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Y-DNA Haplogroup • Paternal Lineage

R1B1A1B1A1A2B1C1

Y-DNA Haplogroup R1B1A1B1A1A2B1C1

~14,000 years ago
West Eurasia
2 subclades
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Chapter I

The Story

The journey of Y-DNA haplogroup R1B1A1B1A1A2B1C1

Origins and Evolution

Y-DNA haplogroup R1b1a1b1a1a2b1c is a very specific downstream branch within the broad R1b paternal lineage, one of the most common and historically important Y-chromosome lineages in western Eurasia. Based on its placement in the tree and the distribution pattern provided for its parent clade, this haplogroup most likely arose in West Eurasia during the Late Upper Paleolithic or early Holocene, around 14 thousand years ago. That timing is consistent with the post-glacial demographic reshaping of western Eurasian populations and the subsequent branching of R1b lineages into multiple regional subclades.

Because this is an intermediate and relatively rare branch, its modern distribution is not expected to reflect one simple origin-and-spread event. Instead, it likely represents a lineage that persisted in one or more refugial or semi-isolated regional populations, then experienced founder effects, genetic drift, and local expansions in different areas over time. This pattern is common for deep R1b subclades that are found at low frequency across broad regions.

Subclades

As an intermediate clade, R1b1a1b1a1a2b1c helps connect its parent lineage to more derived branches. The exact downstream structure may be incompletely resolved in public summaries, but in general this kind of node often contains a small number of geographically informative terminal branches. These subclades may show stronger localization in the British Isles, western Europe, the Balkans, Anatolia, the Caucasus, or adjacent regions depending on local demographic history.

Geographical Distribution

This haplogroup is best described as patchy and low-frequency, with occurrences reported across multiple parts of West Eurasia and nearby regions. The spread includes:

  • Irish and British populations, where R1b-related lineages are often frequent overall, though this specific downstream branch remains rare
  • French, Iberian, and Low Countries populations, consistent with the broad western European range of many R1b derivatives
  • Italian and Balkan populations, reflecting southeastern European continuity and historical mobility
  • Caucasus and Anatolian populations, which can preserve deep West Eurasian paternal lineages through complex prehistoric and historic admixture
  • Levantine and North African populations, likely reflecting long-distance gene flow and regional continuity around the Mediterranean
  • Some Central Asian and steppe-related populations, where western Eurasian lineages can appear through prehistoric mobility, historic contact, or later admixture

Overall, the distribution suggests multiple local histories rather than a single population replacement event.

Historical and Cultural Significance

The broader R1b macro-lineage is strongly associated with major demographic processes in Europe and western Eurasia, including Neolithic, Chalcolithic, and Bronze Age population changes. However, for this specific rare subclade, direct attribution to one archaeological culture is difficult. It is more prudent to treat associations as contextual rather than definitive.

The most plausible cultural associations are with prehistoric western Eurasian populations participating in post-glacial recolonization, Neolithic farmer networks, and later Bronze Age and Iron Age mobility across Europe and the Near East. In western Europe, broader R1b lineages are often discussed in connection with Bell Beaker and Bronze Age expansions, but that relationship is better established for certain major R1b branches than for this deeply nested rare clade. In the eastern Mediterranean and southwest Asia, continuity with Anatolian, Caucasian, and Levantine demographic histories may also have contributed to its persistence.

Population-Genetic Interpretation

From a population genetics perspective, the key feature of R1b1a1b1a1a2b1c is its low-frequency, high-geographic-spread profile. Such lineages often survive because of:

  • Founder effects in small ancestral groups
  • Genetic drift in isolated or semi-isolated populations
  • Local continuity across multiple historical periods
  • Admixture between neighboring populations carrying different R1b branches

This means that the haplogroup should not be interpreted as a marker of a single ethnicity or culture. Rather, it is a diagnostic lineage for tracing paternal descent through complex layers of West Eurasian prehistory and history.

Conclusion

R1b1a1b1a1a2b1c is a rare but informative subclade of the broad western Eurasian R1b tree. Its scattered presence across western Europe, the eastern Mediterranean, and adjacent regions points to an ancient origin in West Eurasia followed by long-term regional persistence, drift, and repeated episodes of mobility and admixture.

Key Points

  • Origins and Evolution
  • Subclades
  • Geographical Distribution
  • Historical and Cultural Significance
  • Population-Genetic Interpretation
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 R1B1A1B1A1A2B1C1 Current ~14,000 years ago 🏹 Mesolithic 14,000 years 2 1 0
2 R1B1A1B1A1A2B1C ~14,000 years ago 🏹 Mesolithic 14,000 years 2 3 1
3 R1B1A1B1A1A2B1 ~14,000 years ago 🏹 Mesolithic 14,000 years 2 166 0
4 R1B1A1B1A1A2B ~14,000 years ago 🏹 Mesolithic 14,000 years 3 327 12
5 R1B1A1B1A1A2 ~14,000 years ago 🏹 Mesolithic 14,000 years 6 916 0
6 R1B1A1B1A1A ~14,000 years ago 🏹 Mesolithic 14,000 years 4 1,254 70
7 R1B1A1B1A1 ~14,000 years ago 🏹 Mesolithic 14,000 years 1 1,292 0
8 R1B1A1B1A ~14,000 years ago 🏹 Mesolithic 14,000 years 2 1,295 15
9 R1B1A1B1 ~18,000 years ago 🏹 Mesolithic 18,000 years 2 1,529 0
10 R1B1A1B ~18,000 years ago 🏹 Mesolithic 18,000 years 2 1,655 31
11 R1B1A1 ~18,000 years ago 🏹 Mesolithic 18,000 years 2 1,657 0
12 R1B1A ~18,000 years ago 🏹 Mesolithic 18,000 years 2 3,825 39
13 R1B1 ~18,000 years ago 🏹 Mesolithic 18,000 years 2 3,967 0
14 R1b ~20,000 years ago 🏹 Mesolithic 20,000 years 2 4,036 126

Siblings (1)

Other branches from the same parent haplogroup

Chapter III

Where in the World

Geographic distribution and modern presence

Place of Origin

West Eurasia

Modern Distribution

The populations where Y-DNA haplogroup R1b1a1b1a1a2b1c is found include:

  1. Irish and British populations
  2. French, Iberian, and Low Countries populations
  3. Italian and Balkan populations
  4. Caucasus and Anatolian populations
  5. Levantine and North African populations
  6. Some Central Asian and steppe-related populations

Regional Presence

Western Europe High
Northern Europe (British Isles) High
Southwestern Europe (Atlantic Iberia) Low
North America (Atlantic Canada, USA) Low
Oceania (Australia) Low
Southern Europe Low
Eastern Europe Low
Western Asia Low
North Africa Low
Central Asia Low
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 R1B1A1B1A1A2B1C1

Your Y-DNA haplogroup emerged in West Eurasia

West Eurasia
~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 Y-DNA haplogroup R1B1A1B1A1A2B1C1

Cultural Heritage

These ancient cultures have been linked to haplogroup R1B1A1B1A1A2B1C1 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.

Bell Beaker British Iron Age British Late Iron Age East Yorkshire Iron Age-Roman La Tene Culture Late Iron Age British Middle Iron Age British Scottish Bronze Age Scottish Iron Age Viking Viking Denmark
Culture assignments are based on archaeological context of ancient DNA samples and may represent regional associations during specific time periods.
Chapter V

Sample Catalog

1 direct carrier and 4 subclade carriers of haplogroup R1B1A1B1A1A2B1C1

5 / 5 samples
Portrait Sample Country Era Date Culture Y-DNA Match
Portrait of ancient individual VK138 from Denmark, dated 800 CE - 1100 CE
VK138
Denmark Viking Age Denmark 800 CE - 1100 CE Viking Denmark R1b1a1b1a1a2b1c1 Direct
Portrait of ancient individual I19873 from United Kingdom, dated 400 BCE - 200 BCE
I19873
United Kingdom Middle Iron Age England 400 BCE - 200 BCE Middle Iron Age British R1b1a1b1a1a2b1c1b Downstream
Portrait of ancient individual I20589 from United Kingdom, dated 400 BCE - 200 BCE
I20589
United Kingdom Middle Iron Age England 400 BCE - 200 BCE Middle Iron Age British R1b1a1b1a1a2b1c1a1a1 Downstream
Portrait of ancient individual I16440 from United Kingdom, dated 800 BCE - 43 CE
I16440
United Kingdom Iron Age England 800 BCE - 43 CE British Iron Age R1b1a1b1a1a2b1c1b Downstream
Portrait of ancient individual VK40 from Sweden, dated 900 CE - 1200 CE
VK40
Sweden Viking Age Sweden 900 CE - 1200 CE Viking R1b1a1b1a1a2b1c1b Downstream
Chapter VI

Carrier Distribution Map

Geographic distribution of 5 ancient DNA samples (direct and subclade carriers of R1B1A1B1A1A2B1C1)

Direct carrier 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 2026-06-17
Confidence Score 50/100
Coverage Low
Data Source

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