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Genetic genealogy is the use of DNA testing in combination with traditional genealogical methods to infer relationships between individuals and find ancestors. Genetic genealogy involves the use of genealogical DNA testing to determine the level and type of the genetic relationship between individuals. This application of genetics became popular with family historians in the 21st century, as tests became affordable. The tests have been promoted by amateur groups, such as surname study groups, or regional genealogical groups, as well as research projects such as the genographic project. As of 2018, 12 million people had been tested. As this field has developed, the aims of practitioners broadened, with many seeking knowledge of their ancestry beyond the recent centuries for which traditional pedigrees can be constructed.
- 1 History
- 2 Uses
- 3 See also
- 4 References
- 5 Further reading
- 6 External links and resources
The investigation of surnames in genetics can be said to go back to George Darwin, a son of Charles Darwin. In 1875, George Darwin used surnames to estimate the frequency of first-cousin marriages and calculated the expected incidence of marriage between people of the same surname (isonymy). He arrived at a figure between 2.25% and 4.5% for cousin-marriage in the population of Great Britain, higher among the upper classes and lower among the general rural population.
Bryan Sykes, a molecular biologist at Oxford University tested the new methodology in general surname research. His study of the Sykes surname obtained results by looking at four STR markers on the male chromosome. It pointed the way to genetics becoming a valuable assistant in the service of genealogy and history.
Direct to consumer DNA testing
The first company to provide direct-to-consumer genetic DNA testing was the now defunct GeneTree. However, it did not offer multi-generational genealogy tests. In fall 2001, GeneTree sold its assets to Salt Lake City-based Sorenson Molecular Genealogy Foundation (SMGF) which originated in 1999. While in operation, SMGF provided free Y-Chromosome and mitochondrial DNA tests to thousands. Later, GeneTree returned to genetic testing for genealogy in conjunction with the Sorenson parent company and eventually was part of the assets acquired in the Ancestry.com buyout of SMGF.
In 2000, Family Tree DNA, founded by Bennett Greenspan and Max Blankfeld, was the first company dedicated to direct-to-consumer testing for genealogy research. They initially offered eleven marker Y-Chromosome STR tests and HVR1 mitochondrial DNA tests. They originally tested in partnership with the University of Arizona.
In 2007, 23andMe was the first company to offer a saliva-based direct-to-consumer genetic testing. It was also the first to implement using autosomal DNA for ancestry testing, which all other major companies now use.
By 2018, over 12 million people had had their DNA tested for genealogical purposes - most of whom were American.
The genetic genealogy revolution
The publication of The Seven Daughters of Eve by Sykes in 2001, which described the seven major haplogroups of European ancestors, helped push personal ancestry testing through DNA tests into wide public notice. With the growing availability and affordability of genealogical DNA testing, genetic genealogy as a field grew rapidly. By 2003, the field of DNA testing of surnames was declared officially to have “arrived” in an article by Jobling and Tyler-Smith in Nature Reviews Genetics. The number of firms offering tests, and the number of consumers ordering them, rose dramatically.
The Genographic Project
This section needs to be updated.(September 2013)
The original Genographic Project was a five-year research study launched in 2005 by the National Geographic Society and IBM, in partnership with the University of Arizona and Family Tree DNA. Its goals were primarily anthropological. The project announced that by April 2010 it had sold more than 350,000 of its public participation testing kits, which test the general public for either twelve STR markers on the Y-Chromosome or mutations on the HVR1 region of the mtDNA.
In 2007, annual sales of genetic genealogical tests for all companies, including the laboratories that support them, were estimated to be in the area of $60 million (2006).
Typical customers and interest groups
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Genetic genealogy has enabled groups of people to trace their ancestry even though they are not able to use conventional genealogical techniques. This may be because they do not know one or both of their birth parents or because conventional genealogical records have been lost, destroyed or never existed. These groups include adoptees, foundlings, Holocaust survivors, GI babies, child migrants, descendants of children from orphan trains and people with slave ancestry.
The earliest test takers were customers most often those who started with a Y-Chromosome test to determine their father's paternal ancestry. These men often took part in surname projects. The first phase of the Genographic project brought new participants into genetic genealogy. Those who tested were as likely to be interested in direct maternal heritage as their paternal. The number of those taking mtDNA tests increased. The introduction of autosomal SNP tests based on microarray chip technology changed the demographics. Women were as likely as men to test themselves.
Citizen science and ISOGG
Members of the growing genetic genealogy community have been credited with making useful contributions to knowledge in the field.
One of the earliest interest groups to emerge was the International Society of Genetic Genealogy (ISOGG). Their stated goal is to promote DNA testing for genealogy. Members advocate the use of genetics in genealogical research and the group facilitates networking among genetic genealogists. Since 2006 ISOGG has maintained the regularly updated ISOGG Y-chromosome phylogenetic tree. ISOGG aims to keep the tree as up-to-date as possible, incorporating new SNPs. However, the tree has been described by academics as not completely academically verified, phylogenetic trees of Y chromosome haplogroups.
Autosomal DNA 2007-present
In 2007, 23andMe was the first major company to begin offering a test of the autosome. This is the DNA excluding the Y-chromosomes and mitochondria. It is inherited from all ancestors in recent generations and so can be used to match with other testers who may be related. Later on, companies were also able to use this data to estimate how much of each ethnicity a customer has. FamilyTreeDNA entered this market in 2010, and AncestryDNA in 2012. Since then the number of DNA tests has expanded rapidly. By 2017, the combined totals of customers at the four largest companies was nearly 10 million. Autosomal testing is now the dominant type of genealogical DNA test, and for many companies the only test they offer.
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Direct maternal lineages
mtDNA testing involves sequencing at least part of the mitochondria. The mitochondria is inherited from mother to child, and so can reveal information about the direct maternal line. When two individuals have matching or near mitochondria, is can be projected that they share a common maternal-line ancestor at some point in the recent past.
Direct paternal lineages
Y-Chromosome DNA (Y-DNA) testing involves short tandem repeat (STR) and, sometimes, single nucleotide polymorphism (SNP) testing of the Y-Chromosome. The Y-Chromosome is present only in males and only reveals information on the strict-paternal line. As with the mitochondria, close matches with individuals indicate a recent common ancestor. Because surnames in many cultures are transmitted down the paternal line, this testing is often used by [Surname DNA Project]s.
A common component of many autosomal tests is a prediction of biogeographical origin. The company offering the test uses computer algorithms and calculations to make a prediction of what percentage of an individual's DNA comes from particular ancestral groups. A typical number of populations is at least 20. Despite this aspect of the tests being heavily promoted and advertised, many genetic genealogists have warned consumers that the results may be inaccurate, and at best are only approximate.
Modern DNA sequencing has identified various ancestral components in contemporary populations. A number of these genetic elements have West Eurasian origins. They include the following ancestral components, with their geographical hubs and main associated populations:
|#||West Eurasian component||Geographical hub||Peak population||Notes|
|1||Ancestral North Indian||North India, Pakistan||North Indians, Pakistanis||Main West Eurasian component in the Indian subcontinent. Peaks among Indo-European-speaking caste populations in the northern areas, but also found at significant frequencies among some Dravidian-speaking caste groups. Associated with either the arrival of Indo-European speakers from West Asia or Central Asia between 3,000 and 4,000 years before present, or with the spread of agriculture and West Asian crops beginning around 8,000-9,000 ybp, or with migrations from West Asia in the pre-agricultural period. Contrasted with the indigenous Ancestral South Indian component, which peaks among the Onge Andamanese inhabiting the Andaman Islands.|
|2||Arabian||Arabian peninsula||Yemenis, Saudis, Qataris, Bedouins||Main West Eurasian component in the Persian Gulf region. Most closely associated with local Arabic, Semitic-speaking populations. Also found at significant frequencies in parts of the Levant, Egypt and Libya.|
|3||Coptic||Nile Valley||Copts, Beja, Afro-Asiatic Ethiopians, Sudanese Arabs, Nubians||Main West Eurasian component in Northeast Africa. Roughly equivalent with the Ethio-Somali component. Peaks among Egyptian Copts in Sudan. Also found at high frequencies among other Afro-Asiatic (Hamito-Semitic) speakers in Ethiopia and Sudan, as well as among many Nubians. Associated with Ancient Egyptian ancestry, without the later Arabian influence present among modern Egyptians. Contrasted with the indigenous Nilo-Saharan component, which peaks among Nilo-Saharan- and Kordofanian-speaking populations inhabiting the southern part of the Nile Valley.|
|4||Ethio-Somali||Horn of Africa||Somalis, Afars, Amhara, Oromos, Tigrinya||Main West Eurasian component in the Horn. Roughly equivalent with the Coptic component. Associated with the arrival of Afro-Asiatic speakers in the region during antiquity. Peaks among Cushitic- and Ethiopian Semitic-speaking populations in the northern areas. Diverged from the Maghrebi component around 23,000 ybp, and from the Arabian component about 25,000 ybp. Contrasted with the indigenous Omotic component, which peaks among the Omotic-speaking Ari ironworkers inhabiting southern Ethiopia.|
|5||European||Europe||Europeans||Main West Eurasian component in Europe. Also found at significant frequencies in adjacent geographical areas outside of the continent, in Anatolia, the Caucasus, the Iranian plateau, and parts of the Levant.|
|6||Levantine||Near East, Caucasus||Druze, Lebanese, Cypriots, Syrians, Jordanians, Palestinians, Armenians, Georgians, Sephardic Jews, Ashkenazi Jews, Iranians, Turks, Sardinians, Adygei||Main West Eurasian component in the Near East and Caucasus. Peaks among Druze populations in the Levant. Found amongst local Afro-Asiatic, Indo-European, Caucasus and Turkish speakers alike. Diverged from the European component around 9,100-15,900 ybp, and from the Arabian component about 15,500-23,700 ypb. Also found at significant frequencies in Southern Europe as well as parts of the Arabian peninsula.|
|7||Maghrebi||Northwest Africa||Berbers, Maghrebis, Sahrawis, Tuareg||Main West Eurasian component in the Maghreb. Peaks among the Berber (non-Arabized) populations in the region. Diverged from the Ethio-Somali/Coptic, Arabian, Levantine and European components prior to the Holocene.|
Genealogical DNA testing methods are in use on a longer time scale to trace human migratory patterns. For example, they determined when the first humans came to North America and what path they followed.
For several years, researchers and laboratories from around the world sampled indigenous populations from around the globe in an effort to map historical human migration patterns. The National Geographic Society's Genographic Project aims to map historical human migration patterns by collecting and analyzing DNA samples from over 100,000 people across five continents. The DNA Clans Genetic Ancestry Analysis measures a person's precise genetic connections to indigenous ethnic groups from around the world.
- Allele frequency
- Citizen science
- Family name
- Genealogical DNA test
- Genetic recombination
- Human mitochondrial DNA haplogroups
- Human Y-chromosome DNA haplogroups
- Human mitochondrial genetics
- Human genetic clustering
- Most recent common ancestor
- Short tandem repeat (STR)
- Single nucleotide polymorphism (SNP)
- Y-STR (Y-chromosome short tandem repeat)
- Y-chromosome haplogroups in populations of the world
- Non-paternity event
- Darwin, George H. (Sep 1875). "Note on the Marriages of First Cousins". Journal of the Statistical Society of London. 38 (3): 344–348. doi:10.2307/2338771.
- Slavery at Jefferson's Monticello: The Paradox of Liberty, 27 January 2012 – 14 October 2012, Smithsonian Institution, accessed 23 March 2012. Quote: "The [DNA test results show a genetic link between the Jefferson and Hemings descendants: A man with the Jefferson Y chromosome fathered Eston Hemings (born 1808). While there were other adult males with the Jefferson Y chromosome living in Virginia at that time, most historians now believe that the documentary and genetic evidence, considered together, strongly support the conclusion that [Thomas] Jefferson was the father of Sally Hemings's children."
- Kennett, Debbie (2018-03-14). "Farewell to Oxford Ancestors". Cruwys news. Retrieved 2018-05-21.
- Sykes, Bryan; Irven, Catherine (2000). "Surnames and the Y Chromosome". The American Journal of Human Genetics. 66 (4): 1417–1419. doi:10.1086/302850. PMC . PMID 10739766.
- "CMMG alum launches multi-million dollar genetic testing company - Alum notes" (PDF). 17 (2). Wayne State University, School of Medicine's alumni journal. Spring 2006: 1. Retrieved 24 Jan 2013.
- "How Big Is the Genetic Genealogy Market?". The Genetic Genealogist. Retrieved 19 Feb 2009.
- "Ancestry.com Launches new AncestryDNA Service: The Next Generation of DNA Science Poised to Enrich Family History Research" (Press release). Archived from the original on 26 May 2013. Retrieved 1 July 2013.
- Belli, Anne (January 18, 2005). "Moneymakers: Bennett Greenspan". Houston Chronicle. Retrieved June 14, 2013.
Years of researching his family tree through records and documents revealed roots in Argentina, but he ran out of leads looking for his maternal great-grandfather. After hearing about new genetic testing at the University of Arizona, he persuaded a scientist there to test DNA samples from a known cousin in California and a suspected distant cousin in Buenos Aires. It was a match. But the real find was the idea for Family Tree DNA, which the former film salesman launched in early 2000 to provide the same kind of service for others searching for their ancestors.
- "National Genealogical Society Quarterly". 93 (1–4). National Genealogical Society. 2005: 248.
Businessman Bennett Greenspan hoped that the approach used in the Jefferson and Cohen research would help family historians. After reaching a brick wall on his mother's surname, Nitz, he discovered and Argentine researching the same surname. Greenspan enlisted the help of a male Nitz cousin. A scientist involved in the original Cohen investigation tested the Argentine's and Greenspan's cousin's Y chromosomes. Their haplotypes matched perfectly.
- Lomax, John Nova (April 14, 2005). "Who's Your Daddy?". Houston Press. Retrieved June 14, 2013.
A real estate developer and entrepreneur, Greenspan has been interested in genealogy since his preteen days.
- Dardashti, Schelly Talalay (March 30, 2008). "When oral history meets genetics". The Jerusalem Post. Retrieved June 14, 2013.
Greenspan, born and raised in Omaha, Nebraska, has been interested in genealogy from a very young age; he drew his first family tree at age 11.
- Bradford, Nicole (24 Feb 2008). "Riding the 'genetic revolution'". Houston Business Journal. Retrieved 19 June 2013.
- Hamilton, Anita (October 29, 2008). "Best Inventions of 2008". Time. Retrieved April 5, 2012.
- "About Us". 23andMe.
- Janzen, Tim; et al. "Autosomal DNA testing comparison chart". International Society of Genetic Genealogy Wiki.
- Regalado, Antonio (2018-02-12). "2017 was the year consumer DNA testing blew up". MIT Technology Review. Retrieved 2018-02-20.
- Jobling, Mark A.; Tyler-Smith, Chris (2003). "The human Y chromosome: An evolutionary marker comes of age". Nature Reviews Genetics. 4 (8): 598–612. doi:10.1038/nrg1124. PMID 12897772.
- Deboeck, Guido. "Genetic Genealogy Becomes Mainstream". BellaOnline. Retrieved 19 Feb 2009.
- "The Genographic Project: A Landmark Study of the Human Journey". National Geographic. Archived from the original on 2009-02-06. Retrieved 19 Feb 2009.
- How African Americans Use DNA Testing to Connect With Their Past
- Utilizing DNA testing to break through adoption roadblocks
- Redmonds, George; King, Turi; Hey, David (2011). Surnames, DNA, and Family History. Oxford: Oxford University Press. p. 196. ISBN 9780199582648.
The growth of interest in genetic genealogy has inspired a group of individuals outside the academic area who are passionate about the subject and who have an impressive grasp of the research issues. Two focal points for this group are the International Society of Genetic Genealogy and the Journal of Genetic Genealogy. The ISOGG is a non-profit, non-commercial organization that provides resources and maintains one of the most up-to-date, if not completely academically verified, phylogenetic trees of Y chromosome haplogroups.
- "The International Society of Genetic Genealogy". Retrieved July 1, 2013.
- King, TE; Jobling, MA (2009). "What's in a name? Y chromosomes, surnames and the genetic genealogy revolution". Trends in Genetics. 25 (8): 351–360. doi:10.1016/j.tig.2009.06.003. PMID 19665817.
- International Society of Genetic Genealogy (2006). "Y-DNA Haplogroup Tree 2006, Version: 1.24, Date: 7 June 2007". Retrieved 1 July 2013.
- Athey, Whit (2008). "Editor's Corner: A New Y-Chromosome Phylogenetic Tree" (PDF). Journal of Genetic Genealogy. 4 (1): i–ii. Retrieved July 8, 2013.
Meanwhile, new SNPs are being announced or published almost every month. ISOGG’s role will be to maintain a tree that is as up-to-date as possible, allowing us to see where each new SNP fits in.
- Larmuseau, Maarten (November 14, 2014). "Towards a consensus Y-chromosomal phylogeny and Y-SNP set in forensics in the next-generation sequencing era". Forensic Science International: Genetics. 15: 39–42. doi:10.1016/j.fsigen.2014.11.012.
- "Continued Commitment to Customer Privacy and Control". Ancestry Blog. November 2, 2017.
- "About Us". 23andMe.
- Janzen, Tim; et al. "Autosomal DNA testing comparison chart". International Society of Genetic Genealogy Wiki.
- Estes, Roberta (February 10, 2016). "Ethnicity Testing — A Conundrum". DNAeXplained – Genetic Genealogy.
- Priya Moorjani; Kumarasamy Thangaraj; Nick Patterson; Mark Lipson; Po-Ru Loh; Periyasamy Govindaraj; Bonnie Berger; David Reich; Lalji Singh (5 September 2013). "Genetic Evidence for Recent Population Mixture in India" (PDF). American Journal of Human Genetics. 93 (3): 422–438. doi:10.1016/j.ajhg.2013.07.006. PMC . PMID 23932107. Retrieved 17 May 2015.
- Rakesh Tamang; Lalji Singh; Kumarasamy Thangaraj (November 2012). "Complex genetic origin of Indian populations and its implications" (PDF). Journal of Biosciences. 37 (5): 911–919. doi:10.1007/s12038-012-9256-9. Retrieved 17 May 2015.
- Marc Haber; Dominique Gauguier; Sonia Youhanna; Nick Patterson; Priya Moorjani; Laura R. Botigué; Daniel E. Platt; Elizabeth Matisoo-Smith; David F. Soria-Hernanz; R. Spencer Wells; Jaume Bertranpetit; Chris Tyler-Smith; David Comas; Pierre A. Zalloua (February 28, 2013). "Genome-Wide Diversity in the Levant Reveals Recent Structuring by Culture". PLOS Genetics. 9 (2): e1003316. doi:10.1371/journal.pgen.1003316. PMC . PMID 23468648. Retrieved 17 May 2015.
- Brenna M. Henn; Laura R. Botigué; Simon Gravel; Wei Wang; Abra Brisbin; Jake K. Byrnes; Karima Fadhlaoui-Zid; Pierre A. Zalloua; Andres Moreno-Estrada; Jaume Bertranpetit; Carlos D. Bustamante; David Comas (January 12, 2012). "Genomic Ancestry of North Africans Supports Back-to-Africa Migrations". PLOS Genetics. 8 (1): e1002397. doi:10.1371/journal.pgen.1002397. PMC . PMID 22253600. Retrieved 17 May 2015.
- Begoña Dobon; Hisham Y. Hassan; Hafid Laayouni; Pierre Luisi; Isis Ricaño-Ponce; Alexandra Zhernakova; Cisca Wijmenga; Hanan Tahir; David Comas; Mihai G. Netea; Jaume Bertranpetit (28 May 2015). "The genetics of East African populations: a Nilo-Saharan component in the African genetic landscape". Scientific Reports. 5: 9996. doi:10.1038/srep09996. PMC . PMID 26017457. Retrieved 13 June 2015.
- Jason A. Hodgson; Connie J. Mulligan; Ali Al-Meeri; Ryan L. Raaum (June 12, 2014). "Early Back-to-Africa Migration into the Horn of Africa". PLOS Genetics. 10 (6): e1004393. doi:10.1371/journal.pgen.1004393. PMC . PMID 24921250.; "Supplementary Text S1: Affinities of the Ethio-Somali ancestry component". doi:10.1371/journal.pgen.1004393.s017. Retrieved 17 May 2015.
- "DNA Clans (Y-Clan) - DNA Ancestry Analysis". Genebase. Archived from the original on 2009-02-03. Retrieved 19 Feb 2009.
- Carmichael, Terrence; Alexander Ivanof Kuklin; Ed Grotjan (2000). How to DNA Test Our Family Relationships. Mountain View, CA: AceN Press. ISBN 978-0-9664027-1-1. Early book on adoptions, paternity and other relationship testing. Carmichael is a founder of GeneTree.
- Cavalli-Sforza, Luigi Luca; Paolo Menozzi; Alberto Piazza (1994). The History and Geography of Human Genes. Princeton, N.J.: Princeton University Press. ISBN 978-0-691-08750-4.
- Cavalli-Sforza, Luigi L.; Cavalli-Sforza, Francesco; Mimnaugh, Heather; Parker, Lynn (1996). The Great Human Diasporas : The History of Diversity and Evolution. Reading, MA: Addison-Wesley. ISBN 978-0-201-44231-1.
- Fitzpatrick, Colleen; Andrew Yeiser (2005). DNA and Genealogy. Fountain Valley, CA: Rice Book Press. ISBN 978-0-9767160-1-3.
- Gamble, Clive (1996). Timewalkers : The Prehistory of Global Colonization. Cambridge, MA: Harvard University Press. ISBN 978-0-674-89203-3.
- Jobling, Mark; Matthew Hurles; Chris Tyler-Smith (2003). Human Evolutionary Genetics : Origins, Peoples and Disease. New York, NY: Garland Science. ISBN 978-0-8153-4185-7.
- Olson, Steve (2003). Mapping Human History : Genes, Race, and Our Common Origins. Boston, MA: Houghton Mifflin. ISBN 978-0-618-35210-4. Survey of major populations.
- Oppenheimer, Stephen (2003). The Real Eve : Modern Man's Journey Out of Africa. New York, NY: Carroll & Graf. ISBN 978-0-7867-1192-5.
- Smolenyak, Megan; Ann Turner (2004). Trace Your Roots with DNA : Using Genetic Tests to Explore Your Family Tree. Emmaus, PA; Rodale, NY: Distributed to the trade by Holtzbrinck Publishers. ISBN 978-1-59486-006-5. Out of date but still worth reading.
- Pomery, Chris; Steve Jones (2004). DNA and Family History : How Genetic Testing Can Advance Your Genealogical Research. Toronto, Ontario, Canada: Dundurn Group. ISBN 978-1-5500-2536-1. Early guide for do-it-yourself genealogists.
- Pomery, Chris (2007). Family History in the Genes : Trace Your DNA and Grow Your Family Tree. Kew, UK: National Archives. ISBN 978-1-905615-12-4.
- Shawker, Thomas H. (2004). Unlocking Your Genetic History : A Step-by-Step Guide to Discovering Your Family's Medical and Genetic Heritage. Nashville, TN: Rutledge Hill Press. ISBN 978-1-4016-0144-7. Guide to the subject of family medical history and genetic diseases.
- Sykes, Bryan (2002). The Seven Daughters of Eve : The Science That Reveals Our Genetic Ancestry. New York, NY: Norton. ISBN 978-0-393-32314-6. Names the founders of Europe’s major female haplogroups Helena, Jasmine, Katrine, Tara, Velda, Xenia, and Ursula.
- Sykes, Bryan (2004). Adam's Curse : A Future Without Men. New York, NY: W.W. Norton. ISBN 978-0-393-05896-3.
- Tagliaferro, Linda; Mark Vincent Bloom (1999). Complete Idiot's Guide to Decoding Your Genes. New York, NY: Alpha Books. ISBN 978-0-02-863586-6.
- Wells, Spencer (2004). The Journey of Man : A Genetic Odyssey. New York, NY: Random House Trade Paperbacks. ISBN 978-0-8129-7146-0.
- Decker, A.E.; Kline, M.C.; Vallone, P.M.; Butler, J.M. (2007). "The impact of additional Y-STR loci on resolving common haplotypes and closely related individuals". Forensic Science International: Genetics. 1 (2): 215–217. doi:10.1016/j.fsigen.2007.01.012.
- Dula, Annette; Royal, Charmaine; Secundy, Marian Gray; Miles, Steven (2003). "The Ethical and Social Implications of Exploring African American Genealogies". Developing World Bioethics. 3 (2): 133–41. doi:10.1046/j.1471-8731.2003.00069.x. PMID 14768645.
- Elhaik, E.; Greenspan, E.; Staats, S.; Krahn, T.; Tyler-Smith, C.; Xue, Y.; Tofanelli, S.; Francalacci, P.; Cucca, F. (2013). "The GenoChip: A New Tool for Genetic Anthropology". Genome Biology and Evolution. 5 (5): 1021–31. doi:10.1093/gbe/evt066. PMC . PMID 23666864.
- El-Haj, Nadia ABU (2007). "Rethinking genetic genealogy: A response to Stephan Palmi". American Ethnologist. 34 (2): 223–226. doi:10.1525/ae.2007.34.2.223.
- Fujimura, J. H.; Rajagopalan, R. (2010). "Different differences: The use of 'genetic ancestry' versus race in biomedical human genetic research". Social Studies of Science. 41 (1): 5–30. doi:10.1177/0306312710379170. PMC . PMID 21553638.
- Golubovsky, M. (2008). "Unexplained infertility in Charles Darwin's family: Genetic aspect". Human Reproduction. 23 (5): 1237–8. doi:10.1093/humrep/den052. PMID 18353904.
- Gymrek, M.; McGuire, A. L.; Golan, D.; Halperin, E.; Erlich, Y. (2013). "Identifying Personal Genomes by Surname Inference". Science. 339 (6117): 321–4. doi:10.1126/science.1229566. PMID 23329047.
- Larmuseau, M.H.D.; Van Geystelen, A.; Van Oven, M.; Decorte, R. (2013). "Genetic genealogy comes of age: Perspectives on the use of deep-rooted pedigrees in human population genetics". American Journal of Physical Anthropology. 150 (4): 505–11. doi:10.1002/ajpa.22233. PMID 23440589.
- Larmuseau, M H D; Vanoverbeke, J; Gielis, G; Vanderheyden, N; Larmuseau, H F M; Decorte, R (2012). "In the name of the migrant father—Analysis of surname origins identifies genetic admixture events undetectable from genealogical records". Heredity. 109 (2): 90–5. doi:10.1038/hdy.2012.17. PMC . PMID 22511074.
- McEwen, Jean E.; Boyer, Joy T.; Sun, Kathie Y. (2013). "Evolving approaches to the ethical management of genomic data". Trends in Genetics. 29 (6): 375–82. doi:10.1016/j.tig.2013.02.001. PMC . PMID 23453621.
- Nash, Catherine (2004). "Genetic kinship". Cultural Studies. 18: 1–33. doi:10.1080/0950238042000181593.
- Nelson, A. (2008). "Bio Science: Genetic Genealogy Testing and the Pursuit of African Ancestry". Social Studies of Science. 38 (5): 759–83. doi:10.1177/0306312708091929. PMID 19227820.
- Royal, Charmaine D.; Novembre, John; Fullerton, Stephanie M.; Goldstein, David B.; Long, Jeffrey C.; Bamshad, Michael J.; Clark, Andrew G. (2010). "Inferring Genetic Ancestry: Opportunities, Challenges, and Implications". The American Journal of Human Genetics. 86 (5): 661–673. doi:10.1016/j.ajhg.2010.03.011. PMC . PMID 20466090.
- Sims, Lynn M.; Garvey, Dennis; Ballantyne, Jack (2009). Batzer, Mark A, ed. "Improved Resolution Haplogroup G Phylogeny in the Y Chromosome, Revealed by a Set of Newly Characterized SNPs". PLoS ONE. 4 (6): e5792. doi:10.1371/journal.pone.0005792. PMC . PMID 19495413.
- Su, Yeyang; Howard, Heidi C.; Borry, Pascal (2011). "Users' motivations to purchase direct-to-consumer genome-wide testing: An exploratory study of personal stories". Journal of Community Genetics. 2 (3): 135–46. doi:10.1007/s12687-011-0048-y. PMC . PMID 22109820.
- Tutton, Richard (2004). ""They want to know where they came from": Population genetics, identity, and family genealogy". New Genetics and Society. 23 (1): 105–20. doi:10.1080/1463677042000189606. PMID 15470787.
- Van Oven, Mannis; Kayser, Manfred (2009). "Updated comprehensive phylogenetic tree of global human mitochondrial DNA variation". Human Mutation. 30 (2): E386–94. doi:10.1002/humu.20921. PMID 18853457.
- Williams, Sloan R. (2005). "Genetic Genealogy: The Woodson Family's Experience". Culture, Medicine and Psychiatry. 29 (2): 225–252. doi:10.1007/s11013-005-7426-3.
- Wolinsky, Howard (2006). "Genetic genealogy goes global. Although useful in investigating ancestry, the application of genetics to traditional genealogy could be abused". EMBO Reports. 7 (11): 1072–4. doi:10.1038/sj.embor.7400843. PMC . PMID 17077861.
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