Isnt M458 also a sub-clade of Z282;
so shouldnt it be 12x Z282 [6x* / 5x Z280 / 1x M458 (L1029+)]
just asking;
You are right that M458 is under Z282, but it is still 11x Z282. I should have inserted the M458 inside the brackets). Will correct now.
Isnt M458 also a sub-clade of Z282;
so shouldnt it be 12x Z282 [6x* / 5x Z280 / 1x M458 (L1029+)]
just asking;
My comments below are actually reposted from the Molgen forum where Maciamo's post was reposted yesterday.
The above numbers are a bit confusing. For example, there were no P25* cases in that Sardinian sample, and all R1b members were actually P25+, so those 29 cases of P25 from your list are actually all members of clade V88.
Generally, there were 214 R1b people tested in that sample and this included 29 members of V88 and 185 members of M269.
The M269 group was further divided into the large clade L23 (175 people) and a much smaller M269* group represented by 10 people belonging to a new (relatively young) subclade of M269 (a novel sister clade of L23).
I would rather say that it is P312 (including of course U152) that is a dominant form of R1b in Sardinia, as the L23 group included only six members of L23(xL51), three members of L51(xL11), three cases of L11(xP312,Z381) and two cases of Z381 (a subclade of U106, though it should be noted that U106 itself was not analyzed). The remaining 161 people were all P312+, and this included 128 members of U152, as you have rightly noticed.
These numbers do not seem to be correct. Those 15 R1a members were all R1a-Z645, and in addition to those 11 members of Z282 you have mentioned, there were actually four cases of Z93, including three people tested as Z94+ (all of them indeed Z2123+).
The Z282 group included indeed five Z280 members, but all six remaining Z282 members were likely M458+ (although M458 was not tested, but their M458+ status could be deduced from the positive PF6155 and PF7521 results). Generally, there is a problem with an insufficient SNP detection rate for haplogroup R1a (and generally for all lineages that were not well represented in that Sardinian sample). For example, the only case recognized as L1029+ was assigned as negative for PF6155 and PF7521 (both being upstream of L1029). As for the entire group of eleven Z282 members, only three of them were tested as Z282+ and four were tested as Z283+ (so the Z283/Z282+ status of the entire group was based on some downstream markers only). All this makes it quite likely that all those M458 members identified in Sardinia were either L1029+ or L260+ (as the region encompassing L260 was most likely not analysed).
In addition to Z282 and Z283, there is another new SNP marker uniting M458 and Z280 called CTS11197 (not found in the Z93 branch). Since this mutation was initially identified in the 1KG project, I suspect that it is shared with Z284 (otherwise somebody would have noticed that it separates M458 and Z280 from Z284), but it would be of course reasonable to verify it.
As for the Z280 group, it includes one individual that is likely negative for both CTS1211 and CTS3607. Intriguingly, he is positive for a marker called CTS4648 that was first identified in a 1KG sample (though I don't know in which one). Importantly, this particular marker is included into the Geno 2.0 chip but no R1a member has been tested positive for it, so far.
The remaining four Z280 members seem to be positive for CTS1211 and CTS3607, and I suspect that three of them belong to a specific subclade of CTS1211 (or even a subclade of CTS3402, although CTS3402 was probably not analysed), as they all were positive for at least 12 markers downstream of CTS1211, including CTS8816 (first identified in a 1KG sample but not included into Geno 2.0).
I don't think that connecting L1029 with Vandals (and generally with some early Germanic tribes) is a reasonable assumption, but let's wait for some aDNA data.![]()
That's interesting. I wrote 2-3 years ago somewhere on this web site that I suspected Vandals to be a mixture of Germanic and Slavic tribes, with Germanic language as dominant.Regarding the Vandals, I added an explanation yesterday about the probable assimilation of Proto-Slavic people when the Vandals stayed in Poland, before invading the Roman Empire. Adding the two I2a1b-M423 samples in Sardinia, it looks like 40% of the Vandals' male lineages came from Poland rather than Sweden.
That's interesting. I wrote 2-3 years ago somewhere on this web site that I suspected Vandals to be a mixture of Germanic and Slavic tribes, with Germanic language as dominant.
I don't think that's the purpose of Sparkey's thread. Where is he tying Sardinian genetics to a larger theme? I'm not seeing it... But anyway I do think it's useful to take a peek at this island because it is so far removed from the norm. What speaks to me is the echo of the whole "boats, horses, and farming" set up that has been repeated on a macro-level throughout the European theater. (With hg. I having boats, R1b having the horses, and G2a, E1, and J tending the earliest farms.) My island refuge theory holds up with these more detailed reports, but it looks like I2 would have landed on an island that was already settled-- probably rather thinly-- by some G, J, and E members.I don't see the point of analysing the European Y-chromosomal phylogeny from a Sardinian standpoint...
The Arabs never colonised Sardinia.
There were only 3 R1a-Z2123 samples in Sardinia, i.e. 0.25% of the population. That is consistent with the very minor size of the Alanic contingent, and in good proportion to the 34 samples that could be of Vandalic origin (2.8%).
David Faux already mentioned this scenario in his paper - "Norse coming from central Asia" ( or something similar title along these lines).
But anyway I do think it's useful to take a peek at this island because it is so far removed from the norm. What speaks to me is the echo of the whole "boats, horses, and farming" set up that has been repeated on a macro-level throughout the European theater. (With hg. I having boats, R1b having the horses, and G2a, E1, and J tending the earliest farms.) My island refuge theory holds up with these more detailed reports, but it looks like I2 would have landed on an island that was already settled-- probably rather thinly-- by some G, J, and E members.
I would like to investigate what percentage of Y-DNA in Sardinia can be attributed to the Phoenicians. Since the Arabs, Greeks or Etruscans didn't settle in Sardinia, all the Southwest Asian and most of the West Asian DNA in Sardinia ought to have come through the Phoenicians.
Autosomal DNA
Based on the Dodecad's K=12 autosomal admixtures, the Sardinians have 6.2% of Southwest Asian and 4.6% of West Asian admixture (along with 55.5% of Mediterranean). Modern Lebanese, the presumed descendants of the Phoenicians, have 23.9% of Southwest Asian, 32.4% of West Asian, and 28.8% of Mediterranean.
Since Ötzi had very little West Asian and no Southwest Asian admixture, it is relatively safe to think that Neolithic farmers didn't bring those admixtures, and that it is consequently of Phoenician or Roman origin. Modern Central Italians have 7.2% of Southwest Asian and 21.6% of West Asian, but since they are certainly not representative of admixtures of ancient Romans of the Republic since ancient Rome became a huge melting pot during the empire and completely changed the gene pool of central Italy.
We could calculate the proportion of Phoenician vs Roman by looking at the Southwest Asian vs West Asian ratio. For the Phoenicians it is 3/4. For the Central Italians it is 1/3. Sardinians are unique in having more Southwest Asian than West Asian. Their ratio is the same as the Phoenicians by inverted. That makes them intermediary between modern Jordanians and Saudis. As a result, it can be envisaged that the Phoenicians had a higher proportion of J1 to J2 than modern Lebanese. It's actually hard to see how the Romans could have contributed any West Asian admixture at all, since they would have raised its proportion to the Southwest Asian admixture to around 50-50 (unless of course the ancient Romans had more Southwest Asian than West Asian, but I cannot imagine how this could be). So it is very possible that all the Southwest Asian and almost all the West Asian in Sardinia is of Phoenician origin. If that is the case, then around 5% of Mediterranean admixture could also be Phoenician, bring the total of autosomal DNA of Phoenician origin to approximately 16%. Let's see if similar proportions can be obtained from Y-DNA
Y-DNA
I have revised the Y-DNA frequencies for Sardinia, adding the Francalacci data to the previous data. The Sardinians now have an average of 4% of J1, 2.5% of R1b-V88, and 0.8% of R2, the three haplogroups that are most strongly correlated with the Phoenician homeland in modern Lebanon. They also surely brought J2, E1b1b, G2a and T, but so did Neolithic farmers and probably also the Romans. The difficulty lies in sorting out how much E1b1b and J2 is Phoenician and how much is Roman or Neolithic.
Based on modern frequencies in Lebanon, J2 is only slightly higher than J1 (26% against 20%). That is almost exactly the same proportion as among Jewish people. Therefore there is a good chance that the Phoenicians also had a similar proportion. If that is the case, 4 to 5% of Sardinian J2 would be Phoenician. But it could be just 1.5% or 2% if the Phoenicians really had a J1/J2 proportion intermediary between modern Jordanians and Saudis.
E1b1b is slightly lower than J1, so perhaps 3 to 3.5% of Sardinian E1b1b can be considered Phoenician.
Haplogroup T is at 5% in Lebanon, 1/4 of J1. That would give us 1% of Phoenician T, and 0.5% of Neolithic and/or Roman.
Haplogroup G is found at 1/3 of the frequency of J1 in Lebanon. G2a is at 12% in Sardinia, so 4% could be Phoenician.
There is 8% of R1b in Lebanon, but according to the largest study on Lebanese Y-DNA V88 is only a small minority of the R1b lineages. Most are M269 or downstream (presumably L23). So there could be 4% of Phoenician R1b in Sardinia, the same as G2a, which is in agreement with the modern Lebanese frequencies.
As mentioned above, R1a-Z93 and Q1a3c could also be Phoenician, but could just as well be Alanic.
Haplogroup L, A and E1a could all have been brought by the Phoenicians. This would add up to 1.6% of Phoenician Y-DNA.
Overall I estimate that between 16% and 24% of Sardinian paternal lineages are of Phoenician origin. It is only slightly higher than the autosomal DNA. That would mean that the Phoenicians brought their women with them to their colonies and did not intermarry a lot with local women - at least in the case of Sardinia.
UPDATE 1:
In addition to the Phoenician Y-DNA there is 5.5% of North African E-M81 in Sardinia. It is likely that most of it came to Sardinia when the island was part of the Phoenician/Carthaginian empire. This subclade of E1b1b can neither be considered Neolithic nor Roman. 1% of Lebanese Y-DNA is E-M81. Not enough to account for more than a tiny fraction of the 5.5%.
E-M123, which makes up 2% of Sardinian lineages, is much higher in the Levant than in Europe, meaning that most of it could be of Phoenician origin, leaving perhaps 1.5% or 2% of Phoenician E-M78, and the rest of Neolithic origin. If that is true, then the Romans would have practically not contributed to any E1b1b in Sardinia. The alternative would be that either Neolithic farmers and/or the Phoenicians had much less E1b1b than thought. Anyway it is certain from this study that the Romans carried a much higher percentage of R1b-U152 than of E1b1b.
As for J2, even if Neolithic farmers had none of it, the Romans could only have brought between 2% and 6% to Sardinia once the Phoenician J2 is deducted. It is still a far cry from the 10.5% of R1b-U152.
Z2123 is very widespread from India to the Bashkirs to Germany. If it does prove to be Middle Eastern in origin I imagine it was probably brought into Sardinia during the Roman or Byzantine Empires. Or if Z2123 originated in the steppe, then the Alans are the likely source along with perhaps the Q1a3c.
It's not really too Slavic looking at all. The Z282 and Z280 are probably remnants from the Pomeranian Culture (650BCE-200BCE) and Lusatian Culture (1300 BCE - 500BCE) which are by most accounts Baltic with strong connections to the Nordic Bronze Age.
...
Needless to say that only the Roman times and the Medieval times can be the source for this
substantial (every tenth Sardinian) amount of R1b-U152 in Sardinia...
I would like to investigate what percentage of Y-DNA in Sardinia can be attributed to the Phoenicians. Since the Arabs, Greeks or Etruscans didn't settle in Sardinia, all the Southwest Asian and most of the West Asian DNA in Sardinia ought to have come through the Phoenicians.
Autosomal DNA
Based on the Dodecad's K=12 autosomal admixtures, the Sardinians have 6.2% of Southwest Asian and 4.6% of West Asian admixture (along with 55.5% of Mediterranean). Modern Lebanese, the presumed descendants of the Phoenicians, have 23.9% of Southwest Asian, 32.4% of West Asian, and 28.8% of Mediterranean.
Since Ötzi had very little West Asian and no Southwest Asian admixture, it is relatively safe to think that Neolithic farmers didn't bring those admixtures, and that it is consequently of Phoenician or Roman origin. Modern Central Italians have 7.2% of Southwest Asian and 21.6% of West Asian, but they are certainly not representative of admixtures of ancient Romans of the Republic since ancient Rome became a huge melting pot during the empire and completely changed the gene pool of central Italy.
We could calculate the proportion of Phoenician vs Roman by looking at the Southwest Asian vs West Asian ratio. For the Phoenicians it is 3/4. For the Central Italians it is 1/3. Sardinians are unique in having more Southwest Asian than West Asian. Their ratio is the same as the Phoenicians by inverted. That makes them intermediary between modern Jordanians and Saudis. As a result, it can be envisaged that the Phoenicians had a higher proportion of J1 to J2 than modern Lebanese. It's actually hard to see how the Romans could have contributed any West Asian admixture at all, since they would have raised its proportion to the Southwest Asian admixture to around 50-50 (unless of course the ancient Romans had more Southwest Asian than West Asian, but I cannot imagine how this could be). So it is very possible that all the Southwest Asian and almost all the West Asian in Sardinia is of Phoenician origin. If that is the case, then around 5% of Mediterranean admixture could also be Phoenician, bring the total of autosomal DNA of Phoenician origin to approximately 16%. Let's see if similar proportions can be obtained from Y-DNA
Y-DNA
I have revised the Y-DNA frequencies for Sardinia, adding the Francalacci data to the previous data. The Sardinians now have an average of 4% of J1, 2.5% of R1b-V88, and 0.8% of R2, the three haplogroups that are most strongly correlated with the Phoenician homeland in modern Lebanon. They also surely brought J2, E1b1b, G2a and T, but so did Neolithic farmers and probably also the Romans. The difficulty lies in sorting out how much E1b1b and J2 is Phoenician and how much is Roman or Neolithic.
Based on modern frequencies in Lebanon, J2 is only slightly higher than J1 (26% against 20%). That is almost exactly the same proportion as among Jewish people. Therefore there is a good chance that the Phoenicians also had a similar proportion. If that is the case, 4 to 5% of Sardinian J2 would be Phoenician. But it could be just 1.5% or 2% if the Phoenicians really had a J1/J2 proportion intermediary between modern Jordanians and Saudis.
E1b1b is slightly lower than J1, so perhaps 3 to 3.5% of Sardinian E1b1b can be considered Phoenician.
Haplogroup T is at 5% in Lebanon, 1/4 of J1. That would give us 1% of Phoenician T, and 0.5% of Neolithic and/or Roman.
Haplogroup G is found at 1/3 of the frequency of J1 in Lebanon. G2a is at 12% in Sardinia, so 4% could be Phoenician.
There is 8% of R1b in Lebanon, but according to the largest study on Lebanese Y-DNA V88 is only a small minority of the R1b lineages. Most are M269 or downstream (presumably L23). So there could be 4% of Phoenician R1b in Sardinia, the same as G2a, which is in agreement with the modern Lebanese frequencies.
As mentioned above, R1a-Z93 and Q1a3c could also be Phoenician, but could just as well be Alanic.
Haplogroup L, A and E1a could all have been brought by the Phoenicians. This would add up to 1.6% of Phoenician Y-DNA.
Overall I estimate that between 16% and 24% of Sardinian paternal lineages are of Phoenician origin. It is only slightly higher than the autosomal DNA. That would mean that the Phoenicians brought their women with them to their colonies and did not intermarry a lot with local women - at least in the case of Sardinia.
UPDATE 1:
In addition to the Phoenician Y-DNA there is 5.5% of North African E-M81 in Sardinia. It is likely that most of it came to Sardinia when the island was part of the Phoenician/Carthaginian empire. This subclade of E1b1b can neither be considered Neolithic nor Roman. 1% of Lebanese Y-DNA is E-M81. Not enough to account for more than a tiny fraction of the 5.5%.
E-M123, which makes up 2% of Sardinian lineages, is much higher in the Levant than in Europe, meaning that most of it could be of Phoenician origin, leaving perhaps 1.5% or 2% of Phoenician E-M78, and the rest of Neolithic origin. If that is true, then the Romans would have practically not contributed to any E1b1b in Sardinia. The alternative would be that either Neolithic farmers and/or the Phoenicians had much less E1b1b than thought. Anyway it is certain from this study that the Romans carried a much higher percentage of R1b-U152 than of E1b1b.
As for J2, even if Neolithic farmers had none of it, the Romans could only have brought between 2% and 6% to Sardinia once the Phoenician J2 is deducted. It is still a far cry from the 10.5% of R1b-U152.
UPDATE 2:
Here is the breakdown of Lebanese J2 subclades.
- J2a1 : 15.3%
-- J2a1b (M67) : 7.8%
- J2b (M12) : 2.7%
Deeper subclades were not tested, but according to the FTDNA Project, J2a1h2a1-L70 appears to be the most common subclade in Lebanon.
Here is the Sardinian breakdown:
- J2a* (M410) : 0.6%
-- J2a1* (L26) : 1.3%
--- J2a1b (M67) : 1.5% (including 0.7% of J2a1b1-M92)
--- J2a1h (L24) : 2% (including 0.4% of J2a1h2a1-L70)
-- J2a2 (L581) : 0.8% (including 0.25% of J2a2a-P279)
- J2b (M12) : 2% (including 1.6% of J2b2-M241)
The three most common subclades in Sardinia, M67, L24 and M12 are all well represented in Lebanon and could therefore be of Phoenician origin. I would need more details on Lebanese subclades to determine whether L581 could also be Levantine. The problem is that all these subclades are also found on the Italian mainland, so it is of little help to separate the Phoenician from the Roman lineages.
UPDATE 3 :
Out of the 11% of G2a in this study, 3.3% is L91+, a subclade typical of North Africa, and also found in Sicily. Since it isn't found in Lebanon, but sometimes pops up in northern Europe, it is most likely of Neolithic origin.
The rest of G2a includes:
- G2a3a (M406) : 0.8% => found in Lebanon but also throughout Europe.
- G2a3b1* (P303) : 2.1% => potentially Indo-European, could be Roman.
-- G2a3b1a1 (U1) : 0.9% (all L13+ or L1266+) => very probably Indo-European, Celto-Italic, Roman.
-- G2a3b1a2 (L497) : 0.5% => very strongly mirrors the distribution of R1b-P312, and especially U152. Almost certainly Roman.
-- G2a3b1a3a (Z1903) : 2.4%
Have you considered the ancient Ligures? I think that is one of Richard Rocca's hypotheses.
Have you considered the ancient Ligures? I think that is one of Richard Rocca's hypotheses.