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mtDNA Haplogroup • Maternal Lineage

D4C1B1

mtDNA Haplogroup D4C1B1

~6,000 years ago
Northeast/East Asia
0 subclades
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Chapter I

The Story

The journey of mtDNA haplogroup D4C1B1

Origins and Evolution

mtDNA haplogroup D4C1B1 is a subclade nested under D4C1B (itself a branch of the broader D4 clade), and is best interpreted as a regional Holocene development within northeastern/eastern Asia. Given the parent clade D4C1B has been estimated to arise around ~9 kya, D4C1B1 plausibly diversified somewhat later during the mid- to late-Holocene (on the order of several thousand years after the parent), reflecting local maternal-lineage differentiation among postglacial hunter-gatherer populations and early Neolithic communities in northern East Asia.

Phylogenetically, D4C1B1 carries the defining mutations that place it beneath D4C1B while sharing the deeper D4 motif. Its emergence represents microevolutionary branching within a region characterized by demographic continuity after the Last Glacial Maximum and periodic gene flow with neighboring East Asian and Siberian groups.

Subclades

As a relatively narrowly defined terminal subclade, D4C1B1 currently has limited named downstream divisions reported in the literature and public sequence databases; many detections are characterized at the haplogroup level rather than by a resolved long internal phylogeny. Continued sampling—especially whole mitogenome sequencing from diverse northeastern Asian and ancient remains—may reveal further substructure within D4C1B1 and clarify its internal branching and geographic subpatterning.

Geographical Distribution

D4C1B1 is primarily a northeastern / eastern Asian lineage with the following geographic pattern:

  • Northeastern Asia and Siberia: Low-to-moderate frequencies among indigenous Siberian groups (e.g., Yakut, Evenk, Yukaghir, Nganasan) and several Tungusic- and Mongolic-speaking populations, consistent with long-term presence in high-latitude East Asia.
  • Northeast Asia (China, Korea, Japan): Occasional detections in regional subsets of Han Chinese and some Korean samples; low-frequency occurrences in Japanese datasets including lineages related to Jomon and Ainu-associated maternal ancestries.
  • Central Asia: Rare, scattered low-frequency occurrences among some Turkic- and Mongolic-speaking groups, likely reflecting historical east–west gene flow and recent admixture.
  • Wider East/Southeast Asia: Very low and sporadic occurrences attributable to recent movements and admixture.

Two archaeological samples in available aDNA databases have been assigned to D4C1B1 or to closely related lineages, supporting a Holocene antiquity and occasional preservation in ancient hunter-gatherer contexts.

Historical and Cultural Significance

D4C1B1 functions primarily as a regional maternal marker for postglacial continuity in northern East Asia rather than as a signature of large-scale migrations that reshaped entire continents. Its presence in indigenous Siberian groups and in Jomon/Ainu-related Japanese lineages points to continuity of maternal lineages through the Holocene among foraging and mixed subsistence populations of Northeast Asia.

Because D4C1B1 is relatively low frequency and geographically restricted, it is most useful in studies of fine-scale population structure, microevolution, and local demographic histories (for example, investigating continuity between ancient northern East Asian hunter-gatherers and modern indigenous groups), rather than as an indicator of major population replacements.

Conclusion

D4C1B1 is a downstream D4 lineage that reflects localized Holocene maternal diversification in northeastern/eastern Asia. It is most commonly found in Siberian and northeastern Asian populations at low to moderate frequencies, is attested in a small number of ancient samples, and serves as a useful marker for regional continuity and microevolutionary processes in northern East Asia. Broader mitogenome sequencing and ancient DNA sampling will refine its internal structure, age estimates, and precise prehistoric dynamics.

Key Points

  • Origins and Evolution
  • Subclades
  • 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 D4C1B1 Current ~6,000 years ago 🪨 Chalcolithic 6,500 years 0 0 0
2 D4C1B ~9,000 years ago 🌾 Neolithic 9,000 years 1 0 2
3 D4C1 ~12,000 years ago 🌾 Neolithic 12,000 years 1 0 0
4 D4C ~12,000 years ago 🌾 Neolithic 12,000 years 2 1 5
5 D4 ~25,000 years ago 🦴 Paleolithic 25,000 years 12 276 19
6 D ~45,000 years ago 🦴 Paleolithic 45,000 years 7 398 137
7 M ~60,000 years ago 🦴 Paleolithic 60,000 years 11 1,200 41
8 L3 ~70,000 years ago 🦴 Paleolithic 70,000 years 11 17,621 6
9 L ~160,000 years ago 🦴 Paleolithic 160,000 years 7 18,987 5

Subclades (0)

Terminal branch - no known subclades

Chapter III

Where in the World

Geographic distribution and modern presence

Place of Origin

Northeast/East Asia

Modern Distribution

The populations where MTDNA haplogroup D4C1B1 is found include:

  1. Indigenous Siberian groups (Yakut, Evenk, Yukaghir, Nganasan and related peoples)
  2. Tungusic- and Mongolic-speaking groups of northeastern Asia
  3. Northeast Asian regional subsets of Han Chinese and some Korean groups
  4. Japanese populations, including samples linked to Jomon and Ainu-related lineages
  5. Selected Central Asian populations (low-frequency occurrences among some Turkic and Mongolic groups)
  6. Ancient Early Holocene hunter-gatherer remains from northern East Asia (occasional detections)
  7. Low-frequency, scattered occurrences in broader East and Southeast Asian datasets due to historical admixture
CHAPTER IV

When in Time

Your haplogroup in the context of human history

~10k years ago

Neolithic Revolution

Agriculture begins, settled communities form

~6k years ago

Haplogroup D4C1B1

Your mtDNA haplogroup emerged in Northeast/East Asia

Northeast/East Asia
~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 D4C1B1

Cultural Heritage

These ancient cultures have been linked to haplogroup D4C1B1 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.

Chinese Neolithic Devil's Cave Culture Kalatasi Culture Medieval Mongolia
Culture assignments are based on archaeological context of ancient DNA samples and may represent regional associations during specific time periods.
Chapter V

Sample Catalog

2 direct carriers of haplogroup D4C1B1

2 / 2 samples
Portrait Sample Country Era Date Culture mtDNA Match
Portrait of ancient individual C1706 from China, dated 368 BCE - 173 BCE
C1706
China Iron Age Kalatasi, Xinjiang, China 368 BCE - 173 BCE Kalatasi Culture D4c1b1 Direct
Portrait of ancient individual ZAA005 from Mongolia, dated 1033 CE - 1158 CE
ZAA005
Mongolia Early to Late Medieval Mongolia 1033 CE - 1158 CE Medieval Mongolia D4c1b1 Direct
Chapter VI

Carrier Distribution Map

Geographic distribution of 2 ancient DNA samples (direct and subclade carriers of D4C1B1)

Direct carrier
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Showing all samples
Chapter VII

Temporal Distribution

Distribution of carriers across archaeological periods

Chapter VIII

Geographic Distribution

Distribution by country of origin (direct and subclade carriers shown by default)

Chapter IX

Country × Era Distribution

Cross-tabulation of carrier countries and archaeological periods (direct and subclade carriers shown by default)

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.