home.social

#eukaryotes — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #eukaryotes, aggregated by home.social.

  1. Pipeline release! nf-core/metatdenovo v1.4.0 - Download improvements and more!
    Assembly and annotation of metatranscriptomic or metagenomic data for prokaryotic, eukaryotic and viruses.
    Please see the changelog: github.com/nf-core/metatdenovo

    #eukaryotes #metagenomics #metatranscriptomics #prokaryotes #viruses #nfcore #openscience #nextflow #bioinformatics

  2. Pipeline release! nf-core/metatdenovo v1.4.0 - Download improvements and more!
    Assembly and annotation of metatranscriptomic or metagenomic data for prokaryotic, eukaryotic and viruses.
    Please see the changelog: github.com/nf-core/metatdenovo

    #eukaryotes #metagenomics #metatranscriptomics #prokaryotes #viruses #nfcore #openscience #nextflow #bioinformatics

  3. Pipeline release! nf-core/metatdenovo v1.4.0 - Download improvements and more!
    Assembly and annotation of metatranscriptomic or metagenomic data for prokaryotic, eukaryotic and viruses.
    Please see the changelog: github.com/nf-core/metatdenovo

    #eukaryotes #metagenomics #metatranscriptomics #prokaryotes #viruses #nfcore #openscience #nextflow #bioinformatics

  4. Pipeline release! nf-core/metatdenovo v1.4.0 - Download improvements and more!
    Assembly and annotation of metatranscriptomic or metagenomic data for prokaryotic, eukaryotic and viruses.
    Please see the changelog: github.com/nf-core/metatdenovo

    #eukaryotes #metagenomics #metatranscriptomics #prokaryotes #viruses #nfcore #openscience #nextflow #bioinformatics

  5. Pipeline release! nf-core/metatdenovo v1.4.0 - Download improvements and more!
    Assembly and annotation of metatranscriptomic or metagenomic data for prokaryotic, eukaryotic and viruses.
    Please see the changelog: github.com/nf-core/metatdenovo

    #eukaryotes #metagenomics #metatranscriptomics #prokaryotes #viruses #nfcore #openscience #nextflow #bioinformatics

  6. 10-Jun-2026
    How our #cells evolved: #Genome analysis rewrites the origin of the first #eukaryotes
    Using the MareNostrum supercomputer, researchers at BSC-CNS and IRB Barcelona discover that the first complex cells emerged from a gradual, millions-year alliance involving giant #viruses and multiple bacterial groups

    eurekalert.org/news-releases/1

    #science #evolution #astrobiology #complexity #symbiosis

  7. 10-Jun-2026
    How our #cells evolved: #Genome analysis rewrites the origin of the first #eukaryotes
    Using the MareNostrum supercomputer, researchers at BSC-CNS and IRB Barcelona discover that the first complex cells emerged from a gradual, millions-year alliance involving giant #viruses and multiple bacterial groups

    eurekalert.org/news-releases/1

    #science #evolution #astrobiology #complexity #symbiosis

  8. 10-Jun-2026
    How our #cells evolved: #Genome analysis rewrites the origin of the first #eukaryotes
    Using the MareNostrum supercomputer, researchers at BSC-CNS and IRB Barcelona discover that the first complex cells emerged from a gradual, millions-year alliance involving giant #viruses and multiple bacterial groups

    eurekalert.org/news-releases/1

    #science #evolution #astrobiology #complexity #symbiosis

  9. 10-Jun-2026
    How our #cells evolved: #Genome analysis rewrites the origin of the first #eukaryotes
    Using the MareNostrum supercomputer, researchers at BSC-CNS and IRB Barcelona discover that the first complex cells emerged from a gradual, millions-year alliance involving giant #viruses and multiple bacterial groups

    eurekalert.org/news-releases/1

    #science #evolution #astrobiology #complexity #symbiosis

  10. 10-Jun-2026
    How our #cells evolved: #Genome analysis rewrites the origin of the first #eukaryotes
    Using the MareNostrum supercomputer, researchers at BSC-CNS and IRB Barcelona discover that the first complex cells emerged from a gradual, millions-year alliance involving giant #viruses and multiple bacterial groups

    eurekalert.org/news-releases/1

    #science #evolution #astrobiology #complexity #symbiosis

  11. The earliest known #eukaryotes, the ancestors of all complex #life on Earth, lived in oxygenated, shallow marine environments nearly 1.7 billion years ago.

    The earliest eukaryotes for which we have #fossils lived in predominantly near-shore, oxygenated, benthic (on the seafloor) settings.

    This implies that the availability of #oxygen was dictating eukaryote #evolution from its early stages.

    #biology #astrobiology
    astrobiology.com/2026/05/early

    Paper by Lechte et al. (2026):
    nature.com/articles/s41586-026

  12. The earliest known #eukaryotes, the ancestors of all complex #life on Earth, lived in oxygenated, shallow marine environments nearly 1.7 billion years ago.

    The earliest eukaryotes for which we have #fossils lived in predominantly near-shore, oxygenated, benthic (on the seafloor) settings.

    This implies that the availability of #oxygen was dictating eukaryote #evolution from its early stages.

    #biology #astrobiology
    astrobiology.com/2026/05/early

    Paper by Lechte et al. (2026):
    nature.com/articles/s41586-026

  13. The earliest known #eukaryotes, the ancestors of all complex #life on Earth, lived in oxygenated, shallow marine environments nearly 1.7 billion years ago.

    The earliest eukaryotes for which we have #fossils lived in predominantly near-shore, oxygenated, benthic (on the seafloor) settings.

    This implies that the availability of #oxygen was dictating eukaryote #evolution from its early stages.

    #biology #astrobiology
    astrobiology.com/2026/05/early

    Paper by Lechte et al. (2026):
    nature.com/articles/s41586-026

  14. The earliest known #eukaryotes, the ancestors of all complex #life on Earth, lived in oxygenated, shallow marine environments nearly 1.7 billion years ago.

    The earliest eukaryotes for which we have #fossils lived in predominantly near-shore, oxygenated, benthic (on the seafloor) settings.

    This implies that the availability of #oxygen was dictating eukaryote #evolution from its early stages.

    #biology #astrobiology
    astrobiology.com/2026/05/early

    Paper by Lechte et al. (2026):
    nature.com/articles/s41586-026

  15. The earliest known #eukaryotes, the ancestors of all complex #life on Earth, lived in oxygenated, shallow marine environments nearly 1.7 billion years ago.

    The earliest eukaryotes for which we have #fossils lived in predominantly near-shore, oxygenated, benthic (on the seafloor) settings.

    This implies that the availability of #oxygen was dictating eukaryote #evolution from its early stages.

    #biology #astrobiology
    astrobiology.com/2026/05/early

    Paper by Lechte et al. (2026):
    nature.com/articles/s41586-026

  16. How #Microbes Got Their Crawl
    #Prokaryotes arose more than four billion years ago. #Eukaryotes emerged much later, somewhere between 2.5 and two billion years ago. How complex eukaryotes evolved from simpler prokaryotes has left scientists scratching their heads for decades.
    In the oceans and on land, scientists are discovering rare, transitional organisms that bridge the gap between Earth’s simplest cells and today’s complex ones.
    nytimes.com/2026/02/18/science
    archive.ph/0iskp

  17. How #Microbes Got Their Crawl
    #Prokaryotes arose more than four billion years ago. #Eukaryotes emerged much later, somewhere between 2.5 and two billion years ago. How complex eukaryotes evolved from simpler prokaryotes has left scientists scratching their heads for decades.
    In the oceans and on land, scientists are discovering rare, transitional organisms that bridge the gap between Earth’s simplest cells and today’s complex ones.
    nytimes.com/2026/02/18/science
    archive.ph/0iskp

  18. How #Microbes Got Their Crawl
    #Prokaryotes arose more than four billion years ago. #Eukaryotes emerged much later, somewhere between 2.5 and two billion years ago. How complex eukaryotes evolved from simpler prokaryotes has left scientists scratching their heads for decades.
    In the oceans and on land, scientists are discovering rare, transitional organisms that bridge the gap between Earth’s simplest cells and today’s complex ones.
    nytimes.com/2026/02/18/science
    archive.ph/0iskp

  19. How Got Their Crawl
    arose more than four billion years ago. emerged much later, somewhere between 2.5 and two billion years ago. How complex eukaryotes evolved from simpler prokaryotes has left scientists scratching their heads for decades.
    In the oceans and on land, scientists are discovering rare, transitional organisms that bridge the gap between Earth’s simplest cells and today’s complex ones.
    nytimes.com/2026/02/18/science
    archive.ph/0iskp

  20. How #Microbes Got Their Crawl
    #Prokaryotes arose more than four billion years ago. #Eukaryotes emerged much later, somewhere between 2.5 and two billion years ago. How complex eukaryotes evolved from simpler prokaryotes has left scientists scratching their heads for decades.
    In the oceans and on land, scientists are discovering rare, transitional organisms that bridge the gap between Earth’s simplest cells and today’s complex ones.
    nytimes.com/2026/02/18/science
    archive.ph/0iskp

  21. Every once in awhile I catch up on the state of knowledge about really early evolution and there's at least one phylogeny where you have to hunt for the eukaryotes

    The archaeal roots of eukaryotic life doi.org/10.1073/pnas.2516062123

    #science #evolution #eukaryotes

  22. Every once in awhile I catch up on the state of knowledge about really early evolution and there's at least one phylogeny where you have to hunt for the eukaryotes

    The archaeal roots of eukaryotic life doi.org/10.1073/pnas.2516062123

    #science #evolution #eukaryotes

  23. Every once in awhile I catch up on the state of knowledge about really early evolution and there's at least one phylogeny where you have to hunt for the eukaryotes

    The archaeal roots of eukaryotic life doi.org/10.1073/pnas.2516062123

    #science #evolution #eukaryotes

  24. Every once in awhile I catch up on the state of knowledge about really early evolution and there's at least one phylogeny where you have to hunt for the eukaryotes

    The archaeal roots of eukaryotic life doi.org/10.1073/pnas.2516062123

    #science #evolution #eukaryotes

  25. Every once in awhile I catch up on the state of knowledge about really early evolution and there's at least one phylogeny where you have to hunt for the eukaryotes

    The archaeal roots of eukaryotic life doi.org/10.1073/pnas.2516062123

    #science #evolution #eukaryotes

  26. `Through genome-wide CRISPR screening, we identified the RNA-binding protein DHX29 as a critical regulator of codon-dependent gene expression. Cryogenic electron microscopy and selective ribosome profiling demonstrated that DHX29 directly interacts with the A-site entrance of the translating 80S ribosome... These findings establish a mechanistic link between synonymous codon usage and the regulation of gene expression.`

    dx.doi.org/10.1126/science.adw

    #codon #synonymousCodon #eukaryotes #mRNA #DHX29

  27. `Through genome-wide CRISPR screening, we identified the RNA-binding protein DHX29 as a critical regulator of codon-dependent gene expression. Cryogenic electron microscopy and selective ribosome profiling demonstrated that DHX29 directly interacts with the A-site entrance of the translating 80S ribosome... These findings establish a mechanistic link between synonymous codon usage and the regulation of gene expression.`

    dx.doi.org/10.1126/science.adw

    #codon #synonymousCodon #eukaryotes #mRNA #DHX29

  28. `Through genome-wide CRISPR screening, we identified the RNA-binding protein DHX29 as a critical regulator of codon-dependent gene expression. Cryogenic electron microscopy and selective ribosome profiling demonstrated that DHX29 directly interacts with the A-site entrance of the translating 80S ribosome... These findings establish a mechanistic link between synonymous codon usage and the regulation of gene expression.`

    dx.doi.org/10.1126/science.adw

    #codon #synonymousCodon #eukaryotes #mRNA #DHX29

  29. `Through genome-wide CRISPR screening, we identified the RNA-binding protein DHX29 as a critical regulator of codon-dependent gene expression. Cryogenic electron microscopy and selective ribosome profiling demonstrated that DHX29 directly interacts with the A-site entrance of the translating 80S ribosome... These findings establish a mechanistic link between synonymous codon usage and the regulation of gene expression.`

    dx.doi.org/10.1126/science.adw

    #codon #synonymousCodon #eukaryotes #mRNA #DHX29

  30. `Through genome-wide CRISPR screening, we identified the RNA-binding protein DHX29 as a critical regulator of codon-dependent gene expression. Cryogenic electron microscopy and selective ribosome profiling demonstrated that DHX29 directly interacts with the A-site entrance of the translating 80S ribosome... These findings establish a mechanistic link between synonymous codon usage and the regulation of gene expression.`

    dx.doi.org/10.1126/science.adw

    #codon #synonymousCodon #eukaryotes #mRNA #DHX29

  31. How these strange #cells may explain the origin of complex life
    Asgard archaea bear traits that hint at how #eukaryotes emerged
    #Archaea: single-celled organisms that look much like bacteria. 10ya, new group called #AsgardArchaea was identified in sediments from Atlantic. Nothing like us: They live mostly in places with little or no oxygen, and almost unbelievably ancient, perhaps 3B yr. Yet their #DNA shows they are close to humans on tree of life
    sciencenews.org/article/cells-
    archive.ph/DysBo

  32. How these strange #cells may explain the origin of complex life
    Asgard archaea bear traits that hint at how #eukaryotes emerged
    #Archaea: single-celled organisms that look much like bacteria. 10ya, new group called #AsgardArchaea was identified in sediments from Atlantic. Nothing like us: They live mostly in places with little or no oxygen, and almost unbelievably ancient, perhaps 3B yr. Yet their #DNA shows they are close to humans on tree of life
    sciencenews.org/article/cells-
    archive.ph/DysBo

  33. How these strange #cells may explain the origin of complex life
    Asgard archaea bear traits that hint at how #eukaryotes emerged
    #Archaea: single-celled organisms that look much like bacteria. 10ya, new group called #AsgardArchaea was identified in sediments from Atlantic. Nothing like us: They live mostly in places with little or no oxygen, and almost unbelievably ancient, perhaps 3B yr. Yet their #DNA shows they are close to humans on tree of life
    sciencenews.org/article/cells-
    archive.ph/DysBo

  34. How these strange may explain the origin of complex life
    Asgard archaea bear traits that hint at how emerged
    : single-celled organisms that look much like bacteria. 10ya, new group called was identified in sediments from Atlantic. Nothing like us: They live mostly in places with little or no oxygen, and almost unbelievably ancient, perhaps 3B yr. Yet their shows they are close to humans on tree of life
    sciencenews.org/article/cells-
    archive.ph/DysBo

  35. How these strange #cells may explain the origin of complex life
    Asgard archaea bear traits that hint at how #eukaryotes emerged
    #Archaea: single-celled organisms that look much like bacteria. 10ya, new group called #AsgardArchaea was identified in sediments from Atlantic. Nothing like us: They live mostly in places with little or no oxygen, and almost unbelievably ancient, perhaps 3B yr. Yet their #DNA shows they are close to humans on tree of life
    sciencenews.org/article/cells-
    archive.ph/DysBo

  36. 🌟🍃BREAKING: Scientists discover a new virus, and now they think it holds the secret to life itself! Who knew a giant amoeba-infecting bug could be the Rosetta Stone of eukaryotes? Next up: Amoebas demand royalties for their starring role in #evolution. 😲🦠
    tus.ac.jp/en/mediarelations/ar #newvirus #eukaryotes #scientificdiscovery #amoeba #breakthroughs #HackerNews #ngated

  37. 🌟🍃BREAKING: Scientists discover a new virus, and now they think it holds the secret to life itself! Who knew a giant amoeba-infecting bug could be the Rosetta Stone of eukaryotes? Next up: Amoebas demand royalties for their starring role in #evolution. 😲🦠
    tus.ac.jp/en/mediarelations/ar #newvirus #eukaryotes #scientificdiscovery #amoeba #breakthroughs #HackerNews #ngated

  38. 🌟🍃BREAKING: Scientists discover a new virus, and now they think it holds the secret to life itself! Who knew a giant amoeba-infecting bug could be the Rosetta Stone of eukaryotes? Next up: Amoebas demand royalties for their starring role in #evolution. 😲🦠
    tus.ac.jp/en/mediarelations/ar #newvirus #eukaryotes #scientificdiscovery #amoeba #breakthroughs #HackerNews #ngated

  39. 🌟🍃BREAKING: Scientists discover a new virus, and now they think it holds the secret to life itself! Who knew a giant amoeba-infecting bug could be the Rosetta Stone of eukaryotes? Next up: Amoebas demand royalties for their starring role in #evolution. 😲🦠
    tus.ac.jp/en/mediarelations/ar #newvirus #eukaryotes #scientificdiscovery #amoeba #breakthroughs #HackerNews #ngated

  40. "The rise of the eukaryotes was one of the most important events in Earth’s history. If it had not occurred, there would be no great white sharks, no towering redwood trees, no hovering hummingbirds and no people. Just slimy layers of bacteria and archaea, everywhere. And the Asgard archaea may have started it all."

    sciencenews.org/article/cells-

    #Life #Eukaryotes #Archaea #Asgard #Cells #Biology #Evolution #Genetics

  41. "The rise of the eukaryotes was one of the most important events in Earth’s history. If it had not occurred, there would be no great white sharks, no towering redwood trees, no hovering hummingbirds and no people. Just slimy layers of bacteria and archaea, everywhere. And the Asgard archaea may have started it all."

    sciencenews.org/article/cells-

    #Life #Eukaryotes #Archaea #Asgard #Cells #Biology #Evolution #Genetics

  42. "The rise of the eukaryotes was one of the most important events in Earth’s history. If it had not occurred, there would be no great white sharks, no towering redwood trees, no hovering hummingbirds and no people. Just slimy layers of bacteria and archaea, everywhere. And the Asgard archaea may have started it all."

    sciencenews.org/article/cells-

    #Life #Eukaryotes #Archaea #Asgard #Cells #Biology #Evolution #Genetics

  43. "The rise of the eukaryotes was one of the most important events in Earth’s history. If it had not occurred, there would be no great white sharks, no towering redwood trees, no hovering hummingbirds and no people. Just slimy layers of bacteria and archaea, everywhere. And the Asgard archaea may have started it all."

    sciencenews.org/article/cells-

    #Life #Eukaryotes #Archaea #Asgard #Cells #Biology #Evolution #Genetics

  44. "The rise of the eukaryotes was one of the most important events in Earth’s history. If it had not occurred, there would be no great white sharks, no towering redwood trees, no hovering hummingbirds and no people. Just slimy layers of bacteria and archaea, everywhere. And the Asgard archaea may have started it all."

    sciencenews.org/article/cells-

    #Life #Eukaryotes #Archaea #Asgard #Cells #Biology #Evolution #Genetics