Max Planck Institute for Biology Tübingen

Max Planck Institute for Biology Tübingen The Max Planck Institute for Biology Tübingen is one of 83 German research institutes of the Max P

The MPI for Biology Tübingen is one of 83 German research institutes of the Max Planck Society.

This is a special week, as we are combining our portrait series     with the  . To celebrate the staff at the institute,...
18/09/2025

This is a special week, as we are combining our portrait series with the . To celebrate the staff at the institute, we have Georgios, a postdoc in Can Aztekin’s lab in the Friedrich Miescher Lab here in Tübingen, who is studying how controlling oxygen levels can prime mammalian cells for scar-free healing, much like the regenerative process seen in some amphibians.

From Sci-Fi to reality: Georgios is turning what we've only seen in movies into a real-world medical breakthrough.


My name is Georgios Tsissios, and I study wound healing and tissue regeneration. My research focuses on understanding why certain amphibians can fully restore the structure and function of lost or damaged limbs, while most mammals, including humans, heal primarily through scarring. We have discovered that environmental factors, particularly oxygen levels, play a critical role in determining healing outcomes and regenerative capacity. By reducing oxygen to subatmospheric levels, we were able to prime mammalian cells to accelerate the wound-healing process, representing an important first step toward achieving scar-free healing.

Watch this amazing survival strategy in action. When a the C.elegans nematode worm is trapped by a predatory fungus A. o...
09/09/2025

Watch this amazing survival strategy in action.

When a the C.elegans nematode worm is trapped by a predatory fungus A. oligospora, it stops struggling and goes into a sleep-like state, a behaviour known as "freezing." The latest research by Tzu-Hsiang Lin, Yen-Ping Hsueh and team in Tübingen and at Academia Sinica in Taiwan uncovers the hidden neural and molecular secrets behind this dramatic response. It's a real-life example of how animals adapt to survive.
This video and graphical abstract explain the entire process.
Read the full story: https://s.gwdg.de/NYkHdO

Huge congratulations to Can Aztekin, our Max Planck Research Group Leader, for securing a coveted ERC Starting Grant! 🎉C...
04/09/2025

Huge congratulations to Can Aztekin, our Max Planck Research Group Leader, for securing a coveted ERC Starting Grant! 🎉

Can's "Signal to Regeneration" (SigReg) project is set to potential limb regeneration in mammals, aiming to understand why mammals can't regenerate limbs like amphibians and how we might change that.

Read more and watch a short video of Can introducing his project.
https://www.fml.tuebingen.mpg.de/69962/news_publication_25294370_transferred?c=2911

The secret to escaping predators lies in genes that control collagen production.Our latest research reveals a predator-p...
02/09/2025

The secret to escaping predators lies in genes that control collagen production.

Our latest research reveals a predator-prey struggle between nematodes and their fungal predators. We discovered that a specific nematode gene, nhr-66, controls the production of cuticular collagens that form a sticky, "Velcro-like" surface on the nematode’s skin.

Here's the twist: while regulating this gene to reduce collagen helps nematodes escape the fungi, it also weakens their protective skin, making them vulnerable to everyday stresses, like rain. It's a classic evolutionary trade-off—a tough choice between defence and survival.

This finding sheds light on how life adapts and could also inspire new "super-glues" or pest control methods.

Dive into the details: https://www.bio.mpg.de/479184/news_publication_25248378_transferred?c=57217

New research in  Ecology & Evolution  reveals the ancient origins of U/V s*x chromosomes in brown algae. An internationa...
27/08/2025

New research in Ecology & Evolution reveals the ancient origins of U/V s*x chromosomes in brown algae.

An international team of researchers traced their evolution over 450 million years, uncovering remarkable stability and surprising cases where they transform into autosomes. This challenges how we view s*x determination.

▶Learn more: https://www.bio.mpg.de/479405/news_publication_25251224_transferred?c=57217

Congrats to first authors Josué Barrera and Agnieszka Lipinska and the rest of the team!

Congratulations to Can Aztekin on being awarded the Rising Star Award 2025 by the International Society of Regenerative ...
18/08/2025

Congratulations to Can Aztekin on being awarded the Rising Star Award 2025 by the International Society of Regenerative Biology (ISRB)!

The prize honours early-career scientists charting new directions in regenerative biology and whose scientific contributions will have a lasting impact on research in the field.

The research group leader at the Friedrich Miescher Laboratory of the Max Planck Society, in Tübingen, has been honoured for his work on the structural regeneration of limbs and understanding the difference in regeneration abilities across species.

Through his research, Can combines cutting-edge sequencing and imaging techniques with traditional developmental biology methods to gain insight into the potential for human limb regeneration in the future.

Learn about Can Aztekin’s research: https://www.fml.tuebingen.mpg.de/69701/news_publication_25222916_transferred

Read up on the mind of a predatory worm 🪱 A new perspective piece in Science highlights important research (published in...
04/08/2025

Read up on the mind of a predatory worm 🪱

A new perspective piece in Science highlights important research (published in the same issue) on the neural connectomes of two nematode species, C.elegans and P.pacificus. The article discusses how a dramatic behavioural switch—like a worm becoming a predator—is driven not by a single change, but by widespread rewiring of the entire nervous system.

This research sheds light on how complex behaviours evolve.

Read the full perspective here:

Widespread neural connectivity changes underlie a behavioral switch between worm species

New Research! Our postdoc Kateryna Maksymenko and team have developed a new method making it possible to design custom p...
29/07/2025

New Research!
Our postdoc Kateryna Maksymenko and team have developed a new method making it possible to design custom proteins that bind precisely to specific sites in diseased cells. A big step for the development of targeted drugs, for example, cancer treatment.
Learn more:
https://www.bio.mpg.de/476284/news_publication_25114980_transferred

Two of our PhD candidates, Alexandra and Gesa, are taking part in   Tübingen this Saturday.We're excited for them to sha...
23/07/2025

Two of our PhD candidates, Alexandra and Gesa, are taking part in Tübingen this Saturday.
We're excited for them to share and explain their research in this fun format.

Drop by and find out more about their work:

📍Holzmarkt, Tübingen (Georgsbrunnen)
📆 Saturday 26 July
⏰ 13:00 to 16:00
https://soapboxsciencetuebingen.github.io/

Adresse

Max-Planck-Ring 5
Tübingen
72076

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