Literature DB >> 15157939

Globus pallidus: a target brain region for divalent metal accumulation associated with dietary iron deficiency.

Keith M Erikson1, Tore Syversen, Eiliv Steinnes, Michael Aschner.   

Abstract

Recently, iron deficiency has been connected with a heterogeneous accumulation of manganese in the rat brain. The striatum is particularly vulnerable, for there is a significant negative correlation between accumulated manganese and gamma-aminobutyric acid levels. The effect of dietary iron deficiency on the distribution of zinc and copper, two other divalent metals with essential neurobiological roles, is relatively unexplored. Thus, the primary goal of this study was to examine the effect of manipulating dietary iron and manganese levels on the concentrations of copper, iron, manganese and zinc in five rat brain regions as determined with inductively coupled plasma mass spectrometry analysis. Because divalent metal transporter has been implicated as a transporter of brain iron, manganese, and to a lesser extent zinc and copper, another goal of the study was to measure brain regional changes in transporter levels using Western blot analysis. As expected, there was a significant effect of iron deficiency (P < 0.05) on decreasing iron concentrations in the cerebellum and caudate putamen; and increasing manganese concentrations in caudate putamen, globus pallidus and substantia nigra. Furthermore, there was a significant effect of iron deficiency (P < 0.05) on increasing zinc concentration and a statistical trend (P = 0.08) toward iron deficiency-induced copper accumulation in the globus pallidus. Transporter protein in all five regions increased due to iron deficiency compared to control levels (P < 0.05); however, the globus pallidus and substantia nigra revealed the greatest increase. Therefore, the globus pallidus appears to be a target for divalent metal accumulation that is associated with dietary iron deficiency, potentially caused by increased transporter protein levels.

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Year:  2004        PMID: 15157939     DOI: 10.1016/j.jnutbio.2003.12.006

Source DB:  PubMed          Journal:  J Nutr Biochem        ISSN: 0955-2863            Impact factor:   6.048


  39 in total

1.  Waterborne manganese exposure alters plasma, brain, and liver metabolites accompanied by changes in stereotypic behaviors.

Authors:  Steve Fordahl; Paula Cooney; Yunping Qiu; Guoxiang Xie; Wei Jia; Keith M Erikson
Journal:  Neurotoxicol Teratol       Date:  2011-10-21       Impact factor: 3.763

2.  Effects of chronic manganese exposure on cognitive and motor functioning in non-human primates.

Authors:  Jay S Schneider; Emmanuel Decamp; Amy Jo Koser; Stephanie Fritz; Heather Gonczi; Tore Syversen; Tomás R Guilarte
Journal:  Brain Res       Date:  2006-09-15       Impact factor: 3.252

3.  Gene expression profiling of human primary astrocytes exposed to manganese chloride indicates selective effects on several functions of the cells.

Authors:  Amitabha Sengupta; Sarah M Mense; Changgui Lan; Mei Zhou; Rory E Mauro; Lisa Kellerman; Galina Bentsman; David J Volsky; Elan D Louis; Joseph H Graziano; Li Zhang
Journal:  Neurotoxicology       Date:  2006-11-07       Impact factor: 4.294

4.  Regulation of brain copper homeostasis by the brain barrier systems: effects of Fe-overload and Fe-deficiency.

Authors:  Andrew D Monnot; Mamta Behl; Sanna Ho; Wei Zheng
Journal:  Toxicol Appl Pharmacol       Date:  2011-02-19       Impact factor: 4.219

5.  Mechanism of copper transport at the blood-cerebrospinal fluid barrier: influence of iron deficiency in an in vitro model.

Authors:  Andrew D Monnot; Gang Zheng; Wei Zheng
Journal:  Exp Biol Med (Maywood)       Date:  2012-03

6.  High levels of iron supplementation prevents neural tube defects in the Fpn1ffe mouse model.

Authors:  Bethany A Stokes; Julia A Sabatino; Irene E Zohn
Journal:  Birth Defects Res       Date:  2017-01-30       Impact factor: 2.344

7.  Association of neurobehavioral performance with R2* in the caudate nucleus of asymptomatic welders.

Authors:  Eun-Young Lee; Paul J Eslinger; Michael R Flynn; Daymond Wagner; Guangwei Du; Mechelle M Lewis; Lan Kong; Richard B Mailman; Xuemei Huang
Journal:  Neurotoxicology       Date:  2016-11-18       Impact factor: 4.294

8.  Ferroportin is a manganese-responsive protein that decreases manganese cytotoxicity and accumulation.

Authors:  Zhaobao Yin; Haiyan Jiang; Eun-Sook Y Lee; Mingwei Ni; Keith M Erikson; Dejan Milatovic; Aaron B Bowman; Michael Aschner
Journal:  J Neurochem       Date:  2009-12-09       Impact factor: 5.372

Review 9.  Manganese flux across the blood-brain barrier.

Authors:  Robert A Yokel
Journal:  Neuromolecular Med       Date:  2009-11-10       Impact factor: 3.843

10.  Effects of p-Aminosalicylic acid on the neurotoxicity of manganese on the dopaminergic innervation of the cilia of the lateral cells of the gill of the bivalve mollusc, Crassostrea virginica.

Authors:  Michael Nelson; Turkesha Huggins; Roshney Licorish; Margaret A Carroll; Edward J Catapane
Journal:  Comp Biochem Physiol C Toxicol Pharmacol       Date:  2010-03       Impact factor: 3.228

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