@johannakrueger.bsky.social
(5/6)
We simulated ancient data by only using fragmentary sequence information and performed phylogenetic analysis on different degrees of fragmentation. A correct placement of nearly all family and genera was possible with as little as 12% of the full-length sequence data (panel c).
We simulated ancient data by only using fragmentary sequence information and performed phylogenetic analysis on different degrees of fragmentation. A correct placement of nearly all family and genera was possible with as little as 12% of the full-length sequence data (panel c).
March 3, 2025 at 6:25 PM
(5/6)
We simulated ancient data by only using fragmentary sequence information and performed phylogenetic analysis on different degrees of fragmentation. A correct placement of nearly all family and genera was possible with as little as 12% of the full-length sequence data (panel c).
We simulated ancient data by only using fragmentary sequence information and performed phylogenetic analysis on different degrees of fragmentation. A correct placement of nearly all family and genera was possible with as little as 12% of the full-length sequence data (panel c).
(4/6)
One big surprise was that the deepest split in primates was affected by whether collagens belong to the proteins used in the phylogenetic analysis. The inclusion of particular collagen sequences caused a placement of tarsiers with strepsirrhines - a placement that nowadays is widely rejected.
One big surprise was that the deepest split in primates was affected by whether collagens belong to the proteins used in the phylogenetic analysis. The inclusion of particular collagen sequences caused a placement of tarsiers with strepsirrhines - a placement that nowadays is widely rejected.
March 3, 2025 at 6:24 PM
(4/6)
One big surprise was that the deepest split in primates was affected by whether collagens belong to the proteins used in the phylogenetic analysis. The inclusion of particular collagen sequences caused a placement of tarsiers with strepsirrhines - a placement that nowadays is widely rejected.
One big surprise was that the deepest split in primates was affected by whether collagens belong to the proteins used in the phylogenetic analysis. The inclusion of particular collagen sequences caused a placement of tarsiers with strepsirrhines - a placement that nowadays is widely rejected.
(3/6)
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
March 3, 2025 at 6:24 PM
(3/6)
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
(3/6)
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
March 3, 2025 at 6:21 PM
(3/6)
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
(4/6)
One big surprise was that the deepest split in primates was affected by whether collagens belong to the proteins used in the phylogenetic analysis. The inclusion of particular collagen sequences caused a placement of tarsiers with strepsirrhines - a placement that nowadays is widely rejected.
One big surprise was that the deepest split in primates was affected by whether collagens belong to the proteins used in the phylogenetic analysis. The inclusion of particular collagen sequences caused a placement of tarsiers with strepsirrhines - a placement that nowadays is widely rejected.
March 3, 2025 at 6:21 PM
(4/6)
One big surprise was that the deepest split in primates was affected by whether collagens belong to the proteins used in the phylogenetic analysis. The inclusion of particular collagen sequences caused a placement of tarsiers with strepsirrhines - a placement that nowadays is widely rejected.
One big surprise was that the deepest split in primates was affected by whether collagens belong to the proteins used in the phylogenetic analysis. The inclusion of particular collagen sequences caused a placement of tarsiers with strepsirrhines - a placement that nowadays is widely rejected.
(5/6)
We simulated ancient data by only using fragmentary sequence information and performed phylogenetic analysis on different degrees of fragmentation. A correct placement of nearly all family and genera was possible with as little as 12% of the full-length sequence data (panel c).
We simulated ancient data by only using fragmentary sequence information and performed phylogenetic analysis on different degrees of fragmentation. A correct placement of nearly all family and genera was possible with as little as 12% of the full-length sequence data (panel c).
March 3, 2025 at 6:20 PM
(5/6)
We simulated ancient data by only using fragmentary sequence information and performed phylogenetic analysis on different degrees of fragmentation. A correct placement of nearly all family and genera was possible with as little as 12% of the full-length sequence data (panel c).
We simulated ancient data by only using fragmentary sequence information and performed phylogenetic analysis on different degrees of fragmentation. A correct placement of nearly all family and genera was possible with as little as 12% of the full-length sequence data (panel c).
(3/5)
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
March 3, 2025 at 6:09 PM
(3/5)
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).
We translated 14 dental enamel protein sequences from 232 primate species. First, we checked how sequence conservation coincides with those peptides that are typically recovered from ancient dental enamel of different ages (purple shading).