Patrick R H Steinmetz
Overview
Explore the profile of Patrick R H Steinmetz including associated specialties, affiliations and a list of published articles.
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19
Citations
1171
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Recent Articles
1.
Miramon-Puertolas P, Pascual-Carreras E, Steinmetz P
Nat Commun
. 2024 Oct;
15(1):8765.
PMID: 39384751
Germline segregation, essential for protecting germ cells against mutations, occurs during early embryogenesis in vertebrates, insects and nematodes. Highly regenerative animals (e.g., cnidarians), however, retain stem cells with both germinal...
2.
Garschall K, Pascual-Carreras E, Garcia-Pascual B, Filimonova D, Guse A, Johnston I, et al.
Development
. 2024 Jul;
151(20).
PMID: 38980277
Many animals share a lifelong capacity to adapt their growth rates and body sizes to changing environmental food supplies. However, the cellular and molecular basis underlying this plasticity remains only...
3.
Gahan J, Cartwright P, Nicotra M, Schnitzler C, Steinmetz P, Juliano C
Evodevo
. 2023 Aug;
14(1):13.
PMID: 37620964
The second annual Cnidarian Model Systems Meeting, aka "Cnidofest", took place in Davis, California from 7 to 10th of September, 2022. The meeting brought together scientists using cnidarians to study...
4.
Lemaitre Q, Bartsch N, Kouzel I, Busengdal H, Richards G, Steinmetz P, et al.
Nat Commun
. 2023 Aug;
14(1):4854.
PMID: 37563174
Neurogenesis has been studied extensively in the ectoderm, from which most animals generate the majority of their neurons. Neurogenesis from non-ectodermal tissue is, in contrast, poorly understood. Here we use...
5.
Steinmetz P
Curr Biol
. 2023 Jul;
33(13):R717-R719.
PMID: 37433272
The evolutionary origin of animal segmentation has been debated for centuries. A new study now reveals genetic similarities between the patterning of segmental pouches in a sea anemone, traditionally considered...
6.
Cole A, Jahnel S, Kaul S, Steger J, Hagauer J, Denner A, et al.
Nat Commun
. 2023 Mar;
14(1):1747.
PMID: 36990990
Animals are typically composed of hundreds of different cell types, yet mechanisms underlying the emergence of new cell types remain unclear. Here we address the origin and diversification of muscle...
7.
Lebouvier M, Miramon-Puertolas P, Steinmetz P
Curr Biol
. 2022 Sep;
32(21):4620-4630.e5.
PMID: 36084649
The emergence of systemic nutrient transport was a key challenge during animal evolution, yet it is poorly understood. Circulatory systems distribute nutrients in many bilaterians (e.g., vertebrates and arthropods) but...
8.
Steinmetz P
Cell Tissue Res
. 2019 Aug;
377(3):321-339.
PMID: 31388768
Digestive systems and extracellular digestion are key animal features, but their emergence during early animal evolution is currently poorly understood. As the last common ancestor of non-bilaterian animal groups (sponges,...
9.
Sebe-Pedros A, Saudemont B, Chomsky E, Plessier F, Mailhe M, Renno J, et al.
Cell
. 2018 Jun;
173(6):1520-1534.e20.
PMID: 29856957
The emergence and diversification of cell types is a leading factor in animal evolution. So far, systematic characterization of the gene regulatory programs associated with cell type specificity was limited...
10.
Steinmetz P, Aman A, Kraus J, Technau U
Nat Ecol Evol
. 2017 Nov;
1(10):1535-1542.
PMID: 29185520
Cnidarians (for example, sea anemones and jellyfish) develop from an outer ectodermal and inner endodermal germ layer, whereas bilaterians (for example, vertebrates and flies) additionally have a mesodermal layer as...