Oyster Shell Proteins Originate from Multiple Organs and Their Probable Transport Pathway to the Shell Formation Front.

Mollusk shell is one kind of potential biomaterial, but its vague mineralization mechanism hinders its further application. Mollusk shell matrix proteins are important functional components that are embedded in the shell, which play important roles in shell formation. The proteome of the oyster shel...

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Main Authors: Xiaotong Wang, Li Li, Yabing Zhu, Yishuai Du, Xiaorui Song, Yuanxin Chen, Ronglian Huang, Huayong Que, Xiaodong Fang, Guofan Zhang
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2013-01-01
Series:PLoS ONE
Online Access:http://europepmc.org/articles/PMC3686672?pdf=render
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spelling doaj-1dc810b1d63e4aa18505c46d793035c82020-11-25T02:05:56ZengPublic Library of Science (PLoS)PLoS ONE1932-62032013-01-0186e6652210.1371/journal.pone.0066522Oyster Shell Proteins Originate from Multiple Organs and Their Probable Transport Pathway to the Shell Formation Front.Xiaotong WangLi LiYabing ZhuYishuai DuXiaorui SongYuanxin ChenRonglian HuangHuayong QueXiaodong FangGuofan ZhangMollusk shell is one kind of potential biomaterial, but its vague mineralization mechanism hinders its further application. Mollusk shell matrix proteins are important functional components that are embedded in the shell, which play important roles in shell formation. The proteome of the oyster shell had been determined based on the oyster genome sequence by our group and gives the chance for further deep study in this area. The classical model of shell formation posits that the shell proteins are mantle-secreted. But, in this study, we further analyzed the shell proteome data in combination with organ transcriptome data and we found that the shell proteins may be produced by multiple organs though the mantle is still the most important organ for shell formation. To identify the transport pathways of these shell proteins not in classical model of shell formation, we conducted a shell damage experiment and we determined the shell-related gene set to identify the possible transport pathways from multiple organs to the shell formation front. We also found that there may exist a remodeling mechanism in the process of shell formation. Based on these results along with some published results, we proposed a new immature model, which will help us think about the mechanism of shell formation in a different way.http://europepmc.org/articles/PMC3686672?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Xiaotong Wang
Li Li
Yabing Zhu
Yishuai Du
Xiaorui Song
Yuanxin Chen
Ronglian Huang
Huayong Que
Xiaodong Fang
Guofan Zhang
spellingShingle Xiaotong Wang
Li Li
Yabing Zhu
Yishuai Du
Xiaorui Song
Yuanxin Chen
Ronglian Huang
Huayong Que
Xiaodong Fang
Guofan Zhang
Oyster Shell Proteins Originate from Multiple Organs and Their Probable Transport Pathway to the Shell Formation Front.
PLoS ONE
author_facet Xiaotong Wang
Li Li
Yabing Zhu
Yishuai Du
Xiaorui Song
Yuanxin Chen
Ronglian Huang
Huayong Que
Xiaodong Fang
Guofan Zhang
author_sort Xiaotong Wang
title Oyster Shell Proteins Originate from Multiple Organs and Their Probable Transport Pathway to the Shell Formation Front.
title_short Oyster Shell Proteins Originate from Multiple Organs and Their Probable Transport Pathway to the Shell Formation Front.
title_full Oyster Shell Proteins Originate from Multiple Organs and Their Probable Transport Pathway to the Shell Formation Front.
title_fullStr Oyster Shell Proteins Originate from Multiple Organs and Their Probable Transport Pathway to the Shell Formation Front.
title_full_unstemmed Oyster Shell Proteins Originate from Multiple Organs and Their Probable Transport Pathway to the Shell Formation Front.
title_sort oyster shell proteins originate from multiple organs and their probable transport pathway to the shell formation front.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2013-01-01
description Mollusk shell is one kind of potential biomaterial, but its vague mineralization mechanism hinders its further application. Mollusk shell matrix proteins are important functional components that are embedded in the shell, which play important roles in shell formation. The proteome of the oyster shell had been determined based on the oyster genome sequence by our group and gives the chance for further deep study in this area. The classical model of shell formation posits that the shell proteins are mantle-secreted. But, in this study, we further analyzed the shell proteome data in combination with organ transcriptome data and we found that the shell proteins may be produced by multiple organs though the mantle is still the most important organ for shell formation. To identify the transport pathways of these shell proteins not in classical model of shell formation, we conducted a shell damage experiment and we determined the shell-related gene set to identify the possible transport pathways from multiple organs to the shell formation front. We also found that there may exist a remodeling mechanism in the process of shell formation. Based on these results along with some published results, we proposed a new immature model, which will help us think about the mechanism of shell formation in a different way.
url http://europepmc.org/articles/PMC3686672?pdf=render
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