You quoted me on estimates of average nucleotide diversity among populations and between populations, not $$\textrm{F}_{\textrm{ST}}$$. So there is no need to fault my arithmetic.
The observation that a statistic like $$\textrm{F}_{\textrm{ST}}$$ is not impressive of itself is generic to the field of statistics. $$\textrm{F}_{\textrm{ST}}$$ is sensitive to how you look at the genome. Sampling only 8 loci is inferior to comparing average nucleotide diversity or the wide spectrum methods used in the 2004 articles, covering hundreds of SNPs above. Likewise, the maximum value of $$\textrm{F}_{\textrm{ST}}$$ over all possible partitions for a given population is not 1, but a lower value depending on variation. This means you can't direction compare $$\textrm{F}_{\textrm{ST}}$$ for populations of humans and $$\textrm{F}_{\textrm{ST}}$$ across species.
The figures you highlight in bold do not come from Long (2009), but rather from Long and Kittles (2003) and has been cited as reference in many papers since, but their opinion is described as too strong for the data they present. The 2009 update doesn't improve the argument.
We are seeking to distinguish a continuum of diversity which clumps in populations of isolated, inbred, villages from the discrete structure implied by terms like "subspecies" and "human race". Both are structures have support. At the nucleotide level we get a broad, very-high dimensional shape with little to suggest partition has occurred. With methods like cladistics, a tree structure always forms whether statistically significant or not.
Finally, you can hardly cite Long for the proposition that there are human races when his opinion from 2003 and 2009 was that there aren't. It's right there in the title of the paper you cite. Also here:
https://deepblue.lib.umich.edu/bitstream/handle/2027.42/62159/20932_ftp.pdf
The observation that a statistic like $$\textrm{F}_{\textrm{ST}}$$ is not impressive of itself is generic to the field of statistics. $$\textrm{F}_{\textrm{ST}}$$ is sensitive to how you look at the genome. Sampling only 8 loci is inferior to comparing average nucleotide diversity or the wide spectrum methods used in the 2004 articles, covering hundreds of SNPs above. Likewise, the maximum value of $$\textrm{F}_{\textrm{ST}}$$ over all possible partitions for a given population is not 1, but a lower value depending on variation. This means you can't direction compare $$\textrm{F}_{\textrm{ST}}$$ for populations of humans and $$\textrm{F}_{\textrm{ST}}$$ across species.
The figures you highlight in bold do not come from Long (2009), but rather from Long and Kittles (2003) and has been cited as reference in many papers since, but their opinion is described as too strong for the data they present. The 2009 update doesn't improve the argument.
We are seeking to distinguish a continuum of diversity which clumps in populations of isolated, inbred, villages from the discrete structure implied by terms like "subspecies" and "human race". Both are structures have support. At the nucleotide level we get a broad, very-high dimensional shape with little to suggest partition has occurred. With methods like cladistics, a tree structure always forms whether statistically significant or not.
Finally, you can hardly cite Long for the proposition that there are human races when his opinion from 2003 and 2009 was that there aren't. It's right there in the title of the paper you cite. Also here:
https://deepblue.lib.umich.edu/bitstream/handle/2027.42/62159/20932_ftp.pdf
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