Recent and ongoing
selection in the human genome.
Targets of balancing
selection in the human genome.
Positive
selection in the human genome inferred from human — chimp — mouse orthologous gene alignments Clark, A. G., S. Glanowski, R. Nielsen, P. Thomas et al. 2003.
Positive
selection in the human genome inferred from human — chimp — mouse orthologous gene alignments.
An international team of scientists from Australia, the Netherlands, Estonia and the United States has detected significant signatures of natural
selection in the human genome that influence traits associated with fertility and heart function.
In one of the first comprehensive genome scans for selection, to be published online March 7, 2006, in the Public Library of Science - Biology in a paper, titled «A Map of Recent Positive
Selection in the Human Genome,» the researchers found widespread evidence of evolution in all of the populations studied.
Not exact matches
Comparisons of the Neandertal
genome to the
genomes of five present - day
humans from different parts of the world identify a number of genomic regions that may have been affected by positive
selection in ancestral modern
humans, including genes involved
in metabolism and
in cognitive and skeletal development.
«New algorithm can pinpoint mutations favored by natural
selection in large sections of the
human genome.»
A team of scientists has developed an algorithm that can accurately pinpoint,
in large regions of the
human genome, mutations favored by natural
selection.
Once transferred into the
human genome, however, these alleles became subject to natural
selection, which was more effective
in the larger
human populations and has removed these gene variants over time.
Neanderthal genetic material is found
in only small amounts
in the
genomes of modern
humans because, after interbreeding, natural
selection removed large numbers of weakly deleterious Neanderthal gene variants, according to a study by Ivan Juric and colleagues at the University of California, Davis, published November 8th, 2016
in PLOS Genetics.
In the current study, Chaput designed an in vitro selection strategy to identify human genome sequences that initiate cap - independent translatio
In the current study, Chaput designed an
in vitro selection strategy to identify human genome sequences that initiate cap - independent translatio
in vitro
selection strategy to identify
human genome sequences that initiate cap - independent translation.
In particular, the Neandertal genome sequence can now be used to catalog changes that have become «fixed» (are invariant within a population or species) in modern humans during the last few hundred thousand years and should be helpful for identifying genes affected by positive selection since humans diverged from Neandertal
In particular, the Neandertal
genome sequence can now be used to catalog changes that have become «fixed» (are invariant within a population or species)
in modern humans during the last few hundred thousand years and should be helpful for identifying genes affected by positive selection since humans diverged from Neandertal
in modern
humans during the last few hundred thousand years and should be helpful for identifying genes affected by positive
selection since
humans diverged from Neandertals.
Sabeti adds, «The study of natural
selection in humans is incredibly active right now, and this paper is part of a wide array of exciting new
genome - wide surveys.»
As they report
in this month's issue of
Genome Research, the results were not consistent with balancing
selection over the last half million years of
human evolution but more likely due to as yet unknown selective pressures.
In the study, the researchers applied genomic methods to identify candidate regions in the human genome showing positive selection regions with musical aptitud
In the study, the researchers applied genomic methods to identify candidate regions
in the human genome showing positive selection regions with musical aptitud
in the
human genome showing positive
selection regions with musical aptitude.
In Eric Lander's lab at the Broad Institute, she scanned the entire human genome to figure out which genes have changed within the last 10,000 years and which have spread rapidly in the human gene pool due to natural selectio
In Eric Lander's lab at the Broad Institute, she scanned the entire
human genome to figure out which genes have changed within the last 10,000 years and which have spread rapidly
in the human gene pool due to natural selectio
in the
human gene pool due to natural
selection.
Natural
selection on protein - coding genes
in the
human genome.
Simultaneous inference of
selection and population growth from patterns of variation
in the
human genome.
The paper itself is very statistical
in nature, with various «
selection models» applied to determine the demographic and selective effects on amino acid variation
in the
human genome.
Natural
selection and the distribution of identity - by - descent
in the
human genome Albrechtsen, A., I. Moltke, and R. Nielsen.
Natural
selection on protein - coding genes
in the
human genome Bustamante, C. D., A. Fledel - Alon, S. Williamson, R. Nielsen et al. 2005.
Selection - free
genome editing of the sickle mutation
in human adult hematopoietic stem / progenitor cells.
By scanning the entire
human genome in search of genetic variations that may signal recent evolution, University of Chicago researchers found more than 700 genetic variants that may be targets of recent natural positive
selection during the past 10,000 years of
human evolution.
In this study, two researchers from the University of Pennsylvania, Kelsey E. Johnson and Benjamin F. Voight, wanted to investigate how shared positive
selection pressures over different populations were affecting the
human genome.