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#cilia — Public Fediverse posts

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

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  1. What does a single-celled organism tell us about the origins of complex behaviour?

    Delighted to see the final version of our paper: Embodied behavioural complexity in a ciliated microorganism out [email protected] (Funded by @[email protected] ERC) doi.org/10.1038/s414...
    #cilia #protistsonsky

  2. What does a single-celled organism tell us about the origins of complex behaviour?

    Delighted to see the final version of our paper: Embodied behavioural complexity in a ciliated microorganism out [email protected] (Funded by @[email protected] ERC) doi.org/10.1038/s414...
    #cilia #protistsonsky

  3. What does a single-celled organism tell us about the origins of complex behaviour?

    Delighted to see the final version of our paper: Embodied behavioural complexity in a ciliated microorganism out [email protected] (Funded by @[email protected] ERC) doi.org/10.1038/s414...
    #cilia #protistsonsky

  4. What does a single-celled organism tell us about the origins of complex behaviour?

    Delighted to see the final version of our paper: Embodied behavioural complexity in a ciliated microorganism out [email protected] (Funded by @[email protected] ERC) doi.org/10.1038/s414...
    #cilia #protistsonsky

  5. What does a single-celled organism tell us about the origins of complex behaviour?

    Delighted to see the final version of our paper: Embodied behavioural complexity in a ciliated microorganism out [email protected] (Funded by @[email protected] ERC) doi.org/10.1038/s414...
    #cilia #protistsonsky

  6. In the few silt free places in River Little Ouse headwaters thro' Prince Freddy's Meadow, where flint gravel is exposed, astonishing densities of that ultimate fish food, the freshwater shrimp, Gammarus pulex. Also, on alder roots Sessilida ciliates & Spongillidae freshwater sponges. #cilia 8/19

  7. In the few silt free places in River Little Ouse headwaters thro' Prince Freddy's Meadow, where flint gravel is exposed, astonishing densities of that ultimate fish food, the freshwater shrimp, Gammarus pulex. Also, on alder roots Sessilida ciliates & Spongillidae freshwater sponges. #cilia 8/19

  8. In the few silt free places in River Little Ouse headwaters thro' Prince Freddy's Meadow, where flint gravel is exposed, astonishing densities of that ultimate fish food, the freshwater shrimp, Gammarus pulex. Also, on alder roots Sessilida ciliates & Spongillidae freshwater sponges. #cilia 8/19

  9. In the few silt free places in River Little Ouse headwaters thro' Prince Freddy's Meadow, where flint gravel is exposed, astonishing densities of that ultimate fish food, the freshwater shrimp, Gammarus pulex. Also, on alder roots Sessilida ciliates & Spongillidae freshwater sponges. #cilia 8/19

  10. In the few silt free places in River Little Ouse headwaters thro' Prince Freddy's Meadow, where flint gravel is exposed, astonishing densities of that ultimate fish food, the freshwater shrimp, Gammarus pulex. Also, on alder roots Sessilida ciliates & Spongillidae freshwater sponges. #cilia 8/19

  11. Do #tintinnids dream of electric sheep? 🤯

    Here is a single cell capable of building a lorica and living inside it for protection... it also swims, feeds, hunts

    Can even detect and habituate to mechanical cues! #celllearning #protistsonsky #cilia

    Read more in our preprint
    doi.org/10.64898/202...

  12. Do #tintinnids dream of electric sheep? 🤯

    Here is a single cell capable of building a lorica and living inside it for protection... it also swims, feeds, hunts

    Can even detect and habituate to mechanical cues! #celllearning #protistsonsky #cilia

    Read more in our preprint
    doi.org/10.64898/202...

  13. Do #tintinnids dream of electric sheep? 🤯

    Here is a single cell capable of building a lorica and living inside it for protection... it also swims, feeds, hunts

    Can even detect and habituate to mechanical cues! #celllearning #protistsonsky #cilia

    Read more in our preprint
    doi.org/10.64898/202...

  14. Do #tintinnids dream of electric sheep? 🤯

    Here is a single cell capable of building a lorica and living inside it for protection... it also swims, feeds, hunts

    Can even detect and habituate to mechanical cues! #celllearning #protistsonsky #cilia

    Read more in our preprint
    doi.org/10.64898/202...

  15. Do #tintinnids dream of electric sheep? 🤯

    Here is a single cell capable of building a lorica and living inside it for protection... it also swims, feeds, hunts

    Can even detect and habituate to mechanical cues! #celllearning #protistsonsky #cilia

    Read more in our preprint
    doi.org/10.64898/202...

  16. Inside an Ear

    Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.

    The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.

    But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)

    Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration
  17. Inside an Ear

    Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.

    The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.

    But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)

    Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration
  18. Inside an Ear

    Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.

    The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.

    But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)

    Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration
  19. Inside an Ear

    Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.

    The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.

    But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)

    Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration
  20. Inside an Ear

    Our ears, like those of many other animals, convert mechanical signals to electrical ones, through a Rube-Goldberg-esque series of transformations. External sound waves make their way down the soft tube of the ear canal, which funnels them to a thin-walled cone, the eardrum, that’s about half as large as a dime. Here, the vibrating air pushes against the cone’s membrane, and those vibrations travel onward through a linked trio of small bones that amplify the vibration’s amplitude.

    The last of these bones presses against an even smaller, oval-shaped membrane. As the bone moves, it shakes the membrane, sending waves through the liquid on its other side. Those waves travel down the spirals of the tiny, pea-sized cochlea, named for a snail shell’s shape. As the waves move through the liquid, they bend bundles of hair-like strands back and forth, like tall grass waving in a breeze. The bending triggers a chemical that binds to nerves at the base of the bundles, sending an electrical signal through the nerve and into the brain.

    But the hair-like bundles, known as stereocilia, are also able to amplify incoming vibrations. In this case, the bundles in the outer portion of the cochlea expend energy to bend more than the incoming vibrations naturally make them move. This bending amplifies the fluid motion that gets transmitted to stereocilia further down the line; it’s those bundles that will make the final conversion to an electrical signal the brain receives. (Image credit: B. Kachar; research credit: Y. Thipmaungprom et al.; via APS)

    Scanning electron microscope view of the stereocilia “hair bundles” inside a frog’s inner ear. #acoustics #biology #cilia #fluidDynamics #physics #science #vibration
  21. Calling all #cilia researchers. Our new Community Page presents CiliaKB, a manually curated #KnowledgeBase that serves as a one-stop platform for researchers to rapidly access mechanistic #data and mine for translational clues about cilia.
    #CellBiology
    plos.io/4d4QaYr

  22. Calling all #cilia researchers. Our new Community Page presents CiliaKB, a manually curated #KnowledgeBase that serves as a one-stop platform for researchers to rapidly access mechanistic #data and mine for translational clues about cilia.
    #CellBiology
    plos.io/4d4QaYr

  23. Calling all #cilia researchers. Our new Community Page presents CiliaKB, a manually curated #KnowledgeBase that serves as a one-stop platform for researchers to rapidly access mechanistic #data and mine for translational clues about cilia.
    #CellBiology
    plos.io/4d4QaYr

  24. Calling all #cilia researchers. Our new Community Page presents CiliaKB, a manually curated #KnowledgeBase that serves as a one-stop platform for researchers to rapidly access mechanistic #data and mine for translational clues about cilia.
    #CellBiology
    plos.io/4d4QaYr

  25. Calling all #cilia researchers. Our new Community Page presents CiliaKB, a manually curated #KnowledgeBase that serves as a one-stop platform for researchers to rapidly access mechanistic #data and mine for translational clues about cilia.
    #CellBiology
    plos.io/4d4QaYr

  26. Zooplankton larvae shoot up in the water column when exposed to high pressure.

    Mediated by special pressure-sensory photoreceptors.

    From our paper on the mechanism of barotaxis.

    elifesciences.org/articles/943
    #cilia #plankton #neuroscience

  27. Zooplankton larvae shoot up in the water column when exposed to high pressure.

    Mediated by special pressure-sensory photoreceptors.

    From our paper on the mechanism of barotaxis.

    elifesciences.org/articles/943
    #cilia #plankton #neuroscience

  28. Zooplankton larvae shoot up in the water column when exposed to high pressure.

    Mediated by special pressure-sensory photoreceptors.

    From our paper on the mechanism of barotaxis.

    elifesciences.org/articles/943
    #cilia #plankton #neuroscience

  29. Zooplankton larvae shoot up in the water column when exposed to high pressure.

    Mediated by special pressure-sensory photoreceptors.

    From our paper on the mechanism of barotaxis.

    elifesciences.org/articles/943
    #cilia #plankton #neuroscience

  30. Zooplankton larvae shoot up in the water column when exposed to high pressure.

    Mediated by special pressure-sensory photoreceptors.

    From our paper on the mechanism of barotaxis.

    elifesciences.org/articles/943
    #cilia #plankton #neuroscience

  31. Great to see our paper on light-intensity dependent swimming patterns in #Chlamydomonas out now in Phys Rev Lett. as an Editors' suggestion! With a nice commentary by @[email protected]. Chlamy actively modulate the beat planes of their #cilia! journals.aps.org/prl/abstract... #protistsonsky

  32. Great to see our paper on light-intensity dependent swimming patterns in #Chlamydomonas out now in Phys Rev Lett. as an Editors' suggestion! With a nice commentary by @[email protected]. Chlamy actively modulate the beat planes of their #cilia! journals.aps.org/prl/abstract... #protistsonsky

  33. Great to see our paper on light-intensity dependent swimming patterns in #Chlamydomonas out now in Phys Rev Lett. as an Editors' suggestion! With a nice commentary by @[email protected]. Chlamy actively modulate the beat planes of their #cilia! journals.aps.org/prl/abstract... #protistsonsky

  34. Great to see our paper on light-intensity dependent swimming patterns in #Chlamydomonas out now in Phys Rev Lett. as an Editors' suggestion! With a nice commentary by @[email protected]. Chlamy actively modulate the beat planes of their #cilia! journals.aps.org/prl/abstract... #protistsonsky

  35. Great to see our paper on light-intensity dependent swimming patterns in #Chlamydomonas out now in Phys Rev Lett. as an Editors' suggestion! With a nice commentary by @[email protected]. Chlamy actively modulate the beat planes of their #cilia! journals.aps.org/prl/abstract... #protistsonsky

  36. Video of the syncytial nerve net that regulates the gravisensory balancer ciliated cells in the ctenophore aboral organ (red dots - synapses)

    elifesciences.org/articles/108 #cilia #neuroscience

  37. Video of the syncytial nerve net that regulates the gravisensory balancer ciliated cells in the ctenophore aboral organ (red dots - synapses)

    elifesciences.org/articles/108 #cilia #neuroscience

  38. Video of the syncytial nerve net that regulates the gravisensory balancer ciliated cells in the ctenophore aboral organ (red dots - synapses)

    elifesciences.org/articles/108 #cilia #neuroscience

  39. Video of the syncytial nerve net that regulates the gravisensory balancer ciliated cells in the ctenophore aboral organ (red dots - synapses)

    elifesciences.org/articles/108 #cilia #neuroscience

  40. Video of the syncytial nerve net that regulates the gravisensory balancer ciliated cells in the ctenophore aboral organ (red dots - synapses)

    elifesciences.org/articles/108 #cilia #neuroscience

  41. 馬杜洛紐約受審:被控罪名及相關證據是什麼?

    BBC News 中文 2026-01-07 12:03:00 CST
    委內瑞拉總統馬杜洛遭美軍逮捕並送至紐約受審,被控毒品走私與共謀。他否認指控,主張遭非法綁架且具元首豁免權。儘管此舉引發國際法爭議,案件仍將依美國法律審理。
    https://www.thenewslens.com/article/263299
    #Mark E Donnelly #美國 #馬杜洛 #毒品走私 #拉美 #Alvin Hellerstein #可卡因 #委內瑞拉 #司法豁免權 #Cilia Flores #阿拉瓜火車 #Sarah Krissoff #石油 #販毒集團

  42. 馬杜洛紐約庭審現場直擊:我是總統和戰俘,被綁架到了這裡!

    BBC News 中文 2026-01-07 11:52:00 CST
    委內瑞拉總統馬杜洛與其妻於紐約法庭提訊,就毒品及武器指控不認罪。兩人由美軍逮捕,馬杜洛自稱遭「綁架」。全案將繼續審理,兩人未申請保釋,維持聯邦拘留。
    https://www.thenewslens.com/article/263298
    #戰俘 #美國 #馬杜洛 #總統 #庭審 #走私毒品 #拉美 #綁架 #可卡因 #委內瑞拉 #Cilia Flores #Alvin Hellerstein

  43. 美國抓捕馬杜洛:委內瑞拉第一夫人幕後權力浮上檯面,「5人幫」頓失2人,查維斯派政權陷危機

    中央通訊社 2026-01-06 09:49:00 CST
    委內瑞拉總統馬杜洛與其妻佛羅雷斯遭美方逮捕。佛羅雷斯被視為幕後權力核心,兩人落網使執政「五人幫」瓦解,令查維斯派政權陷入危機。
    https://www.thenewslens.com/article/263252
    #查維斯 #美國 #馬杜洛 #五人幫 #Hugo Chavez #Jorge Rodriguez #羅德里格斯 #拉美 #Diosdado Cabello #委內瑞拉 #川普 #Cilia Flores #佛羅雷斯 #Delcy Rodriguez #Nicolas Maduro

  44. Trump said the U.S. will run Venezuela until a "proper transition can take place,"
    as he defended Saturday's military strikes that resulted in the capture of President #Nicolás #Maduro and his wife.

    "So we're going to stay until such time as we're going to run it, essentially, until such time as a proper transition can take place." Trump stammered to reporters from Mar a Lago.

    Trump later told Fox & Friends that Maduro and his wife, #Cilia #Flores, were being brought by boat to New York where they'd stand #trial.

    He said U.S. #oil #companies would head to Venezuela to operate in their oil reserves,
    and the military is set to #attack #again if necessary to secure the effort.
    npr.org/2026/01/03/g-s1-104346

  45. Trump said the U.S. will run Venezuela until a "proper transition can take place,"
    as he defended Saturday's military strikes that resulted in the capture of President #Nicolás #Maduro and his wife.

    "So we're going to stay until such time as we're going to run it, essentially, until such time as a proper transition can take place." Trump stammered to reporters from Mar a Lago.

    Trump later told Fox & Friends that Maduro and his wife, #Cilia #Flores, were being brought by boat to New York where they'd stand #trial.

    He said U.S. #oil #companies would head to Venezuela to operate in their oil reserves,
    and the military is set to #attack #again if necessary to secure the effort.
    npr.org/2026/01/03/g-s1-104346

  46. Trump said the U.S. will run Venezuela until a "proper transition can take place,"
    as he defended Saturday's military strikes that resulted in the capture of President #Nicolás #Maduro and his wife.

    "So we're going to stay until such time as we're going to run it, essentially, until such time as a proper transition can take place." Trump stammered to reporters from Mar a Lago.

    Trump later told Fox & Friends that Maduro and his wife, #Cilia #Flores, were being brought by boat to New York where they'd stand #trial.

    He said U.S. #oil #companies would head to Venezuela to operate in their oil reserves,
    and the military is set to #attack #again if necessary to secure the effort.
    npr.org/2026/01/03/g-s1-104346

  47. Trump said the U.S. will run Venezuela until a "proper transition can take place,"
    as he defended Saturday's military strikes that resulted in the capture of President #Nicolás #Maduro and his wife.

    "So we're going to stay until such time as we're going to run it, essentially, until such time as a proper transition can take place." Trump stammered to reporters from Mar a Lago.

    Trump later told Fox & Friends that Maduro and his wife, #Cilia #Flores, were being brought by boat to New York where they'd stand #trial.

    He said U.S. #oil #companies would head to Venezuela to operate in their oil reserves,
    and the military is set to #attack #again if necessary to secure the effort.
    npr.org/2026/01/03/g-s1-104346

  48. Trump said the U.S. will run Venezuela until a "proper transition can take place,"
    as he defended Saturday's military strikes that resulted in the capture of President #Nicolás #Maduro and his wife.

    "So we're going to stay until such time as we're going to run it, essentially, until such time as a proper transition can take place." Trump stammered to reporters from Mar a Lago.

    Trump later told Fox & Friends that Maduro and his wife, #Cilia #Flores, were being brought by boat to New York where they'd stand #trial.

    He said U.S. #oil #companies would head to Venezuela to operate in their oil reserves,
    and the military is set to #attack #again if necessary to secure the effort.
    npr.org/2026/01/03/g-s1-104346

  49. Mammalian #cilia & #flagella depend on association of A- & B-tubules to form axonemal doublet #microtubules, but how? This study shows that CFAP77 is essential role for #axonemal connection of these tubules and crucial for #sperm motility & #fertility in mice @PLOSBiology plos.io/4ouZ2KJ

  50. Mammalian #cilia & #flagella depend on association of A- & B-tubules to form axonemal doublet #microtubules, but how? This study shows that CFAP77 is essential role for #axonemal connection of these tubules and crucial for #sperm motility & #fertility in mice @PLOSBiology plos.io/4ouZ2KJ

  51. Mammalian #cilia & #flagella depend on association of A- & B-tubules to form axonemal doublet #microtubules, but how? This study shows that CFAP77 is essential role for #axonemal connection of these tubules and crucial for #sperm motility & #fertility in mice @PLOSBiology plos.io/4ouZ2KJ

  52. Mammalian #cilia & #flagella depend on association of A- & B-tubules to form axonemal doublet #microtubules, but how? This study shows that CFAP77 is essential role for #axonemal connection of these tubules and crucial for #sperm motility & #fertility in mice @PLOSBiology plos.io/4ouZ2KJ

  53. Mammalian #cilia & #flagella depend on association of A- & B-tubules to form axonemal doublet #microtubules, but how? This study shows that CFAP77 is essential role for #axonemal connection of these tubules and crucial for #sperm motility & #fertility in mice @PLOSBiology plos.io/4ouZ2KJ

  54. 15-Oct-2025
    How #cilia choreograph their “Mexican wave”, enabling marine creatures to swim
    New research has unravelled the mystery of how microscopic cilia coordinate to move and propel marine creatures through water.

    eurekalert.org/news-releases/1

    #science #biomechanics #MarineBiology