Coskun Lipid Cellar @ ZML Dresden

@LemmonFerguson Always!, specially when Kate and/or you drop these kind of gems 👍🥰

Thanks Unal. How kind. Hope you are doing well.

Absolutely brilliant work by one of my most favorite labs, Kate Ferguson of Yale university.

@MishaKudryashev Also, one better talk to a tax advisor before and remember the legal regulations of a typical work contract 😂

That's quite interesting.... Adding a 300 USD per review per round will make the reviewing faster and better. Also seems like a fair things to do to compensate for the time (??) And will also add a 2k price tag for a publication paid by the research budgets.

@Lipotype_Global Was really such a great fun with you guys!

Dresden Science Night 2026 --- Lipotype teamed up with the ZML to bring #Lipidomics to Dresden's Long Night of Science. Thank you to everyone who joined us, and to all who helped make the evening happen. More: wissenschaftsnacht-dresden.de/en/events/deta… #Lipotype #LangeNachtDerWissenschaften

@VeijoS +i :)

@VeijoS Fantastic Vejo! Would love to see the 2D averages of the unsymmetrized data set. Really cool

How does a cell remodel the ER membrane into a lipid droplet? Excited to share our new preprint. We find that regulated opening of the seipin ring defines a functional ER–lipid droplet interface — and identify SMLR1 as a regulator of this transition. biorxiv.org/content/10.648…

Lipids at Dresden Science Night on 26th of June! --- The Fedorova Lab, the Coskun group, and Lipotype are at Stand 1.08, CRTD, Fetscherstraße 105. Try thin-layer chromatography, play a lipid game, see a Science Slam and more. More: wissenschaftsnacht-dresden.de/en/events/deta…

@Sveta_Dodonova Funny to see Sebastian as co-author. Give him a hug and congrats to you Sveta

Excited to share our new preprint!🧬❄️ by brilliant Max Dreimann & Co! Using cryo-ET&EM, we reveal archaeal chromatin in a near-native state: variable-beads-on-a-string fibers shaped by growth phase and histone composition tinyurl.com/TkChrom

@TheTafesseLab @OHSUNews @SchultzLabOHSU Dream team #lipidlove

Glad to see this news story highlighting our recent lipid interactome database, a resource we hope will help the broader scientific community. @OHSUNews @SchultzLabOHSU news.ohsu.edu/2026/02/25/new…

@mihnea_bostina Wow Mihnea!

How does mitosis look in its native environment? New article from our group where we used volume EM to describe the 3D ultrastructure of dividing cells in a real tissue context. Congratulations to Nick, Sai and all the collaborators. journals.biologists.com/jcs/article/13…

@DanielJDrucker On can discuss (in)sanity of using a dual chamber syringe, different buffer conditions and a lot more. But about few % difference? My bet anyway is Cagri in its current form will be discontinued.

@DanielJDrucker It is so crazy how badly things a communicated. We are comparing 2.5 mg vs 15 mg! dose. One should discuss how Cagri-Sema can be increased before having problems in terms of biochemistry as well as side-effects.

Cagri-Sema vs, Tirzepatide H2H in REDEFINE-4 #weightloss #obesity novonordisk.com/content/nncorp…

@BarteltLab can be topped only with this one youtube.com/watch?v=dnqxbd…

Postdoc anthem

Please sign up on coming-soon.embo.org/w26-51 to be informed once the website is live.

Ups we did it again! Please mark you calendar: EMBO Workshop “Lipid Code to Life”, taking place September 7–11, 2026, in Dresden, organized by Maria Fedorova, @CoskunPLID , Valerie O'Donnell, Joost Holthuis, Liana C Silva. More details where the Skies are blue!

@OlzmannLab @NatureCellBio @MikeLangePhD super awesome its finally out. just fantastic work. #lipidlove

Excited to share our new study out in @NatureCellBio! Led by postdoc @MikeLangePhD, we identify the first #LipidDroplet lipid quality control pathway: LD-localized FSP1 protects stored lipids from oxidative damage and prevents LD-initiated #ferroptosis. nature.com/articles/s4155…

@jnkath @katherlab wrong address Jakob. Right one is just 400 m across the street :)

our first Sparks arrived @katherlab !

@mmbronstein What a coincidence, just returned from another amazing day on La Maddalena and Caprera 😍

Garibaldi and his mount. I was once bullied by a horse aptly named after the famous revolutionary.

@DeryaTR_ Mechanism, mechanism, mechanism. Biochemistry is key to get rid of the many maybe, might or could be.

In my opinion, this is the most important aging-related paper of the year! It identifies a critical protein that could eventually extend lifespan by many years. Not surprisingly, it involves DNA repair and regulation of the immune response. Below is a breakdown of the key points (via GPT-5): What did they find and why important? •Naked mole-rats live a very long time and rarely get cancer. •A key reason is a tiny change in a cell sensor called cGAS. This sensor usually detects stray DNA inside cells and sounds an alarm to the immune system. •In humans, cGAS can drift into the nucleus and get in the way of one of our best DNA repair tools (called homologous recombination). That means more un-fixed DNA damage over time. •In naked mole-rats, four small amino acid changes in cGAS flip the script. Their version does not block repair. Instead, it helps the high-fidelity repair process work better. Why is this big for aging? •Aging is partly the story of accumulating DNA damage. Better repair means fewer mutations, less cellular dysfunction, and a slower march toward age-related diseases. •If we can make human cGAS behave more like the mole-rat version, we might reduce the daily damage load, which could: •Lower cancer risk •Preserve tissue function longer •Delay multiple age-related declines at once How could this translate to people? 1.Drug design: Create small molecules that keep human cGAS from interfering with DNA repair inside the nucleus, while still letting it do its normal immune-sensing job in the cytosol. 2.Protein engineering or gene therapy: Introduce cGAS variants that mimic the mole-rat’s four changes in high-risk tissues, carefully and locally. 3.Biomarkers and screening: Use cGAS activity and DNA repair efficiency as readouts to find who might benefit and to measure whether a therapy is working. 4.Combination strategies: Pair cGAS-tuning with other repair boosters and senescence-reducers for a bigger effect. Bottom line: A few precise tweaks to one protein can shift the balance from ongoing damage toward cleaner, faster DNA repair. That is exactly the kind of leverage aging research needs: change a small control knob, get system-wide benefits. The naked mole-rat just showed us one such knob. Paper link in the thread.