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mtDNA Haplogroup • Maternal Lineage

D4H1

mtDNA Haplogroup D4H1

~14,000 years ago
Northeast / East Asia
1 subclades
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Chapter I

The Story

The journey of mtDNA haplogroup D4H1

Origins and Evolution

mtDNA haplogroup D4H1 is a downstream lineage of D4H, itself a branch of the widespread East Asian haplogroup D4. D4 lineages expanded in East Asia during and after the Last Glacial Maximum; D4H appears to have diversified in Northeast/East Asia in the Late Pleistocene (~16 kya per parent estimates), and D4H1 represents a later, regional differentiation likely dating to the Late Pleistocene–Early Holocene (here estimated ~14 kya). The clade reflects local diversification within populations that recolonized or expanded within coastal and inland corridors of Northeast Asia and southern Siberia as climates warmed.

D4H1 is defined by coding-region variants nested within the diagnostic mutations of D4 and D4H. As with many mtDNA subclades, its geographic and temporal pattern is interpreted by combining modern population surveys with ancient DNA results from archaeological contexts in East Asia and Siberia.

Subclades (if applicable)

D4H1 may include further internal branches (for example D4H1a, D4H1b in published nomenclatures) that show finer-grained geographic structure. These sub-branches often indicate local founder events or expansions in particular regions (for example, some subclades enriched in the Japanese archipelago, others more frequent among Siberian or Mongolic-speaking groups). The exact internal structure and branching times continue to be refined as more complete mitochondrial genomes are sequenced from both modern populations and ancient remains.

Geographical Distribution

Modern distribution: D4H1 is principally detected in Northeast and East Asian populations at low-to-moderate frequency. It is reported among Han Chinese, Japanese (including connections to Jomon-derived lineages in some studies), Koreans, and multiple Siberian indigenous groups (e.g., Yakut/Sakha, Evenk, Yukaghir, and related peoples). Lower-frequency occurrences appear in some Mongolic and Turkic-speaking groups across Mongolia and parts of Central Asia, reflecting gene flow and population movements across the steppe.

Ancient DNA: Related D4H clades have been observed in Jomon-era and other early Holocene samples from Japan and coastal Northeast Asia, supporting a long-term presence of D4H-derived lineages in the region. While other branches of D4 (notably D4h3a) contributed to Native American maternal lineages, D4H1 itself is largely a Northeast Asian/Siberian lineage with limited evidence for direct presence in early American samples.

Historical and Cultural Significance

D4H1's pattern fits broadly with postglacial re-expansion scenarios in Northeast Asia — hunter-gatherer and early coastal populations that recolonized formerly glaciated or cold-steppe zones after the Last Glacial Maximum. In contexts such as the Jomon of Japan and early Holocene coastal Siberia, D4-derived lineages (including D4H subclades) appear among the mitochondrial diversity, indicating continuity or incorporation of these lineages into later regional populations.

Later cultural processes, including movements of pastoralist and agricultural groups across the Eurasian steppe and contacts during the historic period, likely redistributed D4H1 at low frequency into neighboring Central Asian and northern East Asian populations. Thus, D4H1 helps trace maternal ancestry related to ancient Northeast Asian hunter-gatherers, early Holocene coastal communities, and subsequent regional interactions.

Conclusion

D4H1 is a regional mtDNA lineage nested within the broader D4 family that documents Late Pleistocene–Holocene maternal diversification in Northeast Asia and adjacent Siberia. It is most informative for reconstructing postglacial population structure and local demographic events (founder effects, small-scale expansions, and regional continuity) in northeastern parts of Eurasia. Ongoing sequencing of complete mitochondrial genomes from both modern and ancient samples will continue to refine the internal branching and precise timings for D4H1 and its subclades.

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 D4H1 Current ~14,000 years ago 🏹 Mesolithic 14,000 years 1 1 0
2 D4H ~16,000 years ago 🏹 Mesolithic 16,000 years 3 19 4
3 D4 ~25,000 years ago 🦴 Paleolithic 25,000 years 12 276 19
4 D ~45,000 years ago 🦴 Paleolithic 45,000 years 7 398 137
5 M ~60,000 years ago 🦴 Paleolithic 60,000 years 11 1,200 41
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

Siblings (2)

Other branches from the same parent haplogroup

Chapter III

Where in the World

Geographic distribution and modern presence

Place of Origin

Northeast / East Asia

Modern Distribution

The populations where MTDNA haplogroup D4H1 is found include:

  1. Han Chinese and other East Asian populations (low-to-moderate frequency)
  2. Japanese populations, including continuity signals linked to Jomon-era lineages
  3. Korean populations (low-to-moderate frequency)
  4. Indigenous Siberian groups (Yakut/Sakha, Evenk, Yukaghir, Nganasan and related peoples)
  5. Mongolic and some Turkic-speaking populations in Mongolia and southern Siberia (lower frequency)
  6. Central Asian groups at low frequency due to east–west gene flow
  7. Sporadic low-frequency occurrences in parts of Northeast Oceania and regions affected by historic admixture
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

~14k years ago

Haplogroup D4H1

Your mtDNA haplogroup emerged in Northeast / East Asia

Northeast / East 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 D4H1

Cultural Heritage

These ancient cultures have been linked to haplogroup D4H1 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 Mesolithic Chinese Paleolithic Devil's Cave Culture Myanmar Bronze Age Shigou Culture
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 subclade carriers of haplogroup D4H1 (no exact D4H1 samples sequenced yet)

2 / 2 samples
Portrait Sample Country Era Date Culture mtDNA Match
Portrait of ancient individual CSP130 from China, dated 750 CE - 1950 CE
CSP130
China Tibetan Plateau Shigou Culture 750 CE - 1950 CE Shigou Culture D4h1c Downstream
Portrait of ancient individual I7238 from Myanmar, dated 1250 BCE - 750 BCE
I7238
Myanmar Bronze Age Myanmar 1250 BCE - 750 BCE Myanmar Bronze Age D4h1c Downstream
Chapter VI

Carrier Distribution Map

Geographic distribution of 2 ancient DNA samples (direct and subclade carriers of D4H1)

Subclade carrier
Time Period Filter
All Time Periods
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.