@ARTICLE{TreeBASE2Ref26421,
author = {Peter A Bain},
title = {De novo assembly and analysis of changes in the protein-coding transcriptome of the freshwater shrimp Paratya australiensis (Decapoda: Atyidae) in response to acid sulfate drainage water},
year = {2016},
keywords = {Decapod crustaceans, aquatic toxicology, transcriptomics, acid sulfate soils, toxicogenomics},
doi = {},
url = {http://},
pmid = {},
journal = {BMC Genomics},
volume = {},
number = {},
pages = {},
abstract = {Background: The atyid shrimp Paratya australiensis occurs in surface freshwater habitats throughout eastern Australia and has been used to study the ecotoxicology of contaminants such as pesticides and metals. The acidification of surface water that can occur after acid sulfate material in soils and sediments is oxidised and subsequently re-wetted is a serious environmental issue in coastal regions and inland riverine floodplains worldwide. Solubilisation of soil-associated minerals can result in high waterborne concentrations of mineral salts and dissolved metals, which together with low pH represent a potential threat to aquatic ecosystems in affected regions. The aims of the present study were to gain insight into stress responses induced by exposure to acid drainage water (ADW) in P. australiensis by determining changes in the abundance of protein-coding transcripts and to generate a comprehensive transcriptomic resource to facilitate further research into gene regulation or protein structure and function in this species. Adult P. australiensis were exposed for 24 h to undiluted ADW, 50% ADW diluted in river water, or to river water as control, and high-throughput mRNA sequencing (RNA-Seq) conducted on whole-body tissues. A reference transcriptome was generated using de novo assembly and putative protein-coding regions were identified and annotated. Changes in transcript abundance in response to ADW exposure were determined by aligning reads to the reference transcriptome and quantifying coverage.
Results: A high proportion of arthropod benchmarking universal single-copy orthologues were present in the reference transcriptome. Functions associated with cuticle biosynthesis and oxidative stress were significantly enriched in the lists of transcripts exhibiting differential abundance in either direction after exposure to 50% or 100% ADW. Transcripts involved in osmoregulation exhibited decreased abundance following exposure to ADW. The transcriptome contained full-length coding sequences for numerous proteins known to be involved in environmental response pathways, including two putative metallothioneins, four glutathione peroxidases and 19 nuclear receptors.
Conclusions: The results of the present study provide insight into stress response pathways induced in crustaceans by short-term exposure to multiple stressors present in ADW such as low pH, high salinity and dissolved metals, and represent a resource for future toxicogenomics and protein functional studies in P. australiensis.
}
}
Matrix 38542 of Study 19998

Citation title:
"De novo assembly and analysis of changes in the protein-coding transcriptome of the freshwater shrimp Paratya australiensis (Decapoda: Atyidae) in response to acid sulfate drainage water".

Study name:
"De novo assembly and analysis of changes in the protein-coding transcriptome of the freshwater shrimp Paratya australiensis (Decapoda: Atyidae) in response to acid sulfate drainage water".

This study is part of submission 19998
(Status: Published).
Matrices
Title: Paratya australiensis GPx
Rows
Taxon Label |
Row Segments |
Characters 1?–30 |
Oryzias latipes GPx3 |
(none)
|
SIYKYHAKTLNGSQTVNFSDYIGKSVLFVN |
Oreochromis niloticus GPx3 |
(none)
|
TIYKYRAKTLNGSQTVNFSDYAGKAVLFVN |
Danio rerio GPx3 |
(none)
|
SFHNYGAKTINGTQFIPFSHYAGKHVLVVN |
Homo sapiens GPx3 |
(none)
|
TIYEYGALTIDGEEYIPFKQYAGKYVLFVN |
Macaca fuscata fuscata GPx3 |
(none)
|
TIYEYGALTIDGEEYIPFKQYIGKYVLFVN |
Rattus norvegicus GPx3 |
(none)
|
TIYEYGALTIDGEEYIPFKQYAGKYILFVN |
Mus musculus GPx6 |
(none)
|
TVYEYGANTIDGGEFVNFQQYAGKHILFVN |
Rattus norvegicus GPx6 |
(none)
|
TVYEYGANTLDGGEYVQFQQYAGKHILFVN |
Metapenaeus ensis GPx |
(none)
|
-------MALHEDKRIPLSEYSGKVVLIVN |
Limulus polyphemus GPx-like |
(none)
|
SIYDYAVPDILQEKNISFSDFRGKVVLVVN |
Paratya australiensis TR41138|c2_g1_i1|m.32138 |
(none)
|
TIYDFESPDLFEERNVSLSDYKGKVVLIVN |
Paratya australiensis TR41138|c2_g1_i2|m.32139 |
(none)
|
TIYDFESPDLFEERNVSLSDYKGKVVLIVN |
Tetranychus urticae GPx-like |
(none)
|
-IYDYSIKDIYQENDISLGDHQSKAILLVN |
Parasteatoda tepidariorum GPx-like |
(none)
|
NIYNYTLPDILQTRNISLSEFRGKHVLIVN |
Paratya australiensis TR11369|c0_g1_i1|m.1547 |
(none)
|
-FYQFSANTLNGSTPISFEDYRGKVVLVYN |
Paratya australiensis TR12356|c0_g1_i1|m.1706 |
(none)
|
-FYQFSAQLLNGSETINFSDYQGKVVLVYN |
Penaeus monodon GPx3 |
(none)
|
-FYQFSAKTLNGSNLIDFEEYRGKVLLVAN |
Procambarus clarkii GPx |
(none)
|
-------MSLENGTDVSFEEFRGKVVLVIN |
Caenorhabditis elegans GPx3 |
(none)
|
-IFDFQIETLQG-EYTDLSQYRGKVILLVN |
Homo sapiens GPx1 |
(none)
|
SVYAFSARPLAGGEPVSLGSLRGKVLLIEN |
Pongo pygmaeus GPx1 |
(none)
|
SVYSFSARPLAGGEPVSLGSLRGKVLLIEN |
Macaca fuscata fuscata GPx1 |
(none)
|
SVYAFSARPLAGGEPVSLGSLRGKVLLIEN |
Mus musculus GPx1 |
(none)
|
TVYAFSARPLTGGEPVSLGSLRGKVLLIEN |
Homo sapiens GPx2 |
(none)
|
SFYDLSAISLDG-EKVDFNTFRGRAVLIEN |
Pongo pygmaeus GPx2 |
(none)
|
SFYDLSAISLDG-EKVDFNTFRGRAVLIEN |
Macaca fuscata fuscata GPx2 |
(none)
|
SFYDLSAISLDG-EKVDFNTFRGRAVLIEN |
Homo sapiens GPx8 |
(none)
|
SFYAFEVKDAKG-RTVSLEKYKGKVSLVVN |
Mus musculus GPx8 |
(none)
|
SFYSFEVKDAKG-RTVSLEKFKGKASLVVN |
Bos taurus GPx7 |
(none)
|
DFYDFKAVNIRG-KLVSLEKYRGSVSLVVN |
Rattus norvegicus GPx4 |
(none)
|
SMHEFAAKDIDG-HMVCLDKYRGCVCIVTN |
Mus musculus GPx4 |
(none)
|
SMHEFSAKDIDG-HMVCLDKYRGFVCIVTN |
Macaca fuscata fuscata GPx4 |
(none)
|
SMHEFSAKDIDG-HMVNLDKYRGFVCIVTN |
Columns
None of the columns has a description.