Dissociation of Axonal Neurofilament Content from Its Transport Rate

The axonal cytoskeleton of neurofilament (NF) is a long-lived network of fibrous elements believed to be a stationary structure maintained by a small pool of transported cytoskeletal precursors. Accordingly, it may be predicted that NF content in axons can vary independently from the transport rate...

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Veröffentlicht in:PloS one 2015-07, Vol.10 (7), p.e0133848-e0133848
Hauptverfasser: Yuan, Aidong, Hassinger, Linda, Rao, Mala V, Julien, Jean-Pierre, Miller, Christopher C J, Nixon, Ralph A
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creator Yuan, Aidong
Hassinger, Linda
Rao, Mala V
Julien, Jean-Pierre
Miller, Christopher C J
Nixon, Ralph A
description The axonal cytoskeleton of neurofilament (NF) is a long-lived network of fibrous elements believed to be a stationary structure maintained by a small pool of transported cytoskeletal precursors. Accordingly, it may be predicted that NF content in axons can vary independently from the transport rate of NF. In the present report, we confirm this prediction by showing that human NFH transgenic mice and transgenic mice expressing human NFL Ser55 (Asp) develop nearly identical abnormal patterns of NF accumulation and distribution in association with opposite changes in NF slow transport rates. We also show that the rate of NF transport in wild-type mice remains constant along a length of the optic axon where NF content varies 3-fold. Moreover, knockout mice lacking NFH develop even more extreme (6-fold) proximal to distal variation in NF number, which is associated with a normal wild-type rate of NF transport. The independence of regional NF content and NF transport is consistent with previous evidence suggesting that the rate of incorporation of transported NF precursors into a metabolically stable stationary cytoskeletal network is the major determinant of axonal NF content, enabling the generation of the striking local variations in NF number seen along axons.
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subjects Animals
Axonal Transport
Axons
Axons - metabolism
Biology
Cytoskeleton
Dementia
Dissociation
Female
Genetic engineering
Humans
Immunoglobulins
Intermediate Filaments - metabolism
Laboratory animals
Male
Medicine
Mice
Mice, Knockout
Mice, Transgenic
Neurochemistry
Neurosciences
Optic Nerve - metabolism
Phosphatase
Phosphorylation
Population
Predictions
Proteins
Psychiatry
Rodents
Transgenic mice
Transport rate
title Dissociation of Axonal Neurofilament Content from Its Transport Rate
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