We've seen the light, and with great spatial and temporal resolution, too!
Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae and Drosophila melanogaster.
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May 2021 – May 2024Where it's discussed
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X / Twitter22 posts
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YouTube7 videos
AI synopsis
What people are saying
The discussions reveal strong support and excitement about the study's advancements, such as the development of the photoNdegron system, with users emphasizing its potential to enhance research modalities. Words like 'excited,' 'collaborate,' and 'game changer' illustrate enthusiasm, while mentions of specific applications showcase deep engagement and recognition of the article's significance.
Most discussions express enthusiasm and support for the publication, highlighting its novelty and potential applications.
Posts show high interest, with many users excited about the new light-controlled protein degradation techniques and their implications.
Several comments reference technical details, collaborations, and future use cases, reflecting deep engagement.
While the enthusiasm is clear, the perceived immediate practical impact is positive but not groundbreaking for all users.
Abstract in brief
- The text discusses the development of the photoNdegron, a peptide tag that allows for light-controlled degradation of proteins in living organisms like yeast and fruit flies, enabling precise research on protein function.
- It explains how the photoNdegron works by changing shape under blue light to expose signals for degradation, and compares its effectiveness to other light-activated degrons, such as the BLID domain and the PSD, in targeting specific proteins like Cactus in Drosophila embryos.
- The findings highlight that choosing the right light-dependent degron is crucial, as some are more effective than others in manipulating protein activity, and that both N-terminal and C-terminal fusions can be used successfully for in vivo protein regulation.]
Top posts
Most liked on X and BlueskyExcited that our @PLOSGenetics paper is out! A new photo-N-degron that can be used in Optogenetic in vivo studies is now available https://t.co/tGMu95pDFx! Fun to collaborate with the Stein lab! Also, thank you @Angela_Stathop, David Stein and James McGehee
Stevens et al identify and describe a new #peptide degradation signal, the photo-N-degron When fused to the N-terminus of a protein, it can induce N-end rule-mediated degradation in response to blue-light illumination
Congratulations, @ut_mbs @TexasScience Dr. Leslie Stevens, Prof. David Stein & the Team for publication in @PLOSGenetics "Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae and Drosophila melanogaster" https://t.co/yDW6vfIQVE https://t.co/l7Npt0gLz2
#PLOSGenetics: Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae ... https://t.co/htzq7kxxFM
#PLOSGenetics: Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae ... https://t.co/sR2ANgzKh4
All mentions
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Light-Controlled Protein Degradation Using PhotoNdegron Technology
This video discusses the development of the photoNdegron, a peptide tag that enables precise, light-controlled degradation of proteins in living organisms like yeast and fruit flies, facilitating advanced research on…
Light-Controlled Protein Degradation in Yeast and Flies
The video explains the development of the photoNdegron, a peptide tag enabling precise light-controlled degradation of proteins in yeast and fruit flies, facilitating advanced research on protein function and regulation.
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RT @ut_mbs: Congratulations, @ut_mbs @TexasScience Dr. Leslie Stevens, Prof. David Stein & the Team for publication in @PLOSGenetics "Light…
RT @ut_mbs: Congratulations, @ut_mbs @TexasScience Dr. Leslie Stevens, Prof. David Stein & the Team for publication in @PLOSGenetics "Light…
Congratulations, @ut_mbs @TexasScience Dr. Leslie Stevens, Prof. David Stein & the Team for publication in @PLOSGenetics "Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae and Drosophila melanogaster" https://t.co/yDW6vfIQVE https://t.co/l7Npt0gLz2
RT @PLOSGenetics: Stevens et al identify and describe a new #peptide degradation signal, the photo-N-degron When fused to the N-terminus o…
RT @PLOSGenetics: Stevens et al identify and describe a new #peptide degradation signal, the photo-N-degron When fused to the N-terminus o…
RT @PLOSGenetics: Stevens et al identify and describe a new #peptide degradation signal, the photo-N-degron When fused to the N-terminus o…
Stevens et al identify and describe a new #peptide degradation signal, the photo-N-degron When fused to the N-terminus of a protein, it can induce N-end rule-mediated degradation in response to blue-light illumination
RT @t_koromila: Excited that our @PLOSGenetics paper is out! A new photo-N-degron that can be used in Optogenetic in vivo studies is now av…
RT @DouganLab: #PLOSGenetics: Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae ... https://t.…
Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae and Drosophila melanogaster https://t.co/rn8Jyg0j46
#PLOSGenetics: Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae ... https://t.co/sR2ANgzKh4
RT @StefanLuschnig: #PLOSGenetics: Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae ... https…
RT @stathlab: We've seen the light, and with great spatial and temporal resolution, too!
RT @t_koromila: Excited that our @PLOSGenetics paper is out! A new photo-N-degron that can be used in Optogenetic in vivo studies is now av…
RT @stathlab: We've seen the light, and with great spatial and temporal resolution, too!
RT @stathlab: We've seen the light, and with great spatial and temporal resolution, too!
#PLOSGenetics: Light-dependent N-end rule-mediated disruption of protein function in Saccharomyces cerevisiae ... https://t.co/htzq7kxxFM
RT @stathlab: We've seen the light, and with great spatial and temporal resolution, too!
We've seen the light, and with great spatial and temporal resolution, too!
RT @t_koromila: Excited that our @PLOSGenetics paper is out! A new photo-N-degron that can be used in Optogenetic in vivo studies is now av…
RT @t_koromila: Excited that our @PLOSGenetics paper is out! A new photo-N-degron that can be used in Optogenetic in vivo studies is now av…
Excited that our @PLOSGenetics paper is out! A new photo-N-degron that can be used in Optogenetic in vivo studies is now available https://t.co/tGMu95pDFx! Fun to collaborate with the Stein lab! Also, thank you @Angela_Stathop, David Stein and James McGehee