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Tardinomis – Decrypting Cryptobiosis in Tardigrades

NOMIS Project 2017

— 2021

Tardigrades are extraordinary beings that have been sent to outer space and found to survive after returning to earth. Commonly known as water bears or moss piglets, these microscopic animals are capable of surviving environmental extremes—including freezing to -230 C, ionizing radiation and total dehydration—through cryptobiosis (“hidden life”). Cryptobiosis is the reversible physiological state of an organism when it shows no sign of life, and when metabolic activity is no longer measurable. This ametabolic state is an adaptation among tardigrades that enables the animal to survive extreme conditions.

The Tardinomis–Decrypting Cryptobiosis in Tardigrades project set out to explore the molecular mechanisms for preserving cellular integrity during cryptobiosis, as well as the genetic programs that initiate the transition in and out of cryptobiosis. Understanding this unique state of being neither dead nor alive could significantly advance the frontiers of contemporary biology, leading to new insights into the deterioration of protein homeostasis underlying human aging and several neurodegenerative disorders.

The project was led by Alwin Köhler at the Max Perutz Labs Vienna in Austria.

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NOMIS Researcher(s)

Scientific director and professor of mechanistic cell biology
Max Perutz Labs Vienna
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Project News

NOMIS researcher Alwin Köhler and colleague Anete Romanauska have successfully transformed cell nuclei, which are typically round, into cell nuclei with edges. This spectacular shape change was accomplished by genetic […]

NOMIS researcher Alwin Köhler has been elected as a member of the European Molecular Biology Organization (EMBO). Every year EMBO selects distinguished scientists who have made outstanding contributions in the […]

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Project Insights

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