Hundreds of researchers from 61 institutions have contributed to a collaborative sequence-based ecological study that is attempting to get a handle on the microalgae that populate the sea.
Unlike the prokaryotic bacteria, for which there is a database of thousands of complete genomes backed up by studies on phylogenetic relationships between molecular sequences, the number of available genomes for eukaryotes is small. Not to mention marine eukaryotes, which are poorly represented when it comes to genomics.
This study used mRNA sequencing to produce transcriptomes, an alternative to genome sequencing. Transcriptomes provide a starting point for generating a reference database for eukaryotic marine microbes – overcoming the need for resource-intensive genome sequencing. Thus, the Marine Microbial Eukaryotic Transcriptome Sequencing Project, or MMETSP, arose.

“This study is the first large-scale attempt to get reference data on marine eukaryotic plankton; that is, unicellular, microscopic organisms such as microalgae, whose genomes can be up to 100 times the size of the human genome,” said ARC Future Fellow, Associate Professor Shauna Murray, an expert on the genetics of marine biotoxins from UTS. “Because of the large size of their genomes, it has been virtually impossible to get genetic information to ‘catalogue’ these marine organisms, and therefore scientists have little data needed to answer fundamental questions about ocean productivity and the implications for both human and ecosystem health.”
The study created over 650 assembled, functionally annotated transcriptomes, mostly from the more abundant and ecologically significant microbial eukaryotes in the oceans.
The data, which are publicly available, have been assembled and annotated by homology with existing databases, which has provided baseline information on gene function.
Researchers nominated the species and strain they wanted to look at based on phylogeny, environmental and ecological importance, physiological impact, and other diverse criteria.
Associate Professor Murray and her Seafood Safety team within The Plant Functional Biology and Climate Change Cluster at UTS chose to look at a target marine algae species that has recently been a major problem for Australian fisheries and aquaculture industries.
The work provides some of the first insights into this diverse group of organisms, some of which produce marine biotoxins that have the potential to damage the seafood industry and impact human health.
The importance of research in this field is emphasised by data that suggests elevated seawater temperatures and disturbance to coral reefs are promoting the development of harmful algal blooms in the Asia-Pacific region.
“This collaboration is very significant for Australia because the data generated will aid in the design of novel genetic tools for detecting marine biotoxins. Next steps are to investigate similar organisms, and to use sophisticated bioinformatics tools to target genes and regions that may be useful for future toxin detection work,” said Associate Professor Murray.
The transcriptomes are readily available through the Camera Data Distribution Center, in which all MMETSP data have been automatically deposited.
The study was published in PLoS Biology.
[box type=”shadow” align=”alignleft” ]Keeling PJ, Burki F, Wilcox HM, Allam B, Allen EE, et al. (2014)
The Marine Microbial Eukaryote Transcriptome Sequencing Project (MMETSP): Illuminating the Functional Diversity of Eukaryotic Life in the Oceans through Transcriptome Sequencing.
PLoS Biol 12(6), e1001889. [
article][/fusion_text][/fusion_builder_column_inner][/fusion_builder_row_inner][/fusion_builder_column]
MMETSP Website
(read more…)
from Australian Life Scientist by Susan Williamson
Hundreds of researchers from 61 institutions have contributed to a collaborative sequence-based ecological study that is attempting to get a handle on the microalgae that populate the sea.
Unlike the prokaryotic bacteria, for which there is a database of thousands of complete genomes backed up by studies on phylogenetic relationships between molecular sequences, the number of available genomes for eukaryotes is small. Not to mention marine eukaryotes, which are poorly represented when it comes to genomics.
This study used mRNA sequencing to produce transcriptomes, an alternative to genome sequencing. Transcriptomes provide a starting point for generating a reference database for eukaryotic marine microbes – overcoming the need for resource-intensive genome sequencing. Thus, the Marine Microbial Eukaryotic Transcriptome Sequencing Project, or MMETSP, arose.
“This study is the first large-scale attempt to get reference data on marine eukaryotic plankton; that is, unicellular, microscopic organisms such as microalgae, whose genomes can be up to 100 times the size of the human genome,” said ARC Future Fellow, Associate Professor Shauna Murray, an expert on the genetics of marine biotoxins from UTS. “Because of the large size of their genomes, it has been virtually impossible to get genetic information to ‘catalogue’ these marine organisms, and therefore scientists have little data needed to answer fundamental questions about ocean productivity and the implications for both human and ecosystem health.”
The study created over 650 assembled, functionally annotated transcriptomes, mostly from the more abundant and ecologically significant microbial eukaryotes in the oceans.
The data, which are publicly available, have been assembled and annotated by homology with existing databases, which has provided baseline information on gene function.
Researchers nominated the species and strain they wanted to look at based on phylogeny, environmental and ecological importance, physiological impact, and other diverse criteria.
Associate Professor Murray and her Seafood Safety team within The Plant Functional Biology and Climate Change Cluster at UTS chose to look at a target marine algae species that has recently been a major problem for Australian fisheries and aquaculture industries.
The work provides some of the first insights into this diverse group of organisms, some of which produce marine biotoxins that have the potential to damage the seafood industry and impact human health.
The importance of research in this field is emphasised by data that suggests elevated seawater temperatures and disturbance to coral reefs are promoting the development of harmful algal blooms in the Asia-Pacific region.
“This collaboration is very significant for Australia because the data generated will aid in the design of novel genetic tools for detecting marine biotoxins. Next steps are to investigate similar organisms, and to use sophisticated bioinformatics tools to target genes and regions that may be useful for future toxin detection work,” said Associate Professor Murray.
The transcriptomes are readily available through the Camera Data Distribution Center, in which all MMETSP data have been automatically deposited.
The study was published in PLoS Biology.
[box type=”shadow” align=”alignleft” ]Keeling PJ, Burki F, Wilcox HM, Allam B, Allen EE, et al. (2014) The Marine Microbial Eukaryote Transcriptome Sequencing Project (MMETSP): Illuminating the Functional Diversity of Eukaryotic Life in the Oceans through Transcriptome Sequencing. PLoS Biol 12(6), e1001889. [article][/fusion_text][/fusion_builder_column_inner][/fusion_builder_row_inner][/fusion_builder_column]MMETSP Website
(read more…)
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from Australian Life Scientist by Susan Williamson
Hundreds of researchers from 61 institutions have contributed to a collaborative sequence-based ecological study that is attempting to get a handle on the microalgae that populate the sea.
Unlike the prokaryotic bacteria, for which there is a database of thousands of complete genomes backed up by studies on phylogenetic relationships between molecular sequences, the number of available genomes for eukaryotes is small. Not to mention marine eukaryotes, which are poorly represented when it comes to genomics.
This study used mRNA sequencing to produce transcriptomes, an alternative to genome sequencing. Transcriptomes provide a starting point for generating a reference database for eukaryotic marine microbes – overcoming the need for resource-intensive genome sequencing. Thus, the Marine Microbial Eukaryotic Transcriptome Sequencing Project, or MMETSP, arose.
“This study is the first large-scale attempt to get reference data on marine eukaryotic plankton; that is, unicellular, microscopic organisms such as microalgae, whose genomes can be up to 100 times the size of the human genome,” said ARC Future Fellow, Associate Professor Shauna Murray, an expert on the genetics of marine biotoxins from UTS. “Because of the large size of their genomes, it has been virtually impossible to get genetic information to ‘catalogue’ these marine organisms, and therefore scientists have little data needed to answer fundamental questions about ocean productivity and the implications for both human and ecosystem health.”
The study created over 650 assembled, functionally annotated transcriptomes, mostly from the more abundant and ecologically significant microbial eukaryotes in the oceans.
The data, which are publicly available, have been assembled and annotated by homology with existing databases, which has provided baseline information on gene function.
Researchers nominated the species and strain they wanted to look at based on phylogeny, environmental and ecological importance, physiological impact, and other diverse criteria.
Associate Professor Murray and her Seafood Safety team within The Plant Functional Biology and Climate Change Cluster at UTS chose to look at a target marine algae species that has recently been a major problem for Australian fisheries and aquaculture industries.
The work provides some of the first insights into this diverse group of organisms, some of which produce marine biotoxins that have the potential to damage the seafood industry and impact human health.
The importance of research in this field is emphasised by data that suggests elevated seawater temperatures and disturbance to coral reefs are promoting the development of harmful algal blooms in the Asia-Pacific region.
“This collaboration is very significant for Australia because the data generated will aid in the design of novel genetic tools for detecting marine biotoxins. Next steps are to investigate similar organisms, and to use sophisticated bioinformatics tools to target genes and regions that may be useful for future toxin detection work,” said Associate Professor Murray.
The transcriptomes are readily available through the Camera Data Distribution Center, in which all MMETSP data have been automatically deposited.
The study was published in PLoS Biology.
[box type=”shadow” align=”alignleft” ]Keeling PJ, Burki F, Wilcox HM, Allam B, Allen EE, et al. (2014) The Marine Microbial Eukaryote Transcriptome Sequencing Project (MMETSP): Illuminating the Functional Diversity of Eukaryotic Life in the Oceans through Transcriptome Sequencing. PLoS Biol 12(6), e1001889. [article][/fusion_text][/fusion_builder_column_inner][/fusion_builder_row_inner][/fusion_builder_column]MMETSP Website
(read more…)
Related Posts
RNA sequencing reveals functional chimeric mRNAs in mammalian immunity
Atlas of the brain’s striatum could guide researchers to new drug treatments
Immune cells offer insights on billion-dollar virus
A functionally integrated cross-tissue alternative splicing program during short-term calorie restriction
Dietary oxidized plant sterol shifts macrophage state to fuel aortic inflammation
Unlocking the past – new method helps gain insights into old tissue
Novel AI model trained on RNA-Seq data accurately detects key gene mutations and predicts biomarkers across 32 cancer types
Transcriptomic aging clock reveals age-related molecular patterns in opioid dependence
RNA sequencing helps predict stem cell transplant benefit in pediatric AML
Protein ‘switch’ determines whether liposarcoma cells will become aggressive
Precursor tRNAs sense temperature changes: heat stress-induced capped pre-tRNAs suppress protein synthesis
Ketamine increases neuroplasticity in female mice but not in males
Somatic mutations linked to vascular damage in progeria
Scientists map dormant cancer cells’ hideouts, opening new targets for treatment
Soluble signals released by neighboring cells direct how the human kidney is built
Genetics influence how cancer arises – and how it evolves
RNA-based testing uncovers extraordinary diversity in mutations driving lung cancer
Study offers new insights into why ex-smokers remain at elevated risk of lung disease
Learning the grammar of gene regulation
New findings could transform new treatment for rare brain tumor astroblastoma
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