Liao civilization

The Liao Civilization or Liao River Civilization (Chinese: 遼河文明), named after the Liao River, is an umbrella term for several ancient civilizations that originated in the Liao basin. It is thought to have first formed in 6,200 BC. This civilization was discovered when Ryuzo Torii, a Japanese archaeologist, discovered the Hongshan culture in 1908.

Culture

Large-scale pit-type houses, graves and temples with altars were excavated. It is thought that the Liao civilization may have been "a country" of the prehistoric age.[1]

A model of the feng shui were excavated from remains of the Hongshan culture.[2] Ball products such as the jade which made the precursors of Chinese dragon were discovered in remains of Xinglongwa culture. In addition, the oldest pit-comb ware and Liaoning bronze dagger (biwa form bronze sword) were excavated.

It was contemporaneous with the ancient Yellow River civilization and ancient Yangtze civilization. Northeast China (Dongbei) was an agricultural society during the Neolithic and Bronze ages, which cultivated grains such as millets, buckwheat, echinochloa, soy beans, and rice. According to Sarah M. Nelson, the native population gradually started producing bronze. Local jade and bronze designs, different from those of the contemporary Central Plains, contributed considerably to the culture of Shang dynasty China. It is possible that an early form of writing, related to the oracle bone script of the Shang, had been developed in the region.[3]

Environment

This region was thought to have been desert for the past 1 million years. However, a 2015 study found that the region once featured rich aquatic resources and deep lakes and forests that existed from 12,000 years ago to 4,000 years ago. It was changed into desert by climate change which began approximately 4,200 years ago.[4] Therefore, people of the Hongshan culture may have emigrated to the Yellow River in the south approximately 4,000 years ago and later influenced Chinese culture.[5]

People

The most ancient populations of the West Liao River valley exhibited a high frequency of Haplogroup N-M231. A study by Yinqiu Cui et al. from 2013 found that 63% of the combined samples from various Hongshan archeological sites belonged to the subclade N1 (xN1a, N1c) of the paternal haplogroup N-M231 and calculated N to have been the predominant haplogroup in the region in the Neolithic period at 89%, its share gradually declining over time. Today, this haplogroup is most common in Finland, the Baltic states, and among northern Siberian ethnicities, such as the Yakuts. Individuals at the Liao civilization were assigned into five different Y sub-haplogroups using diagnostic single nucleotide polymorphisms, namely N1 (xN1a, N1c), N1c, C/C3e, O3a (O3a3) and O3a3c. Ancient samples of the Jinggouzi site situated to the northwest of the Liao civilization were assigned to Haplogroup C-M217. Northern nomads from Jinggouzi might have entered the West Liao River valley, but these Jinggouzi people (closely related to Xianbei and Oroqen)[6] were culturally and genetically distinct from the original people of the West Liao River valley, who carried the characteristic Haplogroup N-M231 lineage. The Haplogroup O-M122 that was observed among Liao individuals is believed to have spread to the Liao civilization from the Yellow River civilization in the southwest. This lineage is most commonly associated with speakers of Sino-Tibetan languages (such as the Han Chinese).[7] However, its frequency only began to rise in the Bronze Age, and the ancient Liao River population was different from the Yellow River population. This means the Liao civilization was occupied by a diverse sequence of human cultures that were originally distinct from both the farming populations of the Yellow River and the nomads of the Eurasian steppe.[8] According to a 2024 study, the increase in haplogroups O2a2-M117 and N1a1-TAT during the Bronze Age is associated with migrations by Yellow River farmers and Eastern Eurasian steppe nomads into the West Liao River valley.[9]

A 2025 study found that Hongshan populations inherited genetic contributions from three main sources: Ancient Northeast Asians (ANA), Neolithic Yellow River farmers (NYR), and Shandong hunter-gatherers (Shandong_HG). The ANA-related ancestry likely came from the earlier local Zhaobaogou culture, while the NYR-related ancestry was associated with the Yangshao culture and may have been introduced indirectly by Middle Neolithic farmers from the Dawenkou culture migrating northward from Shandong. These Dawenkou-related farmers carried about 40% ancestry from an early Neolithic Shandong hunter-gatherer lineage and about 60% from a Yangshao-related lineage. Thus, the study’s authors argue that Hongshan populations can be modeled as a mixture of Dawenkou-related and ANA-related populations.[10] Another study modeled Hongshan population as a two-way admixture of Early Holocene southeastern Mongolian populations, who have more Yumin affinities, and coastal Shandong hunter-gatherers. The presence of haplogroup N1 is attributed to these southeastern Mongolian populations. Conversely, northern Mongolian populations received additional input from Ancient Paleosiberian-related and Amur-related sources. They also contributed to the genetic makeup of Early Neolithic Amur River and Middle Neolithic Haminmangha populations. By 5.7 ka BP, they mixed with southeastern Mongolian populations, who also received Yellow River-related and Hongshan-related input.[11]

The formation and development of the Lower Xiajiadian culture population was likely a complex process affected by admixture of ethnically different people. The Lower Xiajiadian culture of the West Liao River included people carrying haplogroups from northern Asia but there was genetic evidence of migration of farmers from the Central Plains (Zhongyuan). The climate of the West Liao River valley was warmer at the beginning of the Early Bronze Age, which may be one of the driving forces for the northward migration of the Central Plains farming population. An archaeological study showed that the painted potteries of the Lower Xiajiadian were influenced by the Erlitou culture. The people of the Dadianzi site of Inner Mongolia received the haplogroup O3 from the immigrants of the Central Plains, and a Lower Xiajiadian individual was identified to possess both the maternal lineage of D4 and paternal lineage of O3-M122. Due to a cooling climate, part of the Lower Xiajiadian culture population migrated to the south and influenced the Central Plains. Among the Yin Ruins relics of Shang Dynasty, artefacts with northern cultural influences have been identified.[12]

The Upper Xiajiadian culture and Bronze Age West Liao River farmers (WLR_BA) can be modeled as a mixture of Amur hunter-gatherers and Yellow River farmers, who immigrated to the region between the Middle and Late Neolithic. This particular ancestral lineage has been associated with Proto-Korean-speakers and present Koreans, Japanese and Manchus.[13][14][15] Subclades of paternal haplogroups O and C were common, with haplogroup N forming a smaller minority compared to the Lower Xiajiadian culture.[8] Overall, studies show long-term continuity between WLR_BA populations and modern Koreans, Manchus and Japanese.[16][17]

According to a 2020 study, WLR_BA populations could be modeled as having 21 ± 7% input from outlier WLR_BA_o populations, who are genetically indistinguishable from Amur River populations but are more related to succeeding Amur River populations (AR_Xianbei_IA) and modern Tungusic-speaking populations. Overall, they have less Yellow River affinities than WLR_MN, or Hongshan-related populations, and WLR_LN populations.[14] Other studies estimate the Yellow River ancestry of WLR_BA populations at 57.6%–61.1%[18] or 50%.[19] According to Qiu et al. (2026), WLR_BA can be modeled as a mixture of Longshan-related Yellow River populations (48.2%) and Ancient Northeast Asian-related populations (51.8%), who are represented by Early Neolithic Amur River-related populations. [20]

Several studies show that the Yellow River ancestry found in ancient West Liao River populations is closely related to middle Yellow River populations, who live in Henan and surrounding provinces.[14][21][22] Other studies show dual contributions from middle and lower Yellow River populations, with the latter originating from Shandong, especially for post-Late Neolithic West Liao River populations.[23] Ancient West Liao River populations also have close genetic affinities with modern Qiang people from Wenchuan.[23][24] According to a 2025 study, the "LSM_1" outlier from the Late Neolithic Shanxi-Shaanxi area was genetically the closest to WLR_MN populations.[25]

List of cultures

Various Neolithic cultures have been identified in the Xiliao River region. Broomcorn millet and foxtail millet were the main cereal crops, while pigs and dogs were the main domesticated animals found at Neolithic archaeological sites.[26]

Bronze Age cultures of the Xiliao River region are:[26]

See also

References

  1. ^ University of Pittsburgh, Pennsylvania: Regional Lifeways and Cultural Remains in the Northern Corridor: Chifeng International Collaborative Archaeological Research Project. Cited references: Drennan 1995; and Earle 1987, 1997.
  2. ^ Nelson, Sarah M.; Matson, Rachel A.; Roberts, Rachel M.; Rock, Chris; Stencel, Robert E. (2006). Archaeoastronomical Evidence for Wuism at the Hongshan Site of Niuheliang (Report). Archived from the original on 23 September 2006.
  3. ^ Nelson, Sarah Milledge (1995). The Archaeology of Northeast China: Beyond the Great Wall. London: Routledge. pp. 251–253.
  4. ^ Yang, Xiaoping; Scuderi, Louis A.; Wang, Xulong; Scuderi, Louis J.; Zhang, Deguo; Li, Hongwei; Forman, Steven; Xu, Qinghai; Wang, Ruichang; Huang, Weiwen; Yang, Shixia (20 January 2015). "Groundwater sapping as the cause of irreversible desertification of Hunshandake Sandy Lands, Inner Mongolia, northern China". Proceedings of the National Academy of Sciences. 112 (3): 702–706. Bibcode:2015PNAS..112..702Y. doi:10.1073/pnas.1418090112. PMC 4311860. PMID 25561539.
  5. ^ Saraceni, Jessica Esther (9 January 2015). "New Thoughts on the Impact of Climate Change in Neolithic China". Archaeology Magazine.
  6. ^ Wang, Haijing; Chen, Lu; Ge, Binwen; Zhang, Ye; Zhu, Hong; Zhou, Hui (August 2012). "Genetic Data Suggests that the Jinggouzi People are Associated with the Donghu, an Ancient Nomadic Group of North China". Human Biology. 84 (4): 365–378. doi:10.3378/027.084.0402. PMID 23249313.
  7. ^ Wang, Chuan-Chao; Yan, Shi; Qin, Zhen-Dong; Lu, Yan; Ding, Qi-Liang; Wei, Lan-Hai; Li, Shi-Lin; Yang, Ya-Jun; Jin, Li; Li, Hui (May 2013). "Late Neolithic expansion of ancient Chinese revealed by Y chromosome haplogroup O3a1c-002611". Journal of Systematics and Evolution. 51 (3): 280–286. Bibcode:2013JSyEv..51..280W. doi:10.1111/j.1759-6831.2012.00244.x.
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  9. ^ Wang, Zhiyong; Wang, Mengge; Hu, Liping; He, Guanglin; Nie, Shengjie (May 2024). "Evolutionary profiles and complex admixture landscape in East Asia: New insights from modern and ancient Y chromosome variation perspectives". Heliyon. 10 (9) e30067. Bibcode:2024Heliy..1030067W. doi:10.1016/j.heliyon.2024.e30067. PMC 11096704. PMID 38756579.
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  11. ^ Liu, Tianxiang; Zhao, Zhanhu; Guo, Mingjian; Bennett, E. Andrew; Cao, Peng; Zhuang, Lina; Dai, Qingyan; Zhang, Wenrui; Liu, Feng; Shi, Han; Song, Meiling; Wang, Tianyi; Bai, Fan; Ran, Jingkun; Ping, Wanjing; Zhang, Ganyu; Feng, Xiaotian; Fu, Qiaomei (November 2025). "The genetic history around the southeastern Mongolian Plateau traces Neolithic cultural diffusions in northern East Asia". The Innovation. 7 101186. doi:10.1016/j.xinn.2025.101186.
  12. ^ Li, Hongjie; Zhao, Xin; Zhao, Yongbin; Li, Chunxiang; Si, Dayong; Zhou, Hui; Cui, Yinqiu (December 2011). "Genetic characteristics and migration history of a bronze culture population in the West Liao-River valley revealed by ancient DNA". Journal of Human Genetics. 56 (12): 815–822. doi:10.1038/jhg.2011.102. PMID 21938002.
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  16. ^ Lee, Don-Nyeong; Jeon, Chae Lin; Kang, Jiwon; Burri, Marta; Krause, Johannes; Woo, Eun Jin; Jeong, Choongwon (2022). "Genomic detection of a secondary family burial in a single jar coffin in early Medieval Korea". American Journal of Biological Anthropology. 179 (4): 585–597. bioRxiv 10.1101/2022.05.09.491093. doi:10.1002/ajpa.24650. PMC 9827920.
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  18. ^ Zhu, Kong-Yang; Zhang, Zhi-Ping; Tao, Le; Jiang, Run-Qi; Huang, Wen-Bo; Sun, Yong-Gang; He, Hai-Feng; Fu, Hui-Lin; Ma, Hao; Yang, Xiao-Min; Guo, Jian-Xin; Jia, Xin; Wang, Chuan-Chao (July 2024). "The genetic diversity in the ancient human population of Upper Xiajiadian culture". Journal of Systematics and Evolution. 62 (4): 785–793. Bibcode:2024JSyEv..62..785Z. doi:10.1111/jse.13029.
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  26. ^ a b Ning, Chao; Li, Tianjiao; Wang, Ke; Zhang, Fan; Li, Tao; Wu, Xiyan; Gao, Shizhu; Zhang, Quanchao; Zhang, Hai; Hudson, Mark J.; Dong, Guanghui; Wu, Sihao; Fang, Yanming; Liu, Chen; Feng, Chunyan; Li, Wei; Han, Tao; Li, Ruo; Wei, Jian; Zhu, Yonggang; Zhou, Yawei; Wang, Chuan-Chao; Fan, Shengying; Xiong, Zenglong; Sun, Zhouyong; Ye, Maolin; Sun, Lei; Wu, Xiaohong; Liang, Fawei; Cao, Yanpeng; Wei, Xingtao; Zhu, Hong; Zhou, Hui; Krause, Johannes; Robbeets, Martine; Jeong, Choongwon; Cui, Yinqiu (June 2020). "Ancient genomes from northern China suggest links between subsistence changes and human migration". Nature Communications. 11 (1) 2700. Bibcode:2020NatCo..11.2700N. doi:10.1038/s41467-020-16557-2. PMC 7264253. PMID 32483115.