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#neuroevo — Public Fediverse posts

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

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  1. @flypapers

    The power of #Drosophila genetics to study neuronal evolution:

    "We then modified Drosophila retinas to have butterfly-like transcription factor expression, causing recruitment of an additional R7. The two R7s make independent stochastic choices, like butterflies, leading to three stochastically distributed ommatidial types instead of two."

    And then they show how the excess of neurons that would otherwise die or repeat existing circuit motifs is repurposed to accommodate the extra photoreceptors, configuring retinal circuits like in the buttefly.

    "Sensory receptor expansion and neural accommodation in butterfly color vision", Gao et al. 2025.

    #neuroscience #NeuralEvolution #NeuroEvo

  2. @flypapers

    The power of #Drosophila genetics to study neuronal evolution:

    "We then modified Drosophila retinas to have butterfly-like transcription factor expression, causing recruitment of an additional R7. The two R7s make independent stochastic choices, like butterflies, leading to three stochastically distributed ommatidial types instead of two."

    And then they show how the excess of neurons that would otherwise die or repeat existing circuit motifs is repurposed to accommodate the extra photoreceptors, configuring retinal circuits like in the buttefly.

    "Sensory receptor expansion and neural accommodation in butterfly color vision", Gao et al. 2025.

    #neuroscience #NeuralEvolution #NeuroEvo

  3. @flypapers

    The power of #Drosophila genetics to study neuronal evolution:

    "We then modified Drosophila retinas to have butterfly-like transcription factor expression, causing recruitment of an additional R7. The two R7s make independent stochastic choices, like butterflies, leading to three stochastically distributed ommatidial types instead of two."

    And then they show how the excess of neurons that would otherwise die or repeat existing circuit motifs is repurposed to accommodate the extra photoreceptors, configuring retinal circuits like in the buttefly.

    "Sensory receptor expansion and neural accommodation in butterfly color vision", Gao et al. 2025.

    #neuroscience #NeuralEvolution #NeuroEvo

  4. @flypapers

    The power of #Drosophila genetics to study neuronal evolution:

    "We then modified Drosophila retinas to have butterfly-like transcription factor expression, causing recruitment of an additional R7. The two R7s make independent stochastic choices, like butterflies, leading to three stochastically distributed ommatidial types instead of two."

    And then they show how the excess of neurons that would otherwise die or repeat existing circuit motifs is repurposed to accommodate the extra photoreceptors, configuring retinal circuits like in the buttefly.

    "Sensory receptor expansion and neural accommodation in butterfly color vision", Gao et al. 2025.

    #neuroscience #NeuralEvolution #NeuroEvo

  5. @flypapers

    The power of #Drosophila genetics to study neuronal evolution:

    "We then modified Drosophila retinas to have butterfly-like transcription factor expression, causing recruitment of an additional R7. The two R7s make independent stochastic choices, like butterflies, leading to three stochastically distributed ommatidial types instead of two."

    And then they show how the excess of neurons that would otherwise die or repeat existing circuit motifs is repurposed to accommodate the extra photoreceptors, configuring retinal circuits like in the buttefly.

    "Sensory receptor expansion and neural accommodation in butterfly color vision", Gao et al. 2025.

    #neuroscience #NeuralEvolution #NeuroEvo

  6. "Comparative single-cell transcriptomic atlases of drosophilid brains suggest glial evolution during ecological adaptation", Lee et al. 2025 (Richard Benton's lab)
    journals.plos.org/plosbiology/

    #neuroscience #Drosophila #glia #evolution #NeuroEvo

  7. "Comparative single-cell transcriptomic atlases of drosophilid brains suggest glial evolution during ecological adaptation", Lee et al. 2025 (Richard Benton's lab)
    journals.plos.org/plosbiology/

    #neuroscience #Drosophila #glia #evolution #NeuroEvo

  8. "Comparative single-cell transcriptomic atlases of drosophilid brains suggest glial evolution during ecological adaptation", Lee et al. 2025 (Richard Benton's lab)
    journals.plos.org/plosbiology/

    #neuroscience #Drosophila #glia #evolution #NeuroEvo

  9. "Comparative single-cell transcriptomic atlases of drosophilid brains suggest glial evolution during ecological adaptation", Lee et al. 2025 (Richard Benton's lab)
    journals.plos.org/plosbiology/

    #neuroscience #Drosophila #glia #evolution #NeuroEvo

  10. "Comparative single-cell transcriptomic atlases of drosophilid brains suggest glial evolution during ecological adaptation", Lee et al. 2025 (Richard Benton's lab)
    journals.plos.org/plosbiology/

    #neuroscience #Drosophila #glia #evolution #NeuroEvo

  11. And of course lifestyle, or rather, ecological niche specialisation, tilts the vision-olfaction trade off, here in wasps:

    “Differential investment in visual and olfactory brain regions is linked to the sensory needs of a wasp social parasite and its host”, by Rozanski et al. 2021 onlinelibrary.wiley.com/doi/fu

    This work compared the eusocial wasp Polistes dominula with its obligate social parasite Polistes sulcifer.

    #NeuroEvo #neuroscience #entomology #Hymenoptera #wasplove #wasps #Polistes

  12. And of course lifestyle, or rather, ecological niche specialisation, tilts the vision-olfaction trade off, here in wasps:

    “Differential investment in visual and olfactory brain regions is linked to the sensory needs of a wasp social parasite and its host”, by Rozanski et al. 2021 onlinelibrary.wiley.com/doi/fu

    This work compared the eusocial wasp Polistes dominula with its obligate social parasite Polistes sulcifer.

    #NeuroEvo #neuroscience #entomology #Hymenoptera #wasplove #wasps #Polistes

  13. And of course lifestyle, or rather, ecological niche specialisation, tilts the vision-olfaction trade off, here in wasps:

    “Differential investment in visual and olfactory brain regions is linked to the sensory needs of a wasp social parasite and its host”, by Rozanski et al. 2021 onlinelibrary.wiley.com/doi/fu

    This work compared the eusocial wasp Polistes dominula with its obligate social parasite Polistes sulcifer.

    #NeuroEvo #neuroscience #entomology #Hymenoptera #wasplove #wasps #Polistes

  14. And of course lifestyle, or rather, ecological niche specialisation, tilts the vision-olfaction trade off, here in wasps:

    “Differential investment in visual and olfactory brain regions is linked to the sensory needs of a wasp social parasite and its host”, by Rozanski et al. 2021 onlinelibrary.wiley.com/doi/fu

    This work compared the eusocial wasp Polistes dominula with its obligate social parasite Polistes sulcifer.

    #NeuroEvo #neuroscience #entomology #Hymenoptera #wasplove #wasps #Polistes

  15. And of course lifestyle, or rather, ecological niche specialisation, tilts the vision-olfaction trade off, here in wasps:

    “Differential investment in visual and olfactory brain regions is linked to the sensory needs of a wasp social parasite and its host”, by Rozanski et al. 2021 onlinelibrary.wiley.com/doi/fu

    This work compared the eusocial wasp Polistes dominula with its obligate social parasite Polistes sulcifer.

    #NeuroEvo #neuroscience #entomology #Hymenoptera #wasplove #wasps #Polistes

  16. The tradeoff between vision and olfaction has been studied in flies. There’s a strain of Drosophila melanogaster that’s been reared in the dark for decades: the so-called “dark flies”. Here, the authors examine the effect of rearing “dark flies” in the light for 1 and for 65 generations, and observe how brain regions for vision are boosted even within 1 generation:

    “Back to the light, coevolution between vision and olfaction in the “Dark-flies” (Drosophila melanogaster)”
    Özer & Carle 2020 journals.plos.org/plosone/arti

    #neuroscience #DarkFlies #Drosophila #evolution #NeuroEvo

  17. The tradeoff between vision and olfaction has been studied in flies. There’s a strain of Drosophila melanogaster that’s been reared in the dark for decades: the so-called “dark flies”. Here, the authors examine the effect of rearing “dark flies” in the light for 1 and for 65 generations, and observe how brain regions for vision are boosted even within 1 generation:

    “Back to the light, coevolution between vision and olfaction in the “Dark-flies” (Drosophila melanogaster)”
    Özer & Carle 2020 journals.plos.org/plosone/arti

    #neuroscience #DarkFlies #Drosophila #evolution #NeuroEvo

  18. The tradeoff between vision and olfaction has been studied in flies. There’s a strain of Drosophila melanogaster that’s been reared in the dark for decades: the so-called “dark flies”. Here, the authors examine the effect of rearing “dark flies” in the light for 1 and for 65 generations, and observe how brain regions for vision are boosted even within 1 generation:

    “Back to the light, coevolution between vision and olfaction in the “Dark-flies” (Drosophila melanogaster)”
    Özer & Carle 2020 journals.plos.org/plosone/arti

    #neuroscience #DarkFlies #Drosophila #evolution #NeuroEvo

  19. The tradeoff between vision and olfaction has been studied in flies. There’s a strain of Drosophila melanogaster that’s been reared in the dark for decades: the so-called “dark flies”. Here, the authors examine the effect of rearing “dark flies” in the light for 1 and for 65 generations, and observe how brain regions for vision are boosted even within 1 generation:

    “Back to the light, coevolution between vision and olfaction in the “Dark-flies” (Drosophila melanogaster)”
    Özer & Carle 2020 journals.plos.org/plosone/arti

    #neuroscience #DarkFlies #Drosophila #evolution #NeuroEvo

  20. The tradeoff between vision and olfaction has been studied in flies. There’s a strain of Drosophila melanogaster that’s been reared in the dark for decades: the so-called “dark flies”. Here, the authors examine the effect of rearing “dark flies” in the light for 1 and for 65 generations, and observe how brain regions for vision are boosted even within 1 generation:

    “Back to the light, coevolution between vision and olfaction in the “Dark-flies” (Drosophila melanogaster)”
    Özer & Carle 2020 journals.plos.org/plosone/arti

    #neuroscience #DarkFlies #Drosophila #evolution #NeuroEvo

  21. "Phylogenetic tracing of midbrain-specific regulatory sequences suggests single origin of eubilaterian brains", by Schuster and Hirth, 2023 science.org/doi/10.1126/sciadv

    A genetic signature of bilateral animals with brains, including "a genetic boundary separating the rostral from caudal nervous systems, demonstrated for the metameric brains of annelids, arthropods, and chordates and the asegmental cycloneuralian and urochordate brain"

    In other words, the genetic toolkit of the ancestor of both protostomes (arthropods, nematodes, molluscs and annelids) and deuterostomes (echinoderms and vertebrates) – the eubilaterian.

    science.org/doi/10.1126/sciadv

    #neuroscience #DevBiol #EvoDevo #NeuroEvo #evolution

  22. "Phylogenetic tracing of midbrain-specific regulatory sequences suggests single origin of eubilaterian brains", by Schuster and Hirth, 2023 science.org/doi/10.1126/sciadv

    A genetic signature of bilateral animals with brains, including "a genetic boundary separating the rostral from caudal nervous systems, demonstrated for the metameric brains of annelids, arthropods, and chordates and the asegmental cycloneuralian and urochordate brain"

    In other words, the genetic toolkit of the ancestor of both protostomes (arthropods, nematodes, molluscs and annelids) and deuterostomes (echinoderms and vertebrates) – the eubilaterian.

    science.org/doi/10.1126/sciadv

    #neuroscience #DevBiol #EvoDevo #NeuroEvo #evolution

  23. "Phylogenetic tracing of midbrain-specific regulatory sequences suggests single origin of eubilaterian brains", by Schuster and Hirth, 2023 science.org/doi/10.1126/sciadv

    A genetic signature of bilateral animals with brains, including "a genetic boundary separating the rostral from caudal nervous systems, demonstrated for the metameric brains of annelids, arthropods, and chordates and the asegmental cycloneuralian and urochordate brain"

    In other words, the genetic toolkit of the ancestor of both protostomes (arthropods, nematodes, molluscs and annelids) and deuterostomes (echinoderms and vertebrates) – the eubilaterian.

    science.org/doi/10.1126/sciadv

    #neuroscience #DevBiol #EvoDevo #NeuroEvo #evolution

  24. "Phylogenetic tracing of midbrain-specific regulatory sequences suggests single origin of eubilaterian brains", by Schuster and Hirth, 2023 science.org/doi/10.1126/sciadv

    A genetic signature of bilateral animals with brains, including "a genetic boundary separating the rostral from caudal nervous systems, demonstrated for the metameric brains of annelids, arthropods, and chordates and the asegmental cycloneuralian and urochordate brain"

    In other words, the genetic toolkit of the ancestor of both protostomes (arthropods, nematodes, molluscs and annelids) and deuterostomes (echinoderms and vertebrates) – the eubilaterian.

    science.org/doi/10.1126/sciadv

    #neuroscience #DevBiol #EvoDevo #NeuroEvo #evolution

  25. "Phylogenetic tracing of midbrain-specific regulatory sequences suggests single origin of eubilaterian brains", by Schuster and Hirth, 2023 science.org/doi/10.1126/sciadv

    A genetic signature of bilateral animals with brains, including "a genetic boundary separating the rostral from caudal nervous systems, demonstrated for the metameric brains of annelids, arthropods, and chordates and the asegmental cycloneuralian and urochordate brain"

    In other words, the genetic toolkit of the ancestor of both protostomes (arthropods, nematodes, molluscs and annelids) and deuterostomes (echinoderms and vertebrates) – the eubilaterian.

    science.org/doi/10.1126/sciadv

    #neuroscience #DevBiol #EvoDevo #NeuroEvo #evolution

  26. Neuro-evo conference at HHMI Janelia on May 15-18, 2023.

    Application deadline: January 27, 2023

    Apply here: https://www.
    janelia.org/you-janelia/confer
    ences/neuro-evo-a-comparative-approach-to-cracking-circuit-function-iii

    "this meeting will bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #neuroscience #DevBio #connectomics #connectome

  27. Neuro-evo conference at HHMI Janelia on May 15-18, 2023.

    Application deadline: January 27, 2023

    Apply here: https://www.
    janelia.org/you-janelia/confer
    ences/neuro-evo-a-comparative-approach-to-cracking-circuit-function-iii

    "this meeting will bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #neuroscience #DevBio #connectomics #connectome

  28. Neuro-evo conference at HHMI Janelia on May 15-18, 2023.

    Application deadline: January 27, 2023

    Apply here: https://www.
    janelia.org/you-janelia/confer
    ences/neuro-evo-a-comparative-approach-to-cracking-circuit-function-iii

    "this meeting will bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #neuroscience #DevBio #connectomics #connectome

  29. Neuro-evo conference at HHMI Janelia on May 15-18, 2023.

    Application deadline: January 27, 2023

    Apply here: https://www.
    janelia.org/you-janelia/confer
    ences/neuro-evo-a-comparative-approach-to-cracking-circuit-function-iii

    "this meeting will bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #neuroscience #DevBio #connectomics #connectome

  30. Neuro-evo conference at HHMI Janelia on May 15-18, 2023.

    Application deadline: January 27, 2023

    Apply here: https://www.
    janelia.org/you-janelia/confer
    ences/neuro-evo-a-comparative-approach-to-cracking-circuit-function-iii

    "this meeting will bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #neuroscience #DevBio #connectomics #connectome

  31. Neuro-evo conference at HHMI Janelia on May 15-18, 2023. Join us for the 3rd edition!

    Application deadline: Jan 27 (11:59 p.m. EST) 2023.

    Apply here: janelia.org/you-janelia/confer

    "The third instalment of this meeting will once again bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #academia #neuroscience #DevBio #connectomics #connectome

  32. Neuro-evo conference at HHMI Janelia on May 15-18, 2023. Join us for the 3rd edition!

    Application deadline: Jan 27 (11:59 p.m. EST) 2023.

    Apply here: janelia.org/you-janelia/confer

    "The third instalment of this meeting will once again bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #academia #neuroscience #DevBio #connectomics #connectome

  33. Neuro-evo conference at HHMI Janelia on May 15-18, 2023. Join us for the 3rd edition!

    Application deadline: Jan 27 (11:59 p.m. EST) 2023.

    Apply here: janelia.org/you-janelia/confer

    "The third instalment of this meeting will once again bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #academia #neuroscience #DevBio #connectomics #connectome

  34. Neuro-evo conference at HHMI Janelia on May 15-18, 2023. Join us for the 3rd edition!

    Application deadline: Jan 27 (11:59 p.m. EST) 2023.

    Apply here: janelia.org/you-janelia/confer

    "The third instalment of this meeting will once again bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #academia #neuroscience #DevBio #connectomics #connectome

  35. Neuro-evo conference at HHMI Janelia on May 15-18, 2023. Join us for the 3rd edition!

    Application deadline: Jan 27 (11:59 p.m. EST) 2023.

    Apply here: janelia.org/you-janelia/confer

    "The third instalment of this meeting will once again bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #academia #neuroscience #DevBio #connectomics #connectome

  36. Neuro-evo conference at HHMI Janelia on May 15-18, 2023. Join us for the third edition!

    Application deadline: Jan 27 (11:59 p.m. EST) 2023.

    Apply here: janelia.org/you-janelia/confer

    "Historically, with the study of the most convenient animal models —from the giant axon of the squid and the lobster's stomatogastric circuits to Aplysia's synapses and C. elegans' circuits — neuroscientists revealed some of the operating principles of the nervous system, which were then found to apply broadly across phyla. The third instalment of this meeting will once again bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #academia #neuroscience #DevBio #connectomics #connectome

  37. Neuro-evo conference at HHMI Janelia on May 15-18, 2023. Join us for the third edition!

    Application deadline: Jan 27 (11:59 p.m. EST) 2023.

    Apply here: janelia.org/you-janelia/confer

    "Historically, with the study of the most convenient animal models —from the giant axon of the squid and the lobster's stomatogastric circuits to Aplysia's synapses and C. elegans' circuits — neuroscientists revealed some of the operating principles of the nervous system, which were then found to apply broadly across phyla. The third instalment of this meeting will once again bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #academia #neuroscience #DevBio #connectomics #connectome

  38. Neuro-evo conference at HHMI Janelia on May 15-18, 2023. Join us for the third edition!

    Application deadline: Jan 27 (11:59 p.m. EST) 2023.

    Apply here: janelia.org/you-janelia/confer

    "Historically, with the study of the most convenient animal models —from the giant axon of the squid and the lobster's stomatogastric circuits to Aplysia's synapses and C. elegans' circuits — neuroscientists revealed some of the operating principles of the nervous system, which were then found to apply broadly across phyla. The third instalment of this meeting will once again bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #academia #neuroscience #DevBio #connectomics #connectome

  39. Neuro-evo conference at HHMI Janelia on May 15-18, 2023. Join us for the third edition!

    Application deadline: Jan 27 (11:59 p.m. EST) 2023.

    Apply here: janelia.org/you-janelia/confer

    "Historically, with the study of the most convenient animal models —from the giant axon of the squid and the lobster's stomatogastric circuits to Aplysia's synapses and C. elegans' circuits — neuroscientists revealed some of the operating principles of the nervous system, which were then found to apply broadly across phyla. The third instalment of this meeting will once again bring together neuroscientists working on a broad diversity of animal models in an effort to compare circuits across phyla as a means to crack their function."

    #NeuroEvo #Janelia #HHMI #conference #science #academia #neuroscience #DevBio #connectomics #connectome