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#patterning — Public Fediverse posts

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

  1. I made a free drum kit out of synthesized drumshots from various AuV3 synthesizers on the iOS platform for Patterning 2. Search for "Auv3 Drumkit" or "Dreikelvin" in the Patterning app's drum library to download it

    #auv3 #ios #ipad #patterning #freesounds

  2. I made a free drum kit out of synthesized drumshots from various AuV3 synthesizers on the iOS platform for Patterning 2. Search for "Auv3 Drumkit" or "Dreikelvin" in the Patterning app's drum library to download it

    #auv3 #ios #ipad #patterning #freesounds

  3. Our paper builds on previous work from our group that

    - introduced the 1D morphogen gradient model:
    twitter.com/DagmarIber/status/

    - revealed the impact of cell size on patterning precision:
    twitter.com/DagmarIber/status/

    - explored the effect of non-linear decay:

    ---
    RT @DagmarIber
    Does self-enhanced #morphogen #degradation improve #patterning #precision in #tissue #development? …
    twitter.com/DagmarIber/status/

  4. Our paper builds on previous work from our group that

    - introduced the 1D morphogen gradient model:
    twitter.com/DagmarIber/status/

    - revealed the impact of cell size on patterning precision:
    twitter.com/DagmarIber/status/

    - explored the effect of non-linear decay:

    ---
    RT @DagmarIber
    Does self-enhanced #morphogen #degradation improve #patterning #precision in #tissue #development? …
    twitter.com/DagmarIber/status/

  5. Our paper builds on previous work from our group that

    - introduced the 1D morphogen gradient model:
    twitter.com/DagmarIber/status/

    - revealed the impact of cell size on patterning precision:
    twitter.com/DagmarIber/status/

    - explored the effect of non-linear decay:

    ---
    RT @DagmarIber
    Does self-enhanced #morphogen #degradation improve #patterning #precision in #tissue #development? …
    twitter.com/DagmarIber/status/

  6. In a #2D #tissue, narrow #cells lead to higher #patterning #precision. The effect is not the same in both directions, though! Cells that are wider perpendicular to the #gradient than parallel to it are more tolerable. Such cell shapes are found in the #neuraltube, for example.

  7. In a #2D #tissue, narrow #cells lead to higher #patterning #precision. The effect is not the same in both directions, though! Cells that are wider perpendicular to the #gradient than parallel to it are more tolerable. Such cell shapes are found in the #neuraltube, for example.

  8. In a #2D #tissue, narrow #cells lead to higher #patterning #precision. The effect is not the same in both directions, though! Cells that are wider perpendicular to the #gradient than parallel to it are more tolerable. Such cell shapes are found in the #neuraltube, for example.

  9. In a #2D #tissue, narrow #cells lead to higher #patterning #precision. The effect is not the same in both directions, though! Cells that are wider perpendicular to the #gradient than parallel to it are more tolerable. Such cell shapes are found in the #neuraltube, for example.

  10. How to achieve high #patterning #precision in #development?

    #Morphogen gradients are more precise in #2D than in 1D, in particular when #cells are #narrow.

    Check out our latest #preprint on @biorxivpreprint: doi.org/10.1101/2023.03.13.532

  11. How to achieve high #patterning #precision in #development?

    #Morphogen gradients are more precise in #2D than in 1D, in particular when #cells are #narrow.

    Check out our latest #preprint on @biorxivpreprint: doi.org/10.1101/2023.03.13.532

  12. How to achieve high #patterning #precision in #development?

    #Morphogen gradients are more precise in #2D than in 1D, in particular when #cells are #narrow.

    Check out our latest #preprint on @biorxivpreprint: doi.org/10.1101/2023.03.13.532

  13. How to achieve high #patterning #precision in #development?

    #Morphogen gradients are more precise in #2D than in 1D, in particular when #cells are #narrow.

    Check out our latest #preprint on @biorxivpreprint: doi.org/10.1101/2023.03.13.532

  14. #introduction
    I study #development and cell #signaling using #Drosophila. In my lab at #UMass Boston, we use #proteomics, #genetics, #imaging, and a bit of #biochemistry to study mechanisms of organ #growth and tissue #patterning. We like to discover and analyze #protein interaction #networks. Current interests are #Hippo and #ERK signaling, and control of #brain development. And no one can escape from #Notch.
    Go #DevBio!

  15. #introduction
    I study #development and cell #signaling using #Drosophila. In my lab at #UMass Boston, we use #proteomics, #genetics, #imaging, and a bit of #biochemistry to study mechanisms of organ #growth and tissue #patterning. We like to discover and analyze #protein interaction #networks. Current interests are #Hippo and #ERK signaling, and control of #brain development. And no one can escape from #Notch.
    Go #DevBio!

  16. #introduction
    I study #development and cell #signaling using #Drosophila. In my lab at #UMass Boston, we use #proteomics, #genetics, #imaging, and a bit of #biochemistry to study mechanisms of organ #growth and tissue #patterning. We like to discover and analyze #protein interaction #networks. Current interests are #Hippo and #ERK signaling, and control of #brain development. And no one can escape from #Notch.
    Go #DevBio!

  17. #introduction
    I study #development and cell #signaling using #Drosophila. In my lab at #UMass Boston, we use #proteomics, #genetics, #imaging, and a bit of #biochemistry to study mechanisms of organ #growth and tissue #patterning. We like to discover and analyze #protein interaction #networks. Current interests are #Hippo and #ERK signaling, and control of #brain development. And no one can escape from #Notch.
    Go #DevBio!

  18. #introduction
    I study #development and cell #signaling using #Drosophila. In my lab at #UMass Boston, we use #proteomics, #genetics, #imaging, and a bit of #biochemistry to study mechanisms of organ #growth and tissue #patterning. We like to discover and analyze #protein interaction #networks. Current interests are #Hippo and #ERK signaling, and control of #brain development. And no one can escape from #Notch.
    Go #DevBio!

  19. Here comes the #Introduction. I am a postdoc original from #Colombia interested in #insects, #evodevo #genetics 🧬 and #patterning.

    I work with butterfly 🦋 color patterns as a model to study #wnt #signaling, #generegulation, and #morphological evolution. Connecting the #genotype to the #phenotype is the goal!!!

    I am a #Latina, working at GWU, in DC. #FirstGen

    Done tons of #CRISPR experiments in different species of #Lepidoptera

  20. Here comes the #Introduction. I am a postdoc original from #Colombia interested in #insects, #evodevo #genetics 🧬 and #patterning.

    I work with butterfly 🦋 color patterns as a model to study #wnt #signaling, #generegulation, and #morphological evolution. Connecting the #genotype to the #phenotype is the goal!!!

    I am a #Latina, working at GWU, in DC. #FirstGen

    Done tons of #CRISPR experiments in different species of #Lepidoptera

  21. Here comes the #Introduction. I am a postdoc original from #Colombia interested in #insects, #evodevo #genetics 🧬 and #patterning.

    I work with butterfly 🦋 color patterns as a model to study #wnt #signaling, #generegulation, and #morphological evolution. Connecting the #genotype to the #phenotype is the goal!!!

    I am a #Latina, working at GWU, in DC. #FirstGen

    Done tons of #CRISPR experiments in different species of #Lepidoptera

  22. Here comes the #Introduction. I am a postdoc original from #Colombia interested in #insects, #evodevo #genetics 🧬 and #patterning.

    I work with butterfly 🦋 color patterns as a model to study #wnt #signaling, #generegulation, and #morphological evolution. Connecting the #genotype to the #phenotype is the goal!!!

    I am a #Latina, working at GWU, in DC. #FirstGen

    Done tons of #CRISPR experiments in different species of #Lepidoptera