Pacific Island Populations
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Pacific Island Populations
Pacific Island populations are among the most geographically dispersed and biologically diverse human populations in the world. Genetic, archaeological, linguistic, and biological research shows that the settlement of Oceania was not the result of a single migration. Instead, the region was populated through multiple waves of movement, interaction, isolation, population replacement, and admixture extending across tens of thousands of years.
The populations of New Guinea and Near Oceania preserve some of the deepest genetic lineages outside Africa, while later Austronesian-speaking migrants expanded through Island Southeast Asia into Melanesia, Micronesia, and Polynesia. These movements created populations with widely varying proportions of Papuan-related, East Asian-related, and later outside ancestry. Ancient DNA has substantially changed earlier models of Pacific settlement by demonstrating repeated migrations and population mixing even after the first settlement of Remote Oceania.
Pacific populations also display striking biological diversity. Skin and hair pigmentation, immune-system variation, metabolism, disease resistance, body composition, and other traits have been influenced by ancestry, natural selection, founder effects, environmental conditions, and prolonged geographic isolation.
Early Settlement of Sahul and Near Oceania
New Guinea and nearby islands contain evidence of extremely ancient human settlement. The ancestors of Papuan and related populations reached the greater Sahul landmass tens of thousands of years before the later Austronesian expansion.
Genomic research shows exceptionally deep population structure within New Guinea. Highland, lowland, coastal, and island communities can differ substantially even over relatively short geographic distances. Mountains, languages, clan systems, local migration patterns, and long periods of isolation contributed to this differentiation.
Papuan-related populations also carry relatively high levels of Denisovan ancestry. Research indicates that ancestors of New Guineans and related Oceanian peoples interbred with archaic Denisovan populations before later migrations dispersed these genetic components through parts of Oceania.
New Guinea should therefore not be regarded as containing a single homogeneous population. Genome-wide studies instead reveal numerous deeply differentiated communities whose histories extend far beyond the Austronesian expansion.
Austronesian Expansion and Lapita Settlement
One of the most important later migrations into the Pacific was the Austronesian expansion. Genetic and linguistic evidence connects important components of this movement with populations related to Indigenous Taiwanese and other East Asian populations.
Austronesian-speaking voyagers moved through the Philippines and Island Southeast Asia before reaching Near Oceania and eventually Remote Oceania. Archaeologically, part of this expansion is closely associated with the Lapita cultural complex.
Ancient DNA has shown that the earliest known Lapita-associated settlers of places such as Vanuatu and Tonga had overwhelmingly East Asian-related ancestry. Their genetic profiles differed considerably from many modern populations living in the same areas.
Within only several centuries, however, populations carrying predominantly Papuan-related ancestry migrated into parts of Remote Oceania. These movements produced extensive admixture and, in some regions, major population turnover.
The survival of Austronesian languages despite substantial genetic replacement demonstrates that language, culture, and biological ancestry do not always move together. Pacific history frequently involved newcomers being incorporated into existing cultural and linguistic systems rather than completely replacing them.
Melanesia and New Guinea
Melanesia contains some of the greatest genetic and phenotypic diversity in the Pacific. Populations of Papua New Guinea, the Solomon Islands, Vanuatu, New Caledonia, the Bismarck Archipelago, Bougainville, and neighboring islands differ considerably in ancestry and population history.
Studies of the Solomon Islands and surrounding regions demonstrate extensive inter-island migration along with strong founder effects and long periods of local isolation. Some communities retain ancient Papuan-related lineages, while others contain substantial Austronesian-related ancestry.
Research from Vanuatu has been particularly important in revising models of Pacific migration. Ancient genomes reveal an initial Lapita-associated population followed by substantial Papuan-related migration and later Polynesian gene flow.
Fiji also occupies an important position between Melanesia and Polynesia. Genetic research reveals considerable internal diversity, including significant differences among Viti Levu, Vanua Levu, Kadavu, Lau, and Rotuma.
These findings show that broad labels such as "Melanesian" describe highly diverse populations rather than a single biological group.
Polynesia and the Settlement of the Eastern Pacific
The settlement of Polynesia represents one of the most remarkable episodes of long-distance human migration. Genomic evidence indicates that populations expanded eastward from western Polynesia through successive founder events.
Research reconstructing the settlement sequence suggests movement through regions including the Cook Islands, Society Islands, Austral Islands, Tuamotu Archipelago, Marquesas, and eventually Rapa Nui and other remote islands.
Founder effects played an important role in shaping Polynesian population structure. Small groups establishing new island communities carried only part of the genetic diversity present in their source populations. Repeated founder events created detectable genetic patterns that can be used to reconstruct migration routes.
Polynesian populations generally contain ancestry related to both East Asian/Austronesian and Papuan or Melanesian populations, although the proportions differ among islands. Later European, Asian, and other migrations introduced additional ancestry into many communities.
Genomic research has also provided evidence of contact between Polynesian and Native American populations before sustained European involvement in the Pacific. Studies of Rapa Nui and other eastern Polynesian populations have contributed substantially to continuing research into the timing and direction of these contacts.
Micronesian Population History
Micronesia was also settled through multiple migration streams rather than through a single uniform movement.
Ancient DNA from Guam indicates that early Mariana Islanders were strongly related to populations from the Philippines. The settlement of the Marianas required extremely long open-ocean voyages and represents one of the earliest major maritime colonization events in the Pacific.
Research across Micronesia identifies distinct population histories for the Marianas, Palau, Yap, central Micronesia, and neighboring island groups.
Ancient genomic research has identified several major migration streams into Micronesia. Some studies also provide evidence for long-standing matrilocal social organization, in which women remained relatively close to their communities while men were more mobile.
Palau provides another example of complex ancestry. Ancient genomic evidence suggests that East Asian-related and Papuan-related ancestry had already mixed before or during the early settlement of the islands.
Pigmentation and Visible Diversity
Pacific populations display substantial variation in skin, hair, and other visible characteristics. This diversity is particularly notable in Melanesia.
Measurements from Island Melanesian populations document substantial differences in skin and hair pigmentation among neighboring islands. These differences developed within populations that already possessed considerable genetic structure.
One of the best-known examples is naturally blond hair among some Solomon Islanders. Research identified a variant of the TYRP1 gene as a major contributor to this phenotype. The variant is distinct from the genetic mechanisms responsible for most European blond hair, demonstrating that similar visible traits can evolve independently in different populations.
Very dark skin pigmentation in Melanesian and Papuan populations also illustrates the complexity of human pigmentation evolution. Similar pigmentation levels in different parts of the world do not necessarily result from identical genetic pathways.
Research involving MC1R and other pigmentation genes indicates that dark pigmentation in Melanesia followed evolutionary pathways that differ in important respects from those documented in African populations.
Pacific pigmentation therefore reflects interactions among ultraviolet radiation, population history, migration, isolation, diet, natural selection, and multiple pigmentation genes.
Natural Selection and Environmental Adaptation
Pacific populations have also contributed important evidence about human adaptation.
In Samoa and other Polynesian populations, researchers have studied a variant of the CREBRF gene associated with body mass index and metabolic characteristics. The variant occurs at relatively high frequencies in some Pacific populations and shows evidence consistent with historical natural selection.
Its effects also demonstrate why genetic associations must be interpreted carefully. Research suggests that some variants may be associated simultaneously with increased body mass and altered metabolic risks, while their health effects can vary depending on diet, socioeconomic conditions, age, and other environmental factors.
In Papua New Guinea and the Solomon Islands, malaria has provided another powerful selective pressure. Variants involving immune response, red-blood-cell biology, HLA genes, and other systems have been studied for their potential effects on resistance or susceptibility to malaria.
Genome-wide comparisons between New Guinea highland and lowland populations further demonstrate how different environments can generate distinct patterns of natural selection.
Founder Effects, Isolation, and Genetic Drift
Island populations provide unusually clear examples of founder effects and genetic drift.
When a small number of settlers established a new island population, only part of the genetic variation of the source population was carried into the new community. Subsequent isolation could cause particular variants to become much more or less common by chance.
Repeated founder events occurred throughout Polynesian and Micronesian expansion. They help explain why neighboring island populations can differ considerably despite shared ancestry.
Founder effects have been documented among Samoan, Tongan, Marquesan, Hawaiian, Kosraean, Palauan, Rapanui, and other island populations.
Isolation was rarely absolute, however. Voyaging networks, marriage, warfare, trade, migration, and later colonial movements repeatedly introduced new genetic variation.
Pacific population history is therefore best understood as the interaction of isolation and connectivity rather than as a history of permanently isolated island communities.
Sex-Biased Migration and Admixture
Mitochondrial DNA and Y-chromosome studies have revealed important differences between maternal and paternal population histories.
Some Polynesian populations contain predominantly Asian-related maternal lineages alongside substantial Papuan- or Melanesian-related paternal ancestry. These patterns helped produce the "slow boat" model of Polynesian origins, in which Austronesian-speaking migrants interacted extensively with established populations before expanding farther into the Pacific.
Later historical migrations also produced sex-biased ancestry. In several island populations, European ancestry entered disproportionately through male settlers while indigenous maternal lineages remained more common.
These patterns demonstrate how social organization, marriage systems, migration, and colonial history can leave distinctive signatures in human genomes.
Denisovan and Neanderthal Ancestry
Pacific genomes have played a central role in understanding interbreeding between modern and archaic humans.
Papuan and closely related populations possess some of the highest known levels of Denisovan ancestry among living populations. Melanesian genomes also contain Neanderthal-derived DNA.
The geographic distribution of Denisovan ancestry suggests that archaic admixture occurred before some of the major population movements that eventually carried Papuan-related ancestry into other parts of Oceania.
Some archaic-derived variants may subsequently have been affected by natural selection, including variants associated with immune function.
This research demonstrates that Pacific population history extends far beyond recent island settlement and preserves evidence of interactions that occurred deep in human prehistory.
Archaeology and Bioarchaeology
Genetics is only one source of evidence for Pacific population history. Archaeology, skeletal biology, isotopes, linguistics, and studies of domesticated animals and plants provide complementary information.
The Lapita cemetery at Teouma in Vanuatu has been particularly important. Cranial and dental evidence from early individuals shows biological affinities consistent with populations associated with East and Southeast Asia and Polynesia, supporting ancient-DNA evidence for major demographic change after initial settlement.
Isotope analysis can distinguish locally raised individuals from migrants, demonstrating movement between islands even within early colonizing communities.
Archaeological evidence from Fiji, New Caledonia, the Bismarck Archipelago, Tonga, the Society Islands, and the Marianas further demonstrates that settlement occurred through complex sequences rather than uniform population expansions.
Plants, Animals, and Migration Proxies
Researchers have also reconstructed human migration through organisms transported by Pacific voyagers.
Ancient chicken DNA has been used to trace Polynesian dispersal, while dog remains provide evidence of multiple animal introductions into the Pacific.
The history of the sweet potato has played an especially important role in debates about contact between Polynesia and South America. Genetic, botanical, archaeological, and linguistic evidence has generated competing explanations involving human transport and possible natural dispersal.
These migration proxies demonstrate how people transformed island ecosystems while also leaving biological records of their movements.
Diversity Within Pacific Populations
One of the clearest conclusions from modern research is that "Pacific Islander" is not a single genetic or biological category.
Papuan, Solomon Islander, Fijian, Samoan, Tongan, Māori, Hawaiian, Chamorro, Palauan, Marshallese, Rapanui, Marquesan, and many other communities have distinct histories.
Even populations separated by short distances may display substantial genetic differentiation.
Modern population genomics therefore emphasizes the risks of combining Native Hawaiian and Pacific Islander populations into overly broad research categories. Medical and genetic studies that ignore this diversity can obscure important differences in ancestry, health, environment, and population history.
Conclusion
Pacific Island populations preserve an unusually detailed record of human migration, adaptation, isolation, and interaction. Ancient settlement of Sahul established deeply differentiated Papuan-related populations long before Austronesian-speaking voyagers expanded through Island Southeast Asia and into Remote Oceania.
The settlement of Melanesia, Micronesia, and Polynesia involved repeated migrations rather than a single eastward movement. Lapita-associated settlers, later Papuan-related migrations, Polynesian expansions, inter-island voyaging, Native American contact, and post-European migrations all contributed to the ancestry of modern Pacific peoples.
Genetic diversity across the Pacific is equally important for understanding human adaptation. Pigmentation, metabolic traits, immune variation, malaria-related selection, Denisovan ancestry, and island founder effects demonstrate how population history and local environments interacted over thousands of years.
Taken together, genomic, archaeological, linguistic, and biological evidence presents Pacific peoples not as isolated remnants of a single migration, but as highly diverse populations shaped by some of the most extensive and complex maritime movements in human history.
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Pacific Population Genomics and Settlement
1. | Michal Feldman et al. | Cell | 2026
Ancient genomes from the Solomon Islands, Vanuatu, Fiji, and Tonga reveal multiple Papuan-related dispersals, later Polynesian gene flow, and complex social structure during the settlement of western Remote Oceania.
2. | Elizabeth Matisoo-Smith and Anna L. Gosling | Journal of Archaeological Science | 2025
This review summarizes how genomics has substantially revised earlier models of Pacific settlement, including the origins of Lapita peoples, Micronesian migrations, Polynesian dispersal, and contact with the Americas.
3. | Albert Min-Shan Ko et al. | Journal of Human Genetics | 2025
A review of mitochondrial, Y-chromosomal, and genome-wide evidence evaluates the origins and migration pathways of early Austronesian-speaking populations from coastal East Asia through Taiwan and into Oceania.
4. | Helen Farr et al. | Scientific Reports | 2025
Mitochondrial genomes from dozens of Pacific islands are compared with archaeological settlement dates to evaluate the timing and geographic history of the major Oceanian lineage B4a1a1a.
5. | Edra K. Ha et al. | npj Genomic Medicine | 2024
A review discusses Native Hawaiian and Pacific Islander genetic history, population structure, founder effects, research representation, and the risks of treating highly diverse Pacific peoples as a single genomic category.
6. | Lara R. Arauna et al. | Current Biology | 2022
Genomic data from contemporary western Remote Oceanians reveal complex patterns of Papuan and East Asian ancestry, population isolation, migration, and linguistic diversity in Vanuatu.
7. | Ben Shaw et al. | Nature Ecology & Evolution | 2022
Archaeological evidence from southern New Guinea shows early interaction between Lapita-associated migrants and established Papuan populations before the rapid settlement of Remote Oceania.
8. | Cosimo Posth et al. | Nature Ecology & Evolution | 2022
Ancient genomes from Wallacea reveal several separate episodes of interaction involving Papuan-, Austronesian-, and mainland Southeast Asian-related populations.
9. | Jeremy Choin et al. | Nature | 2021
Genome-wide analysis of 317 people from 20 Pacific populations reconstructs demographic history, repeated interactions between East Asian- and Papuan-related populations, Denisovan ancestry, and signals of natural selection affecting immunity and metabolism.
10. | Mark Lipson et al. | Current Biology | 2018
Ancient DNA demonstrates major population turnover in Vanuatu shortly after initial Lapita settlement, with migrants carrying predominantly Papuan ancestry arriving within several centuries.
11. | Cosimo Posth et al. | Nature Ecology & Evolution | 2018
Ancient genomes reveal a large Papuan-related population expansion into Remote Oceania while Austronesian languages persisted, illustrating that genetic replacement does not necessarily imply language replacement.
12. | Pontus Skoglund et al. | Nature | 2016
Ancient genomes from Vanuatu and Tonga reveal that the earliest Lapita-associated inhabitants of Remote Oceania had overwhelmingly East Asian-related ancestry before later Papuan-related migrations transformed the region.
13. | Elizabeth Matisoo-Smith | Journal of Human Evolution | 2015
This review evaluates ancient-DNA research on Pacific settlement and explains how human and commensal DNA can be combined to reconstruct migration through Sahul, Near Oceania, and Polynesia.
14. | Ana T. Duggan et al. | American Journal of Human Genetics | 2014
Analysis of more than 1,300 complete mitochondrial genomes reconstructs the maternal population history of Oceania and shows how the Austronesian expansion altered earlier patterns of genetic diversity.
15. | Mark Lipson et al. | Nature Communications | 2014
Genome-wide evidence traces major components of Austronesian ancestry to populations related to Indigenous Taiwanese while documenting additional admixture throughout Island Southeast Asia.
16. | Russell D. Gray, Alexei J. Drummond and Simon J. Greenhill | Science | 2009
Phylogenetic analysis of 400 Austronesian languages supports a series of migration pulses and pauses beginning in Taiwan and ultimately extending across the Pacific.
17. | Jonathan S. Friedlaender et al. | PLOS Genetics | 2008
A large survey of 41 Pacific populations documents unusually strong genetic differentiation within Melanesia and demonstrates how island geography, language, isolation, and migration have shaped population structure.
18. | Ryosuke Kimura et al. | Molecular Biology and Evolution | 2008
Genome-wide SNP data from Papuan and Tongan populations provide evidence for Asian and indigenous Melanesian contributions to modern Oceanian genomes and examine natural-selection signals.
19. | M. Regueiro et al. | Journal of Human Genetics | 2008
Genetic markers are used to investigate the Austronesian genetic signature across an enormous geographic range extending from Island Southeast Asia and Polynesia to Madagascar.
20. | Manfred Kayser et al. | Molecular Biology and Evolution | 2006
Mitochondrial and Y-chromosome evidence indicates that Polynesian ancestry reflects contributions from both Asian and Melanesian populations, with strongly sex-biased patterns of ancestry.
Melanesia, New Guinea, and Pigmentation
21. | Bose et al. | Frontiers in Genetics | 2026
A current review describes the polygenic architecture of skin pigmentation and the combined effects of natural selection, migration, population history, culture, and ultraviolet environments.
22. | University of Pennsylvania | ScienceDaily | January 12, 2024
New pigmentation research highlights molecular pathways influencing human color variation and notes the persistence of some dark-pigmentation variants at high frequency in Melanesian populations.
23. | Nina G. Jablonski | American Journal of Physical Anthropology | 2021
A broad evolutionary review specifically discusses Melanesia and Australia as regions where high UV radiation, population history, diet, and isolation contributed to extremely dark pigmentation.
24. | Li Deng and Shuhua Xu | Hereditas | 2018
This review surveys pigmentation genes and evolutionary pathways in different world populations and emphasizes that similar skin colors can arise through different genetic mechanisms.
25. | University of Pennsylvania | ScienceDaily | October 12, 2017
Reporting on pigmentation-genetics research discusses dark-pigmentation alleles shared between African and Australo-Melanesian populations and their implications for early human dispersal.
26. | Nicholas G. Crawford et al. | Science | 2017
A major pigmentation-genetics study finds that several alleles associated with dark pigmentation in Africa are also present by common ancestry in South Asian and Australo-Melanesian populations.
27. | Heather L. Norton et al. | American Journal of Human Biology | 2016
Study of Bougainville and New Britain shows that the well-known TYRP1 variant cannot explain all Melanesian blond-hair variation, pointing to additional pigmentation genes.
28. | Heather L. Norton, Elizabeth Werren and Jonathan Friedlaender | BMC Genetics | 2015
MC1R sequencing in Northern Island Melanesians shows that very dark pigmentation in the region cannot be explained by the same strong MC1R constraint observed in many African populations.
29. | Heather L. Norton et al. | American Journal of Physical Anthropology | 2014
Researchers map the geographic distribution of the Solomon Islands TYRP1 blond-hair allele across Northern Island Melanesia and find major differences in frequency between islands.
30. | Leticia U. Colmenares et al. | Photodermatology, Photoimmunology & Photomedicine | 2013
Experimental UV exposure demonstrates measurable differences in erythema and pigmentation responses among Native Hawaiian and Pacific Islander and Asian study participants.
31. | Stanford University Medical Center | ScienceDaily | May 3, 2012
This accessible account explains the discovery that blond hair in Solomon Islanders is produced by an indigenous TYRP1 variant rather than recent European ancestry.
32. | University of Bristol | ScienceDaily | May 3, 2012
Coverage of the Solomon Islands pigmentation study emphasizes the unusual combination of very dark skin and relatively frequent naturally blond hair.
33. | Eimear E. Kenny et al. | Science | 2012
A variant in TYRP1 was identified as a major cause of naturally blond hair in Solomon Islanders, demonstrating that this striking phenotype evolved independently of European blond hair.
34. | Nina G. Jablonski and George Chaplin | Philosophical Transactions of the Royal Society B | 2012
The authors examine how human migration moved populations into new ultraviolet environments, altering relationships among pigmentation, vitamin D, disease risk, and adaptation.
35. | Helene C. Johanson et al. | Journal of Human Genetics | 2010
Researchers identify a distinctive OCA2 mutation associated with unusually frequent oculocutaneous albinism in a Polynesian community from Tuvalu and related populations.
36. | Nina G. Jablonski and George Chaplin | Proceedings of the National Academy of Sciences | 2010
This influential synthesis explains human skin pigmentation as an adaptation balancing protection from ultraviolet radiation with biological requirements such as vitamin D production.
37. | Heather L. Norton et al. | American Journal of Physical Anthropology | 2006
Measurements of more than 1,100 people show remarkable skin- and hair-pigmentation variation among Island Melanesian populations despite their relatively restricted geographic distribution.
38. | Nina G. Jablonski and George Chaplin | Journal of Human Evolution | 2000
Global skin-reflectance data demonstrate a strong association between indigenous skin pigmentation and geographic patterns of ultraviolet radiation.
39. | R. G. Harvey | American Journal of Physical Anthropology | 1985
Skin-reflectance measurements from Karkar Island and the Papua New Guinea Highlands examine how ecology, ultraviolet exposure, age, sex, and lifestyle contribute to pigmentation differences.
40. | R. I. Garcia et al. | American Journal of Physical Anthropology | 1983
Microscopic examination of Solomon Islander skin demonstrates inter-island differences in melanosome packaging, indicating substantial biological variation among neighboring Melanesian populations.
Polynesia and the Eastern Pacific
41. | J. Víctor Moreno-Mayar et al. | Nature | 2024
Ancient Rapanui genomes reject a proposed catastrophic seventeenth-century population collapse and support pre-European Native American admixture.
42. | Kai Tätte et al. | Scientific Reports | 2022
Genome-wide and uniparental markers from Nuku Hiva, Hiva Oa, and Tahuata reveal genetic uniformity, isolation, and founder effects among Marquesas populations.
43. | Bruce Bower | Science News | September 22, 2021
Science reporting summarizes evidence that eastern Polynesia was settled rapidly through a series of long-distance voyages over roughly five centuries.
44. | Brian Handwerk | Smithsonian Magazine | September 2021
This overview explains how genome-wide founder effects were used to reconstruct the order and timing of Polynesian settlement across thousands of kilometers of the Pacific.
45. | Alexander G. Ioannidis et al. | Nature | 2021
Genomes from 21 Pacific island populations reveal a branching sequence of Polynesian settlement beginning in western Polynesia and proceeding through the Cook, Society, Austral, Tuamotu, Marquesas, and Rapa Nui regions.
46. | Alexander G. Ioannidis et al. | Nature | 2020
Genome-wide analysis provides evidence of prehistoric gene flow between Polynesian and Native American populations before European arrival in the Pacific.
47. | Daniel E. Harris et al. | Proceedings of the National Academy of Sciences | 2020
Whole-genome sequences from more than 1,000 Samoans reveal a severe founder bottleneck, later population expansion, and fine-scale genetic differentiation between major Samoan islands.
48. | Leire Palencia-Madrid et al. | European Journal of Human Genetics | 2019
Mitochondrial, Y-chromosomal, and autosomal markers from Marquesans provide evidence concerning founder effects and their position at the far eastern edge of Austronesian expansion.
49. | Rene J. Herrera et al. | Scientific Reports | 2018
Genome-wide data from the Leeward Society Islands explore East Polynesian origins and show ancestry derived primarily from Island Southeast Asia with additional Papuan-related contributions.
50. | Lars Fehren-Schmitz et al. | Current Biology | 2017
Ancient Rapa Nui genomes were used to test earlier claims of pre-European Native American ancestry, illustrating how archaeological DNA can revise conclusions drawn from modern populations.
51. | Gerhard P. Shipley et al. | Journal of Human Genetics | 2015
Fijian populations show substantial island-specific genetic structure and sex-biased ancestry, with Rotuma and the Lau Islands displaying especially strong Polynesian affinities.
52. | J. Víctor Moreno-Mayar et al. | Current Biology | 2014
Genome-wide ancestry patterns in modern Rapanui were interpreted as evidence for Native American admixture dating to centuries before sustained European contact.
53. | Chris Tyler-Smith | Current Biology | 2014
A commentary discusses genomic evidence for early trans-Pacific contact and the challenges of determining the timing of Native American ancestry in Rapanui populations.
54. | Erik Thorsby | Philosophical Transactions of the Royal Society B | 2012
HLA, mitochondrial, and Y-chromosome evidence is reviewed in relation to the controversial possibility of pre-Columbian contact between Rapa Nui and South America.
55. | Christopher S. Kim et al. | PLOS ONE | 2012
Genome-wide SNPs and mitochondrial genomes characterize Native Hawaiian population structure and demonstrate the mixture of Polynesian, Melanesian-related, Asian, and later European ancestry.
56. | Erika Hagelberg et al. | Human Biology | 2007
Y-chromosome haplotypes from Rapa Nui show evidence of strong founder effects as well as later European and South American contributions to the male population.
57. | Peter A. Underhill et al. | Human Mutation | 2001
Māori Y-chromosome and mitochondrial markers reveal a complex paternal history involving Southeast Asian and Melanesian-related lineages along with later European ancestry.
58. | Bing Su et al. | Proceedings of the National Academy of Sciences | 2000
Y-chromosome variation across Asia, Melanesia, Micronesia, and Polynesia is used to evaluate competing models for the paternal origins of Polynesians.
59. | Manfred Kayser et al. | Current Biology | 2000
Polynesian Y chromosomes show strong connections to Melanesia, leading the authors to propose a "slow boat" model involving substantial interaction before settlement farther east.
60. | Bryan Sykes et al. | American Journal of Human Genetics | 1995
Mitochondrial lineages from more than 1,000 people support a predominantly western origin for Polynesian maternal ancestry and strong founder effects during migration.
Micronesia, Vanuatu, Fiji, and the Solomon Islands
61. | University of Tübingen | Phys.org | August 14, 2026
Recent ancient-DNA work from Fiji and neighboring western Remote Oceania reconstructs how successive Papuan-related migrations followed initial Lapita settlement.
62. | Paul Arnold | Phys.org | March 17, 2026
New Palauan ancient DNA reveals that the islands' founding population already carried both East Asian- and Papuan-related ancestry.
63. | Yue-Chen Liu et al. | Cell | 2026
Ancient genomes from Palau indicate that Papuan and East Asian ancestry had already mixed before the islands were initially settled and show unusually long-term population continuity.
64. | Frédérique Valentin et al. | Archaeological and Anthropological Sciences | 2024
Bioanthropological evidence from Vanuatu explores how migrants from Polynesia were incorporated into local societies during the last millennium.
65. | American Association for the Advancement of Science | EurekAlert! | June 30, 2022
Coverage of the Micronesian ancient-DNA study describes multiple migrations and strong evidence for female-centered, matrilocal communities among early island populations.
66. | Yue-Chen Liu et al. | Science | 2022
Genomes from 164 ancient and 112 modern individuals identify at least five major migration streams into Micronesia and provide evidence for early matrilocal social organization.
67. | Irina Pugach et al. | Proceedings of the National Academy of Sciences | 2021
Ancient DNA from Guam links early Mariana Islanders primarily to Philippine-related populations and reveals unexpected genetic connections with early Lapita people.
68. | Max Planck Institute for Evolutionary Anthropology | EurekAlert! | December 22, 2020
Ancient DNA from Guam supports a Philippine-related source for the early Mariana population and highlights one of the world's earliest long-distance ocean crossings.
69. | Kathrin Nägele et al. | Current Biology | 2020
Ancient genomes document three major phases in Vanuatu's population history: initial Lapita settlement, Papuan-related replacement and admixture, and later Polynesian gene flow.
70. | Ewen Callaway | Nature | March 1, 2018
This news feature summarizes ancient-DNA discoveries showing that Vanuatu experienced a surprisingly complex succession of migrations and population replacement.
71. | Max Planck Institute for the Science of Human History | EurekAlert! | February 27, 2018
This report explains ancient-DNA evidence for substantial demographic replacement in Vanuatu despite continued use of Austronesian languages.
72. | Rebecca L. Kinaston et al. | American Journal of Physical Anthropology | 2014
Stable-isotope analysis of early Lapita burials at Teouma in Vanuatu reconstructs diet and adaptation among some of Remote Oceania's first colonizing populations.
73. | Frederick Delfin et al. | Molecular Biology and Evolution | 2012
More than 700 people from 18 Solomon Islands populations reveal ancient local lineages, extensive inter-island contact, and highly distinctive founder effects among Polynesian Outliers.
74. | Manfred Kayser et al. | Molecular Biology and Evolution | 2008
Mitochondrial and Y-chromosomal diversity in the Admiralty Islands demonstrates substantial mixing between ancient Melanesian populations and later Austronesian-speaking migrants.
75. | Miguel G. Vilar et al. | Journal of Human Genetics | 2008
Mitochondrial DNA from East Sepik Province is used to investigate population processes involved in the development and spread of the Lapita cultural complex.
76. | D. Andrew Merriwether et al. | American Journal of Physical Anthropology | 1999
The geographic distribution of a characteristic mitochondrial deletion provides evidence for the spread of Austronesian ancestry into Island Melanesia.
77. | Patrick V. Kirch | American Journal of Physical Anthropology | 1985
Genetic findings from Polynesian Outliers are compared with archaeological evidence to reconstruct migration and interaction between Polynesian and Melanesian island communities.
78. | N. M. Blake et al. | American Journal of Physical Anthropology | 1983
Blood-group, protein, and enzyme markers from Vanuatu, the Solomon Islands, and Polynesian Outliers demonstrate distinctive island populations and evidence of prehistoric gene flow.
Austronesian Expansion, Migration Proxies, and Additional Evidence
79. | Lisa Matisoo-Smith et al. | Journal of Pacific Archaeology | 2026
A recent review reassesses Polynesian origins using the rapidly expanding genomic and ancient-DNA record, identifies remaining gaps, and argues that Pacific settlement involved considerably more migration and interaction than older models assumed.
80. | Ewen Callaway | Nature | September 11, 2024
Ancient Rapanui genomes challenge the popular idea of a catastrophic pre-European population collapse and strengthen evidence for early connections with Native Americans.
81. | Institut Pasteur | EurekAlert! | April 14, 2021
Pacific population genomics reveals repeated ancient admixture and suggests that Denisovan-derived DNA contributed especially to immune-related functions.
82. | Megan Gannon | National Geographic | July 8, 2020
Genome-wide evidence for Native American ancestry in eastern Polynesia is examined alongside archaeology, voyaging possibilities, and earlier theories of trans-Pacific contact.
83. | Bruce Bower | Science News | July 8, 2020
Reporting on genomic research describes evidence for contact between Polynesians and Native Americans around eight centuries ago while noting uncertainty over the direction of voyaging.
84. | GenomeAsia100K Consortium | Nature | 2019
Large-scale Asian genomic sampling confirms substantial Denisovan ancestry in populations related to Papuans and demonstrates the complex prehistoric population structure of Southeast Asia and Oceania.
85. | Nicolas G. Rawlence et al. | Scientific Reports | 2018
Ancient dog mitochondrial genomes reveal multiple translocations into the Pacific and demonstrate how domestic animals can preserve evidence of prehistoric human migration.
86. | Pablo Muñoz-Rodríguez et al. | Current Biology | 2018
Sweet-potato phylogenomics offers an alternative interpretation in which natural long-distance dispersal may explain the plant's presence in Polynesia before European contact.
87. | Bruce Bower | Science News | March 17, 2016
Melanesian genomes are described as carrying substantial inherited DNA from both Neanderthals and Denisovans, providing an unusually rich record of archaic-human admixture.
88. | University of Washington School of Medicine | EurekAlert! | March 17, 2016
This report summarizes research recovering Denisovan and Neanderthal genomic segments from present-day Melanesians in the Bismarck Archipelago.
89. | Roff Smith | National Geographic | March 19, 2014
Ancient chicken DNA is discussed in relation to Polynesian migration and competing claims about pre-European contact between Polynesia and South America.
90. | Vicki A. Thomson et al. | Proceedings of the National Academy of Sciences | 2014
Ancient chicken DNA is used as a proxy for Polynesian migration, tracing domestic chickens through Island Southeast Asia and the Pacific alongside human voyagers.
91. | Caroline Roullier et al. | Proceedings of the National Academy of Sciences | 2013
Genetic analysis of historical sweet-potato specimens supports an early South American-derived lineage in Polynesia and examines later European-era crop movements.
92. | Ed Yong | National Geographic | January 2009
Evidence from languages and biological companions is used to explain the pulse-and-pause pattern of Austronesian migration across Island Southeast Asia and the Pacific.
93. | Masao Uchibayashi | Yakugaku Zasshi | December 1, 2006
This review examines archaeological, linguistic, botanical, and navigational hypotheses for how the South American sweet potato reached pre-Columbian Polynesia.
94. | PLOS | EurekAlert! | July 4, 2005
Mitochondrial research on Indigenous Taiwanese populations provides genetic support for ancestry links connecting Taiwan with later Austronesian populations throughout Polynesia.
95. | J. Koji Lum and Rebecca L. Cann | American Journal of Physical Anthropology | 2000
Mitochondrial lineages from Micronesia and Polynesia reveal predominantly Asian origins with additional New Guinea-derived ancestry and complex inter-island gene flow.
96. | Matthew E. Hurles et al. | American Journal of Human Genetics | 1998
Y-chromosome data demonstrate substantial post-contact European paternal ancestry in some Polynesian populations while maternal ancestry remained overwhelmingly indigenous.
97. | Amanda B. Spurdle et al. | Annals of Human Genetics | 1994
Early Y-chromosome research compares Polynesian paternal lineages with those of other world populations and provides a baseline for later high-resolution Pacific genetic studies.
New Guinea and Near Oceanian Population History
98. | John Collinge et al. | American Journal of Human Genetics | 2024
Genetic analysis of 943 people from 68 villages in the Eastern Highlands documents striking differentiation over short distances and close relationships among genetics, language, clan organization, and migration.
99. | Sandra Oliveira et al. | Proceedings of the National Academy of Sciences | 2024
More than 250 genomes from Wallacea and West Papua show that much Papuan-related ancestry west of New Guinea derives from prehistoric back-migrations rather than only from the region's earliest settlers.
100. | Lara R. Arauna et al. | Human Genetics | 2022
Genome-wide analysis of 192 people from 15 Massim populations in Papua New Guinea identifies varying Papuan- and Austronesian-related ancestry and demonstrates how long-term inter-island interaction helped shape regional genetic structure.
101. | Pedro Soares et al. | Molecular Biology and Evolution | 2021
Hundreds of complete mitochondrial genomes reveal at least two substantial episodes of Papuan-related population movement between New Guinea and Wallacea.
102. | Nicolas Brucato et al. | Molecular Biology and Evolution | 2021
Whole-genome analyses from New Guinea, northeastern Australia, Wallacea, and the Bismarcks reveal numerous deeply differentiated regional populations and a complex history of settlement in northern Sahul.
103. | François-Xavier Ricaut et al. | Journal of Human Genetics | 2020
Papuan mitochondrial genomes illuminate the early peopling of Sahul and subsequent diversification of populations that remained isolated within New Guinea for tens of thousands of years.
104. | Anders Bergström et al. | Science | 2020
Whole-genome sequencing of 929 globally diverse individuals refines estimates of Papuan Denisovan ancestry and reveals considerable previously undocumented human genetic diversity.
105. | Anders Bergström et al. | Science | 2017
Genome-wide data from 381 Papua New Guineans representing 85 language groups identify an ancient highland-lowland genetic division and exceptionally strong population structure within New Guinea.
106. | Sriram Sankararaman et al. | Current Biology | 2016
Mapping Denisovan and Neanderthal DNA in modern genomes reveals particularly high Denisovan ancestry in Oceanians and evidence that natural selection subsequently removed many archaic variants.
107. | Pontus Skoglund and Mattias Jakobsson | Molecular Biology and Evolution | 2015
Comparative genomic analysis shows that Denisovan ancestry in many Oceanian populations closely tracks ancestry related to New Guinea.
108. | Irina Pugach et al. | Proceedings of the National Academy of Sciences | 2012
Genetic dating places major Asian-Papuan admixture events in eastern Indonesia within the broad period of the Austronesian expansion and detects sex-biased ancestry patterns.
109. | David Reich et al. | American Journal of Human Genetics | 2011
Denisovan ancestry across Oceania provides evidence that ancestors of New Guineans and related populations interacted with archaic humans before later Pacific dispersals.
110. | Murray P. Cox et al. | Proceedings of the Royal Society B | 2010
Autosomal and X-chromosome markers reveal a steep transition from predominantly Asian-related ancestry in western Island Southeast Asia to predominantly Papuan-related ancestry toward New Guinea.
111. | François-Xavier Ricaut et al. | Annals of Human Genetics | 2008
Mitochondrial DNA from Karkar Island identifies ancient New Guinea lineages alongside later Austronesian-associated maternal ancestry and evidence of population-specific founder effects.
112. | Manfred Kayser et al. | Molecular Biology and Evolution | 2007
Y-chromosome variation in West New Guinea links major paternal lineages to ancient local populations and provides evidence consistent with demographic expansion associated with Trans-New Guinea-speaking peoples.
113. | M. Tommaseo-Ponzetta et al. | American Journal of Physical Anthropology | 2002
Mitochondrial DNA from 12 West New Guinea populations reveals high genetic heterogeneity and provides evidence for deep regional ancestry predating the Austronesian expansion.
114. | A. S. M. Gao et al. | Human Biology | 2001
HLA variation among New Guinea highlanders, coastal communities, Bismarck Islanders, and New Caledonians provides evidence concerning ancient settlement and later differentiation of Melanesian populations.
115. | Adrian V. S. Hill et al. | Philosophical Transactions of the Royal Society B | 1998
Mitochondrial, Y-chromosome, and HLA markers from populations across Asia and Oceania demonstrate that Austronesian dispersal left a clear but regionally variable genetic footprint.
116. | A. J. O'Shaughnessy et al. | American Journal of Physical Anthropology | 1994
HLA frequencies vary strongly with altitude, geography, and language in Papua New Guinea, suggesting interacting effects of population history and natural selection.
117. | A. S. M. Gao et al. | Human Immunology | 1992
Detailed HLA-DR and HLA-DQ sequence variation among Papua New Guinean, New Caledonian, and Fijian populations demonstrates distinctive Melanesian immune-gene diversity.
Polynesia and Micronesia: Population Structure and Founder Effects
118. | Daniel Shriner et al. | Human Biology | 2025
Genome-wide analysis of the Kiritimati population identifies strong Polynesian ancestry, Papuan-related admixture inherited before settlement, and genetic drift associated with island founder events.
119. | Jun Ohashi et al. | Journal of Human Genetics | 2018
Mitochondrial variation among Austronesian-speaking communities in the New Georgia Islands reveals Polynesian-associated maternal lineages and substantial genetic differences among neighboring Solomon Island populations.
120. | Geoffrey K. Chambers et al. | Human Immunology | 2013
HLA data from Polynesian and Māori participants are used to examine dual Asian- and Papuan-related ancestry and subsequent European admixture.
121. | Ralph L. Garcia-Bertrand et al. | American Journal of Physical Anthropology | 2011
High-resolution Y-chromosome analysis identifies genetic ties connecting Samoan and Tongan paternal ancestry with Indigenous Ami populations of Taiwan as well as Melanesian lineages.
122. | Adam Auton et al. | European Journal of Human Genetics | 2010
Genome-wide analysis of roughly 3,200 Kosrae Islanders demonstrates founder effects followed by predominantly male-mediated European admixture during the historical period.
123. | Murray P. Cox et al. | Human Biology | 2007
A distinctive Polynesian Y-chromosome lineage reveals paternal population structure linking western, central, and eastern Polynesian interaction spheres.
124. | Víctor Acuña et al. | Human Biology | 2005
Genealogical and surname evidence from Rapa Nui shows that cultural marriage rules limited close inbreeding despite extreme geographic isolation.
125. | Matthew E. Hurles et al. | American Journal of Human Genetics | 2003
Y-chromosome evidence from Rapa Nui shows how nineteenth-century movements involving South Americans can complicate genetic attempts to infer prehistoric trans-Pacific contact.
126. | Alan R. Shmulewitz et al. | Human Genetics | 2001
Genome-wide linkage disequilibrium patterns in Palau provide evidence concerning bottlenecks, population size, and sex-biased gene flow in Remote Oceania.
127. | Vincent H. Stefan | American Journal of Physical Anthropology | 1999
Craniometric analysis of prehistoric Rapa Nui examines whether geographical and social divisions within the island created biologically distinguishable regional populations.
128. | X. Gao et al. | Human Immunology | 1992
HLA class II variation distinguishes Polynesian, Micronesian, and Javanese populations and demonstrates that modern Pacific immune-gene distributions cannot be explained by simple direct descent models.
129. | D. K. Bowden et al. | Proceedings of the National Academy of Sciences | 1991
Globin-gene variation in seven Micronesian island populations places Micronesians genetically between Southeast Asian and Melanesian populations and documents substantial regional gene flow.
130. | C. C. Plato et al. | Human Heredity | 1983
Dermatoglyphic variation among Chamorros of Guam supports closer biological affinities with Southeast Asian populations than with several neighboring Micronesian groups.
131. | J. M. MacQueen et al. | Tissue Antigens | 1979
HLA frequencies among Cook Islanders from Mauke provide an early population-genetic record of a relatively isolated Polynesian community.
132. | P. S. Crosier and R. Douglas | Tissue Antigens | 1976
HLA frequencies in Western Samoans document distinctive allele distributions in one of the earliest immunogenetic studies of a Polynesian population.
Adaptation, Natural Selection, and Pacific Phenotypes
133. | Kathryn Auckland et al. | Human Genetics and Genomics Advances | 2026
HLA variation across Papua New Guinea reflects both Austronesian gene flow and pathogen-driven selection, particularly in malaria-exposed lowland populations.
134. | Jun Ohashi et al. | Journal of Human Genetics | 2025
Whole-genome sequencing of Tongans finds evidence that selection affecting CREBRF and polygenic BMI-related variation operated more broadly during Polynesian expansion.
135. | Nicola L. Hawley et al. | American Journal of Physiology | 2025
Samoan infant microbiomes differ by CREBRF genotype at later infancy, providing a new avenue for studying gene-environment interactions in Polynesian metabolic biology.
136. | Ram González-Buenfil et al. | Genome Biology and Evolution | 2024
Genome-wide selection scans identify different adaptive signatures among Papua New Guinea highlanders and lowlanders, including candidate high-altitude and immune-response genes.
137. | Pratik Kumar et al. | BMC Genomics | 2023
Population genomic evidence identifies positive selection on low CR1 expression in Papua New Guinea, suggesting a distinctive regional adaptation to malaria.
138. | Jenna C. Carlson et al. | American Journal of Human Biology | 2022
Longitudinal Samoan data examine how CREBRF genotype interacts with age, sex, socioeconomic circumstances, and changing BMI through time.
139. | Ryosuke Kimura et al. | BMC Genetics | 2021
Tongan genomes provide evidence that Papuan-related admixture supplied variants later favored by natural selection in Polynesian populations.
140. | Yusuke Nakayama et al. | Scientific Reports | 2020
Genome-wide analysis of New Georgia Islanders identifies genomic regions where Asian- and Papuan-related ancestry appears to have contributed differently to local adaptation.
141. | Robert L. Hanson et al. | Diabetologia | 2019
CREBRF variants in Pacific Islanders from Guam and Saipan extend investigation of Polynesian-associated metabolic alleles into Micronesian populations.
142. | Tony R. Merriman et al. | Diabetologia | 2018
The Polynesian CREBRF variant is associated with higher BMI but lower type 2 diabetes risk among Māori and Pacific peoples in New Zealand.
143. | Ryan L. Minster et al. | Nature Genetics | 2016
A CREBRF variant common in Samoans has a large association with body mass index and shows evidence of positive selection, generating major interest in Polynesian metabolic evolution.
144. | Laurens Manning et al. | Genes and Immunity | 2016
A Toll-like receptor variant associated with severe malaria in Papua New Guinean children illustrates how infectious disease may shape immune variation in Melanesian populations.
145. | Warwick Anderson | Studies in History and Philosophy of Biological and Biomedical Sciences | 2014
A historical analysis examines how twentieth-century researchers defined and sampled supposedly isolated "Melanesian" populations in genetic epidemiology.
146. | Qin Cheng et al. | Malaria Journal | 2013
Parasite population genetics in Temotu Province, Solomon Islands, documents the distinctive disease environments that have exerted long-term selective pressures on human island populations.
147. | Michiko Taniguchi and Masato Kawabata | Immunogenetics | 2009
Killer-cell immunoglobulin-like receptor diversity in Solomon Islanders is examined for associations with malaria infection in a highly endemic environment.
148. | Akira Nakayama et al. | Journal of Human Genetics | 2009
Comparison of disease-associated genetic variants across Asia and Palau identifies unusual allele frequencies in the Palauan population resulting from drift, founder effects, selection, or admixture.
149. | Unhee Lim et al. | American Journal of Human Biology | 2009
Ancestry, body composition, lifestyle, and socioeconomic variables among Hawaiʻi residents demonstrate the difficulty of attributing Pacific Islander health differences to genetics alone.
150. | Christopher L. King et al. | Trends in Parasitology | 2003
Research on erythrocyte polymorphisms in Papua New Guinea reviews how malaria may have selected human red-blood-cell variants that reduce parasite invasion.
Research among Mianmin communities in Papua New Guinea shows how altitude alters exposure to malaria and filariasis, providing ecological context for local biological adaptation.
152. | Patrick V. Kirch | Medical Anthropology | 1992
Archaeological evidence is used to evaluate the historically influential "thrifty genotype" hypothesis proposed to explain metabolic disease prevalence in Pacific Island populations.
Pigmentation and Visible Biological Diversity
153. | National Center for Biotechnology Information | Genetic Testing Registry | 2026
NCBI summarizes Melanesian blond hair as a genetically distinctive pigmentation phenotype strongly associated with variation in TYRP1.
154. | National Center for Biotechnology Information | MedGen | 2026
The MedGen record documents the TYRP1-associated Melanesian blond-hair phenotype and its unusual occurrence alongside very dark skin pigmentation.
155. | Nina G. Jablonski | Pigment Cell & Melanoma Research | 2021
This evolutionary synthesis discusses extremely dark Melanesian and Papuan pigmentation as the product of UV exposure, population isolation, diet, admixture history, and multiple pigmentation genes.
156. | Nina G. Jablonski | American Journal of Biological Anthropology | 2021
A detailed evolutionary model traces how migration, UV radiation, culture, genetics, and Denisovan ancestry may have interacted in the pigmentation history of Melanesia and Australia.
157. | William J. Pavan and Richard A. Sturm | Annual Review of Genomics and Human Genetics | 2019
A broad review of skin and hair pigmentation genetics places unusual Oceanian traits within the wider evolution of human pigmentation.
158. | Heather L. Norton et al. | BMC Genetics | 2015
MC1R diversity among Northern Island Melanesians demonstrates that very dark pigmentation outside Africa did not necessarily evolve through the same genetic pathway.
159. | Heather L. Norton et al. | Oxford University Press | 2007
A regional synthesis documents extreme island-to-island differences in skin and hair pigmentation across Northern Island Melanesia and evaluates OCA2, ASIP, and other candidate pigmentation genes.
160. | D. Andrew Merriwether et al. | Oxford University Press | 2007
Mitochondrial DNA variation across Northern Island Melanesia reveals ancient population structure that provides essential demographic context for the region's striking phenotypic diversity.
Bioarchaeology and Biological Affinities
161. | Phillip Parton and Geoffrey Clark | Journal of Archaeological Science: Reports | 2022
Lidar and Bayesian modeling reconstruct a much larger pre-European population in Tonga and estimate severe demographic decline following sustained outside contact.
162. | Jennifer G. Kahn | Journal of Pacific Archaeology | 2018
Archaeological settlement patterns on Raiatea help reconstruct population expansion and social development within the Society Islands.
163. | Frédérique Valentin et al. | Proceedings of the National Academy of Sciences | 2016
Early Lapita skulls from Teouma, Vanuatu show stronger craniofacial affinities with Polynesian and East Asian populations than with recent Melanesian populations.
164. | Scott M. Fitzpatrick and Richard T. Callaghan | Antiquity | 2015
Computer voyaging models investigate possible source regions and sailing trajectories involved in the extraordinarily early long-distance settlement of the Mariana Islands.
165. | Joel D. Irish et al. | American Journal of Physical Anthropology | 2014
Dental traits across ancient East and Southeast Asian populations support major prehistoric population movements relevant to the ancestry of later Austronesian-speaking Pacific settlers.
166. | Ann H. Ross and Douglas H. Ubelaker | American Journal of Human Biology | 2012
Three-dimensional craniofacial analysis finds an overall Polynesian morphological pattern while also documenting substantial variation generated by migration and island isolation.
167. | Ethan E. Cochrane et al. | Journal of Pacific Archaeology | 2011
Archaeological evidence from southwest Fiji identifies a culturally and spatially structured colonizing population rather than a single homogeneous Lapita community.
168. | R. Alexander Bentley et al. | American Antiquity | 2007
Strontium, oxygen, carbon, and elemental isotope evidence identifies both locally raised individuals and immigrants within the early Lapita cemetery at Teouma.
169. | Stuart Bedford et al. | Antiquity | 2006
Discovery of the Teouma cemetery created an unprecedented opportunity to investigate the biology and origins of the first known settlers of Remote Oceania.
170. | Geoffrey Clark and Atholl Anderson | Archaeology in Oceania | 2001
Settlement evidence from Fiji suggests that initial colonization occurred in stages and differed substantially between western Fiji and the Lau Islands.
171. | Christophe Sand | Archaeology in Oceania | 2001
Archaeological evidence from New Caledonia demonstrates regional diversification within the Lapita Cultural Complex after initial settlement.
172. | Geoffrey Clark et al. | Archaeology in Oceania | 2001
Excavation of the Votua Lapita site in Fiji provides evidence for the material culture and subsistence strategies of an early Remote Oceanian colonizing community.
173. | Tsunehiko Hanihara | Japan Review | 1993
Dental traits across Polynesia, Micronesia, Melanesia, and Asia identify a relatively coherent Polynesian pattern and support biological connections with Southeast Asia.
174. | H. Ishida and Y. Dodo | American Journal of Physical Anthropology | 1993
Nonmetric cranial traits among Hawaiians and Chamorros reveal biological affinities with East Asian populations while showing differences between Hawaiian and Micronesian samples.
175. | Tsunehiko Hanihara | American Journal of Physical Anthropology | 1993
Craniofacial measurements from Asia, Australia, Melanesia, Micronesia, and Polynesia investigate the deeper biological relationships among Pacific populations.
176. | K. Kawamoto | Aichi Gakuin Dental Science | 1989
Dental morphology among Rarotonga, Mangaia, Pukapuka, and other Cook Islanders reveals measurable inter-island biological differences within Polynesia.
177. | Chris Gosden et al. | Antiquity | 1989
Bismarck Archipelago Lapita sites are evaluated in relation to competing theories about the cultural and biological origins of later Polynesian populations.
