A man buried in Hungary in the Iron Age era

The Iron Age Scythian culture, particularly in the context of the region that is modern-day Hungary, represents a fascinating intersection of nomadic lifestyle, advanced metallurgy, and complex social structures. The Scythians were a group of Iranian-speaking nomadic peoples primarily known for their domination of the Eurasian steppes from around the 9th century BCE to the 3rd century BCE. Their influence extended into parts of Eastern Europe, including what is now Hungary, particularly during the early Iron Age.
Geographic and Temporal Context
During the Iron Age, the Scythian culture spanned a vast area from the Black Sea region across the steppes of what is today Ukraine, southern Russia, and into Central Europe, including parts of Hungary. They thrived from approximately the 7th century BCE to the 3rd century BCE. In Hungary, the influence of the Scythians is evident primarily in the form of archaeological findings that indicate a mix of local traditions and Scythian influences.
Lifestyle and Economy
The Scythians were renowned for their horse-riding skills and nomadic lifestyle. Their economy was largely based on horse breeding, herding, and raiding. They were skilled warriors, often depicted as archers on horseback, which gave them a significant tactical advantage in warfare. This mastery of cavalry tactics contributed to their ability to control large swathes of territory and maintain trade networks across their domain.
In Hungary, the Scythian presence saw the introduction of certain pastoral practices and the development of trade routes that would contribute to the region's economic growth. They likely engaged in trade with neighboring cultures, exchanging goods such as furs, textiles, and metalwork.
Art and Material Culture
The Scythians are perhaps best known for their art, which is characterized by a distinctive 'animal style' that featured intricate depictions of real and mythical animals. These designs adorned objects ranging from weaponry to everyday items, suggesting a cultural emphasis on the symbolic and spiritual significance of animals.
In the Hungarian context, Scythian artifacts include weapons like swords and arrowheads, as well as decorative items such as jewelry made from gold and other metals. These items not only highlight their metalworking skills but also suggest a society that had defined social stratification, where items of luxury were used to denote status.
Burial Practices and Social Structure
Scythian burial practices provide considerable insight into their social structure and beliefs. They constructed monumental kurgans, or burial mounds, which have been found across their territory, including the Carpathian Basin. These mounds often contained the remains of elites, along with goods to be used in the afterlife, such as horses, weapons, and ornaments, indicating a belief in an afterlife and the importance of status even after death.
The presence of such burial sites in Hungary suggests a society that, while nomadic, had elements of a complex social hierarchy. The significant investment in these burials implies a society where leaders wielded substantial power and influence.
Interaction with Other Cultures
The Scythians in Hungary were not isolated; they interacted with neighboring cultures such as the Thracians, Celts, and Dacians. These interactions were likely both hostile and cooperative, involving warfare, trade, and cultural exchange. The dissemination of Scythian art and technology throughout the region highlights their influential role in the cultural dynamics of Iron Age Europe.
Conclusion
The Scythian culture in Hungary during the Iron Age presents a picture of a dynamic and complex society that thrived on its adaptability and martial prowess. Their influence on the region is evident in the archaeological record, showcasing a culture that was as much about mobility and warfare as it was about trade and artistic expression. The Scythians left an indelible mark on the historical landscape of Europe, laying down cultural foundations that would influence later European civilizations.
Ancient genetic admixture analysis compares the DNA profile of this individual (I20747) with present-day reference populations. These results show what percentage of the individual's genetic makeup resembles ancient populations from different geographic regions.
Modern genetic admixture analysis compares the DNA profile of this individual (I20747) with present-day reference populations. These results show what percentage of the individual's genetic makeup resembles modern populations from different geographic regions.
These results complement the ancient ancestry components shown in the previous section, offering a different perspective on the individual's genetic profile by comparing it with modern reference populations rather than prehistoric ancestral groups.
The G25 coordinates for the sample I20747 are as follows. You can analyze its admixture using G25 Studio.
I20747,0.12013034,0.09673942,0.05234592,0.0426516,0.01835166,0.01419476,0.00260328,6.792E-05,-0.00607802,-0.012521,-0.00175722,0.00266136,-0.00621192,-0.00953564,0.01250188,-0.00936408,-0.01718848,0.00050596,-0.00323816,-0.00613428,0.00358332,0.00291664,-0.007451,0.01228748,-0.00261585
A minimally destructive protocol for DNA extraction from ancient teeth
Ancient DNA sampling methods-although optimized for efficient DNA extraction-are destructive, relying on drilling or cutting and powdering (parts of) bones and teeth. As the field of ancient DNA has grown, so have concerns about the impact of destructive sampling of the skeletal remains from which ancient DNA is obtained. Due to a particularly high concentration of endogenous DNA, the cementum of tooth roots is often targeted for ancient DNA sampling, but destructive sampling methods of the cementum often result in the loss of at least one entire root. Here, we present a minimally destructive method for extracting ancient DNA from dental cementum present on the surface of tooth roots. This method does not require destructive drilling or grinding, and, following extraction, the tooth remains safe to handle and suitable for most morphological studies, as well as other biochemical studies, such as radiocarbon dating. We extracted and sequenced ancient DNA from 30 teeth (and nine corresponding petrous bones) using this minimally destructive extraction method in addition to a typical tooth sampling method. We find that the minimally destructive method can provide ancient DNA that is of comparable quality to extracts produced from teeth that have undergone destructive sampling processes. Further, we find that a rigorous cleaning of the tooth surface combining diluted bleach and UV light irradiation seems sufficient to minimize external contaminants usually removed through the physical removal of a superficial layer when sampling through regular powdering methods.