//
sign in
Profile
by @danabra.mov
Profile
by @dansshadow.bsky.social
Profile
by @jimpick.com
AviHandle
by @danabra.mov
AviHandle
by @dansshadow.bsky.social
AviHandle
by @katherine.computer
EventsList
by @katherine.computer
ProfileHeader
by @dansshadow.bsky.social
ProfileHeader
by @danabra.mov
ProfileMedia
by @danabra.mov
ProfilePlays
by @danabra.mov
ProfilePosts
by @danabra.mov
ProfilePosts
by @dansshadow.bsky.social
ProfileReplies
by @danabra.mov
Record
by @atsui.org
Skircle
by @danabra.mov
StreamPlacePlaylist
by @katherine.computer
+ new component
Profile
Loading...








Loading...
Great effort from @tiltedscientist.bsky.social @dcshepherd.bsky.social @bindusmitapaul.bsky.social. Thanks to @unimelb.edu.au @FMDHS @ccemmp-outreach.bsky.social @CGCPT @bio21director.bsky.social
Really excited about this work, you can read more here: www.cell.com/current-biol.... Wonderful collaboration with Brendan Burns, Iain Duggin and Katharine Michie labs.
From these cultures, after years of effort, we captured the first direct physical interaction between an Asgard archaeon and a bacterium via nanotubes, offering a rare glimpse into an event that may have led to the emergence of the first eukaryotic cell billions of years ago.
We analysed microbial mats from stromatolites in Shark Bay, Australia – environments that resemble early Earth and act like ~living fossils or time capsules of evolutionary history. These environments host diverse microbial communities akin to those that thrived in ancient times.🔬❄️🧬 🦠
One of biggest mysteries in biology: how did complex eukaryotic cells evolve from simple microbes? ~1.8 billion years ago, an archaeal cell likely merged with a bacterium to form the first eukaryotic cell, but can we ever find direct evidence of this transformative event? 🦠 🚶‍♂️
Emma Johnston (1973–2025) | Nature Ecology & Evolution share.google/8C3YzLRFM9QC...
Beautiful work Deb! Check out these structures? Biofilms are very interesting. 🧶🧬
1/ Excited to share our new paper in Science @science.org: “Toward life with a 19-amino acid alphabet through generative artificial intelligence design.” A great collab w/ Sergey's group @sokrypton.org at MIT @columbiasysbio.bsky.social science.org/doi/10.1126/... 🦠🧬🛠️🖥️💥
2 year fellowship available in AMR research www.medicalresearchfoundation.org.uk/grants/antim...
2mo
2mo
2mo
2mo
2mo
3mo
Video
3mo
1mo
3mo
Because all known living organisms are made from at least 20 canonical amino acids, the feasibility of life using a more simplified alphabet remains unclear. In this work, we leveraged computational d...
science.org
Toward life with a 19–amino acid alphabet through generative artificial intelligence design