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Critical Age Windows for Neurodevelopmental Psychiatric Disorders: Evidence from Animal Models

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Abstract

A disruption in normal brain development has been hypothesized to contribute to the aetiology of major psychiatric disorders. According to the ‘double-hit’ hypothesis, mutant genes-based deviations, associated with specific environmental insults during brain development, may result in neurobehavioural disturbances. The existence of age windows of vulnerability to environmental conditions during brain maturation will be discussed, using as examples a series of studies we have performed during the last years. Major deviations from normative neurobehavioural trajectories have been reported in animal models following exposure to severe stress (either episodes of maternal separation, deprivation or corticosterone supplementation) early in infancy. Rodent models of difficult and/or stressful pregnancies, including obstetric complications (e.g. prenatal restrain stress or neonatal hypoxia) and gestational exposure to infection (e.g prenatal immune challenge), have been associated with profound long-lasting deficits in the offspring’s emotional and social behaviour, and with immune and endocrine changes. More recently, adolescence, characterized by elevated rates of brain plasticity, has emerged as an additional period during which sensitivity to environmental influence (either adverse or stimulatory) is maximal. We have reported that both pharmacological (methylphenidate) and environmental (physical or social enrichment) interventions can be used to counteract the detrimental effects of earlier-origin developmental insults. Present findings indicate that these age periods (i.e. prenatal stage, early infancy and adolescence) do represent critical windows open to plastic changes and might be susceptible to both adverse and supportive shaping environmental forces. Taken together, age-related neuroplasticity might be considered not only as a risk factor for psychopathology but also as a potent mechanism for compensation. A better understanding of these critical periods of brain development is a concern for public health and may provide new insights into prevention strategies and into novel therapeutic approaches in neuropsychiatry.

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Notes

  1. Please note that daily water intake per kg of body weight is approximately four-fold higher in mice than in rats. Therefore, whereas 200 mg/l constitute a low dose of corticosterone supplementation in rats, 100 mg/l constitute a high corticosterone dose in mice.

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Acknowledgements

Supported by the collaborative program NIH–ISS 0F14 and by FP6-Program ERARE-EuroRETT Network (to GL). EM Marco has been supported by a post-doctoral fellowship from the Spanish ‘Ministerio de Ciencia e Innovación (MCINN)’, and is now at the Departamento de Fisiología (Fisiología Animal II) (planta 13, despacho 16) Facultad de CC. Biológicas Universidad Complutense de Madrid, Madrid (Spain). S Macrì has been supported by a NARSAD young investigator award. G.L. and S.M. acknowledge the support by the project ‘ECS-EMOTION’ from the Department of Antidrug Policies c/o Presidency of the Council of Ministers, Italy. We would also like to acknowledge our expert colleagues that contributed to the original research data presented: W. Adriani, S. Morley-Fletcher, M. Rea and L. Aloe.

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Correspondence to Giovanni Laviola.

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Marco, E.M., Macrì, S. & Laviola, G. Critical Age Windows for Neurodevelopmental Psychiatric Disorders: Evidence from Animal Models. Neurotox Res 19, 286–307 (2011). https://doi.org/10.1007/s12640-010-9205-z

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  • DOI: https://doi.org/10.1007/s12640-010-9205-z

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