Menu
mtDNA Haplogroup • Maternal Lineage

ND1B2

mtDNA Haplogroup ND1B2

~16,000 years ago
East / Northeast Asia
0 subclades
Scroll to explore
Chapter I

The Story

The journey of mtDNA haplogroup ND1B2

Origins and Evolution

mtDNA haplogroup ND1B2 is a subclade of ND1B within the broader ND1 lineage. Based on the phylogenetic position beneath ND1B (itself rooted in East–Northeast Asia) and the pattern of downstream variation, ND1B2 most likely diversified during the Late Pleistocene to early Holocene (post-Last Glacial Maximum) as populations occupying northeastern Eurasia underwent localized differentiation and postglacial expansion. The lineage reflects maternal continuity in parts of Siberia, the Amur region, northern Japan, and adjacent coastal zones where ND1B and related D/ND1 lineages are common.

Because the observed dataset for ND1B2 is limited (reported in a small number of modern samples and two ancient individuals), its internal phylogeny is shallow compared with older pan-Eurasian mtDNA haplogroups; this pattern is consistent with a regional founder effect, episodes of genetic drift in hunter-gatherer groups, and localized demographic events during the Holocene.

Subclades (if applicable)

At present, ND1B2 appears to have few well-differentiated downstream subclades in published datasets. Available sequence diversity suggests short branch lengths, indicating a relatively recent split from ND1B and limited subsequent diversification, although additional sampling (especially full mitogenomes from Siberia, the Amur region, northern Japan and coastal forager populations) could reveal finer substructure. The paucity of deeply divergent subclades points to demographic processes such as founder effects, small effective population sizes, and localized continuity rather than broad continent-wide expansion.

Geographical Distribution

ND1B2 shows a concentrated northeast Asian distribution with detectable presence in several population contexts:

  • Northeast Asia and Siberia: Most detections are in Siberian and Tungusic/Mongolic-affiliated groups and other communities of the Amur–Okhotsk region, reflecting long-term regional continuity.
  • Northern Japan and Jomon-descended groups: ND1B2 or closely related ND1B variants are occasionally found among Ainu and other populations with partial Jomon ancestry, consistent with coastal forager connections.
  • Mainland East Asia: Low to moderate, localized occurrences among Han Chinese, Japanese and Koreans likely reflect later admixture and gene flow from northeastern sources.
  • Central and Southeast Asia: Sporadic low-frequency occurrences are best interpreted as the product of historic east–west and coastal dispersals or drift.

The haplogroup has been identified in two archaeological samples in available databases, tying it to Holocene contexts in northeastern Eurasia and supporting its role in late Pleistocene–Holocene regional population structure.

Historical and Cultural Significance

ND1B2 is primarily informative for reconstructing regional maternal continuity rather than representing a broad demographic event. It helps clarify links among:

  • Paleolithic and early Holocene Siberian populations, whose maternal lineages contributed to later northern Eurasian genetic structure;
  • Jomon-related and northern Japanese groups, where ND1B and related lineages mark continuity of coastal-forager ancestries;
  • Subarctic and coastal forager communities, where founder effects and drift often elevated certain mtDNA variants.

Because the lineage is relatively rare in large-scale modern datasets, ND1B2 is most valuable in archaeogenetic and regional population studies that aim to trace maternal line continuity, postglacial recolonization routes, and local demographic events rather than continent-spanning migrations.

Conclusion

mtDNA ND1B2 is a regionally focused maternal lineage of northeastern Eurasia that arose after the diversification of ND1B. Its limited diversity and low-to-moderate frequency distribution point to localized demographic histories — founder effects, drift, and continuity among coastal and inland foraging communities — and make it a useful marker for studies of Late Pleistocene to Holocene population dynamics in Siberia, the Amur region, and northern Japan. Expanded mitogenome sampling in understudied northeast Asian groups and additional ancient DNA finds will be essential to refine its internal branching and timing.

Key Points

  • Origins and Evolution
  • Subclades (if applicable)
  • Geographical Distribution
  • Historical and Cultural Significance
  • Conclusion
Chapter II

Tree & Relationships

Phylogenetic context and subclades

Evolution Path

This haplogroup's evolutionary journey from its earliest ancestor to the present.

Steps Haplogroup Age Estimate Archaeology Era Time Passed Immediate Descendants Tested Modern Descendants Ancient Connections
1 ND1B2 Current ~16,000 years ago 🏹 Mesolithic 16,000 years 0 0 0
2 ND1B ~28,000 years ago 🦴 Paleolithic 28,000 years 2 0 0
3 ND1 ~42,000 years ago 🦴 Paleolithic 42,000 years 2 0 0
4 ND ~45,000 years ago 🦴 Paleolithic 45,000 years 1 0 12
5 N ~60,000 years ago 🦴 Paleolithic 60,000 years 15 15,452 13
6 L3 ~70,000 years ago 🦴 Paleolithic 70,000 years 11 17,621 6
7 L ~160,000 years ago 🦴 Paleolithic 160,000 years 7 18,987 5

Subclades (0)

Terminal branch - no known subclades

Siblings (1)

Other branches from the same parent haplogroup

Chapter III

Where in the World

Geographic distribution and modern presence

Place of Origin

East / Northeast Asia

Modern Distribution

The populations where mtDNA haplogroup ND1B2 is found include:

  1. East Asian populations (Han Chinese, Japanese, Koreans)
  2. Northeast Asian and Siberian groups (Yakut, Evenks, various Tungusic and Mongolic peoples)
  3. Ainu and Jomon-descended populations of northern Japan
  4. Indigenous peoples of Arctic and subarctic regions (where related D/ND1 lineages occur)
  5. Tibetan and Himalayan populations (low to moderate, localized occurrences)
  6. Central Asian minorities (low frequencies reflecting east–west contact)
  7. Coastal East Asian forager/seafaring groups (enrichment of specific downstream variants)
  8. Ancient Paleolithic and early Holocene remains from Siberia and northeastern Eurasia (archaeogenetic contexts)
  9. Small, localized occurrences in parts of Southeast Asia (downstream dispersals or genetic drift)
  10. Sporadic / low-frequency detections in broader East Eurasian datasets (reflecting historic gene flow and sampling variance)
CHAPTER IV

When in Time

Your haplogroup in the context of human history

~20k years ago

Last Glacial Maximum

Peak of the last ice age, populations isolated

~16k years ago

Haplogroup ND1B2

Your mtDNA haplogroup emerged in East / Northeast Asia

East / Northeast Asia
~10k years ago

Neolithic Revolution

Agriculture begins, settled communities form

~5k years ago

Bronze Age

Metalworking, writing, and early civilizations

~3k years ago

Iron Age

Iron tools, expanded trade networks

~2k years ago

Classical Antiquity

Greek and Roman civilizations flourish

Present

Present Day

Modern era

Your Haplogroup
Historical Era
Chapter IV-B

Linked Cultures

Ancient cultures associated with mtDNA haplogroup ND1B2

Cultural Heritage

These ancient cultures have been linked to haplogroup ND1B2 based on matching ancient DNA samples from archaeological excavations. The presence of this haplogroup in these cultures provides insights into the migrations and population movements of populations carrying this haplogroup.

Altai Neanderthal Bohemian Hunter-Gatherer Chagyrskaya Les Cottes Mezmaiskaya Paleolithic Cultures Peștera cu Oase
Culture assignments are based on archaeological context of ancient DNA samples and may represent regional associations during specific time periods.
Chapter V

Sample Catalog

Top 50 ancient DNA samples directly related to haplogroup ND1B2 or parent clades

50 / 50 samples
Portrait Sample Country Era Date Culture mtDNA Match
Portrait of ancient individual C391 from China, dated 1 CE - 400 CE
C391
China Historical Period Hetian, Xinjiang, China 1 CE - 400 CE Hetian Culture N Direct
Portrait of ancient individual ZLNR-1 from China, dated 81 CE - 236 CE
ZLNR-1
China Iron Age China 81 CE - 236 CE Chinese Iron Age N9a9 Direct
Portrait of ancient individual ZLNR-1 from China, dated 81 CE - 236 CE
ZLNR-1
China Iron Age China 81 CE - 236 CE N9a9 Direct
Portrait of ancient individual I16584 from Turkey, dated 100 BCE - 200 CE
I16584
Turkey Roman Period 2 Turkey 100 BCE - 200 CE Middle Roman Anatolia N1a1b1 Direct
Portrait of ancient individual PCA0480 from Poland, dated 100 CE - 300 CE
PCA0480
Poland Wielbark Culture 100 CE - 300 CE Wielbark N1b1b Direct
Portrait of ancient individual DA39 from Mongolia, dated 150 BCE - 125 CE
DA39
Mongolia Xiongnu Period Mongolia 150 BCE - 125 CE Xiongnu Culture N9a2'4'5'11 Direct
Portrait of ancient individual DA39 from Mongolia, dated 150 BCE - 125 CE
DA39
Mongolia The Xiongnu Empire 150 BCE - 125 CE N9a2'4'5'11 Direct
Portrait of ancient individual SFI-11 from Lebanon, dated 151 BCE - 62 CE
SFI-11
Lebanon Early Roman Lebanon 151 BCE - 62 CE Early Roman Lebanese N1b1 Direct
Portrait of ancient individual SFI-11 from Lebanon, dated 151 BCE - 62 CE
SFI-11
Lebanon Roman Levant 151 BCE - 62 CE N1b1 Direct
Portrait of ancient individual IMA008 from Russia, dated 200 BCE - 100 CE
IMA008
Russia Xiongnu Period Buryatia, Russia 200 BCE - 100 CE Xiongnu Buryat N9a Direct
Chapter VI

Carrier Distribution Map

Geographic distribution of 100 ancient DNA samples carrying haplogroup ND1B2

Time Period Filter
All Time Periods
Showing all samples
Each marker represents an ancient individual
Chapter VII

Temporal Distribution

Distribution of carriers across archaeological periods

Chapter VIII

Geographic Distribution

Distribution of carriers by country of origin

Chapter IX

Country × Era Distribution

Cross-tabulation of carrier countries and archaeological periods

Data

Data & Provenance

Source information and data quality

Last Updated 2026-02-16
Confidence Score 50/100
Coverage Low
Data Source

We use the latest phylotree for MTDNA haplogroup classification and data.