What Can the Origins of Multicellular Life Teach Us About How Bodies Function?

Abstract information

Multicellular organisms first took their place in the evolutionary chain some 450 million years ago. In this video, THOMAS BOSCH seeks to extend our understanding of how human and animal bodies function via analysis of these ancient creatures. Focusing on the freshwater polyp Hydra and employing techniques including molecular cell biology, modern sequencing technology and in depth study of stem cell behavior, Bosch argues that what were heretofore considered ancient simple creatures, are, in fact, decidedly complex. Providing important new insight into the microbial world, Bosch’s work underlines the fact that all life is multiorganismic, raising fundamental philosophical questions about how we define individuality.

DOI:

https://doi.org/10.21036/LTPUB10732

Researcher

Professor Thomas Bosch is Director of the Kiel Life Science (KLS) Interdisciplinary Research Center at Kiel University. A Senior Fellow of the Canadian Institute for Advanced Research (CIFAR), Bosch also leads the German Science Foundation’s “Origin and Function of Metaorganisms” Collaborative Research Center. His research interests include the individual as metaorganism, stem cells and ageing and evolutionary immunology. Editor in Chief of Zoology, Bosch was awarded an honorary doctorate from St. Petersburg State University in 2004.

Institution information

Collaborative Research Center 1182 „Origin and Function of Metaorganisms“ (Kiel University)

From protists to humans, all animals and plants are inhabited by microbial organisms. There is an increasing appreciation that these resident microbes influence fitness of their plant and animal hosts, ultimately forming a metaorganism consisting of a uni- or multicellular host and a community of associated microorganisms. Research on host-microbe interactions has become an emerging cross-disciplinary field. In both vertebrates as well as invertebrates a complex microbiome confers immunological, metabolic and behavioural benefits; its disturbance can contribute to the development of disease states. However, the molecular and cellular mechanisms controlling interactions within the metaorganisms are poorly understood and many key interactions between the associated organisms remain unknown. The CRC 1182 at Kiel University adresses theses questions particularly by investigating: · the specific functional consequences of the interactions, · the underlying regulatory principles, · the resulting impact on host life history and evolutionary fitness in selected host systems. ( https://www.metaorganism-research.com/ )
Collaborative Research Center 1182 „Origin and Function of Metaorganisms“ (Kiel University)

Original Publication

Rethinking the Role of the Nervous System: Lessons from the Hydra Holobiont

Alexander Klimovich,

Thomas C. G. Bosch

Published in

How the Microbiome Challenges our Concept of Self

Tobias Rees,

Thomas C. G. Bosch,

Angela E. Douglas

Published in

A Secreted Antibacterial Neuropeptide Shapes the Microbiome of Hydra

René Augustin,

Katja Schröder,

Andrea P. Murillo Rincón,

Sebastian Fraune,

Friederike Anton‐Erxleben,

Published in

Back to the Basics: Cnidarians Start to Fire

Thomas C. G. Bosch,

Alexander Klimovich,

Tomislav Domazet‐Lošo,

Stefan Gründer,

Thomas W. Holstein,

Published in

The Holobiont Imperative - Perspectives from Early Emerging Animals

Thomas C. G. Bosch,

D.J. Miller

Published in

Citation

Thomas Bosch, 

Latest Thinking, 

What Can the Origins of Multicellular Life Teach Us About How Bodies Function?, 

https://doi.org/10.21036/LTPUB10732, 

Credits:

© Thomas Bosch

and Latest Thinking

This work is licensed under CC-BY 4.0