Literature DB >> 24209443

Manganese and the brain.

Karin Tuschl1, Philippa B Mills, Peter T Clayton.   

Abstract

Manganese (Mn) is an essential trace metal that is pivotal for normal cell function and metabolism. Its homeostasis is tightly regulated; however, the mechanisms of Mn homeostasis are poorly characterized. While a number of proteins such as the divalent metal transporter 1, the transferrin/transferrin receptor complex, the ZIP family metal transporters ZIP-8 and ZIP-14, the secretory pathway calcium ATPases SPCA1 and SPCA2, ATP13A2, and ferroportin have been suggested to play a role in Mn transport, the degree that each of them contributes to Mn homeostasis has still to be determined. The recent discovery of SLC30A10 as a crucial Mn transporter in humans has shed further light on our understanding of Mn transport across the cell. Although essential, Mn is toxic at high concentrations. Mn neurotoxicity has been attributed to impaired dopaminergic (DAergic), glutamatergic and GABAergic transmission, mitochondrial dysfunction, oxidative stress, and neuroinflammation. As a result of preferential accumulation of Mn in the DAergic cells of the basal ganglia, particularly the globus pallidus, Mn toxicity causes extrapyramidal motor dysfunction. Firstly described as "manganism" in miners during the nineteenth century, this movement disorder resembles Parkinson's disease characterized by hypokinesia and postural instability. To date, a variety of acquired causes of brain Mn accumulation can be distinguished from an autosomal recessively inherited disorder of Mn metabolism caused by mutations in the SLC30A10 gene. Both, acquired and inherited hypermanganesemia, lead to Mn deposition in the basal ganglia associated with pathognomonic magnetic resonance imaging appearances of hyperintense basal ganglia on T1-weighted images. Current treatment strategies for Mn toxicity combine chelation therapy to reduce the body Mn load and iron (Fe) supplementation to reduce Mn binding to proteins that interact with both Mn and Fe. This chapter summarizes our current understanding of Mn homeostasis and the mechanisms of Mn toxicity and highlights the clinical disorders associated with Mn neurotoxicity.
© 2013 Elsevier Inc. All rights reserved.

Entities:  

Keywords:  Iron; Manganese; Manganism; Neurotoxicity; Parkinsonism; SLC30A10

Mesh:

Substances:

Year:  2013        PMID: 24209443     DOI: 10.1016/B978-0-12-410502-7.00013-2

Source DB:  PubMed          Journal:  Int Rev Neurobiol        ISSN: 0074-7742            Impact factor:   3.230


  58 in total

1.  Manganese transporter genetics and sex modify the association between environmental manganese exposure and neurobehavioral outcomes in children.

Authors:  Karin Broberg; Tahir Taj; Stefano Guazzetti; Marco Peli; Giuseppa Cagna; Daniela Pineda; Donatella Placidi; Robert O Wright; Donald R Smith; Roberto G Lucchini; Karin Wahlberg
Journal:  Environ Int       Date:  2019-06-22       Impact factor: 9.621

Review 2.  Neurotoxicity Linked to Dysfunctional Metal Ion Homeostasis and Xenobiotic Metal Exposure: Redox Signaling and Oxidative Stress.

Authors:  Carla Garza-Lombó; Yanahi Posadas; Liliana Quintanar; María E Gonsebatt; Rodrigo Franco
Journal:  Antioxid Redox Signal       Date:  2018-03-28       Impact factor: 8.401

3.  Assessment of heavy metals (total chromium, lead, and manganese) contamination of residential soil and homegrown vegetables near a former chemical manufacturing facility in Tarnaveni, Romania.

Authors:  Razvan G Mihaileanu; Iulia A Neamtiu; Molly Fleming; Cristian Pop; Michael S Bloom; Carmen Roba; Mihai Surcel; Florin Stamatian; Eugen Gurzau
Journal:  Environ Monit Assess       Date:  2018-12-08       Impact factor: 2.513

Review 4.  Exposure, epidemiology, and mechanism of the environmental toxicant manganese.

Authors:  Pan Chen; Megan Culbreth; Michael Aschner
Journal:  Environ Sci Pollut Res Int       Date:  2016-04-22       Impact factor: 4.223

5.  Potential of N-acetylated-para-aminosalicylic acid to accelerate manganese enhancement decline for long-term MEMRI in rodent brain.

Authors:  Aditya N Bade; Biyun Zhou; JoEllyn McMillan; Prabagaran Narayanasamy; Ram Veerubhotla; Howard E Gendelman; Michael D Boska; Yutong Liu
Journal:  J Neurosci Methods       Date:  2015-05-22       Impact factor: 2.390

6.  MICU1 imparts the mitochondrial uniporter with the ability to discriminate between Ca2+ and Mn2+.

Authors:  Kimberli J Kamer; Yasemin Sancak; Yevgenia Fomina; Joshua D Meisel; Dipayan Chaudhuri; Zenon Grabarek; Vamsi K Mootha
Journal:  Proc Natl Acad Sci U S A       Date:  2018-08-06       Impact factor: 11.205

7.  The role of NLRP3-CASP1 in inflammasome-mediated neuroinflammation and autophagy dysfunction in manganese-induced, hippocampal-dependent impairment of learning and memory ability.

Authors:  Diya Wang; Jianbin Zhang; Wenkai Jiang; Zipeng Cao; Fang Zhao; Tongjian Cai; Michael Aschner; Wenjing Luo
Journal:  Autophagy       Date:  2017-02-27       Impact factor: 16.016

8.  The effects of pdr1, djr1.1 and pink1 loss in manganese-induced toxicity and the role of α-synuclein in C. elegans.

Authors:  Julia Bornhorst; Sudipta Chakraborty; Sören Meyer; Hanna Lohren; Sigrid Grosse Brinkhaus; Adam L Knight; Kim A Caldwell; Guy A Caldwell; Uwe Karst; Tanja Schwerdtle; Aaron Bowman; Michael Aschner
Journal:  Metallomics       Date:  2014-01-22       Impact factor: 4.526

9.  Alpha-synuclein oligomerization in manganese-induced nerve cell injury in brain slices: a role of NO-mediated S-nitrosylation of protein disulfide isomerase.

Authors:  Bin Xu; Cui-Hong Jin; Yu Deng; Wei Liu; Tian-Yao Yang; Shu Feng; Zhao-Fa Xu
Journal:  Mol Neurobiol       Date:  2014-04-29       Impact factor: 5.590

10.  Loss of pdr-1/parkin influences Mn homeostasis through altered ferroportin expression in C. elegans.

Authors:  Sudipta Chakraborty; Pan Chen; Julia Bornhorst; Tanja Schwerdtle; Fabian Schumacher; Burkhard Kleuser; Aaron B Bowman; Michael Aschner
Journal:  Metallomics       Date:  2015-03-13       Impact factor: 4.526

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