Genographic Consortium Publications

Nat Geo small logoDuring the Family Tree DNA Conference, Dr. Miguel Vilar, the Scientific Data Manager for the Explorer Programs was kind enough to give us an update on the Genographic project.  One of the things that he mentioned was that no overarching paper had been written about the completed Geno 1.0 phase of the project, although that has been discussed.  He did say that a total of 42 papers have been written by the Genographic Consortium as the result of the Genographic project, to date, and that there are several more in the pipeline.

As follow-up to that comment, Dr. Vilar was kind enough to provide a list of the papers along with a short description of the findings in each one.  Thank you to both Dr. Vilar and National Geographic for sharing.

Personally, I take a great deal of pleasure and satisfaction in knowing that I was (and am) in a cumulative way a small part of this amazing, ongoing project.  For anyone who has not yet, but would like to participate in testing, the Genographic 2.0 project is ongoing.

The Genographic Consortium has published 42 scientific papers, and other manuscripts are in advanced stages of preparation. Below are the titles and references plus short descriptions of the major findings, compliments of Dr. Vilar.

2007

1.     Behar, D. M., Rosset, S., Blue-Smith, J., Balanovsky, O., Tzur, S., Comas, D., Mitchell, R. J., Quintana-Murci, L., Tyler-Smith, C., Wells, R. S., and The Genographic Consortium. 2007. The Genographic Project public participation mitochondrial DNA database. PLoS Genetics 3: 1083-1095.

  • This paper establishes Genographic’s database as the new standard mtDNA data repository and reports a new “Nearest Neighbor” statistical method for improved haplogroup classification, presenting learned experience from the public part of the project. It also makes publicly available a portion of the Genographic database, a process that will continue throughout project duration. This technical paper has been crucial in establishing the project’s importance in the scientific community.

2008

2.     Gan, R. J., Pan, S. L., Mustavich, L. F., Qin, Z. D., Cai, X. Y., Qian, J., Liu, C. W., Peng, J. H., Li, S. L., Xu, J. S., Jin, L., Li, H., and The Genographic Consortium. 2008. Pinghua population as an exception of Han Chinese’s coherent genetic structure. Journal of Human Genetics 53: 303-313.

  • The Han Chinese are the largest ethnic group in the world with more than 1.3 billion people, comprising 19 percent of the world population. Chinese is the language spoken by this ethnic group, which can be classified into 10 major dialects. This paper focuses on studying the genetic structure of the people speaking one of these dialects, the Pinghua people. When the genetic structure of Pinghua people was compared to the rest of the Han Chinese populations, it was observed that Pinghua populations did not directly descend from Han Chinese, who originated in the north, but from other southern populations. Thus, from a genetic point of view, the Pinghua populations represent an exception to the rest of Han Chinese populations. These results can be explained if ancestral populations of Pinghua people were not replaced by Han Chinese population, but if they assimilated the Han Chinese language and culture.

3.     Zalloua, P. A., Xue, Y., Khalife, J., Makhoul, N., Debiane, L., Platt, D. E., Royyuru, A. K., Herrera, R. J., Soria Hernanz, D. F., Blue-Smith, J., Wells, R. S., Comas, D., Bertranpetit, J., Tyler-Smith, C., and The Genographic Consortium. 2008. Y-chromosomal diversity in Lebanon is structured by recent historical events. American Journal of Human Genetics 82: 873-882.

  • Lebanon is a small country in the Middle East inhabited by almost 4 million people from a wide variety of ethnicities and religions. The results of this paper indicate that male genetic variation within Lebanon is strongly structured by religion. This unusual situation can be accounted for by two major known historical migrations into Lebanon. The Islamic expansion from the Arabian Peninsula beginning in the 7th century introduced genetic lineages typical of the Arabian peninsula into Lebanese Muslims, while the crusader activity in the 11th-13th centuries introduced Western European lineages into Lebanese Christians.

4.     Behar, D. M., Villems, R., Soodyall, H., Blue-Smith, J., Pereira, L., Metspalu, E., Scozzari, R., Makkan, H., Tzur, S., Comas, D., Bertranpetit, J., Quintana-Murci, L., Tyler-Smith, C., Wells, R. S., Rosset, S., and The Genographic Consortium. 2008. The dawn of human matrilineal diversity. American Journal of Human Genetics 82: 1130-1140.

  • African genetic diversity is unlike that found anywhere else in the world. This paper seeks to make sense of some of the most fundamental questions surrounding our earliest ancestors on the continent. Where specifically did we originate in Africa? Was it from a single group or the result of many? When do we first see African lineages appear outside of Africa? About 350 novel mitochondrial whole-genome sequences were included — doubling the existing published dataset — and the paper presented a new tree of African mtDNA diversity, reporting many novel African lineages for the first time. This paper provides an age estimate for the earliest split of humans in East Africa as one group headed south and was subsequently isolated. It explains that all humans came from a single population that split into two groups, shows that more than 99 percent of all living humans descend from one of these two groups, and suggests historical reasons for why genetic mixture did not exist between these ancient populations. It also presents evidence for the emergence of these early lineages into the Middle East and the origins of the two major non-African groups, M and N, respectively. The paper received considerable media attention — approximately 275 articles — including substantial pieces in the Economist and on CNN/BBC online.

5.     Behar, D. M., Blue-Smith, J., Soria-Hernanz, D. F., Tzur, S., Hadid, Y., Bormans, C., Moen, A., Tyler-Smith, C., Quintana-Murci, L., Wells, R. S., and The Genographic Consortium. 2008. A novel 154-bp deletion in the human mitochondrial DNA control region in healthy
individuals. 
Human Mutation 29: 1387-1391.

  • This paper describes a novel deletion of 154 base pairs within the control region of the human mitochondrial genome that was originally identified in an anonymous Japanese public participant. It was demonstrated that this deletion is a heritable character since it was transmitted from the participant’s mother to her two sons. This is the first time that such a large deletion located in this specific portion of the control region has been observed to not have negative effects in the health of the carriers. The identification of this large heritable deletion in healthy individuals challenges the current view of the control region as playing a crucial role in the replication and regulation of the mitochondrial genome. It is anticipated that this finding will lead to further research on the reported samples in an attempt to increase our understanding of the role of specific sequences within the control region for mtDNA replication. Finally, this paper illustrates the importance of creating a large database of human genetic variation in order to discover rare genetic variants that otherwise would remain unidentified. The discovery of such rare mtDNA haplotypes will be important to identifying the relative power of adaptive and non-adaptive forces acting on the evolution of the mtDNA genome.

6.    Parida, L., Melé, M., Calafell, F., Bertranpetit, J., and The Genographic Consortium. 2008. Estimating the ancestral recombinations graph (ARG) as compatible networks of SNP patterns. Journal of Computational Biology 15: 1133-1153.

  • Traditionally the nonrecombinant, maternally inherited (mtDNA) and paternally inherited (Y chromosome) genomes have been widely used for phylogenetic and evolutionary studies in humans. However, these two genomes only represent 1 percent of the total genetic variation within an individual, and sampling just these two loci is inadequate to reconstruct with any precision the time-depth and pattern of human evolution. The scope of this paper is to elaborate on a mathematical algorithm that includes recombination patterns among human populations. This approach will allow us to use the rest of the recombining genome to reconstruct more accurately the patterns of human migration.

7.     Rossett, S., Wells, R. S., Soria-Hernanz, D. F., Tyler-Smith, C., Royyuru, A. K., Behar, D. M., and The Genographic Consortium. 2008. Maximum-likelihood estimation of site-specific mutation rates in human mitochondrial DNA from partial phylogenetic classification. Genetics 180: 1511-1524.

  • This paper presents novel algorithms to estimate how frequently each base pair of the hypervariable region of the mtDNA changes. Implementations of these algorithms will help to better investigate functionality in the mtDNA and improve current classification of mtDNA haplogroups.

8.     Zalloua, P. A., Platt, D. E., El Sibai, M., Khalife, J., Makhoul, N., Haber, M., Xue, Y., Izaabel, H., Bosch, E., Adams, S. M., Arroyo, E., López-Parra, A. M., Aler, M., Picornell, A., Ramon, M., Jobling, M. A., Comas, D., Bertranpetit, J., Wells, R. S., Tyler-Smith, C., and The Genographic Consortium. 2008. Identifying genetic traces of historical expansions: Phoenician footprints in the Mediterranean. American Journal of Human Genetics 83: 633-642.

  • The Phoenicians gave the world the alphabet and a love of the color purple, and this study shows that they left some of their genes as well. The paper shows that as many as one in 17 men in the Mediterranean basin may have a Phoenician as a direct male-line ancestor, using a novel analytical method for detecting the subtle genetic impact of historical population migrations. Its first application has been to reveal the genetic legacy of the Phoenicians, an intriguing and mysterious first-millennium B.C. trading empire. From their base in present-day Lebanon, the Phoenicians expanded by sea throughout the Mediterranean, founding colonies as far as Spain and North Africa, where their most powerful city, Carthage, was located. The world’s first “global capitalists,” the Phoenicians controlled trade throughout the Mediterranean basin for nearly a thousand years until their conquest by Rome in the 2nd century B.C. Over the ensuing centuries, much of what was known about this enigmatic people was lost or destroyed. This paper received substantial international and domestic press coverage, including an article in The New York Times.

2009

9.     Parida, L., Javed, A., Melé, M., Calafell, F., Bertranpetit, J., and The Genographic Consortium. 2009. Minimizing recombinations in consensus networks for phylogeographic studies. BMC Bioinformatics 10: Article S72.

  • This paper implements a new mathematical model to identify recombination spots in human populations to infer ancient recombination and population-specific recombination on a portion of the X chromosome. The results support the widely accepted out-of-Africa model of human dispersal, and the recombination patterns were capable of detecting both continental and population differences. This is the first characterization of human populations based on recombination patterns.

10.  El-Sibai, M., Platt, D. E., Haber, M., Xue, Y., Youhanna, S. C., Wells, R. S., Izaabel, H., Sanyoura, M. F., Harmanani, H., Ashrafian Bonab, M., Behbehani, J., Hashwa, F., Tyler-Smith, C., Zalloua, P. A., and The Genographic Consortium. 2009. Geographical structure of the Y-chromosomal genetic landscape of the Levant: A coastal-inland contrast. Annals of Human Genetics 73: 568-581.

  • This paper examines the male-specific phylogeography of the Levant and its surroundings. The Levant lies in the eastern Mediterranean region, south of the mountains of south Turkey and north of the Sinai Peninsula. It was found that the Levantine populations cluster together when considered against a broad Middle-East and North African background. However, within Lebanon there is a coastal-inland (east-west) pattern in the diversity and frequency of several Y haplogroups. This pattern is likely to have arisen from differential migrations, with different lineages introduced from the east and west.

2010

11.  Haak, W., Balanovsky, O., Sanchez, J. J., Koshel, S., Zaporozhchenko, V., Adler, C. J., Der Sarkissian, C. S. I., Brandt, G., Schwarz, C., Nicklisch, N., Dresely, V., Fritsch, B., Balanovska, E., Villems, R., Meller, H., Alt, K. W., Cooper, A., and The Genographic Consortium. 2010. Ancient DNA from European Early Neolithic farmers reveals their Near Eastern affinities. PLoS Biology 8: Article e1000536.

  • The nature and speed of the Neolithic transition in Europe is a matter of continuing debate. In this paper, new genetic analyses based on ancient human remains from the earliest farming culture in Central Europe known as the Linear Pottery Culture (5,500-4,900 years ago) indicate a shared genetic maternal affinity with modern-day Near East and Anatolia, and therefore they likely came from the Middle East. However, these lineages from the earliest agriculturalists were also distinct from the current genetic lineages observed in European populations, indicating that major demographic events continued in Europe during the Neolithic. These results point out the importance of using ancient DNA to better understand past demographic events.

12.  Melé, M., Javed, A., Pybus, M., Calafell, F., Parida, L., Bertranpetit, J., and The Genographic Consortium. 2010. A new method to reconstruct recombination events at a genomic scale. PLoS Computational Biology 6: Article e1001010.

  • A chromosomal recombination event creates a junction between two parental sequences. These recombinant sequences are transmitted to subsequent generations, and recombination is one of the main forces molding human genetic diversity. However, the information about genetic relationships among populations given by these events is usually overlooked due to the analytical difficulty of identifying the history of recombination events. This paper validates and calibrates the IRiS software for inferring the history of recombination events, allowing the creation of novel recombinational “markers” known as recotypes, which can be analyzed in a similar way to standard mutational markers.

13.  Qin, Z., Yang, Y., Kang, L., Yan, S., Cho, K., Cai, X., Lu, Y., Zheng, H., Zhu, D., Fei, D., Li, S., Jin, L., Li, H., and The Genographic Consortium. 2010. A mitochondrial revelation of early human migrations to the Tibetan Plateau before and after the Last Glacial Maximum. American Journal of Physical Anthropology 143: 555-569.

  • The Tibetan Plateau was long considered one of the last areas to be populated by modern humans. Recent archaeological, linguistic and genetic findings have challenged this view. In this paper, maternal lineages of 562 individuals from nine different regions within Tibet have been analyzed to further investigate the timing and routes of entry of humans into the plateau. The maternal diversity in Tibet primarily reflects northern East Asian ancestry, likely reflecting a population expansion from this region into the plateau prior to the Last Glacial Maximum (LGM) ~18,000 years ago. In addition, the highest diversity was concentrated in the southern part of the plateau, indicating that this region probably acted as a population refugium during the LGM and the source of a post-LGM expansion within the plateau.

14.  Zhadanov, S. I., Dulik, M. C., Markley, M., Jennings, G. W., Gaieski, J. B., Elias, G., Schurr, T. G., and The Genographic Project Consortium. 2010. Genetic heritage and native identity of the Seaconke Wampanoag tribe of MassachusettsAmerican Journal of Physical Anthropology 142: 579-589.

  • The biological ancestry of the Seaconke Wampanoag tribe, a group of Native American clans in southern Massachusetts, reflects the genetic consequences of epidemics and conflicts during the 16th century that decimated their population, reducing them from an estimated 12,000 individuals at the beginning of the century to less than 400 at the end. The majority of the paternal and maternal lineages in present-day Seaconke Wampanoag, however, belong to West Eurasian and African lineages, revealing the extensive interactions with people from different ancestries that settled the region during the past four centuries.

2011

15.  Adler, C. J., Haak, W., Donlon, D., Cooper, A., and The Genographic Consortium. 2011. Survival and recovery of DNA from ancient teeth and bones. Journal of Archaeological Science 38: 956-964.

  • The recovery of genetic material from ancient human remains depends on the sampling methods used as well as the environment where the human material was preserved. The results presented in this study quantify the damage caused to ancient DNA by various methods of sampling teeth and bones. The negative impact is minimized if very low drill speeds are used during DNA extraction, increasing both the quantity and quality of material recovered. In addition, the mtDNA content of tooth cementum was five times higher than other commonly used methods, making this component the best place to sample ancient DNA. These conclusions will help to guide future sampling of DNA from ancient material.

16.  Haber, M., Platt, D. E., Badro, D. A., Xue, Y., El-Sibai, M., Ashrafian Bonab, M., Youhanna, S. C., Saade, S., Soria-Hernanz, D. F., Royyuru, A., Wells, R. S., Tyler-Smith, C., Zalloua, P. A., and The Genographic Consortium. 2011. Influences of history, geography, and religion on genetic structure: The Maronites in Lebanon. European Journal of Human Genetics 19: 334-340.

  • Cultural patterns frequently leave genetic traces. The aim of this study was to explore the genetic signature of the establishment of religious communities in a region where some of the most influential world religions originated, using the Y chromosome as an informative male-lineage marker. The analysis shows that the religions in Lebanon were adopted within already distinguishable communities. Differentiation appears to have begun before the establishment of Islam and Christianity, dating to the Phoenician period, and isolation continued during the period of Persian domination. Religious affiliation served to reinforce the genetic signatures of pre-existing population differentiation.

17.  Martínez-Cruz, B., Ziegle, J., Sanz, P., Sotelo, G., Anglada, R., Plaza, S., Comas, D., and The Genographic Consortium. 2011. Multiplex single-nucleotide polymorphism typing of the human Y chromosome using TaqMan probes. Investigative Genetics 2: Article 13.

  • This paper presents a robust and accurate Y-chromosome multiplex assay that can genotype in a single reaction 121 markers distinguishing most of the haplogroups and subhaplogroups observed in European populations. The assay was >99 percent accurate in assigning haplogroups, minimizing sample handling errors that can occur with several independent TaqMan reactions.

18.  Jota, M. S., Lacerda, D. R.,  Sandoval, J. R., Vieira, P. P. R., Santos-Lopes, S. S., Bisso-Machado, R., Paixão-Cortes, V. R., Revollo, S., Paz-y-Miño, C., Fujita, R., Salzano, F. M., Bonatto, S. L., Bortolini, M. C., Tyler-Smith, C., Santos, F. R., and The Genographic Consortium. 2011. A new subhaplogroup of Native American Y-chromosomes from the Andes. American Journal of Physical Anthropology (published online Sept. 13, 2011.)

  • Almost all Y chromosomes in South America fall into a single haplogroup, Q1a3a. This paper presents a new single nucleotide polymorphism (SNP) in the Q1a3a lineage that is specific to Andean populations, allowing more accurate inferences of the population history of this region. This novel marker is estimated to be ~5,000 years old, consistent with an ancient settlement of the Andean highlands.

19.  Yan, S., Wang, C. C., Li, H., Li, S. L., Jin, L., and The Genographic Consortium. 2011. An updated tree of Y-chromosome Haplogroup O and revised phylogenetic positions of mutations P164 and PK4. European Journal of Human Genetics 19: 1013-1015.

  • Y-chromosome Haplogroup O is the dominant Y-chromosome lineage in East Asians, carried by more than a quarter of all males on the world. This study revises the haplogroup O phylogeny, using several recently discovered markers. The newly generated tree for this haplogroup will lead to a more detailed understanding of the population history of East Asia.

20.  Yang, K., Zheng, H., Qin, Z., Lu, Y., Farina, S. E., Li, S., Jin, L., Li, D., Li, H., and The Genographic Consortium. 2011. Positive selection on mitochondrial M7 lineages among the Gelong people in Hainan. Journal of Human Genetics 56: 253-256.

  • The Gelong people migrated in the last 1,000 years from Guizhou province in southern China to Hainan island (the hottest province in China). The genetic structure of the Gelong people showed a clearly sex-biased pattern of admixture with the indigenous Hainan population (Hlai people), with 30.7 percent of the maternal lineages being of Hainan origin in contrast to 4.9 percent of the paternal lineages. This striking pattern is partially explained through the action of selection on the M7 Hainan autochthonous maternal lineages, leading to their expansion in the admixed population. This may be due to some selective advantage provided by the M7 lineages in the tropical Hainan climate. Future whole mtDNA genome sequencing of these M7 lineages may reveal their functional relevance and the mechanism involved in human adaptation to tropical climates.

21.  Balanovsky, O., Dibirova, K., Dybo, A., Mudrak, O., Frolova, S., Pocheshkhova, E., Haber, M., Platt, D., Schurr, T., Haak, W., Kuznetsova, M., Radzhabov, M., Balaganskaya, O., Druzhinina, E., Zakharova, T., Soria Hernanz, D. F., Zalloua, P., Koshel, S., Ruhlen, M., Renfrew, C., Wells, R. S., Tyler-Smith, C., Balanovska, E., and The Genographic Consortium. 2011. Parallel evolution of genes and languages in the Caucasus region. Molecular Biology and Evolution 28: 2905-2920.

  • The Caucasus region harbors some of the highest linguistic diversity on Earth, leading to the moniker “The Mountain of Languages.” To investigate the forces that may have molded Caucasian linguistic patterns, the Genographic team studied Y-chromosome variation in 1,525 men from 14 populations in the Caucasus. The Y-chromosome lineages found in the Caucasus originated in the Near East and were introduced to the Caucasus in the late Upper Paleolithic or early Neolithic periods. This initial settlement was followed by a high degree of population isolation due to the mountainous terrain. Comparisons between the genetic and linguistic trees showed a striking correspondence between the topology and divergence times for the two, revealing a parallel evolution of genes and languages in the Caucasus in the past few millennia. This high degree of correspondence between genetic and linguistic patterns has not been seen in other regions of the world.

22.  Gaieski, J. B., Owings, A. C., Vilar, M. G., Dulik, M. C., Gaieski, D. F., Gittelman, R. M., Lindo, J., Gau, L., Schurr, T. G., and The Genographic Consortium. 2011. Genetic ancestry and indigenous heritage in a Native American descendant community in Bermuda. American Journal of Physical Anthropology 146: 392-405.

  • Bermuda is an isolated group of islands in the middle of the Atlantic settled during the 17th century by Western Europeans along with African and Native American slaves. The pattern of Y-chromosome and mitochondrial DNA diversity was studied in 111 members of a “native” community on St. David’s Island. Two-thirds of the paternal lineages are of European origin, while two-thirds of the mitochondrial DNA lineages are African. In contrast to other English-speaking communities in the Americas, however, the majority of St. David’s maternal lineages appear to derive from central and southern Africa, regions that historically were controlled by Portuguese slave traders. It is likely that the English settlers of Bermuda obtained slaves from these Portuguese sources. Despite genealogical records and oral traditions indicating significant arrivals of Native Americans as labor force, the proportion of Native American lineages was less than 2 percent on both the paternal and maternal sides. This study gives new insights into the complex history of colonization and migration in the Caribbean.

23.  Cai, X., Qin, Z., Wen, B., Xu, S., Wang, Y., Lu, Y., Wei, L., Wang, C., Li, S., Huang, X., Jin, L., Li, H., and The Genographic Consortium. 2011. Human Migration through bottlenecks from Southeast Asia into East Asia during Last Glacial Maximum revealed by Y chromosomes. PLoS ONE 6: e24282.   doi:10.1371/journal.pone.0024282

  • The number and timing of the initial migrations to East Asia remain unresolved. This paper studied the Y-chromosome diversity in Mon-Khmer (MK)- and Hmong-Mien (HM)-speaking populations who are believed to be the source populations of other East Asians. The pattern of diversity for the O3a3b-M7 and O3a3c1-M117 lineages among MK, HM and other East Asian populations suggests an early unidirectional diffusion from Southeast Asia northward into East Asia around the time of the Last Glacial Maximum (~18,000 years ago). The ancestral population sizes of these first colonizers are believed to have gone through drastic reductions due to the barriers imposed by the geographic conditions (mountains and jungle) and the colder climate at the time of the migration. This “serial bottleneck” effect has left a distinctive genetic pattern in the present-day populations of East Asia, revealing their past demographic history.

24.   Melé, M., Javed, A., Pybus, M., Zalloua, P., Haber, M., Comas, D., Netea, M. G., Balanovsky, O., Balanovska, E., Jin, L., Yang, Y., Pitchappan, R. M., Arunkumar, G., Parida, L., Calafell, F., Bertranpetit, J., and The Genographic Consortium. 2011. Recombination gives a new insight in the effective population size and the history of the Old World human populations. Molecular Biology and Evolution (published online Sept. 1, 2011.) doi:10.1093/molbev/msr213

  • The IRiS method (described in paper 12) was used to assess the patterns of recombination on the X chromosome in 30 populations from Africa, Europe and Asia. The results suggest that the ancestors of non-African populations first left Africa in a single coastal migration across the Bad-el-Mandeb strait rather than through the Sinai Peninsula. The method allowed the team to estimate that sub-Saharan ancestral population sizes were four times greater than those in populations outside of Africa, while Indian ancestral sizes were the greatest among Eurasians. These results suggest that Indian populations played a major role in the expansions of modern humans to the rest of the world.

25.  Javed, A., Melé, M., Pybus, M., Zalloua, P., Haber, M., Comas, D., Netea, M. G., Balanovsky, O., Balanovska, E., Jin, l., Yang, Y., Arunkumar, G., Pitchappan, R., Bertranpetit, J., Calafell, F., Parida, L., and The Genographic Consortium. 2011. Recombination networks as genetic markers in a human variation study of the Old World. Human Genetics (first published online Oct. 18, 2011.)

  • An expanded analysis of the recombination dataset published in abbreviated form in paper 24, analyzing three additional populations. The conclusions outlined in paper 24 are bolstered through the more thorough presentation of the results.

2012

26.  Behar DM, Harmant C, Manry J, van Oven M, Haak W, Martinez-Cruz B, Salaberria J, Oyharçabal B, Bauduer F, Comas D, Quintana-Murci L; Genographic Consortium. 2012. The Basque paradigm: genetic evidence of a maternal continuity in the Franco-Cantabrian region since pre-Neolithic times.  American Journal of Human Genetics 9;90(3):486-93.

  • This study focus on the maternal genetic diversity of Basques, the last European population to have kept a pre-Indo European language, to increase knowledge of the origins of the Basque people and, more generally, on the role of the Franco-Cantabrian refuge in the post-glacial repopulation of Europe. The maternal ancestry of 908 Basque and non-Basque individuals from the Great Basque Country and adjacent regions were studied plus 420 complete mtDNA genomes within haplogroup H. The results identified six mtDNAhaplogroups autochthonous to the Franco-Cantabrian region and, more specifically, to Basque-speaking populations. Further, expansion of these haplogroups  were estimated at ~4,000 ybp  with a separation from the general European gene pool to have happened  ~8,000 ybp predating the Indo-European arrival to the region. Thus, the results clearly support the hypothesis of a partial genetic continuity of contemporary Basques with the indigenous Paleolithic settlers of their homeland.

27.  Martínez-Cruz B, Harmant C, Platt DE, Haak W, Manry J, Ramos-Luis E, Soria-Hernanz DF, Bauduer F, Salaberria J, Oyharçabal B, Quintana-Murci L, Comas D; the Genographic Consortium. Evidence of pre-Roman tribal genetic structure in Basques from uniparentally inherited markers. Molecular Biology and Evolution (published online March 12, 2012) doi: 10.1093/molbev/mss091.

  • Basques have received considerable attention from anthropologists, geneticists and linguists during the last century due to the singularity of their language and to other cultural and biological characteristics. Despite the multidisciplinary efforts performed to address the questions of the origin, uniqueness and heterogeneity of Basques, the genetic studies performed up to now have suffered from a weak study-design where populations are not analyzed in an adequate geographic and population context. To address the former questions and to overcome these design limitations, uniparental genomes (Y chromosome and mitochondrial DNA) of ~900 individuals from 18 populations were analyzed, including those where Basque is currently spoken and surrounding populations where Basque might have been spoken in historical times. Results situate Basques within the western European genetic landscape, although with less external influences than other Iberians and French populations. In addition, the genetic heterogeneity and structure observed in the Basque region results from pre-Roman tribal structure related to geography and is linked to the increased complexity of emerging societies during the Bronze Age. The rough overlap of tribal and current dialect limits supports the notion that the environmental diversity in the region has played a recurrent role in cultural differentiation and ethnogenesis at different time periods.

28.  Kang, L., Lu, Y., Wang, C., Hu, K., Chen, F., Liu, K., Li, S., Jin, L., Li, H., and The Genographic Consortium. 2012. Y-chromosome O3 Haplogroup diversity in Sino-Tibetan populations reveals two migration routes into the Eastern HimalayasAnnals of Human Genetics 76: 92–99.

  • This paper further explores the question of how Himalayas was populated by studying the genetic diversity of the paternal lineages of two ethnic groups from the eastern Himalayas: the Luoba and Deng.  These two Sino-Tibetan speaking groups exhibited a distinct genetic composition indicating different genetic origins. The paternal diversity of the Louba people indicates past gene flow from Tibetans as well as from western and north Eurasian people. In contrast, Deng exhibited lineages similar to most of Sino-Tibetans from the east. The overall lowest diversity observed in the eastern Himalayas suggests that this area was the end point of two migratory routes of Sino-Tibetans from north China around 2,000-3,000 years ago. These date estimates also agrees with the historical records.

29.  Lu, Y., Wang, C., Qin, Z., Wen, B., Farina, S. E., Jin, L., Li, H., and The Genographic Consortium. 2012. Mitochondrial origin of the matrilocal Mosuo people in China. Mitochondrial DNA 23: 13–19

  • The Mosuo people currently live around the Lugu Lake on the border of the Yunan and Sichuan provinces of China and they are the last matrilocal population in the main land of the country. To investigate the maternal history of this ethnic group, partial genetic sequences of the mitochondria (a maternally inherited genome) were studied among Mosuo people and other larger surrounding ethnic groups. Groups with matrilocal traditions are expected to exhibited a lower mitochondrial genetic diversity because the movement of these genomes are reduced since woman remain within families after marriage. However, the results presented here did not reflect these expectations indicating that Mouso may have started practicing matrilocality long time ago, at least after the Paleolithic Age. In contrast to previous studies that showed a clear relationship between Mouso and Naxi people based on just mtDNA haplogroup frequencies, the network analyses presented here indicated clear clusters of individual sequences between Mouso and Pumi lineages. The genetic resemblance between these two group are concordant with other evidences from cultural and language studies. These results indicate that simply comparing haplogroups frequencies among ethnic groups may lead to erroneous conclusions and analyses comparing mtDNA sequences are better suitable for exploring genetic relationship among ethnic groups.

30.  Haber M, Platt DE, Ashrafian Bonab M, Youhanna SC, Soria-Hernanz DF, Martínez-Cruz B, Douaihy B, Ghassibe-Sabbagh M, Rafatpanah H, Ghanbari M, Whale J, Balanovsky O, Wells RS, Comas D, Tyler-Smith C, Zalloua PA; The Genographic Consortium. 2012. Afghanistan’s Ethnic Groups Share a Y-Chromosomal Heritage Structured by Historical Events. PLoS ONE 7(3): e34288. doi:10.1371/journal.pone.0034288

  • This study focus on how Afghanistan’s ethnic groups relate to each others and with other populations from neighboring countries. The results presented indicated that major genetic differences among Afghanistan’s ethnic groups are relatively recent. The different modern ethnic groups share a genetic heritage probably formed during the Neolithic in the founding of the early farming communities. However, differentiation among the ethnic groups likely started during the Bronze Age driven by the establishment of the first civilizations. Later migrations and invasions to the region, gave the Afghans a unique genetic diversity in Central Asia.

31.  Schurr, T. G., Dulik, M. C., Owings, A. C., Zhadanov, S. I., Gaieski, J. B., Vilar, M. G., Ramos, J., Moss, M. B., Natkong, F. and The Genographic Consortium. 2012. Clan, language, and migration history has shaped genetic diversity in Haida and Tlingit populations from Southeast Alaska. American Journal of Physical Anthropology. (published online May 1, 2012) doi: 10.1002/ajpa.22068.

  • This manuscript gives new insights about the genetics of the linguistically distinctive Haida and Tlingit tribes of Southeast Alaska. More espcifically, this paper study the role that Southeast Alaska may have played in the early colonization of the Americas; the genetic relationships of Haida and Tlingit to other indigenous groups in Alaska and Canada; the relationship between linguistic and genetic data for populations assigned to the Na-Dene linguistic family; the possible influence of matrilineal clan structure on patterns of genetic variation in Haida and Tlingit populations; and the impact of European entry into the region on the genetic diversity of these indigenous communities.  The analysis indicates that, while sharing a ‘northern’ genetic profile, the Haida and the Tlingit are genetically distinctive from each other.  In addition, Tlingit groups themselves differ across their geographic range, in part due to interactions of Tlingit tribes with Athapaskan and Eyak groups to the north.  The data also reveal a strong influence of maternal clan identity on mtDNA variation in these groups, as well as the significant influence of non-native males on Y-chromosome diversity.  These results yield new details about the histories of the Haida and Tlingit tribes in this region.

32.   Dulik, M. C., Owings, A. C., Zhadanov, S. I., Gaieski, J. B., Vilar, M. G., Schurr, T. G., and The Genographic Consortium. 2012. Y-chromosome analysis of native North Americans reveals new paternal lineages and genetic differentiation between Eskimo-Aleut and Dene speaking populations. Accepted for publication in April in PNAS.

  • The genetic origins of the linguistically diverse Native Americans and when they reached the Americas are questions that have been explored during the last several decades.  This study provides new information to these questions by increasing the number of populations sampled and the genetic resolution used in the analyses Here, it is tested whether there is any correlation between genetic diversity from paternally inherited Y-chromosomes and native populations speaking the two distinctive linguistic families: Eskimo-Aleut and Na-Dene. The results indicate that the Y chromosome genetic diversity among the first Native American was greater than previously shown in other publications. In addition, the Eskimo-Aleut and Na-Dene speaking populations showed clear genetic differences between then.  The disparities in language, culture and genetic diversity between these two populations likely reflect the outcome of two migrations that happened after the initial settlement of people into the Americas.

33.  Martinez-Cruz B, Ioana M, Calafell F, Arauna LR, Sanz P, Ionescu R, Boengiu S, Kalaydjieva L, Pamjav H, Makukh H, Plantiga T, van der Meer JWM, Comas D, Netea M, The Genographic Consortium. 2012. Y-chromosome analysis in individuals bearing the Basarab name of the first dynasty of Wallachian kings. PLoS ONE 7(7): e41803

  • The most famous Transylvanian prince is Vlad III from the Basarab royal dynasty, also commonly known as Dracula. The ethnic origins of the Basarab is intensively debated among historians and it is unclear of whether they are descendants of the Cuman people (an admixed Turkic people that reached Romania from the East in the 11th century) or of Vlach people (local Romanians). This paper investigated the Y chromosome of 29 Romanian men carrying the surname Basarab and in order to identify their genetic origin the data was compared with four Romanian and other surrounding populations. Different Y-chromosome haplogroups were found within the individuals bearing the Basarab name, indicating that not all these individuals can be direct biological descendants of the Basarab dynasty. In addition, all these haplogroups are common in Romania and other Central and Eastern European populations. The Basarab group exhibited closer genetic distances with other Romanian populations. These results together with the absence of Eastern Asian paternal lineages in the Basarab men can be interpreted as a lack of evidence for a Cuman origin of this royal dynasty, although it cannot be positively ruled out. As a final conclusion, it seems that the Basarab dynasty was successful in spreading its name beyond the spread of its genes.

34.  Rebala K, Martínez-Cruz B, Tönjes A, Kovacs P, Stumvoll M, Lindner I, Büttner A, Wichmann H-E, Siváková D, Soták M, Quintana-Murci L, Szczerkowska Z, Comas D, The Genographic Consortium. 2012. Contemporary paternal genetic landscape of Polish and German populations: from early medieval Slavic expansion to post-World War II resettlements. European Journal of Human Genetics 21(4): 415-422

  • One of the most outstanding phenomena in the Y-chromosomal diversity in Europe concerns the sharp genetic border identified between the ethnically /linguistically defined Slavic (from Poland) and German populations (from Germany).  The Polish paternal lineages also reveal great degree of homogeneity in spite of a relatively large geographic area seized by the Polish state. Two main explanations have been proposed to explain the phenomena: (i) Massive human resettlements during and shortly after the World War II, and (ii) an early medieval Slavic migrations that displayed previous genetic heterogeneity. In order to answer these questions, 1,156 individuals from several Slavic and German populations were analyzed, including Polish pre-war regional populations and an autochthonous Slavic population from Germany. This study demonstrates for the first time that the Polish paternal lineages were unevenly distributed within the country before the forced resettlements of millions of people during and shortly after the WWII. Finally, the coalescence analyses support hypothesis that the early medieval Slavic expansion in Europe was a demographic event rather than solely a linguistic spread of the Slavic language.

35.  Arunkumar G, Soria-Hernanz DF, Kavitha VJ, Arun VS, Syama A, Ashokan KS, Gandhirajan KT, Vijayakumar K, Narayanan M, Jayalakshmi M, Ziegle JS, Royyuru AK, Parida L, Wells RS, Renfrew C, Schurr TG, Smith CT, Platt DE, Pitchappan R; Genographic Consortium. 2012. Population differentiation of southern Indian male lineages correlates with agricultural expansions predating the caste system. PLoS ONE. 7(11): e50269

  • Previous studies that pooled Indian populations from a wide variety of geographical locations, have obtained contradictory conclusions about the processes of the establishment of the Varna caste system. This study investigates the origin of the caste system by genotyping 1,680 Y chromosomes representing 12 tribal and 19 non-tribal (caste) populations from the Dravidian-speaking Tamil Nadu state in the southernmost part of India. 81% of Y chromosome were autochthonous Indian haplogroups (H-M69, F-M89, R1a1-M17, L1-M27, R2-M124, and C5-M356; 81% combined) with a shared genetic heritage dating back to the late Pleistocene (10-30 Kya). Results show a strong evidence for genetic structure, and coalescent analyses suggest that the stratification was established 4-6 thousand years ago, with little admixture took place during the last several millennia. The overall Y-chromosomal patterns, the time depth of population diversifications and the period of differentiation are best explained by the emergence of agricultural technology in South Asia. These results highlight the utility of detailed local genetic studies within India, without prior assumptions about the importance of Varna rank status for population grouping, to obtain new insights into the relative influences of past demographic events for the population structure of the whole of modern India.

2013

36.  Badro DA, Douaihy B, Haber M, Youhanna SC, Salloum A, Ghassibe-Sabbagh M, Johnsrud B, Khazen G, Matisoo-Smith E, Soria-Hernanz DF, Wells RS, Tyler-Smith C, Platt DE, Zalloua PA, The Genographic Consortium. 2013. Y-chromosome and mtDNA genetics reveal significant contrasts in affinities of Modern Middle Eastern populations with European and African populations. PLoS ONE 8(1):e54616

  • The Middle East was a funnel of human expansion out of Africa, a staging area for the Neolithic Agricultural Revolution, and the home to some of the earliest world empires. In addition, post LGM expansions into the region and subsequent population movements have created a striking genetic mosaic in the region. In this study 5,174 mtDNA and 4,658 Y-chromosome samples were investigated. Lebanon’s mtDNA showed a very strong association to Europe, while Yemen shows very strong affinity with Egypt and North and East Africa. Previous Y-chromosome results showed a Levantine coastal-inland contrast marked by Y-haplogroups J1 and J2, and a very strong North African component was evident throughout the Middle East. Neither of these patterns were observed in the mtDNA. While J2 has penetrated into Europe, the pattern of Y-chromosome diversity in Lebanon does not show the widespread affinities with Europe, as indicated by the mtDNA data. Lastly, while each population shows evidence of historic expansions that now define the Middle East, Africa, and Europe, most Middle Eastern populations show distinctive mtDNA and Y-haplogroup characteristics that suggest long standing settlements with relatively little impact from other populations.

37.  Der Sarkissian C, Balanovsky O, Brandt G, Khartanovich V, Buzhilova A, Koshel S, Zaporozhchenko V, Gronenborn D, Moiseyev V, Kolpakov E, Shumkin V, Alt KW, Balanovska E, Cooper A, Haak W, The Genographic Consortium. 2013. Ancient DNA reveals prehistoric gene-flow from Siberia in the complex human population history of North East Europe. PLoS Genetics 9(2): e1003296

  • Archaeological, anthropological, and genetic research of Northeastern European populations have revealed a series of influences from Western and Eastern Eurasia. While genetic data from modern-day populations is commonly used to make inferences about origins and past migrations, ancient DNA provides a powerful tool by giving a snapshot of the past genetic diversity. This study generated and analyzed 34 mitochondrial genotypes from the skeletal remains of three Mesolithic and the Early Metal Age (7,500 and 3,500 years ago) sites in northwest Russia. Comparisons of genetic data from ancient and modern-day populations revealed significant changes in the makeup of North East Europeans through time. Mesolithic foragers showed high frequencies and diversity of haplogroup U (U2e, U4, U5a), commonly observed in hunter-gatherers from Iberia to Scandinavia. In contrast, the presence of mitochondrial DNA haplogroups C, D, and Z in Early Metal Age individuals suggested genetic influx from central/eastern Siberia. This genetic dissimilarities between prehistoric and modern-day North East Europeans/Saami suggests a strong influence of post-Mesolithic migrations from Western Europe and subsequent population replacement/extinctions. This work demonstrated how ancient DNA can improve our understanding of human population movements across Eurasia.

38.  Brotherton P, Haak W, Templeton J, Brandt G, Soubrier J, Jane Adler C, Richards SM, Sarkissian CD, Ganslmeier R, Friederich S, Dresely V, van Oven M, Kenyon R, Van der Hoek MB, Korlach J, Luong K, Ho SY, Quintana-Murci L, Behar DM, Meller H, Alt KW, Cooper A, The Genographic Consortium. 2013. Neolithic mitochondrial haplogroup H genomes and the genetic origins of Europeans. Nature Communications 4:1764

  • Haplogroup H dominates present-day Western European mitochondrial DNA variability (>40%), yet was less common (~19%) among Early Neolithic farmers (~5450 BC) and virtually absent in Mesolithic hunter-gatherers. This project investigated maternal population history of modern Europeans by sequencing 39 complete haplogroup H mitochondrial genomes from ancient remains; and comparing this ‘real-time’ genetic data with cultural changes taking place between the Early Neolithic (~5450 BC) and Bronze Age (~2200 BC) in Central Europe. Results revealed that the current diversity and distribution of haplogroup H were largely established by the Mid Neolithic (~4000 BC), but with substantial genetic contributions from later pan-European cultures such as the Bell Beakers expanding out of Iberia in the Late Neolithic (~2800 BC). Newly dated haplogroup H genomes enabled the reconstruction of the evolutionary history of the haplogroup, and revealed a mutation rate 45% higher than previous estimates.

39.  Elhaik E, Greenspan E, Staats S, Krahn T, Tyler-Smith C, Xue Y, Tofanelli S, Francalacci P, Cucca F, Pagani L, Jin L, Li H, Schurr TG, Greenspan B, Spencer Wells R, The Genographic Consortium. 2013. The GenoChip: a new tool for genetic anthropology. Genome Biology & Evolution 5(5): 1021-1031

  • The Genographic Project is an international effort aimed at charting human migratory history. The first phase of the project was focused on haploid DNA markers (Y-chromosome and mtDNA), while the current phase focuses on markers from across the entire genome using the newly created GenoChip. GenoChip was designed to enable higher resolution research into outstanding questions in genetic anthropology. It includes ancestry informative markers obtained for over 450 human populations, an ancient human (Saqqaq), and two archaic hominins (Neanderthal and Denisovan) and it was designed to identify all known Y-chromosome and mtDNA haplogroups. The chip was also carefully vetted to avoid inclusion of medically relevant markers. To demonstrate its capabilities, we compared the FST distributions of GenoChip SNPs to those of two commercial arrays. Although all arrays yielded similarly shaped FST distributions, the GenoChip autosomal and X-chromosomal distributions had the highest mean FST, attesting to its ability to discern subpopulations. In summary, the GenoChip is a dedicated genotyping platform for genetic anthropology. With an unprecedented number of approximately 12,000 Y-chromosomal and approximately 3,300 mtDNA SNPs and over 130,000 autosomal and X-chromosomal SNPs with no health, medical, or phenotypic relevance, the GenoChip is a useful tool for genetic anthropology and human population genetics.

40.  Boattini A, Martinez-Cruz B, Sarno S, Harmant C, Useli A, Sanz P, Yang-Yao D, Manry J, Ciani G, Luiselli D, Quintana-Murci L, Comas D, Pettener D; The Genographic Consortium. 2013. Uniparental markers in Italy reveal a sex-biased genetic structure and different historical strata. PLoS ONE 8(5): e65441

  • Italy played an important role in the history of human settlements and movements of Southern Europe and the Mediterranean. Populated since Paleolithic times, the complexity of human movements during the Neolithic, the Metal Ages and the most recent history of the two last millennia, shaped the pattern of the modern Italian genetic structure. With the aim of disentangling this pattern, this project analyzed the haploid markers in ∼900 individuals from across the Italian peninsula, Sardinia and Sicily. Results show a sex-biased pattern, indicating different demographic histories for males and females. Besides the genetic outlier position of Sardinians, a North West-South East Y-chromosome structure appeared through continental Italy, likely a result of historical and demographic events. In contrast, mitochondrial (maternal) diversity is distributed homogeneously in accordance with older pre-historic events, as was the presence of an Italian Refugium during the last glacial period in Europe.

41.  Sandoval JR, Lacerda DR, Jota MS, Salazar-Granara A, Vieira PP, Acosta O, Cuellar C, Revollo S, Fujita R, Santos FR, The Genographic Consortium. 2013. The genetic history of indigenous populations of the Peruvian and Bolivian Altiplano: the legacy of the Uros. PLoS ONE 8(9): e73006

  • Since pre-Columbian times, different cultures established themselves around the Titicaca and Poopo Lakes. Yet by the time of Spanish colonization, the Inca Empire and the Aymara and Quechua languages were dominant in the region. This study focused on the pre-Columbian history of the Altiplano populations, particularly the Uros, which claim to be directly descend from the first settlers of the Andes. Results indicate that the Uros populations stand out among others in the Altiplano, while appearing more closely related to the Aymara and Quechua from Lake Titicaca and surrounding regions, than to the Amazon Arawaks. Moreover, the Uros populations from Peru and Bolivia are genetically differentiated from each other, indicating a high heterogeneity in this ethnic group. Lastly, the results support the distinctive ancestry for the Uros populations of Peru and Bolivia, likely derived from ancient Andean lineages, but further complicated by a partial replacement during more recent farming expansion, and the establishment of complex civilizations in the Andes, such as the Inca.

42.  Brandt G, Haak W, Adler CJ, Roth C, Szécsényi-Nagy A, Karimnia S, Möller-Rieker S, Meller H, Ganslmeier R, Friederich S, Dresley V, Nicklish N, Pickrell JK, Siroko F, Reich D, Cooper A, Alt KW, The Genographic Consortium 2013. Ancient DNA Reveals Key Stages in the Formation of Central European Mitochondrial Genetic DiversityScience 342, no.6155: 257-261.

  • Genographic project scientists, in collaboration with archeologists from Germany, successfully sequenced and analyzed DNA from 364 individuals that lived in Central Europe between 5,500 and 1,500 BC. What they found was that the shift in the frequency of DNA lineages closely matched the changes and appearances of new Central European cultures across time. In other words, the people who lived in Central Europe 7,000 years ago had different DNA lineages than those that lived there 5,000 years ago, and again different to those that lived 3,500 years ago. Central Europe was dynamic place during the Bronze age, and the genetic composition of the people that lived there demonstrates that. Ultimately, Central Europe is a melting pot of genetic lineages from different prehistoric cultures that lived there at different periods of time, each new one partially replacing the one before it.

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I receive a small contribution when you click on some of the links to vendors in my articles. This does NOT increase the price you pay but helps me to keep the lights on and this informational blog free for everyone. Please click on the links in the articles or to the vendors below if you are purchasing products or DNA testing.

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Gene by Gene Genomics Research Center Lab Tour

 ftdna inside sign cropped

Both before and after the 9th Annual Family Tree DNA International Conference for Genetic Genealogy this past weekend, Max Blankfeld and Bennett Greenspan were gracious enough to allow interested administrators to visit and tour their labs.  I’ve toured other DNA labs, but their lab has very cool leading edge equipment.  It was a wonderful treat to see it in action.

What I didn’t have was my “good” camera, so I’m sharing my iPhone photos.

I went on the last tour available and there were only a few of us, so it an excellent opportunity to see things up close and personal.

ftdna genomics research center

This lab is much larger than I expected.  Gene by Gene, in addition to doing all of the DNA processing for Family Tree DNA, DNA Traits and the National Geographic Genographic project, is doing a significant amount of processing for research institutions such as medical schools. While we were there, they were getting ready to prep to run a large order of several hundred exome samples.

But come along with me and you can see for yourself.  Bennett gave the tour personally.  The bad news is that you’re going to have to rely on my memory, because nothing was allowed in the lab other than our cameras.  This was to prevent contamination.

ftdna lisa footies

There are other contamination prevention methods as well.  Anyone with open toed shoes had to put on booties.  Here’s my friend Lisa, who comments periodically on my blog, suiting up for the tour.  Next, we were given lab coats to wear inside the facility which we then took off and left by the door, but inside the lab, as we left.

ftdna lisa lab coat

The first stop inside is where they prepare the kits for shipping to customers when an order is placed.  They purchase the empty vials, prepare the formula and fill and cap the vials, all automatically.

ftdna vials for kit

The “capping” process is the most interesting part and caused them the most consternation in trying to figure out the best way to do this.  Bennett said they worried about having a non-tethered lid that might be dropped by the customer, and contaminated, as it turns out, needlessly.

After the kits come back, all but one of the vials goes into storage, shown below, beside the lab, for future testing.  This environment does not have to be specially controlled outside of a normal office environment.

ftdna sample storage

The vial that gets opened for the testing undergoes a different process that begins with removing the DNA from the vial and mixing it with a chemical solution that shakes the DNA out of the cells.

ftdna lab

This is done overnight in a shaker machine.  Reminded me of a paint shaker.

ftdna shaker

Have you ever seen a custom $600,000 freezer with a robot to retrieve the frozen goods?  No?  Well, you’re about to.  If you have ever tested with Family Tree DNA and there is any DNA left in a vial that has been opened, it’s in this freezer which took the vendor 7 weeks to assemble on site.  Capacity is over 550,000 vials and it’s about half full currently.

After the DNA is shaken out of the cells, that mixture has to be handled differently.  It has been barcoded during the entire process and the prepared DNA mixture is then put into storage plates which are robotically stored.  This retrieval process is initiated when an order is received by the robotic software.  Keep in mind that the unit holds more samples than Family Tree DNA has today, in a very regulated deep freeze environment.  Depending on what this robotic arm is doing, meaning moving plates around or extracting a specific vial, it changes its own tool on the end of its arm.  It knows where every vial is in the freezer.  I must admit, my Mom who has been gone since 2006 has DNA there and it made me feel kind of funny to know I was visiting “her.” But my DNA is with hers, along with a whole lot of other family members, so I guess it’s just one big family reunion in there.

After the correct vial is retrieved and the DNA mixture is extracted, the liquid is put onto a “chip” for the autosomal testing.  The chip itself is about an inch by maybe 3 inches and holds 12 tests.

ftdna chip 12

The DNA is pipetted into the side and then it is wicked into the chip itself.

ftdna loading dna on chip

Here is a set of two chips loaded and ready to be processed.  This means that at total of 24 individual samples are being sequenced.   Notice the little grey square to the size of each larger grey square.  That tiny grey square is where the DNA mixture it placed and it’s wicked into the larger grey square for processing.  We asked how that is done and were told that the technique is part of Illumina’s trade secrets.

ftdna chip loaded

Gene by Gene owns several sequencing machines.  I know they have at least two Sanger sequencing machines and 4 different sizes and types of Illumina sequencing machines that run chip based tests like the Geno 2, the Family Finder and now the Big Y tests, in addition to the exome and full genome tests.  These machines are incredible given that they can run hundreds of tests at a time, which is also how they have dropped the test costs exponentially in the past few years.  Some equipment is optimized for running many samples but more slowly and some for running fewer samples but more quickly.

ftdna sequencer

After reading and being automatically scored, the DNA results are reported to the client.

At the end of the lab tour, just outside, is the Customer Service area where the Customer Service Reps work.  I’ll tell you what, they had their hands full this week and weekend with their regular call load, a conference and an office full of nosey and interested project administrators.

ftdna csr area

Of course, during the course of the day, I had to visit the restroom.  I’ve always loved Max and Bennett’s sense of humor.

ftdna men cropped

In case you don’t know, the Y chromosome is much smaller than the X, hence, the difference in the signs.

 ftdna women

Let’s just say that in light of their new product announcement, the “Big Y,” I did a bit of a structural modification for them:)

Thanks again to Max and Bennett for their hospitality.

Jennifer Zinck also wrote about the Friday lab tour on her blog, Ancestor Central.

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Disclosure

I receive a small contribution when you click on some of the links to vendors in my articles. This does NOT increase the price you pay but helps me to keep the lights on and this informational blog free for everyone. Please click on the links in the articles or to the vendors below if you are purchasing products or DNA testing.

Thank you so much.

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Genomics Law Report Discusses Designing Children

I’m sure most of my readers are familiar with the upheaval caused by 23andMe’s patent dubbed “Designer Babies” earlier this fall.  Opinions on this were highly divergent with some folks feeling like it couldn’t really be done, so nothing to reasonably worry about, some who couldn’t wait and others who were appalled for various reasons.  Today, Genomics Law Report (GLR) published what I feel is a very balanced article about the patent, the technology, the fallout and the future in an article titled “Designing Children.”

With this post the GLR introduces a new Contributing Writer, Jonathan Webber. Jonathan is a web editor at Robinson, Bradshaw & Hinson, the law firm that sponsors the GLR. His duties include copy-editing the GLR. That exposure, together with his background in anthropology—he came to RBH with a degree in anthropology and experience as both a field archaeologist and cultural educator for a state park system—has sparked his interest in some of the cultural and ethical issues that genomics raises. In this first post he brings his perspective to bear on the implications of 23andMe’s “designer babies” patent, and we look forward to more of his insight in the future.”

The aspect in this article that surprised me the most was the “ethical parenting” commentary about New York City.  I truthfully, had no idea that parents were “training” their children for pre-school entrance exams and more, nor that they were medicating them for the purpose.

As a parent myself, I know that any parent would avail themselves of any technology that would prevent or avert genetic diseases in their children.  But what about selecting for high intelligence?  That’s understandable too, whether one agrees with it or not, and 13% of parents in a survey said they would select for that, if they could.  But what about athletic prowess?  Ten percent of the parents said they would select for athletic prowess.  Is this now into the frivolous?  Or what about a selecting for a blonde haired, blue eyed, slim daughter that the parents are hoping will be a beauty queen or a cheerleader?  And of course, we haven’t even touched on the dark side of this in terms of parental motivation.  All parents are not good parents nor do they all have their children’s best interests at heart.

Lots of questions and few answers about ethics, social responsibility and what the future holds.  I hope you enjoy the article.

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Disclosure

I receive a small contribution when you click on some of the links to vendors in my articles. This does NOT increase the price you pay but helps me to keep the lights on and this informational blog free for everyone. Please click on the links in the articles or to the vendors below if you are purchasing products or DNA testing.

Thank you so much.

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10 Year Pioneers Recognized by Family Tree DNA

ftdna 10 year

Family Tree DNA awarded plaques to their project administrators who have surpassed the 10 year mark.  Bennett mentioned that this group is a testament to citizen science.  I’m very pleased to be included, of course.  We’ve all been in this foxhole together for a decade now.  Thank you to Family Tree DNA for recognizing these folks.  The group is shown here and the list of individuals are:

  • Leo Baca
  • Mic Barnette
  • Janet Baker Burks
  • Roberta Estes
  • Robert Noles
  • Dyann Hersey Noles
  • Nora Probasco
  • Whitney Keen
  • Jim Barnett
  • Michael DeWitt McCown
  • James Rader
  • Steven Perkins
  • Ken Graves
  • Linda Magellan
  • Allan Grant
  • Katherine Hope Borges
  • Phillip Crow
  • George Valko
  • Therese Bucker
  • Nancy Custer
  • Peter Roberts
  • Louise Rorer Rosett
  • Jerry Cole

Of course, Max and Bennett are with us, Max on the far left and Bennett on the far right.  I think that Bennett is officially the first project administrator!

Here’s to another wonderful decade!!!

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Disclosure

I receive a small contribution when you click on some of the links to vendors in my articles. This does NOT increase the price you pay but helps me to keep the lights on and this informational blog free for everyone. Please click on the links in the articles or to the vendors below if you are purchasing products or DNA testing.

Thank you so much.

DNA Purchases and Free Transfers

Genealogy Services

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WikiTree and DNA

Several years ago, at a DNA conference, I found myself sitting next to Peter Roberts at lunch.  We discovered common ground – how can you NOT discover common ground at a genetic genealogy conference?  We’ve kept in touch ever since.  One of the things we discussed is the daunting task of managing multiple “stories” about the same ancestor, and now, DNA information that relates to that ancestor.  Or maybe, the DNA information doesn’t relate to that ancestor, but “should.”  How do we handle all of these challenges, separately or together?  Peter, an archivist by trade, has a special interest in organizing records, of course, and has been working on this topic.  I asked him to share his recent experience with WikiTree, and he has been gracious enough to do so.  Here’s what he had to say.

We know how personal computers changed the genealogy landscape by allowing us to build our own genealogy databases.  The next step was the Internet which provided easier communication and convenient access to family history information.  Then came DNA which allowed us to confirm if our genealogies were indeed correct.  Now there is a new genetic genealogy tool, WikiTree, that puts it all together for free!
wikitree 1

Peter Roberts originally tested in 2003 and has been not-so-patiently waiting since then for one collaborative online ancestral tree where we can all hang our results.  First he tried uploading a large GEDCOM in WikiTree but faced the daunting task of trying to merge his records with so many of his ancestors among the 6.1 million already in WikiTree.  He opted for a manual approach and focused on DNA tested lines for himself and cousins.

Fortunately, WikiTree has addressed and includes DNA testing.  In Peter’s public profile under “DNA” WikiTree asked, “Has Peter taken a DNA test for genealogy?”  Well yes! As many as he could afford.  He clicked through to an “Add a New Test” page where he selected one of the Y-DNA test options from a drop down menu which generated entry fields for Haplogroup, Number of Markers, YSearch ID, and Kit Number.  He did the same for his mtDNA and atDNA tests and entered his MitoSearch and GEDmatch IDs.  And for good measure he added the ancestry and Y-DNA results for a distant paternal line cousin (whose test kit he manages) who he listed as “Anonymous Roberts” to wikitree 2protect the man’s privacy.  For that easy work WikiTree awarded each test taker a handsome DNA Tested badge which can be displayed on the tester’s public profile.

Like magic (but it actually took about 24 hours) in the public profiles of Peter’s direct line ancestors, WikiTree automatically provided links to corresponding results in YSearch and MitoSearch.  And cousin Anonymous was there also.  Here’s the screen shot from WikiTree regarding DNA testing relevant to this ancestor, Bennie Roberts.

wikitree 3

Now anyone can see Peter’s DNA test list and compare his results with those of his direct line cousins to determine if their DNA is a close enough match.  If not, then the mis-matching DNA is pointing out a problem in that direct line.

Peter’s crotchety cousin Rufus refuses to DNA test and his WikiTree profile notes by default “…there are no known yDNA or mtDNA test-takers in the same direct paternal or maternal line.”  It’s a reminder that perhaps someday Rufus’ son will do that honor.

The profile of Peter’s paternal grandfather, Bennie Roberts, http://www.wikitree.com/wiki/Roberts-7102 illustrates many beneficial features.  Under the DNA heading are the known Y-DNA testers in WikiTree who share his direct paternal line and the mtDNA tester who shares his direct maternal line.  These names link to their public WikiTree profiles.  Here is Peter’s page via the “person who DNA tested” link on his grandfather’s page.  Please note that while WikiTree is “free,” there is no such thing as a “free lunch” so Ancestry ads are plastered all over every page in strategically placed locations.  Peter has no control over this, and neither will you.

wikitree 4

To the right of the tester’s name is the testing company and the type of test (Y-DNA or mtDNA).  This links to a more descriptive Test Connections overview page.  A key feature on these test connections pages is the earliest known direct line ancestor is highlighted and followed by a link to a descendant chart of carriers of the type of DNA tested (Y-DNA http://www.wikitree.com/treewidget/Roberts-7104/890 or mtDNA http://www.wikitree.com/treewidget/Unknown-205578/890).  Unlike many other online genealogy databases, these charts have a web addresses (urls) which facilitates sharing.

wikitree 5

Peter is now joyously (joyfully?) decorating his ancestral tree with haplogroup ornaments and haplotype garlands as well as project badges. His tree is growing in an aspen forest and there is something special about aspen forests.

Aside from the obvious “tree” challenges, in terms of results that might not match the expected line and are not part, genetically, of the aspen forest, there are also other challenges to be addressed.  Over time, the naming of haplogroups has become confusing.  This is because haplogroups are defined by SNPs that are given names like M-269.  M-269 happens to define haplogroup R1b1a2, which used to be R1b1c.

wikitree 6

Genealogists have tried to fit the SNPs into a tree-like structure, shown above (tree compliments of Family Tree DNA) because we understand trees and haplogroups are like trees (trunk, branches, leaves) – but the problem occurred when newly discovered branches needed to be inserted in-between already existing branches that already had names.  Every downstream branch’s name shifted, for example, from R1b1c to R1b1a2, and confusion resulted.  Today, we are moving away from haplogroup names like R1b1a2 and using only the SNP name, M269, which will never change.  Of course, the problem with this is that the name doesn’t give you any idea of where the SNP falls on the tree, where the old nomenclature did – R1b1a2 was downstream from R1b1a which was downstream from R1b1, etc.

When entering information into WikiTree, Y chromosome (Y-DNA) haplogroups should be labeled with the first letter of the major haplogroup branch followed by a dash and the name of the final (downstream or most recent) SNP. For example: R-M269 which is the SNP for R1b1a2.  Because separate labs have reported different labels over time for haplogroups and their subclades, and because there is no verification process for how haplogroups are entered in WikiTree, there will be inconsistencies in haplogroup labeling.  So in the note field it is important to explain how you came up with that haplogroup (eg. Estimated haplogroup R-CTS241, aka R1b1a2a1a2c1 per ISOGG Y-DNA Haplogroup Tree, 17 Jul 2013).  Also, remember to update your information at WikiTree if you take more DNA tests or upgrade.

The source and the date for the Mitochondrial (mtDNA) haplogroups should be entered as reported by the genetic genealogy testing lab, along with which lab did the testing. An example is: L3f. If you have additional knowledge of your more precise subclade (e.g. from full sequence results) then use the more precise haplogroup label.

Peter notes that more features are revealed once you are a registered WikiTree user.

For more information and guidelines see the help pages at

http://www.wikitree.com/wiki/Project:DNA

http://www.wikitree.com/wiki/DNA

Thanks much to Peter Roberts for sharing with us.  Think you might be related or have questions?  You can contact Peter directly at peterebay@yahoo.com.

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Native American Maternal Haplogroup A2a and B2a Dispersion

Recently, in Phys.org, they published a good overview of a couple of recently written genetic papers dealing with Native American ancestry.  I particularly like this overview, because it’s written in plain English for the non-scientific reader.

In a nutshell, there has been ongoing debate that has been unresolved surrounding whether or not there was one or more migrations into the Americas.  These papers use these terms a little differently.  They not only talk about entry into the Americas but also dispersion within the Americans, which really is a secondary topic and happened, obviously, after the initial entry event(s).

The primary graphic in this article, show below, from the PNAS article, shows the distribution within the Americas of Native American haplogroups A2a and B2a.

a2a, b2a

Schematic phylogeny of complete mtDNA sequences belonging to haplogroups A2a and B2a. A maximum-likelihood (ML) time scale is shown. (Inset) A list of exact age values for each clade. Credit: Copyright © PNAS, doi:10.1073/pnas.0905753107

As you can see, the locations of these haplogroups are quite different and the various distribution models set forth in the papers account for this difference in geography.

One of the aspects of this paper, and the two academic papers on which it is based, that I find particularly encouraging is that the researchers are utilizing full sequence mitochondrial DNA, not just the HVR1 or HVR1+HVR2 regions which has all too often been done in the past.  In all fairness, until rather recently, the expense of running the full sequence was quite high and there were few (if any) other results in the academic data bases to compare the results with.  Now, the cost is quite reasonable, thanks in part to genetic genealogy and new technologies, and so the academic testing standards are changing.  If you’ll note, Alessandro Achilli, one of the authors of these papers and others about Native Americans as well, also comments towards the end that full genome testing will be being utilized soon.  I look forward to this new era of research, not only for Native Americans but for all of us searching for our roots.

Read the Phys.org paper at: http://phys.org/news/2013-09-mitochondrial-genome-north-american-migration.html#jCp

The original academic papers are found here and here.  I encourage anyone with a serious interest in this topic to read these as well.

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Ancestor of Native Americans in Asia was 30% “Western Eurasian”

The complete genome has recently been sequenced from 4 year old Russian boy who died 24,000 years ago near Lake Baikal in a location called Mal’ta, the area in Asia believed to be the origin of the Native Americans based on Y DNA and mitochondrial chromosome similarities.  The map below, from Science News, shows the location.

malta boy map

This represents the oldest complete genome ever sequenced, except for the Neanderthal (38,000 years old) and Denisovan (41,000 years old).

This child’s genome shows that he is related closely to Native Americans, and, surprisingly, to western Asians/eastern Europeans, but not to eastern Asians, to whom Native Americans are closely related.  This implies that this child was a member of part of a “tribe” that had not yet merged or intermarried with the Eastern Asians (Japan, China, etc.) that then became the original Native Americans who migrated across the Beringian land bridge between about 15,000 and 20,000 years ago.

One of the most surprising results is that about 30% of this child’s genome is Eurasian, meaning from Europe and western Asia, including his Y haplogroup which was R and his mitochondrial haplogroup which was U, both today considered European.

This does not imply that R and U are Native American haplogroups or that they are found among Native American tribes before European admixture in the past several hundred years.  There is still absolutely no evidence in the Americas, in burials, for any haplogroups other than subgroups of Q and C for males and A, B, C, D, X and M (1 instance) for females.  However, that doesn’t mean that additional evidence won’t be found in the future.

While this is certainly new information, it’s not unprecedented.  Last year, in the journal Genetics, an article titled “Ancient Admixture in Human History” reported something similar, albeit gene flow in a different direction.  This paper indicated gene flow from the Lake Baikal area to Europe.  It certainly could have been bidirectional, and this new paper certainly suggests that it was.

So in essence, maybe there is a little bit of Native American in Europeans and a little bit of European in Native Americans that occurred in their deep ancestry, not in the past 500-1000 years.

What’s next?  Work continues.  The team is now attempting to sequence genomes from other skeletons from west of Mal’ta, East Asia and from the Americas as well.

You can read the article in Science Magazine.  An academic article presenting their findings in detail will be published shortly in Nature.

A Podcast with Michael Balter can be heard here discussing the recent discovery.

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I receive a small contribution when you click on some of the links to vendors in my articles. This does NOT increase the price you pay but helps me to keep the lights on and this informational blog free for everyone. Please click on the links in the articles or to the vendors below if you are purchasing products or DNA testing.

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Human Genetics Revolution Tells Us That Men and Women Are Not the Same

Stop laughing.  I know, my initial reaction too was, “really – it took genetics to tell us that?”  But this is serious….really.

Males are 99.9% the same when compared to other males, and females are as well when compared to other females, but males and females are only 98.5% equal to each other – outside of the X and Y chromosomes.  The genetic difference between men and women is 15 times greater than between two men or two women.  In fact, it’s equal to that of men and male chimpanzees.  So men really are from….never mind.  It’s OK to laugh now…

men-women 1

We’ve been taught that other than X and Y, males and females are genetically exactly the same.  They aren’t.

men-women 2

Does this matter?  Dr. David Page, Director of the Whitehead Institute and MacArthur Genius Grant winner, says it absolutely does.  He has discovered that both the X and Y chromosomes function throughout the entire body, not just within the reproductive tract.

In his words, “Humane Genome, we have a problem.”  Medicine and research fails to take into account this most fundamental difference.  We aren’t unisex, and our bodies know this – every cell knows it at the molecular level, according to Dr. Page.

For example, some non-reproductive tract diseases appear in vastly different percentages in men and women.  Autism is found in 5 times as many males as females, Lupus in 6 times as many women as men and Rheumatoid Arthritis in 5 times as many women as men.  In other diseases, men and women either react differently to disease treatment, react differently to the disease itself, or both.  Dr. Page explains more and suggests a way forward in this short but very informative video.

About Dr. David Page:

David Page, Director of the Whitehead Institute and professor of biology at MIT, has shaped modern genomics and mapped the Y chromosome.  His renowned studies of the sex chromosomes have shaped modern understandings of reproductive health, fertility and sex disorders.

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I receive a small contribution when you click on some of the links to vendors in my articles. This does NOT increase the price you pay but helps me to keep the lights on and this informational blog free for everyone. Please click on the links in the articles or to the vendors below if you are purchasing products or DNA testing.

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Lovin’ My Cousins

lovin hands

I use DNA every day of my life.  Not only do I use it personally, but I utilize it for my clients.  I love what it can do for us – but DNA is only a tool.  A tool on a path – a path to your ancestors.  But ancestors lead us to cousins.  DNA is about cousins, finding them, getting to know them and then, yes, loving them.  I know, you guys are all cringing now about the L-word and searching for the little X to close this screen.  But it’s true – it’s about people – connecting to other people – both dead and alive.

My immediate family is small.  I didn’t know my father’s family growing up and my mother had only one sibling.  My own siblings are gone and the few children they had are scattered to the winds.  It’s hard enough to keep up with my own kids.  Many people are too busy to be interested in family, often until it’s too late.  As one old woman in my family so succinctly once said, “If you can’t bother to come and see me while I’m alive, don’t bother when I’m dead.”

Maybe I discovered early the value of cousins since my own immediate family was so small.  To connect, I had to reach out.  I’ve been so very fortunate.

lovin mary

This past month, on a trip made possible by DNA (which I will be writing about shortly), here I am in the churchyard in England where our Speak ancestor’s family lived in the 1600s, with my cousin Mary.  I love her, dearly.

lovin daryl

And this is my cousin, Daryl, my sister of heart and my research travel companion.  I met her through genealogy too, about a decade ago.  Here, we’re wading in the creek descending from the Cumberland Gap, running through the Dodson ancestral land, on a very hot summer day during a research trip.  DNA has taken us on an amazing  journey that we never expected.  We connect through the Dodson line.

lovin los and denise

And here in a slightly out of focus picture are my cousins Los, his beautiful daughter Landrii, and our cousin, Denise, of whom I’m extremely proud.  Just look how happy we are.  We were giddy with delight that day when we finally met.

This photo was taken in June 2011 at the Cumberland Gap Homecoming, coordinated by the Cumberland Gap DNA project members.  Our Herrell family lived near the Cumberland Gap where we met face to face for the first time.  A wonderful event, and Los drove from Louisiana alone with two toddlers to be able to attend.  Bless his heart.  (That’s the southern in me coming out.)  Denise flew in from the west coast.  Unfortunately, we live far apart but I can keep up with Los, his beautiful kids, and Denise electronically and via Facebook.

And this is only the beginning of the “I Love My Cousins” list – it goes on – and I meet new cousins almost every day now.  I’m amazed at how many people I’m related to, how large my extended family really is.  Fortunately, love isn’t a limited commodity!

Indeed, I’m grateful every single day for genealogy and DNA which connected me, and connects me, with my cousins.   They pop up in the most unexpected places.  Just this week, for example, I discovered when doing a DNA report for a client that I’m related to them, not once, but twice.  My quilt group, related to 2 of 5 people.  Someone I worked with on a special project a couple years ago, we recently DNA matched and discovered that we share a common Lemmert line out of Germany.  And Yvette Hoitink, the Dutch professional genealogist I hired to help me with the Dutch records, yep, we’re related genetically on our mother’s sides.  Reach out – you’ll find cousins too!  You never know who just might be one.

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Native American Mitochondrial Haplogroups

Today, what I’m sharing with you are my research notes.  If you follow my blogs, you’ll know that I have a fundamental, lifelong interest in Native American people and am mixed blood myself.  I feel that DNA is just one of the pieces of history that can be recovered and has a story to tell, along with early records, cultural artifacts and oral history.

In order to work with Native American DNA, and the various DNA projects that I co-administer, it’s necessary to keep a number of lists and spreadsheets.  This particular list was originally the first or earliest reference or references to a Native American mitochondrial (maternal line) haplogroup where it is identified as Native in academic papers.  I have since added other resources as I’ve come across them.

For those wondering why I’ve listed Mexican, this article speaks to the very high percentage of Native American mitochondrial DNA in the Mexican population.

Please note that while some of these haplogroups are found exclusively among Native American people, others are not and are also found in Europe and/or Asia.  In some cases, branches are exclusively Native.  In other cases, we are still sorting through the differences.  For haplogroups though to be only Native, I have put any other submission information, which is often from Siberia.

I have labeled the major founding haplogroups, as such.  This graphic from the paper, “Beringian Standstill and the Spread of Native American Founders” by Tamm et al, provided the first cumulative view of the mitochondrial Native founder population.

beringia map

Haplogroups A, B, C, D and X are known as Native American haplogroups, although not all subgroups in each main haplogroup are Native, so one has to be more specific.

Please note that I am adding information from haplogroup projects at Family Tree DNA.  This information is self-reported and should only be utilized with confidence after confirming the accuracy of the information.

Please note that in earlier papers and projects, not all results may have been tested to the full sequence level, so results in base haplogroups, like A and B, for example, may well fall into subclades with additional testing.

The protocol and logic for adding the Anzick results for consideration, along with other evidence is discussed in this article.  In short, for the 12,500 year old Anzick specimen to match any currently living people at relatively high thresholds, meaning 5cM or over, the living individual would likely have to be heavily Native.  Most matches are from Mexico, Central America and South America.  Many mitochondrial DNA haplogroups are subgroups of known Native groups, but never before documented as Native.  Therefore, the protocol I followed for inclusion was any subgroup of haplogroups A, B, C, D, M or X.  Some individuals are unhappy that some haplogroups were among the Anzick results and that I have not removed them at their request, in particular, M23.  To arbitrarily remove a haplogroup listing would be a breach of the protocol I followed.  Research does not always provide what is expected.  I have includes links to notes where appropriate.

Phylotree Versions

The Phylotree is the document that defines the mutations that equate to haplogroup names.

Please note that most papers don’t indicate which version of the Phylotree they used when sequencing the DNA. Haplogroup names sometimes change with new versions of the Phylotree.  Phylotree builds occurred as follows:

Family Tree DNA updated from build 14 to 17 in March 2017.

As of April 2017, 23andMe is still utilizing Build 12 from 2011.

Roberta’s Native Mitochondrial DNA Notes

Haplogroup A

A

Many samples classified as haplogroup A, with no subgroup, were not tested beyond the HVR1 or HVR1+HVR2 regions. Most, but not all, people will receive more granular haplogroups if the full mitochondrial sequence test is taken.

  • Tribes or peoples include Cherokee, Choctaw, Chippewa, Cree, Huron, Mi’kmaq, and PeeDee found in 2021 in the Haplogroup A project , Acadian AmerIndian Ancestry project and American Indian projects at Family Tree DNA.
  • Ancestral locations in 2021 include Alaska, Alberta, Argentina, Arizona, Bahamas, Belize, Brazil, British Colombia, California, Canada, Chile, Colombia, Costa Rica, Cuba, Dominican Republic, El Salvador, Guatemala, Honduras, Indiana, Kuna-Panama, Louisiana, Manitoba, Mexico, New Mexico, Nicaragua, North Carolina, Nova Scotia, Ohio, Panama, Puerto Rico, Saskatchewan, South Carolina, Texas, Wisconsin, Venezuela.
  • Anzick Provisional Extract, Estes 2014
  • Anzick Provisional Extract, Estes January 2015 – (32 As with no subgroup)
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017

Ancient A

  • Ancient samples from Antaura (1) and Puca (5) 1100-1500 BC. Baca, 2014
  • Ancient sample named Kwäday Dän Ts’ìchi, Long-Ago Person Found  from the glacier at Tatshenshini-Alsek Park, Canada, dates from about 1420 CE, Monsalve 2002
  • Ancient samples (2) from Tompullo and Andaray, Peru dating from about 1450 CE, Baca, 2012

A-T152C!

A1

  • Mexican – 2007 Peñaloza-Espinosa
  • Rumsen, Esselen, Salinan from Monterey, California – Breschini and Haversat 2008
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • In Build 17, previous haplogroup A4a became A1
  • Please note that in 2021, haplogroups A1 and A1a appear not to be Native, but there remains some question. In the next version of the haplotree as a result of the Million Mito Project, we can hopefully resolve this question.

A1a

  • In Build 17, previous haplogroup A4a1 became A1a
  • Please note that in 2021, haplogroups A1 and A1a appear not to be Native, but there remains some question. In the next version of the haplotree as a result of the Million Mito Project, we can hopefully resolve this question.

A2

  • Native, Beringian Founder Haplogroup – 2008 Achilli
  • Hispanic American – 2008 Just
  • Mexican – 2007 Peñaloza-Espinosa
  • Mexican, Achilli, 2008
  • Eskimo – Volodko, 2008
  • Dogrib – Eskimo – Volodko, 2008
  • Apache – Volodko, 2008
  • Mexico and Central America – Eskimo – Volodko, 2008
  • Apache – Volodko, 2008
  • Ache and Guarani/Rio-das-Cobras and Katuana and Poturujara and Surui and Waiwai and Yanomama and Zoro – Fagundes 2008
  • Waiwai, Brazil, Zoro, Brazil, Surui, Brazil, Yanomama, Brazil, Kayapo, Brazil, Arsario, Colombia, Cayapa, Ecuador, Kogui, Colombia – Fagundes 2008
  • Arsario and Cayapa – Tamm 2007
  • Kogui – Tamm 2007
  • Colombia – Hartmann 2009
  • Waorani tribe, Ecuador – Cardoso 2012
  • Anzick Provisional Extract, Estes January 2015 – (192 A2s with no subgroup),
  • Inupiat people from Alaska North Slope – Raff 2015
  • Ancestral locations found in March 2021 in the Haplogroup A project, Acadian AmerIndian Ancestry project and American Indian projects at Family Tree DNA include: Argentina, Brazil, California, Canada, Cuba, Ecuador, Guatemala, Mexico, New Brunswick, Nicaragua, Ontario, Puerto Rico, Quebec, Washington State, Mississippi
  • Tribes in 2021 include Algonquin and Choctaw.

Ancient A2

  • Ancient remains from Lauricocha cave central Andean highlands – Fehren-Schmitz 2015
  • Gran Chaco, Argentina – Sevini 2014
  • Chumash – Breschini and Haversat 2008
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Wari Culture, Huaca Pucllana, Peru – Llamas, 2016
  • Lima Culture, Huaca Pucllana, Peru – Llamas, 2016
  • Chancay culture, Pasamayo, Peru – Llamas, 2016
  • Lauricocha culture, Lauricocha, Peru – Llamas, 2016
  • Tiwanaku culture, Lauricocha, Peru – Llamas, 2016
  • Paisley 5 Mile Point Caves, 11,000-10,800 YBP – Gilbert et al, 2008
  • Manabi, San Ramon, Pichincha, Quito, Imbabura, Chimborazo, Riobamba, Tungurahua, Pillaro, Cotopaxi, Salcedo, Azuay and Cuenca in Ecuador, Native and Cayapa, also Peru, 6 ancient and several contemporary – Brandini, 2017
  • Argentina, Brazil, Canada, Chile, Cuba, Ecuador, El Salvadore, Guatemala, Mexico, Nicaragua, Puerto Rico, Peru, Venezuela, in Canada – British Columbia, New Brunswick, Northwest Territory, Nova Scotia, Ontario, Quebec, Vancouver Island, in the US – Alabama, Alaska, Caswell County, NC, Crawford County, PA, Michigan, Mississippi, tribes – Choctaw, Mi’kmaq – Haplogroup A2 Mitochondrial Project at Family Tree DNA, August 7, 2019
  • Ancient samples (3) from San Nicolas Island, CA dating from approximately 2100-2400 BCE, Scheib et al, 2018
  • Ancient samples (2) from Pampa Grande, Argentina, Candelaria culture dating from about 400 CE, Carnese et al 2010
  • Ancient samples (2) from the Lauricocha, Highlands of Peru  with 2 dating from about 6500-6700 BCE and one from 1600 BCE, Fehren-Schmitz 2015
  • Ancient samples (5) from Lapa do Santo, Brazil dating from about 7500-7900 BCE, Posth 2018
  • Ancient samples (2) from Arroyo Seco II, Argentina dating from about 5620 BCE, Llamas 2016
  • Ancient sample from Pampas, Laguna Chica, Argentina dating from about 5000 BCE, Posth 2018
  • Ancient samples (2) from Laranjal, Brazil dating from about 4600-5000 BCE, Posth 2018
  • Ancient sample from Caleta Huelen, Chile daring from about 600-800 CD, Nakatsuka 2020
  • Ancient samples (9) from Atajadizo, Dominican Republic dating from about 700 BCE (8 samples) and 1300 BCE (1), Fernandes 2020
  • Ancient sample from Monserrate, Puerto Rico dating from about 800 CE, Fernandes 2020
  • Ancient sample (3) from South Andros Island (Sanctuary Blue Hole,), Bahamas dating from about 1245 CE and 900 CE, Fernandes 2020
  • Ancient samples (6) from Juan Dolio, Dominican Republic dating from about 1200-1250 CE, Fernandes 2020
  • Ancient samples (3) from Andres, Dominican Republic dating from about 995 CE and 650 CE, Fernandes 2020
  • Ancient sample from La Union, Dominican Republic dating from about 700 CE, Fernandes 2020
  • Ancient sample from de Savaan, Curaco dating from about 1160 CE, Fernandes 2020
  • Ancient sample from Canimar Abajo, Cuba dating from about 950 BCE, Fernandes 2020
  • Ancient sample from Los Corniel (Rancho Manuel), Dominican Republic, dating from about 1150 CE. Fernandes 2020
  • Ancient sample from Caba Rojo, Puerto Rico dating from about 1000 CE. Fernandes 2020
  • Ancient samples (3) from La Caleta, Dominican Republic dating from about 1100 CE, Fernandes 2020 
  • Ancient sample from Cueva Juana near Cape of Samana, Dominican Republic dating from about 825 CE. Fernandes 2020
  • Ancient sample from Paso del Indio, Puerto Rico dating from about 1100 CE. Nägele 2020
  • Ancient samples (3) from Lavoutte (Cas-en-Bas), St. Lucia dating from about 1200-1300 CE. Nägele 2020
  • Ancient sample from Los Indios, Puerto Rico dating from about 1350 CE.Nägele 2020
  • Ancient sample from Guayabo Blanco (near Punto Brava), Cuba dating from about 600 BCE. Nägele 2020
  • Ancient sample from Playa del Mango, Rio Cauto, Granma, Cuba dating from about 20 CE. Nägele 2020
  • Ancient samples (2) from Cueva Calero (Matanzas), Cuba dating from about 400-500 CE. Nägele 2020
  • Ancient samples (2) from Canimar Abajo, Cuba dating from about 500-600 CE. Nägele 2020
  • Ancient sample from Cueva del Perico, Cuba dating from about 700 CE. Nägele 2020
  • Ancient samples (2) from Paso del Indio, Puerto Rico dating from about 1000-1250 CE.Nägele 2020
  • Ancient sample from Pica Ocho, Coast of Chile dating from about 1300 CE. Posth 2018
  • Ancient sample from Arroyo Seco, Argentina dating from about 5800 BCE. Posth 2018
  • Ancient sample (2) from the island Chumash, San Miguel Island, Canada dating from about 1830 CE and 1600-1800 CE. Scheib et al, 2018
  • Ancient sample from mainland Chumash, Carpenteria, CA dating from about 400-550 CE. Scheib et al, 2018
  • Ancient sample from island Chumash, Santa Cruz Island, CA dating from about 1500-1800 CE. Scheib et al, 2018
  • Ancient sample from San Sebastian, Cusco, Highlands of Peru dating from about 1450 CE. Nakatsuka 2020
  • Ancient sample from Huaca Pucllana, Lima Peru dating from about 700 CE. Nakatsuka 2020
  • Ancient sample from El Brujo, Peru dating from about 1000 CE. Nakatsuka 2020
  • Ancient sample from southwest of Buenos Aires, Argentina dating from about 400 BCE. Nakatsuka 2020
  • Ancient samples (6) from the central Andes of southern Peru dating from about 300-1450 BCE. Fehren-Schmitz 2015
  • Ancient sample from the middle Andes of southern Peru dating from about 1000 BCE. Fehren-Schmitz 2015
  • Ancient samples from the Kotosh culture in La Galgada, Peru dating from about 2050 BCE, Llamas 2016
  • Ancient sample from the Chinchorro culture in Camarones, Chile dating from about 1800 BCE, Llamas 2016
  • Ancient sample from the Tiwanaku culture in Tiwanaku, Bolivia dating from between 500 and 1000 CE, Llamas 2016
  • Ancient samples (4) from the Wari and Lima Cultures in Huaca Pucllana, Lima, Peru dating from between 500 and 1000 CE, Llamas 2016
  • Ancient sample from the Chancay culture in Pasamayo, Peru dating from between 1000 and 1470 CE, Llamas 2016
  • Ancient sample from the Inca culture in San Sebastian, Peru dating from about 1400 CE, Llamas 2016
  • Ancient sample from the Late Central Andes culture from Cuncaicha, Highlands of Peru dating from 2250 BCE, Llamas 2016
  • Ancient samples (2) from Pica, Chile dating to between 500 and 1000 BCE, Llamas 2016
  • Ancient samples (5) from Checua, Colombia dating from 6000-7800 BCE and 2 samples dating from about 3000 BCE, Diaz-Matallana 2016
  • Ancient sample from the Chinchorro culture in Arica, Chile dating from about 3800 BCE, Raghavan 2015
  • Ancient sample from the Enoque culture from Toca do Enoque in Serra da Capivara, Piaui, Brazil, dating from about 3500 BCE, Raghavan 2015
  • Ancient sample from Big Bar Lake, British Columbia, Canada dating from about 3600 BCE, Moreno-Mayar 2018
  • Ancient samples (4) from the Wari era from Cochapata, Peru dating from about 600-1000 CE, Kemp 2009
  • Ancient samples (3) from the Wari Era from Huari-MQ, Peru dating from about 1000-1450 BCE, Kemp 2009
  • Ancient sample from the Caribbean culture from Santa Elena, Puerto Rico dating from between 900-1300 BCE, Fernandes 2020
  • Ancient samples (4) found in Tibanica, Colombia from about 1000 BCE, Perez 2015
  • Ancient sample from Tilcara, Quebrada de Humahuaca, Jujuy, Argentina dating from about 1100 BCE, Mendisco 2014
  • Ancient sample from Banda de Perchel, Quebrada de Humahuaca, Jujuy, Argentina dating from about 1150 CE, Mendisco 2014
  • Ancient samples (13) from Los Amarilloes, Quebrada de Humahuaca, Jujuy, Argentina dating from about 980-1467 CE, Mendisco 2014
  • Ancient samples (2) from Fuerte Alto, Calchaqui Valley, Salta, Argentina dating from about 1000-1500 CE, Mendisco 2014
  • Ancient sample from Tero, Calchaqui Valley, Salta, Argentina dating from about 1000-1500 CE, Mendisco 2014
  • Ancient samples (2) from the Inca period from Esquina de Huajra (Quebrada de Humahuaca), Argentina dating from about 1500 CE. Russo 2017
  • Ancient samples (4) from Doncellas, Argentina dating from about 1000-1450 CE, Postillone 2017
  • Ancient sample from Casabindo, Argentina dating from about 1000-1450 CE, Postillone 2017
  • Ancient sample from Agua Caliente, Argentina dating from about 1000-1450 CE, Postillone 2017
  • Ancient sample from Doncellas, Argentina dating from about 1000-1450 CE, Postillone 2017
  • Ancient samples (2) from the Athabaskan culture from Tochak McGrath, Upper Kuskokwim River, Alaska, one dating from about 1050-1400 CE, and one from about 550-900 CE, Flegontov 2019. This paper is fascinating – take a look.
  • Ancient sample from Tequendama, Colombia dating from between 4000-5000 BCE, Delgado 2020
  • Ancient sample from Ubate, Colombia dating from about 3600 BCE. Delgado 2020
  • Ancient samples (4) from Aguazuque (Soacha), Colombia, two dating from about 1900 BCE, one from about 2600 BCE, and one from about 775 BCE. Delgado 2020
  • Ancient sample from Canimar Abajo, Cuba dating from about 1100 BCE, Nägele 2020
  • Ancient sample from Restigouche River, near the town of Atholville in northern New Brunswick, Canada dating from about 1500 CE. Raghavan 2015
  • Ancient sample from the lnca Late Horizon from Chincha, Peru dating from about 1500 CE. Bongers 2020

A2a and A2b

  • Paleo Eskimo, identified in only Siberia, Alaska and Natives from the American SW (Achilli 2013)
  • Raff 2015 – Inupiat people from Alaska North Slope
  • Ancient sample, Holas Island, Canada, about 2400 BCE,

A2a

  • Aleut – 2008 Volodko
  • Eskimo – Volodko, 2008
  • Apache – Volodko – 2008
  • Siberian Eskimo, Chukchi, Dogrib, Innuit and Naukan – Dryomov, 2015
  • Anzick Provisional Extract, Estes January 2015 – (2 A2a)
  • Common among Eskimo, Na-Dene and the Chukchis in northeasternmost Siberia, Athabaskan in SW (Achilli 2013), circumpolar Siberia to Greenland, Apache 48%, Navajo 13%
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017

Ancient A2a

  • Ancient samples (3) from Ekven, Russia, from a 2000 year old Eskimo cemetery near Uelen on the easternmost spit of land in the Bering Strait, one sample dating from about 100 BCE, one from about 900 BCE and one from about 30 BCE, Sikora 2019
  • Ancient samples (5) from Ekven, Russia, from a 2000 year old Eskimo cemetery representing the Old Bering Sea culture near Uelen on the easternmost spit of land in the Bering Strait, dating from about 700-1000 CE, Flegontov 2019
  • Ancient sample from Kagamil Island Warm Cave, Aleutian Islands, Alaska dating from about 1600 CE, Flegontov 2019
  • Ancient samples (2) from Uelen, Chukotka, Russia on the easternmost spit of land in the Bering Strait dating from about 1000 CE and about 250 CE, Flegontov 2019
  • Ancient sample from the Palm Site (Cook Inlet) from the Alaskan Athabaskan culture dating from about 1850 CE, Scheib et al, 2018
  • Ancient sample from Punta Candelero, Puerto Rico dating from about 158 CE, Nägele 2020
  • Ancient samples (2) from Ekven, Russia, from a 2000 year old Eskimo cemetery representing the Old Bering Sea culture near Uelen on the easternmost spit of land in the Bering Strait, dating from about 800-1000 CE, Harney 2020

A2aa

  • Waiwai and Poturujara tribes in Brazil Fagundes, 2008
  • Peru – Brandini, 2017

A2ab

A2ac

  • Chimborazo, Pallatanga, Riobana, Pichincha, Cayambe, Quito, Mejia in Ecuador, Mestizo and Cayapa – Brandini, 2017
  • Hispanic – Just, 2015
  • Colombia – Rieux, 2014
  • Venezuela – Brandini, 2017

A2ac1

  • Colombia, Cuba – Behar, 2012
  • Colombia – HGDP

A2ac2

  • Chimboro, Penipe, Santo Domingo, El Poste, Pichincha, Quito, Bolivar, Chimbo in Ecuador, Native Tsachila and Mestizo – Brandini, 2017

A2ad

A2ac

A2am

A2ar

  • Guatemaula – Sochtig, 2015

A2a1

  • Selkup and Innuit – Dryomov, 2015
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Ancient samples (2) from Ekven, Russia, from a 2000 year old Eskimo cemetery representing the Old Bering Sea culture near Uelen on the easternmost spit of land in the Bering Strait, dating from about 850 CE, Flegontov 2019
  • Ancient sample from Tochak McGrath, Upper Kuskokwin River, Alaska from the Athabaskan culture dating from about 1225 CE, Flegontov 2019
  • Ancient sample from Ekven, Russia, from a 2000 year old Eskimo cemetery representing the Old Bering Sea culture near Uelen on the easternmost spit of land in the Bering Strait, dating from about 3 CE, Sikora 2019
  • Ancient sample from Ekven, Russia, from a 2000 year old Eskimo cemetery representing the Old Bering Sea culture near Uelen on the easternmost spit of land in the Bering Strait, dating from about 800 CE, Harney 2020

A2a2

Ancient A2a2

  • Ancient sample from Ekven, Russia, from a 2000 year old Eskimo cemetery representing the Old Bering Sea culture near Uelen on the easternmost spit of land in the Bering Strait, dating from about 250 BCE, Sikora 2019
  • Ancient sample from Ekven, Russia, from a 2000 year old Eskimo cemetery representing the Old Bering Sea culture near Uelen on the easternmost spit of land in the Bering Strait, dating from about 1150 CE, Flegontov 2019
  • Ancient sample from Uelen, Chukota, Russia on the easternmost spit of land in the Bering Strait, dating from about 1150 CE, Flegontov 2019

A2a3

Ancient A2a3

  • Birnirk (ancient sample,) Chukchi, Naukan, Innuit in Canada and Greenland – Dryomov 2015
  • Ancient sample from Ulaanzuukh, Sukhbaatar, Mongolia dating from about 1200 CE, Jeong 2020
  • Ancient sample from the Pucuncho Basin, Cuncaicha, Peru dating from about 2250 BCE, Nakatsuka 2020
  • Ancient sample from the Cuncaicha Highlands, Peru dating from about 2230 BCE,  Llamas, 2016

A2a4

A2a5

A2ab

A2ac

A2ac1

A2ad

A2ae

A2af

A2af1a

A2af1a1

A2af1a2

A2af1b1

A2af2

A2ag

A2ah

A2ai

A2ak

A2al

A2am

A2ao

  • Ancient sample from Cuncaicha, Highlands of Peru dating from about 1420 CE, Posth 2018

A2ao1

A2ap

A2aq

A2ar

A2as

A2as1

A2at

A2at1

A2au

A2av

  • Hispanic – Just, 2008

A2av1

  • Pichincha, Quito, El Oro, Zaruma in Ecuador, Mestizo and Native Panzaleo, also Peru – Brandini, 2017

A2av1a

  • Tungurahua, Pillaro, Ambato, Chimborazo, Riobamba in Ecuador, Mestizo and Native Panazaleo, also Peru – Brandini, 2017

A2aw

  • Carchi, Tulcan, Carchi, Montufar San Gabriel in Eduador, Mestizo and Native Cayambe – Brandini, 2017

A2b

A2b1

A2c

A2c-C64T

A2d

A2d1

A2d1a

A2d2

A2e

A2f

A2f1

A2f1a

A2f2

A2f3

A2g

A2g1

A2-G153A!

A2 – G16129A!

A2h

A2h1

A2i

A2j

A2j1

A2k

A2k1

A2k1a

A2l

A2m

A2n

A2p

A2p1

A2q

A2q1

A2r

A2r1

A2t

A2-T16111C!

A2u

A2u1

A2u2

A2v

A2v1

A2v1a

A2v1b

A2v1-T152C!!!

A2w

A2w1

A2x

A2y

A2y1

  • Chimborazo, La Moya, Imbabura, San Rafael, in Ecuador, Native Otavalo, Mestizo and Waorani, also Peru – Brandini, 2017

A2z

A2z1

  • Peru – Brandini, 2017
  • Puerto Rico – Behar, 2012
  • Puerto Rico – HGDP
  • Hispanic – Just, 2008
  • Hispanic – Just, 2014

A2z2

A2-C64T

A2-C64T-A189G (please note that under Build 17, most of haplogroup A2 has been reassigned)

A2-C64T-T16111C! (please note that in Build 17, this haplogroup is now A2-T16111C!)

A3

A4 (Please note that in Build 17, people previously assigned A4 were reassigned to other haplogroups based on their mutations, including haplogroups A, A18, A2-T16111C!, A2-G153A!, A-T152C!, A-T152C!-A200G, A A2ao, A2q1, A12a and possibly others. Haplogroup A4 itself no longer exists.)

A4a (please note that in Build 17, A4a became A1)

  • Kumar 2011 – Siberian founder of A2, not found in Americas

A4a1 (please note that in Build 17, A4a1 became A1a)

A4b (please note that in Build 17, A4b became A12a)

A4c (Please note that in Build 17, A4c became A13)

  • Siberian founder of A2, not found in Americas – Kumar 2011

A5

A5a

  • Anzick Provisional Extract, Estes January 2015 – (1 A5a)

A6

A7

A8

A9

A10

A11

A12

A12a

  • In Build 17, previous haplogroup A4b became A12a

A13

Haplogroup B

B

B1

B2

  • Native, Beringian Founder Haplogroup – 2008 Achilli, 2007 Tamm
  • Mexican – 2007 Peñaloza-Espinosa
  • Quecha and Ache and Gaviao and Guarani/Rio-das-Cobras and Kayapo-Dubemkokre and Katuena and Pomo and Waiwai and Xavante and Yanomama – Fagundes 2008
  • Ache, Paraguay, Gaviano, Brazil, Xavante, Brazil, Quechua, Bolivia, Guarani, Brazil, Kayapo, Brazil, Guarani, Brazil, Yanomama, Brazil, Cayapa, Ecuador, Coreguaje, Colombia, Ngoebe, Panama, Waunana, Colombia – Fagundes 2008
  • Hispanic American – Just 2008
  • Colombia – Hartmann 2009
  • Mexican American – Kumar 2011
  • Cayapa and Coreguaje and Ngoebe and Waunana and Wayuu and Coreguaje – Tamm 2007
  • Pima – Ingman 2000
  • Native American – Mishmar 2003
  • Colombian and Mayan – Kivisild 2006
  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Colombia – Hartman
  • Yaqui – FTDNA
  • Shown with European and Mexican and South American entry in the Haplogroup B project at Family Tree DNA
  • Anzick Provisional Extract, Estes January 2015 – (2 B2)
  • Ancient remains from Lauricocha Cave central Andean highlands – Fehren-Schmitz 2015
  • Ancient sample, central Alaska, Upper Sun River site from circa 11,500 before present – 2015, Tackney et al
  • Gran Chaco, Argentina – Sevini 2014 
  • Aymara, Atacameno, Mapuche, Tehuelche in Chile and Argentina, South America – de Saint Pierre, 2012
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Ychsma culture, Huaca Pucllana, Peru – Llamas, 2016
  • Lima culture, Huaca Pucllana, Peru –  Llamas, 2016
  • Pica-Tarapaca culture, Pica-8, Chile – Llamas, 2016
  • Inca culture, Pueblo Viejo, Peru – Llamas, 2016
  • Chancay culture, Pasamayo, Peru – Llamas, 2016
  • Lauricocha culture, Lauricocha, Peru – Llamas, 2016
  • Tiwanaku culture, Tiwanaku, Bolivia – Llamas, 2016
  • Aceramic culture, Cueva Cadelaria, Mexico – Llamas, 2016
  • Upward Sun River, Tackney 2015
  • Ancient samples, high percent B2 published populations: Yakama, Wishram, N. Paiute/Shoshoni, Washo, Fremont (500-1500 YBP,) Tommy Site (850-1150 YBP,) Anasazi (1010-2010 YBP,) Navajo, Jemez, Hualapai, Pai Yuman, Zuni, River Yuman, Delta Yuman, Tohono O’odham (Papago), Akimal O’odham (Pima,) Quechan/Cocopa, Nahua-Atopan, Embera, Puinave, Curriperco, Ingano, Uungay, San Martin, Peruvian Highlanders (550-450 YBP,), Yacotogia 1187 YBP, Ancash, Arequpa, Chimane, Puno (Quecha,) Quechua 2, Aymara 2, Trinitario, Quebrada de Humahuaca, Atacamenos, Chorote, Gram Chaco – Tackney 2015 supplement 2
  • Ancient samples, Sinixt, Quecha, Coreguaje, Waunana, Wayuu – Tackney 2015 supplement 1
  • Paisley 5 Mile Point Caves, 11,000-10,800 YBP – Gilbert et al, 2008
  • LatacungaCotopaxi, Angamarca, Loja, Ganil, Saquisili, Canar, Azogues, Pichincha, Quito in Ecuador, Mestizo and Native, also Peru,  5 ancient and several Mestizo – Brandini, 2017
  • Washington State, Oregon, California, Arizona, New Mexico, Texas, Illinois, North Carolina, Ecuador, Peru, Bolivia, Chile, Argentina, Brazil – Haplogroup B project at Family Tree DNA August 2019

B2a

  • Found just to the south of A2a, widespread in SW and found in one Chippewa clan, one Tsimshian in Canada and tribes indigenous to the SW, Mexico, possibly Bella Coola and Ojibwa, evolved in North America – Achilli 2008 and 2013,
  • Chihuahua, Mexico – Achilli, 2013
  • Found with Mexican entry and descended from Dorothee Metchiperouata b.c.1695 (Illinois) in the Haplogroup B project at Family Tree DNA
  • Anzick Provisional Extract, Estes January 2015 – (14 B2a)
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017

B2aa

B2aa1

B2aa1a

B2aa2

  • Mexico – Behar, 2012
  • Mexico – Kumar, 2011

B2ab

  • Peru, ancient and contemporary – Brandini, 2017
  • Bolivia, ancient sample – Llamas, 2016

B2ab1

B2ab1a

B2ab1a1

B2ac

B2ad

B2ae

B2ag

B2ag1

B2ah

B2a1

B2a1a

B2a1a1

B2a1b

B2a2

B2a3

B2a4

B2a4a

B2a4a1

B2a5

B2b

  • Achilli, 2008
  • Yanomama, Pomo, Xavante, Kayapo – Fagundes, Cayapa – Tamm
  • Shown in Mexico and South America in the Haplogroup B project at Family Tree DNA
  • Anzick Provisional Extract, Estes January 2015 – (40 B2b)
  • Gran Chaco, Argentina – Sevini 2014 
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Yschsma culture, Huaca Pucllana, Peru – Llamas, 2016
  • Wari culture, Huaca Pucllana, Peru – Llamas, 2016
  • Lima culture, Huaca Pucllana, Peru – Llamas, 2016
  • Inca culture, Pueblo Viejo, Peru – Llamas, 2016
  • Chancay culture, Pasamayo, Peru – Llamas, 2016
  • Cayapa – Tackney 2015 supplement 1
  • Loja, Tungurahua, Pichincha, Pedro vicente Malonado in Ecuador, Native, Mestizo and Native Saraguro, also Peru, ancient and contemporary – Brandini, 2017
  • Pomo in California – Fagundes, 2008
  • Xavante in Brazil – Fagundes, 2008
  • Colombia – HGDP
  • Hispanic – Just, 2015
  • Bolivia – Taboada-Echalar, 2013
  • Hoopa Tribe – private correspondence to Roberta Estes, August 2019

B2b1

B2b2

B2b2a

  • Bolivia – Toboada-Echalar, 2013

B2b3

B2b3a

B2b4

  • Mexico – Kumar, 2011

B2b5

  • Pichincha, Juan Montalvo, Cotopaxi, Mulalo, San Miguel de Los Bancos, Imbabura, Ibarra, Loja, Onocapa, Quito in Ecuador, Native Cayambe, Cayapa and Mestizo, also Peru and Venezuela – Brandini, 2017

B2b5a

B2b5a1

B2b5b

B2b5b1

B2b5b1a

B2b5b1a1

  • Pichicha, Ruminaui, Loja, Linderos, Ganil, Onocapa, Bolivar, Pinato in Ecuador, Native, Native Quincha, Mestizo – Brandini, 2017

B2b6a

B2b6a1

  • Pichincha, Quito, Ruminahui, Loja, Ganil in Ecuador, Native and Mestizo, also Peru – Brandini, 2017

B2b6a1a

  • Chimborazo, Riobamba, Chimborazo, Colta, Cotopaxi, Salcedo, Loja, Onacapa, Loja, Ganil, Quito, Pichincha, Pujili, Machachi in Ecuador, Native Puruha, Native Quitu-Cara/Cayambe Mestizo and Native – Brandini, 2017

B2b6b

B2b6b1

B2b6b1a

  • Loja, Gonzanama in Ecuador, Mestizo and Native, also Peru – Brandini, 2017

B2b7

B2b8

B2b8a

B2b9

B2b9a

B2b9b

B2b9c

  • Los Rios, Babahoyo in Ecuador, Mestizo, also Peru, 2 ancient – Brandini, 2017

B2b10a

B2b10b

B2b11

B2b11a

B2b11a1

B2b11a1a

B2b11b

B2b11b1

B2b12a

  • Morona-Santiago, Yaupi in Ecuador, Native Shuar, also Peru – Brandini, 2017

B2b12b

B2b13

B2c

  • Achilli, 2008
  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Hispanic – Parsons
  • Asia – Herrnstadt
  • Anzick Provisional Extract, Estes January 2015 – (2 B2c)
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Ottawa River, Canada, Fulton Co., Pennsylvania, Orange Co., New York, Martin Co., North Carolina and San Luis Potosi, Mexico – Haplogroup B project at Family Tree DNA in August 2019

B2c1

B2c1a

B2c1b

B2c1c

B2c2

B2c2a

B2c2b

B2d

B2e

B2f

B2g

B2g1

B2g2

B2h

B2i2

B2i2a1a

B2i2b

B2i2b1

B2j

B2k

B2l

  • Peuhuenche, Mapuche, Huilliche, Mapuche ARG and Tehuelche Chile and Argentina, South America – de Saint Pierre, 2012
  • Wintu tribe descendant, Wintu DNA Project at Family Tree DNA, August 2019

B2l1

  • Mexico – HGDP

B2l1a

B2l1a1

B2m

B2n

B2o

B2o1

  • Loja, Quilanga, Chimborazo, El Altar in Ecuador, Mestizo – Brandini, 2017

B2o1a

  • Bolivia – Taboada-Eschalar, 2013

B2p

B2q

B2q1

  • Pichincha, Zambiza, Loja, Catacocha, Onacapa in Ecuador, Native and Mestizo, also Peru – Brandini, 2017

B2q1a

  • Loja, Ganil, El Oro, Arenillas in Ecuador, Mestizo, also Peru – Brandini, 2017

B2q1a1

B2q1b

B2r (Phylotree V17)

B2s

B2t

B2u

B2v

B2w

B2y

B2y1

B2y2

B2z

B2z1

  • Cotopaxi and Sigchos in Ecuador, Mestizo and Native Panzaleo (Quincha) – Brandini, 2017

B2z1a

  • Loja, Ganil, Onacapa in Ecuador, Native and Mestizo – Brandini, 2017

B2-T16311C!

B4

B4a1a

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Anzick Provisional Extract, Estes January 2015 – (1 B4a1a)

B4a1a1

  • Found in skeletal remains of the now extinct Botocudos (Aimores) Indians of Brazil, thought to perhaps have arrived from Polynesia via the slave trade.  Goncalves 2013, Polynesian motif,
  • Anzick Provisional Extract, Estes January 2015 – (1 B4a1a1) – full genome sequencing shows these remains to be entirely Polynesian, Malaspinas, 2015, Estes 2015.
  • Note August 30, 2016 – Te Papa’s archival records dating back to 1883/84 indicate that a Māori skull and a Moriori skull were sent to the National Museum in Rio de Janeiro in the early 1880s. In 2013-14, the findings of DNA research which included samples of Botocudo Indians housed at National Museum in Rio de Janeiro indicated that two of the Botocudo ancestors had typical Polynesian DNA sequences. It seems likely that these two “Botocudo Indians” with Polynesian DNA are the Tupuna (ancestors) that were sent from the Wellington Colonial Museum (now Te Papa) in the 1880s.   

B4a1a1a

  • Found in skeletal remains of the now extinct Botocudos (Aimores) Indians of Brazil, thought to perhaps have arrived from Polynesia via the slave trade.  Goncalves 2013, Polynesian motif – full genome sequencing shows these remains to be entirely Polynesian, Malaspinas, 2015, Estes 2015. See August 30, 2016 note for B4a1a1.

B4a1b

B4a1b1

B4b

B4b1

B4bd

B4c1b

B4f1

B4’5

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Shown as European and East Asian and Mexican and South America and Nicaragua and Guatemaula and Cuba and Pacific Islands and identified as Ho-Chunk and descended from Pistikiokonay Pushmataha, b. 1766 (Choctaw) and Eastern Cherokee and Chickasaw and Creek in the Haplogroup B project at Family Tree DNA
  • Anzick Provisional Extract, Estes January 2015 – (15 B4’5)
  • Please note that not all B4’5 is Native

B5b2

  • Native American branch of haplogroup B with roots in the Altai-Sayan Upland.  Starikovskaya, 2005

B5b2a

B5b2a2

B5b3

B2e

  • Gran Chaco, Argentina – Sevini 2014 

B21

  • Found in skeletal remains of the now extinct Botocudos (Aimores) Indians of Brazil, thought to perhaps have arrived from Polynesia via the slave trade, Goncalves 2013

Haplogroup C

C

C1

  • Native – 2008 Achilli, 2007 Tamm
  • Mexican – 2007 Peñaloza-Espinosa, Kumar 2011
  • Poturujara – Fagundes 2008
  • Hispanic American – Just 2008
  • Arara do Laranjal and Quechua and Yanomama and Waiwai and Zoro – Fagundes 2008
  • Waiwai, Brazil, Zoro, Brazil, Quechua, Bolivia, Arara, Brazil, Poturujara, Brazil – Fagundes 2008
  • Native American – Mishmar 2003
  • Warao – Ingman 2000
  • Anzick Provisional Extract, Estes January 2015 – (25 C1 with no subgroup)
  • Remains from Wizard’s Beach in Nevada– Chatters, 2015
  • Aymara, Atacameno, Mapuche, Huilliche, Kawesqar, Mapuche, Teheulche and Yamana in Chile and Argentina, South America – de Saint Pierre, 2012
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Tiwanaku culture, Tiwanaku, Bolivia – Llamas, 2016
  • Wizard’s Beach, Nevada – Tackney, 2016
  • High Percent C1 published populations: Norris Farms 700 YBP, Cecil (3600-2860 YBP,) Cook 2000 YBP, Hualapai, Delta Yuman, Akimal O’odham (Pima,), La Calenta (Tainos) (1330-320 YBP,) Arawaken, Guambiano, Desano, Movina, Ignaciano

C1a

C1b

  • Beringian Founder Haplogroup – 2008 Achilli
  • Wayuu – 2007 Tamm
  • Pima, Mexico – Hartmann 2009
  • Mexican American – Kumar 2011
  • Quechua and Zoro and Arara and Poturujara – Fagundes 2008
  • Peru – Tito
  • Colombia – Zheng
  • Samish on Guemes Island and Fidalgo Island, British Columbia, American Indian DNA Project, 2014
  • Anzick Provisional Extract, Estes January 2015 – (26 C1b)
  • Central Alaska from circa 11,500 before present – 2015 Tackney et al
  • Gran Chaco, Argentina – Sevini 2014
  • Mexico and Ecuador in the Haplogroup C project at Family Tree DNA
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Inca culture, Llullaillaco, Argentina – Llamas, 2016
  • Ychsma culture, Huaca Pucllana, Peru – Llamas, 2016
  • Wari culture, Huaca Pucllana, Peru – Llamas, 2016
  • Lima culture, Huaca Pucllana, Peru – Llamas, 2016
  • Inca culture, Pueblo Viejo, Peru – Llamas, 2016
  • Chancay culture, Pasamayo, Peru – Llamas, 2016
  • Chullpa Botigiriayocc, Peru- Llamas, 2016
  • Tiwanaku culture, Tiwanaku, Bolivia – Llamas, 2016
  • Aceramic culture, Cueva Candelaria, Mexico – Llamas, 2016
  • Mexico, Peru, Ecuador, Colombia, Brazil – Gomez-Carballa 2015
  • Upward Sun River, Alaska – Tackney, 2015
  • Canary, Hispanic, Pima – Tackney 2015 supplement 1
  • Pichincha, Quito, Chimborazo, Guamote, Cotopaxi, Salcedo, Machachi, Azuay, Cuenca, Loja in Ecuador, Mestizo, Native Quitu-Cara/Cayambe and Native Puruha, also in Peru, 7 ancient and 16 contemporary, Mestizo – Brandini, 2017
  • Wintu tribal survivors, private correspondence to Roberta Estes, August 2019

C1b1

C1b1a

  • Mexico, USA – Gomez-Carballa, 2015

C1b1b

  • Mexico, USA – Gomez-Carballa 2015

C1bi

  • Gomez-Carbala, 2015, Complete Mito Genome of 500 Year Old Inca Child Mummy

C1b2

C1b2a

C1b2a1

C1b2b

  • Puerto Rico – Gomez-Carballa 2015

C1b3

C1b4

C1b5

C1b5a

  • Hispanic – Parsons
  • Mexican – Kumar
  • Mexico, USA – Gomez-Carballa 2015

C1b5b

C1b6

  • Yanomama – Fagundes
  • Brazil – Gomez-Carballa 2015

C1b7

C1b7a

C1b7a1

  • Mexico, USA – Gomez-Carballa 2015

C1b7b

  • Mexico, USA – Gomez-Carballa 2015

C1b8

C1b8a

C1b8a1

  • Mexico, USA – Gomez-Carballa 2015

C1b9

C1b9a

C1b10

C1b10a

  • Mexico, USA – Gomez-Carballa 2015

C1b11

C1b11a1

  • Mexico, USA – Gomez-Carballa 2015

C1b11b1

  • Mexico, USA – Gomez-Carballa 2015

C1b12

C1b12a

  • Mexico, USA – Gomez-Carballa 2015

C1b13

  • Found in skeletal remains of the now extinct Botocudos (Aimores) Indians of Brazil, thought to perhaps have arrived from Polynesia via the slave trade, Goncalves 2013
  • Chilean and Kolla – de Saint Pierre, Dec. 2012
  • Atacameno, Pehuenche, Mapuche, Huilliche, Kawesqar, Mapuche, Tehuelche and Yamana in Chile and Argentina, South America – de Saint Pierre, 2012
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Chile, Argentina – Gomez-Carballa 2015

C1b13a

C1b13a1

C1b13a1a

C1b13b

C1b13c

C1b13c1

C1b13c2

  • Chile, Argentina – Gomez-Carballa 2015

C1b13d

C1b13e

C1b14

C1b11

C1b15

C1b15a

  • Brazil – Gomez-Carballa 2015

C1b16

C1b17

C1b18

C1b19

  • Peru – Gomez-Carballa 2015
  • Peru, 9 ancient and 2 contemporary – Brandini, 2017

C1b20

C1b21

C1b21a

  • Peru – Gomez-Carballa 2015
  • Peru, 2 ancient and 2 contemporary – Brandini, 2017

C1b22

C1b23

  • Loja, Tuncarta, Onacapa, Ganil, Catacocha in Ecuador, Native, Native Saraguro and Mestizo – Brandini, 2017

C1b24

C1b25

C1b26a

C1b26a1

C1b27

C1b28

C1b29

  • Bolivar, Cotopaxi, Mana, Quito, Loja in Ecuador, Native and Mestizo – Brandini, 2017

C1ba

C1b-T16311C

C1c

C1c1

C1c1a

C1c1b

C1c2

C1c3

C1c4

C1c5

C1c6

C1c7

C1c8

C1c8-A19254G, C16114T

C1d

  • Beringian Founder Haplogroup – 2008 Achilli
  • Coreguaje – 2007 Tamm
  • Coreguaje, Colombia – Fagundes 2008
  • Tamaulipas and Guanajuato and Chihuahua and Kolla-Salta and Buenos Aires and Boyacá, Colombia and Mexico – Perego 2010
  • Chihuahua, Mexico, Salta, Argentina – Perego 2010
  • Mexican American – Kumar 2011
  • Anzick Provisional Extract, Estes January 2015 – (4 C1d)
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Hispanic, Coreguaje – Tackney 2015 supplement 1

C1d-C194T

  • Mexico, and Argentina and Colombia – Perego,

C1d1

  • Warao, Venezuela – Ingman 2000
  • Rio Grande do Sul, Brazil and Lima, Peru and Buenos Aires and Loreta, Peru and Imbabura, Ecuador and Mestizos in Colombia and Minas Gerais, Brazil and Cajamarca, Peru and Huanucu,Peru and Puca Puca, Peru and Mato Grosso do Sul, Brazil and Chaco, Paraguay and Kolla-Salta and Piura, Peru and Huancavelica, Peru and Corrientes and Los Lagos, Chile and Oklahoma and Kuna Yala, Panama and Darien, Panama and Puerto Cabezas, Nicaragua and Eduador and Uruguay and Nicaragua – Perego 2010
  • Fagundes 2008
  • Tamm, 2007
  • Coreguaje – Tamm
  • Warao – Ingman
  • American – Kivisild
  • Hispanic – Parsons
  • Brazil – Rieux
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Loja, Ganil in Ecuador, Mestizo, also Lima in Peru and 1 ancient sample – Brandini, 2017

C1d1a

C1d1a1

C1d1b

  • Argentina and Kolla-Salta and Diaguita-Catamarca and Buenos Aires and Rio negro and Corrientes and Flores, Uruguay – Perego 2011
  • Rio Grande do Sul, Brazil, Buenos Aires, Argentina, Loreto, Peru, Minas Gerais, Brazil, Cajamarca, Peru, Huánuco, Peru, Puca Pucara, Peru, Chaco, Paraguay, Huancavelica, Peru, Los Lagos, Chile, Panama – Perego 2010
  • Gran Chaco, Argentina – Sevini 2014 
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017

C1d1b1

C1d1c

C1d1c1

C1d1d

C1d1e

C1d1f

  • Imbabura, Pichincha, Ruminahui, Quito, Cotopaxi in Ecuador, Mestizo – Brandini, 2017

C1d2

C1d2a

C1d3

C1d-C194T

C1e

C2

  • Mexican – 2007 Peñaloza-Espinosa

C2b

C4

  • 2007 Tamm
  • Anzick Provisional Extract, Estes January 2015 – (4 C4 with no subgroup)
  • Chippewa – White Earth Reservation, Minnesota – private test at 23andMe
  • Inupiat people from Alaska North Slope – Raff 2015
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017

C4a

C4a1

C4b

C4c

Beringian Founder Haplogroup – 2008 Achilli

C4c1

C4c1a

C4c1b

C4c2

C4e

Haplogroup D

D

D1

  • Native, Beringian Founder Haplogroup – 2008 Achilli
  • Coreguaje – 2007 Tamm
  • Mexican – 2007 Peñaloza-Espinosa
  • Hispanic American – 2008 Just
  • Mexican American – Kumar 2011
  • North American – Henstadt 2008 and Achilli 2008
  • Katuena and Poturujara and Surui and Tiryo and Waiwai and Zoro and Gaviao and Guarani/Rio-das-Cobras  – Fagundes 2008
  • Gaviao, Brazil, Surui, Brazil, Waiwai, Brazil, Katuena, Brazil, Poturujara, Brazil, Tiryo, Brazil – Fagundes 2008
  • Karitiana, Brazil – Hartmann 2009
  • Guarani – Ingman 2000
  • Native American – Mishmar 2003
  • Guarani and Brazilian and Que Chia and Pima Indian – Kivisild 2006
  • British Colombia found in the Haplogroup D project at Family Tree DNA
  • Anzick Provisional Extract, Estes January 2015 – (59 D1)
  • D1 from 12,000-13,000 skeletal remains found in the Yukatan, Chatters et al 2014, Chatters et al 2015
  • Gran Chaco, Argentina – Sevini 2014
  • Chumash, Rumsen, Yokuts, Tubatulabal, Mono, Gabrielino – Breschini and Haversat 2008
  • Aymara, Atacameno, Huilliche, Kawesqar, Mapuche, Yamana in Chile and Argentina, South America – de Saint Pierre, 2012
  • Rio Negro, Argentina, Buenos Aires, Argentina, Tarapaca, Chile, Maule, Chile, Atacama, Chile, Mapuche, Argentina, Biobio, Chile, Cordoba, Argentina, Valparaiso, Chile – Bodner 2012
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Ychsma culture, Huaca Pucllana, Peru – Llamas, 2016
  • Inca culture, Pueblo Viejo, Peru – Llamas, 2016
  • Chancay culture, Pasamayo, Peru – Llamas, 2016
  • Loja in Eduador, Mestizo, also several Peru, Mestizo and 3 ancient samples

D1a

D1a1

  • Brazil – Kivisild 2006

D1a1a1

D1a2

D1b

D1c

D1d

D1d1

D1d2

D1f

D1f1

D1f2

D1f3

D1g

  • Found in skeletal remains of the now extinct Botocudos (Aimores) Indians of Brazil, thought to perhaps have arrived from Polynesia via the slave trade, Goncalves 2013
  • Aymara, Pehuenche, Mapuche, Huilliche, Mapuche, Tehuelche, Yamana in Chile and Argentina, South America – de Saint Pierre, 2012
  • New Native American Mitochondrial DNA Haplogroups, Estes, 2017

D1g1

D1g1a

D1g2

D1g2a

D1g3

D1g4

D1g5

D1g6

D1h

D1i

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D1i2

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D1j

  • Gran Chaco, Argentina – Sevini 2014 

D1j1a

  • Gran Chaco, Argentina – Sevini 2014 
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D1j1a1

  • Gran Chaco, Argentina – Sevini 2014 

D1k

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Mexico – HGDP
  • Hispanic – Just, 2008
  • Mexico – Kumar, 2011

D1k1

D1k1a

D1m

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D1n

D1o

D1p

D1q

D1q1

D1r

D1r1

D1s

D1s1

D1t

D1u

D1u1

D2

  • Aleut, Commander Islands and Eskimo, Siberia – 2002 Derbeneva
  • 2007 Tamm
  • Mexican – 2007 Peñaloza-Espinosa
  • Tlingit, Commander Island – Volodko 2008
  • Inupiat people from Alaska North Slope, ancient Paleo-Eskimos – Raff 2015
  • Miwok – Breschini and Haversat 2008
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D2a

  • NaDene – 2002 Derbeneva
  • 2008 Achilli
  • Eskimo in Siberia – Tamm 2007
  • Late Dorset ancient sample, Tlingit (Commander Island) – Dryomov 2015
  • Inupiat people from Alaska North Slope – Raff 2015
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D2a1

  • Aleut Islanders and northernmost Eskimos, Saqqaq Ancient sample, Middle Dorset ancient sample – Dryomov 2015
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D2a1a

  • Aleut – 2008 Volodko
  • Aleut – Dryomov 2015
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Commander Islands – 2008 Volodko (100%)

D2a1b

  • Sireniki (Russian) Eskimo – Dryomov 2015
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D2a2

  • Chukchi – Derenko, Ingman, Tamm and Volodko
  • Eskimo – Tamm and Volodko
  • Siberia – Derbeneva
  • Eskimos and Chikchi – Dryomov 2015
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D2b

  • 2007 Tamm
  • Aleut 2002
  • Derbeneva, Russia – Derenko
  • Siberian mainland cluster – Dryomov 2015
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D2c

  • Eskimo – 2002 Derbeneva
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D3

  • Inuit – 2008 Achilli
  • 2007 Tamm
  • Inupiat people from Alaska North Slope (noted as currently D4b1a) – Raff 2015
  • Ancient Neo-Eskimos, Kitanemuk, Kawaiisu – Breschini and Haversat 2008
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D3a2a

  • Greenland – 2008 Volodko

D3a2a

  • Canada – 2008 Volodko

D4

  • 2007 Tamm
  • Cayapa, Ecuador – Fagundes 2008
  • Anzick Provisional Extract, Estes January 2015 – (2 D4)
  • Chumash – Breschini and Haversat 2008
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4b1

  • Anzick Provisional Extract, Estes January 2015 – (1 D4b1)

D4b1a

  • Inupiat people from Alaska North Slope (noted as formerly D3), ancient Neo-Eskimos – Raff 2015
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4b2a2

  • Anzick Provisional Extract, Estes January 2015 – (1 D4b2a2)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4e1

  • Mexican American – Kumar 2011
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4e1a1

  • Anzick Provisional Extract, Estes January 2015 – (1 D4e1a1)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4e1c

  • Kumar 2011 – found in Mexican Americans (2 sequences only)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4g1

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4h1a

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4h1a1

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4h1a2

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4h3

  • Beringian Founder Haplogroup – 2008 Achilli
  • 2007 Tamm
  • Anzick Provisional Extract, Estes January 2015 – (1 D4h3)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4h3a

  • Veracruz, Mexico, Arequipa, Peru, Loreto, Peru, Ancash, Peru, San Luis Potosi, Mexico, Maranhao, Brazil – Perego 2009
  • Mexican American – Kumar 2011
  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Anzick Provisional Extract, Estes January 2015 – (2 D4h3a)
  • Raff and Bolnick, Nature February 2014 – Anzick’s haplogroup
  • Remains from On Your Knees Cave in Alaska, Chatters, 2015
  • Gran Chaco, Argentina – Sevini 2014 
  • Aymara, Mapuche, Huilliche, Kawesqar, Tehuelche, Yamana in Chile and Argentina, South America – de Saint Pierre, 2012
  • Native American Mitochondrial
  • DNA Haplogroups, Estes, 2017
  • On Your Knees Cave, Alaska, 10,300 YPB – Lindo 2017
  • Peru and Ecuador, Cayapa and Mestizo – Brandini, 2017

D4h3a1

  • Coquimbo, Chile, O’Higgins, Chile, Coquimbo, Chile, Santiago, Chile, Los Lagos, Chile, Bio-Bio, Chile – Perego 2009

D4h3a1a

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4h3a1a1

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4h3a2

  • Gran Chaco, Argentina – Sevini 2014 

D4h3a3

  • Chihuahua, Mexico, Tarahumara, Mexico, Nuevo Leon, Mexico – Perego 2009

D4h3a4

D4h3a5

  • Maule, Chile, Los Lagos, Chile, Santiago, Chile – Perego 2009
  • Equador and Peru – Brandini, 2017

D4h3a6

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017
  • Cotopaxi, Farahugsha in Ecuador, Native Panazleo (Quincha), also Peru – Brandini, 2017

D4h3a7

  • British Columbia ancient sample 939, may be extinct – Ciu 2013
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4h3a8

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4h3a9

D4h3a11

D4j

  • Anzick Provisional Extract, Estes January 2015 – (2 D4j)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D4j8

  • Gran Chaco, Argentina – Sevini 2014 

D5

D5a2a

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D5b1

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

D6

D7

D8

D9

D10

Haplogroup F

F1a1

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017 – Mexico in American Indian Project

Haplogroup M

M

  • Discovered in prehistoric sites, China Lake, British Columbia – 2007 Malhi
  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

M1

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017- Probably Native

M1a

M1a1b

  • Anzick Provisional Extract, Estes January 2015 – (1 M1a1b)

M1a1e

  • USA – Olivieri
  • Many Eurasian in Genbank

M1b1

M2a3

  • Anzick Provisional Extract, Estes January 2015 – (1 M2a3)

M3

M5b3e

M7b1’2

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Anzick Provisional Extract, Estes January 2015 – (1 M7b1’2)

M9a3a

M18b

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

M23

M30c

M30d1

  • Anzick Provisional Extract, Estes January 2015 – (1 M30d1)

M51

Haplogroup X

X

  • A founding lineage – found in ancient DNA Washington State –  2002 Malhi
  • 2007 Tamm
  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

X2

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

X2a

X2a1

X2a1a

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Sioux and USA – Perego
  • Anzick Provisional Extract, Estes January 2015 – (1 X2a1a)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

X2a1a1

  • Jemez and Siouian – Fagundes
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

X2a1b

X2a1b1

  • USA – Perego
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

X2a1b1a

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Western Chippewa and Chippewa – Fagundes
  • Anzick Provisional Extract, Estes January 2015 – (2 X2a1b1a)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

X2a1c

X2a2

  • Navajo – Mishmar
  • USA – Perego
  • Anzick Provisional Extract, Estes January 2015 – (1 X2a2)
  • Manawan in Quebec, Newfoundland Island, Cape Breton, Nova Scotia, Newfoundland and Labrador – Haplogroup X Project at Family Tree DNA
  • Estes X2a (2016)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

X2b

  • European – note that 2008 Fagundes removed a sample from their analysis because they believed X2b was indeed European not X2a Native
  • Anzick Provisional Extract, Estes January 2015 – (2 X2b)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017

X2b-T226C

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Anzick Provisional Extract, Estes January 2015 – (1 X2b-T226T confirmed Irish, not Native)

X2b3

  • America – Kivisild

X2b4

X2b5

  • Not Native American – Cherokee DNA Project

X2b7

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017 – Not Native

X2c

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017 – not Native

X2c1

  • Native American Mitochondrial DNA Haplogroups, Estes, 2017 – not Native

X2c2

X2d

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017- probably not Native

X2e1

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Behar notes two submissions at mtdnacommunity that are likely European
  • 2 confirmed X2e1 from Valcea , Romania at Family Tree DNA
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017 – probably not Native

X2e2

  • Anzick Provisional Extract, Estes, September 2014, kits F999912 and F999913
  • Anzick Provisional Extract, Estes January 2015 – (1 X2e2)
  • Native American Mitochondrial DNA Haplogroups, Estes, 2017 – probably not Native

X2g

  • Identified in single Ojibwa subject – Achilli 2013
  • Ojibwa – Perego

X2e

  • Altai people, may have arrived from Caucus in last 5000 years

X2e1

X6

  • Found in the Tarahumara and Huichol of Mexico, 2007 Peñaloza-Espinosa

MtDNA References

Mitochondiral genome variation and the origin of modern humans, Ingman et al, Natuer 2000, http://www.nature.com/nature/journal/v408/n6813/full/408708a0.html

Mitochondrial DNA and the Peopling of the New World, Theodore Schurr, American Scientist, 2000, http://www.sas.upenn.edu/~tgschurr/pdf/Am%20Sci%20Article%202000.pdf

Brief Communication: Haplogroup X Confirmed in Prehistoric North America, Ripan Malhi et al, American Journal of Physical Anthropology, 2002, http://deepblue.lib.umich.edu/bitstream/handle/2027.42/34275/10106_ftp.pdf

Analysis of Mitochondrial DNA Diversity in the Aleuts of the Commander Islands and Its Implications for the Genetic History of Beringia, Olga Derbeneva et al, American Journal of Human Genetics, June 2002, http://www.ncbi.nlm.nih.gov/pmc/articles/PMC379174/

High Resolution SNPs and Microsatellite Haplotypes Point to a Single, Recent Entry of native American Y Chromosomes into the Americas, Zegura et al, Oxford Journals, 2003, http://mbe.oxfordjournals.org/content/21/1/164.full.pdf

Ancient DNA – Modern Connections: Results of Mitochondrial DNA Analyses from Monterey County, California by Gary Breschini and Trudy Haversat published in the Pacific Coast Archaeological Society Quarterly, Volume 40, Number 2, (written 2004 although references are later than 2004, printed 2008)

Ancient individuals from the North American Northwest Coast reveal 10,000 years of regional genetic continuity by John Lindo et al, published in PNAS April 2017

Mitochondrial haplogroup M discovered in prehistoric North Americans, Ripan Malhi et al, Journal of Archaeological Science 34 (2007), http://public.wsu.edu/~bmkemp/publications/pubs/Malhi_et_al_2007.pdf

Beringian Standstill and Spread of Native American Founders, Erika Tamm et al, PLOS One, September 2007, http://www.plosone.org/article/info:doi/10.1371/journal.pone.0000829

Characterization of mtDNA Haplogroups in 14 Mexican Indigenous Populations, Human Biology, 2007

Achilli A, Perego UA, Bravi CM, Coble MD, et al. (2008) The Phylogeny of the Four Pan-American MtDNA Haplogroups: Implications for Evolutionary and Disease Studies. PLoS ONE 3(3): e1764. doi:10.1371/journal.pone.0001764 http://www.plosone.org/article/info:doi/10.1371/journal.pone.0001764

Complete mitochondrial genome sequences for 265 African American and US “Hispanic” individuals, Forensic Science Int. Genetics, 2 e45-e48, 2008, Just et al

Mitochondrial population genomics supports a single pre-Clovis origin with a coastal route for the peopling of the Americas, American Journal of Human Genetics, 82, 583-592, 2008 Fagundes et al

The Phylogeny of the Four Pan-American MtDNA Haplogroups: Implications for Evolutionary and Disease Studies, Achilli et al, PLOS, March 2008, http://www.plosone.org/article/info%3Adoi%2F10.1371%2Fjournal.pone.0001764

Mitochondrial genome diversity in arctic Siberians with particular reference to the evolutionary history of Beringia and Pleistocenic peopling of the Americans, Natalia Volodko, et al, American Journal of Human Genetics, June 2008  http://www.ncbi.nlm.nih.gov/pubmed/18452887

A Reevaluation of the Native American MtDNA Genome Diverstiy and Its Bearing on the Models of Early colonization of Beringia, Fagundes et al, PLOS One, Sept. 2008, http://www.plosone.org/article/info%3Adoi%2F10.1371%2Fjournal.pone.0003157

Validation of microarray-based resequencing of 93 worldwide mitochondrial genomes, Hum. Mutat. 30, 115-122, (2009)H Hartmann et al

Distinctive Paleo-Indian migration routes from Beringia marked by two rare mtDNA haplogroups, Current Biology 19 1-8 (2009) Perego et al

Initial peopling of the Americas: A growing number of founding mitochondrial genomes from Beringia, Genome Research 20, 1174-1179, 2010 Perego et al

Large scale mitochondrial sequencing in Mexican Americans suggests a reappraisal of Native American origins, Kumar et al, Congress of the European Society for Evolutionary Biology, October 2011, http://www.biomedcentral.com/1471-2148/11/293

Large scale mitochondrial sequencing in Mexican Americans suggests a reappraisal of Native American origins, Kumar et al, 2011, Evolutionary Biology, http://www.biomedcentral.com/1471-2148/11/293/

Decrypting the Mitochondrial Gene Pool of Modern Panamanians, Ugo Perrego, et al, PLOS One, June 2012, http://www.plosone.org/article/info%3Adoi%2F10.1371%2Fjournal.pone.0038337

An Alternative Model for the Early Peopling of Southern South America Revealed by Analyses of Three Mitochondrial DNA Haplogroups, de Saint Pierre et al, 2012, PLOS

Rapid coastal spread of first Americans: Novel insights from South America’s Southern Cone mitochondrial genomes, Genome Research 22, 811-820, 2012, Bodner et al

Arrival of Paleo-Indians to the Southern Cone of South America: New Clues from Mitogenomes, de Saint Pierre et al, Dec. 2012, PLOS

Genetic uniqueness of the Waorani tribe from the Ecuadorian Amazon, Heredity 108, 609-615, 2012, Cardoso et al

Reconciling migration models to the Americas with the variation of North American native mitogenomes, Alessandro Achjilli et al, PNAS Aug. 2013, http://www.pnas.org/content/early/2013/08/08/1306290110.full.pdf+html

Ancient DNA Analysis of Mid-Holocene Individuals from the Northwest Coast of North America Reveals Different Evolutionary Paths for Mitogenomes, Yinqui Ciu et al, PLOS One, July 2013  http://www.plosone.org/article/info%3Adoi%2F10.1371%2Fjournal.pone.0066948

Identification of Polynesian mtDNA haplogroup in remains of Botocudo Americndians from Brazil, Goncalves et al, 2013, PNAS  http://www.ncbi.nlm.nih.gov/pmc/articles/PMC3631640/

Late Pleistocene Human Skeleton and mtDNA Link Paleoamericans and Modern Native Americans” by James Chatters et al, May 2014, Science

Genetic roots of the first Americans, Raff and Bolnick, (February 2014), Nature

Late Pleistocene Human Skeleton and mtDNA Link Paleoamericans and Modern native Americans by Chatters, et al, Science, Vol 244, May 16, 2014

Two ancient genomes reveal Polynesian ancestry among the indigenous Botocudos of Brazil, by Malaspinas et al, Current Biology, November 2014

Botocudo Ancient Remains from Brazil, by Roberta Estes, July 2015

Two contemporaneious mitogenomes from terminal Pleistocene burials in eastern Beringia, Tackney et al, 2015, PNAS

The complete mitogenome of 500-year old Inca child mummy, 2015, Nature, Gomez-Carballa et al

Does Mitochondrial Haplogroup X Indicate Ancient Trans-Atlantic Migration to the Americas? A Critical Re-Evaluation, 2015, PubMed, Raff and Bolnick

Mitochondrial diversity of Iñupiat people from the Alaskan North Slope provides evidence for the origins of the Paleo- and Neo-Eskimo peoples by Raff et al, (April 17, 2015) American Journal of Physical Anthropology  http://onlinelibrary.wiley.com/doi/10.1002/ajpa.22750/
http://www.eurekalert.org/pub_releases/2015-04/nu-dsa042715.php

Mitochondrial genome diversity at the Bering Strait area highlights prehistoric human migrations from Siberia to northern North America – Dryomov et al, European Journal of Human Genetics, 2015  

MtDNA Haplogroup A10 Lineages in Bronze Age Samples Suggest That Ancient Autochthonous Human Groups Contributed to the Specificity of the Indigenous West Siberian Population by Pilipenko, et al, PLOS One, 2015

A Reappraisal of the early Andean Human Remains from Lauricocha in Peru by Fehren-Schmitz et al, PLosS ONE 10 (6)(2105)

Ancestry and affiliations of Kennewick Man by Rasmussen et al, Nature, June 18, 2015

Ancient mitochondrial DNA provides high-resolution time scale of the peopling of the Americas, Llamas et al, Science Advances April 1, 2016 Vol. 2 No. 4, e1501385     http://advances.sciencemag.org/content/2/4/e1501385     

Native American Haplogroup X2a – Solutrean, Hebrew or Beringian?, 2016, Estes

X2b4 is European, Not Native American, Estes, September 2016

‘Human mitochondrial genomes reveal population structure and different phylogenies in Gran Chaco (Argentina)’ by Sevini, F., Vianello, D., Barbieri, C., Iaquilano, N., De Fanti, S., Luiselli, D., Franceschi, C. and Franceschi, Z., sequences submitted to GenBank in January 2016 from 2014 unpublished paper

Archaeogenomic evidence reveals prehistoric matrilineal dynasty by Kennett et al, 2017, Nature Communications

New Native American Mitochondrial Haplogroups by Roberta Estes, March 2, 2017

DNA from Pre-Clovis Human Coprolites in Oregon, North America by M. Thomas P. Gilbert et al, published in Science May 9, 2008

The Paleo-Indian Entry into South America According to Mitogenomes by Brandini, et al, Molecular Biology and Evolution, Volume 35, Issue 2, February 2018, Pages 299–311

Mitochondrial DNA Diversity in Indigenous Populations of the Southern Extent of Siberia, and the Origins of the Native American Haplogroups by Elena B. Starikovskaya et al, Annals of Human Genetics, January 2005 (only haplogroup B5 posted above)

Locals, resettlers, and pilgrims: A genetic portrait of three pre‐Columbian Andean populations. American Journal of Physical Anthropology, Baca, M., Molak, M., Sobczyk, M., Węgleński, P., & Stankovic, A. (2014). 154(3), 402-412

Brief communication: Molecular analysis of the Kwäday Dän Ts’ finchi ancient remains found in a glacier in Canada.” Monsalve, M. Victoria, et al., American Journal of Physical Anthropology: The Official Publication of the American Association of Physical Anthropologists 119.3 (2002): 288-291

Ancient DNA reveals kinship burial patterns of a pre-Columbian Andean community, Baca, M., Doan, K., Sobczyk, M., Stankovic, A., & Węgleński, P. (2012) BMC genetics, 13(1), 30.

Ancient human parallel lineages within North America contributed to a coastal expansion. Scheib, C. L., Li, H., Desai, T., Link, V., Kendall, C., Dewar, G., … & Kerr, S. L. (2018). Science, 360(6392), 1024-1027.

Paleogenetical study of pre‐columbian samples from Pampa Grande (Salta, Argentina), Carnese, F. R., Mendisco, F., Keyser, C., Dejean, C. B., Dugoujon, J. M., Bravi, C. M., … & Crubézy, E. (2010), American Journal of Physical Anthropology: The Official Publication of the American Association of Physical Anthropologists, 141(3), 452-462

A re-appraisal of the early Andean human remains from Lauricocha in Peru. Fehren-Schmitz, L., Llamas, B., Lindauer, S., Tomasto-Cagigao, E., Kuzminsky, S., Rohland, N., … & Nordenfelt, S. (2015), PloS one, 10(6), e0127141.

Reconstructing the deep population history of Central and South America. Posth, C., Nakatsuka, N., Lazaridis, I., Skoglund, P., Mallick, S., Lamnidis, T. C., … & Broomandkhoshbacht, N. (2018), Cell, 175(5), 1185-1197.

Ancient mitochondrial DNA provides high-resolution time scale of the peopling of the Americas. Llamas, B., Fehren-Schmitz, L., Valverde, G., Soubrier, J., Mallick, S., Rohland, N., … & Romero, M. I. B. (2016). Science advances, 2(4), e1501385.

A Paleogenomic Reconstruction of the Deep Population History of the Andes. Nakatsuka, N., Lazaridis, I., Barbieri, C., Skoglund, P., Rohland, N., Mallick, S., Posth, C., et al. (2020), Cell, 181 (5), 1131-1145.e21.

A genetic history of the pre-contact Caribbean. Fernandes, D. M., Sirak, K. A., Ringbauer, H., Sedig, J., Rohland, N., Cheronet, O., … & Adamski, N. (2020), bioRxiv

Genomic insights into the early peopling of the Caribbean. Nägele, K., Posth, C., Orbegozo, M. I., de Armas, Y. C., Godoy, S. T. H., Herrera, U. M. G., … & Laffoon, J. (2020). Science.

El análisis genético de paleo-colombianos de Nemocón, Cundinamarca proporciona revelaciones sobre el poblamiento temprano del Noroeste de Suramérica. Díaz-Matallana, M., Gómez Gutiérrez, A., Briceño, I., & Rodríguez Cuenca, J. V. (2016). Rev. Acad. Colomb. Cienc. Ex. Fis. Nat., 40(156), 461-483.

Genomic evidence for the Pleistocene and recent population history of Native Americans, Raghavan, M., Steinrücken, M., Harris, K., Schiffels, S., Rasmussen, S., DeGiorgio, M., … & Eriksson, A. (2015). Science, 349(6250).

Early human dispersals within the Americas. Moreno-Mayar, J. V., Vinner, L., de Barros Damgaard, P., De La Fuente, C., Chan, J., Spence, J. P., … & Rasmussen, S. (2018). Science, 362(6419).

Genetic continuity after the collapse of the Wari empire: Mitochondrial DNA profiles from Wari and post‐Wari populations in the ancient Andes. Kemp, B. M., Tung, T. A., & Summar, M. L. (2009). American Journal of Physical Anthropology: The Official Publication of the American Association of Physical Anthropologists, 140(1), 80-91

Aportes genéticos para el entendimiento de la organización social de la comunidad Muisca Tibanica (Soacha, Cundinamarca). Pérez, L., 2015. Ph.D. Dissertation, Departamento de Ciencias Biológicas, Universidad de los Andes, Bogotá, Colombia.

Genetic diversity of a late prehispanic group of the Quebrada de Humahuaca, northwestern Argentina. Mendisco, F., Keyser, C., Seldes, V., Rivolta, C., Mercolli, P., Cruz, P., … & Ludes, B. (2014). Annals of Human Genetics, 78(5), 367-380.

Linajes mitocondriales en muestras de Esquina de Haujra (Jujuy, Argentina): Aportes al estudio de la ocupación incaica en la región y la procedencia de sus habitantes. Russo, M. G., Gheggi, M. S., Avena, S. A., Dejean, C. B., & Cremonte, M. B. (2016).

Linajes maternos en muestras antiguas de la Puna jujeña: Comparación con estudios de la región centrosur andina. Postillone, M. B., Fuchs, M. L., Crespo, C. M., Russo, M. G., Varela, H. H., Carnese, F. R., … & Dejean, C. B. (2017). Revista Argentina de Antropología Biológica, 19(1), 3.

Palaeo-Eskimo genetic ancestry and the peopling of Chukotka and North America. Flegontov, P., Altınışık, N.E., Changmai, P. et al. Nature 570, 236–240 (2019)

A paleogenetic perspective of the Sabana de Bogotá (Northern South America) population history over the Holocene (9000–550 cal BP). Delgado, M., Rodríguez, F., Kassadjikova, K., & Fehren-Schmitz, L. (2020). Quaternary International. In Press, Journal Pre-proof

Integration of ancient DNA with transdisciplinary dataset finds strong support for Inca resettlement in the south Peruvian coast. Bongers, J. L., Nakatsuka, N., O’Shea, C., Harper, T. K., Tantaleán, H., Stanish, C., & Fehren-Schmitz, L. (2020). Proceedings of the National Academy of Sciences

The population history of northeastern Siberia since the Pleistocene. Sikora, M., Pitulko, V.V., Sousa, V.C. et al. Nature 570, 182–188 (2019)

A Minimally Destructive Protocol for DNA Extraction from Ancient Teeth. Harney, É., Cheronet, O., Fernandes, D. M., Sirak, K., Mah, M., Bernardos, R., … & Oppenheimer, J. (2020). bioRxiv

A dynamic 6,000-year genetic history of Eurasia’s Eastern Steppe. Jeong, C., Wang, K., Wilkin, S., Taylor, W. T. T., Miller, B., Ulziibayar, S., … & Kradin, N. (2020). bioRxiv

Y Chromosome analysis of prehistoric human populations in the West Liao River Valley, Northeast China. Cui, Y., Li, H., Ning, C. et al., BMC Evol Biol 13, 216 (2013)

Mitochondrial lineage A2ah found in a pre‐Hispanic individual from the Andean region.  Russo, M. G., Dejean, C. B., Avena, S. A., Seldes, V., & Ramundo, P. (2018). American Journal of Human Biology, 30(4), e23134.

A Paleogenomic Reconstruction of the Deep Population History of the Andes. Nakatsuka et al, Cell, May 7, 2020

Archaeogenomic evidence reveals prehistoric matrilineal dynasty. Kennett et al, Nature Communications (February 2017)

New Evidence of Ancient Mitochondrial DNA of the Southern Andes (Calchaqui Valleys, Northwest Argentina, 3,600-1,900 Years before Present). Parolin et al, Human Biology, (Fall 2019) Vol 91, No. 4, pages 225-247

Biological kinship in 750 year old human remains from Central Argentina with signs of interpersonal violence. Nores et al, Forensic Science, Medicine and Pathology, September 11, 2020

The Role of Selection in the Evolution of Human Mitochondrial Genomes, Kivisild et al, Genetics January 1, 2006, Volume 172, Issue 1

Please note that submissions styled with the researcher’s surname and no paper date, such as “Chippewa – Perego” are from GenBank submissions and are cited as recorded at GenBank.

Page History

  • Updated September 26, 2014
  • Updated December 6, 2014 – Anzick data, please note that I only added extracted information for haplogroups where no academic publication had previously identified the haplogroup as Native
  • Updated December 7, 2014 – GenBank submissions utilizing Ian Logan’s GenBank by Haplogroup Program and Haplogroup A, A2, A4, B, C, D, M and X projects at Family Tree DNA
  • Updated January 2, 2015 – added kit numbers to 2014 Anzick extracted data
  • Updated January 8, 2015 with haplogroups from Dryomov et al, Chatters et al
  • Updated January 9, 2015 with Anzick extraction, including the number of results for each haplogroup.  In the previous Anzick extraction, I only added haplogroups that were not identified previously in academic papers.  In this extraction, I included all haplogroup A. B, C, D, M and X that were not excluded based on e-mail communications with kit owners that would exclude their results based on their family genealogy or geography.
  • Updated April 29, 2015 with results of 2015 Raff study, Estes, Haplogroup A4 Unpeeled study, Raff and Bolnick 2014 and a few private test results
  • Updated May 20, 2015 with A10 results from Pilipenko 015
  • Updated June 19, 2015 with Kennewick Man and results from Chatters paper
  • Updated June 30, 2015 with Fehren-Schmitz paper
  • Updated July 4, 2015 with Malaspinas paper regarding full genome sequencing of Botocudo
  • Updated July 12, 2015 haplogroup C1b7 and C1b7a information
  • Updated November 11, 2015 with Tackney, 2015 and Gomez-Carbala, 2015, information
  • Updated February 2, 2015, X2a Estes paper and C4c1 American Indian Project
  • Updated August 30, 2016 Botocudo Remains
  • Updated September 14, 2016, haplogroup X2b4
  • Updated January 16, 2017 with Sevini’s haplogroups from Gran Chaco, Argentina
  • Updated February 25, 2017 with Kennett’s B2y1 haplogroup from Kennett’s paper
  • Updated February 28, 2017 Monterey, California burials by Breschini and Haversat
  • Updated March 3, 2017 with de Saint Pierre, 2012
  • Updated March 3, 2017 to bulletized format
  • Updated March 3, 2017 with New Native American Mitochondrial DNA Haplogroups by Estes
  • Updated March 26, 2017 added haplogroup B2r
  • Updated April 27, 2017 to add Llamas 2016 ancient DNA sequences
  • Updated April 27, 2017 to add Fagundes (2008), Ingman (2000), Just (2008), Perego (2009), Hartmann (2009), Perego (2010), Bodner (2012), Cardoso (2012), Achilli (2013)
  • Updated January 9, 2018 to add Gomez-Carballa 2015 Figure 2 C1b clades
  • Updated February 4, 2018 to add ancient locations from Cui 2008 paper and all references from Tackney 2015 paper
  • Updated August 5, 2019 to add locations from Brandini 2017 paper
  • Updated January 2020, added information about B5b2, B5b2a
  • Updated October 25, 2020, added Cherokee B2o
  • Updated March and April 2021 with sources and additional haplogroup A and subgroup

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