now able to causally link the function of that gene in that brain region to the etiology of the disorder. Thus, IUE-mediated gene transfer is an attractive molecular technique to spatiotemporally address the developmental aspects of gene function in relation to neurodevelopmental disorder-associated endophenotypes.

Highlights

  • We have only just begun to decipher the complexity of our brain, including its maturation

  • To decipher the exact developmental mechanisms that underlie the etiology of neurodevelopmental disorders, it is necessary to unravel the function of these molecules in four dimensions

  • Knocking down DISC1, a genetic susceptibility factor in schizophrenia, in the prefrontal cortex (PFC) using in utero electroporation (IUE) will lead to particular behavioral deficits in the adult animal (Niwa et al, 2010)

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Summary

Introduction

We have only just begun to decipher the complexity of our brain, including its maturation. By manipulating the timing of introduction of the construct of interest (either overexpression or knockdown), various developmental events can be addressed such as proliferation, migration (both radial as well as tangential), axon guidance, dendritic maturation, and synaptogenesis.

Results
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