Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to reconstruct early algal evolution. Enhanced C29 sterol abundances provide algal cell membranes a density advantage in large temperature fluctuations. Here, we combined a literature review with new analyses to generate a comprehensive inventory of unambiguously syngenetic steranes in Neoproterozoic rocks. Our results show that the capacity for C29 24-ethyl-sterol biosynthesis emerged in the Cryogenian, that is, between 720 and 635 million years ago during the Neoproterozoic Snowball Earth glaciations, which were an evolutionary stimulant, not a bottleneck. This biochemical innovation heralded the rise of green algae to global dominance of marine ecosystems and high...
The transition from simple, single cellular eukaryotes to more complex multicellular organisms, incl...
The transition from simple, single cellular eukaryotes to more complex multicellular organisms, incl...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to reconstruct early alga...
Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to reconstruct early alga...
Sedimentary hydrocarbon remnants of eukaryotic C-26-C-30 sterols can be used to reconstruct early al...
International audienceSedimentary hydrocarbon remnants of eukaryotic C 26-C 30 sterols can be used t...
International audienceSedimentary hydrocarbon remnants of eukaryotic C 26-C 30 sterols can be used t...
International audienceSedimentary hydrocarbon remnants of eukaryotic C 26-C 30 sterols can be used t...
International audienceSedimentary hydrocarbon remnants of eukaryotic C 26-C 30 sterols can be used t...
Sedimentary hydrocarbon remnants of eukaryotic C₂₆-C₃₀ sterols can be used to reconstruct early alga...
Hoshino, Yosuke et al.Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to ...
Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to reconstruct early alga...
Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to reconstruct early alga...
Steroids, a class of triterpenoid lipids with high preservation potential, are widely distributed in...
The transition from simple, single cellular eukaryotes to more complex multicellular organisms, incl...
The transition from simple, single cellular eukaryotes to more complex multicellular organisms, incl...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to reconstruct early alga...
Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to reconstruct early alga...
Sedimentary hydrocarbon remnants of eukaryotic C-26-C-30 sterols can be used to reconstruct early al...
International audienceSedimentary hydrocarbon remnants of eukaryotic C 26-C 30 sterols can be used t...
International audienceSedimentary hydrocarbon remnants of eukaryotic C 26-C 30 sterols can be used t...
International audienceSedimentary hydrocarbon remnants of eukaryotic C 26-C 30 sterols can be used t...
International audienceSedimentary hydrocarbon remnants of eukaryotic C 26-C 30 sterols can be used t...
Sedimentary hydrocarbon remnants of eukaryotic C₂₆-C₃₀ sterols can be used to reconstruct early alga...
Hoshino, Yosuke et al.Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to ...
Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to reconstruct early alga...
Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to reconstruct early alga...
Steroids, a class of triterpenoid lipids with high preservation potential, are widely distributed in...
The transition from simple, single cellular eukaryotes to more complex multicellular organisms, incl...
The transition from simple, single cellular eukaryotes to more complex multicellular organisms, incl...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...