Steroids, a class of triterpenoid lipids with high preservation potential, are widely distributed in sedimentary rocks. All eukaryotes have a physiological requirement for these molecules, making steroids important biomarkers for aiding our understanding of eukaryote molecular evolution and geologic history. C-26-C-30 sterols are the molecules most commonly incorporated or synthesized by eukaryotes, and correspond to C-26-C-30 steranes ubiquitously and abundantly preserved in petroleums and sedimentary bitumens. Because these sterols occur in evolutionarily diverse taxa, it can be difficult to associate any particular compound with a single group of organisms. Nevertheless, geochemists have still been able to draw parallels between the empi...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Hoshino, Yosuke et al.Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to ...
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 C-26-C-30 sterols can be used to reconstruct early al...
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 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 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...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Hoshino, Yosuke et al.Sedimentary hydrocarbon remnants of eukaryotic C26–C30 sterols can be used to ...
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 C-26-C-30 sterols can be used to reconstruct early al...
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 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 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...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...
Molecular fossils (or biomarkers) are key to unraveling the deep history of eukaryotes, especially i...