PREVENTIVE NUTRITION: THE COMPREHENSIVE GUIDE FOR HEALTH PROFESSIONALS

dc.creatorMena Nannig, Patricia
dc.creatorPeirano, Patricio
dc.creatorUauy Dagach-Imbarack, Ricardo Elias
dc.date2016-12-27T21:48:46Z
dc.date2022-06-17T21:27:06Z
dc.date2016-12-27T21:48:46Z
dc.date2022-06-17T21:27:06Z
dc.date2001
dc.date.accessioned2023-08-22T00:11:16Z
dc.date.available2023-08-22T00:11:16Z
dc.identifier1990078
dc.identifier978-1-60327-542-2
dc.identifierhttps://hdl.handle.net/10533/165030
dc.identifier.urihttps://repositorioslatinoamericanos.uchile.cl/handle/2250/8299316
dc.descriptionMultiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studie over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).Multiple studies over the past four decades have addressed the evaluation of effects of early human malnutrition on central nervous system (CNS) development in experimental animals and man From the results of these studies, one can conclude that a reduction in energy and/or essential nutrient supply during the first stages of life have profound effects on somatic growth and organ structural and functional development, especially for the brain. Malnutrition impairs brain development, reducing cell replication cycles and dendritic connections. Different regions of the brain are impacted in specific ways; cell number as measured by DNA content is especially affected by intrauterine malnutrition and early postnatal malnutrition; synaptic connectivity is particularly affected if malnutrition occurs after birth, but before the third year of life (1). Beyond the “brain’s growth spurt,” alterations in dietary precursors may determine in part neurotransmitter levels (serotonin, norepinephrine, dopamine, acetylcholine) in specific brain regions, essential and nonessential lipid supply may affect the structural composition of the brain and of myelin sheaths(2).
dc.descriptionFONDECYT
dc.description4
dc.description865
dc.descriptionFONDECYT
dc.languageeng
dc.publisherHUMANA PRESS
dc.relationinstname: Conicyt
dc.relationreponame: Repositorio Digital RI2.0
dc.relationinstname: Conicyt
dc.relationreponame: Repositorio Digital RI 2.0
dc.relationinfo:eu-repo/grantAgreement/Fondecyt/1990078
dc.relationinfo:eu-repo/semantics/dataset/hdl.handle.net/10533/93479
dc.rightsinfo:eu-repo/semantics/openAccess
dc.titleDIETARY POLYUNSATURATED FATTY ACIDS FOR OPTIMAL NEURODEVELOPMENT
dc.titlePREVENTIVE NUTRITION: THE COMPREHENSIVE GUIDE FOR HEALTH PROFESSIONALS
dc.typeCapitulo de libro
dc.typeinfo:eu-repo/semantics/bookPart


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