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mtDNA · 母亲 lineage

N9A9

mtDNA Haplogroup N9A9

一个家族分支的参考简介 。 共享haplogroups 无法建立家庭关系或文化认同 。

参考简介

部门背景

mtDNA 谱系分支 N9A9 的历史背景

Origins and Evolution

mtDNA haplogroup N9A9 is a subclade within the broader N9a maternal lineage, itself a branch of macro-haplogroup N. Given the position of N9A9 nested under N9a (which is estimated to have originated around the Late Pleistocene, ~20 kya), N9A9 most plausibly represents a Neolithic (early Holocene) diversification of maternal lineages in East Asia. The estimated time of origin for N9A9 (~8 kya) places it in the period of growing sedentary farming and post-glacial population expansions in East Asia, consistent with the pattern of many regional mtDNA subclades that emerged as human groups expanded and differentiated locally.

Phylogenetically, N9A9 is defined by private/derived control-region and coding-region mutations that distinguish it from other N9a sublineages. As with many fine-scale mtDNA branches, resolution and confidence in the internal structure of N9A9 depend on the availability of full mitogenomes; targeted whole-mitogenome sequencing and ancient DNA are the primary ways this clade's internal topology will be clarified further.

Subclades (if applicable)

Current haplogroup catalogs show that N9A9 is a relatively narrow, derived branch under N9a. Published datasets and public mtDNA tree builds indicate only a small number of recognized downstream branches or private-lineage clusters within N9A9, and some reported sequences may remain provisionally assigned until full mitogenome confirmation. In practice, N9A9 behaves as a localized maternal cluster with limited internal substructure visible in population samples so far; further sequencing of complete mitogenomes and inclusion of ancient samples could reveal additional subclades.

Geographical Distribution

N9A9 is principally an East Asian maternal lineage with its highest frequencies and greatest haplotype diversity within mainland East Asia and the Japanese archipelago. Modern occurrences are concentrated among:

  • Han Chinese regional groups (particularly eastern and northeastern provinces)
  • Japanese populations (mainland Honshu and some regional groups)
  • Korean populations across the peninsula

Lower-frequency occurrences extend into nearby regions such as Tibeto-Burman-speaking groups, Mongolic/Tungusic populations of Northeast Asia, parts of Southeast Asia (coastal and southern China-adjacent populations), and sporadically into Central Asian groups with East Asian admixture. The pattern — concentrated in East Asia with scattered peripheral occurrences — is consistent with a lineage that diversified regionally after the Last Glacial Maximum and experienced local expansions connected to Holocene demographic processes.

Historical and Cultural Significance

Although N9A9 itself is not associated exclusively with a single major archaeological culture, its inferred Neolithic origin and present-day distribution tie it to the broader story of Holocene population growth and the spread of farming in East Asia. Possible cultural associations include:

  • Participation in early Neolithic farmer expansions in the Yellow River and adjacent regions, where maternal lineages related to N9a show increased frequency in Neolithic and post-Neolithic samples.
  • Presence in later migratory and contact events, such as movements that contributed to the peopling of the Japanese archipelago in the Yayoi period and gene flow across the Korean peninsula.

Because N9A9 is relatively low-frequency and regionally concentrated, it is most informative when combined with other genetic markers (other mtDNA haplogroups, Y-DNA lineages and autosomal components) and archaeological context to reconstruct demographic history.

Conclusion

N9A9 represents a fine-scale, East Asian-derived maternal lineage that likely arose in the early Holocene and reflects local diversification during Neolithic and post-Neolithic population processes. Current knowledge is limited by the number of complete mitogenomes and ancient samples assigned to this clade; ongoing sequencing and ancient DNA studies in East Asia will improve resolution, clarify subclade structure, and better define its role in past demographic events.

关键点

  • Origins and Evolution
  • Subclades (if applicable)
  • Geographical Distribution
  • Historical and Cultural Significance
  • Conclusion
参考简介

树形关系( N)

phylgenetic 上下文和子拼写

进化路径

沿已记录的上级分支追溯至 N9A9。年代为估计值,可能随参考数据更新而调整。

步骤 单倍群 年龄估计 考古时代 时间流逝 直系后裔 被测试的现代后裔 古代连接
1 N9A9 当前 ~8,000 years ago Neolithic 8,000 years 0 0 0
2 N9a ~20,000 years ago Mesolithic 20,000 years 5 152 28
3 N9 ~25,000 years ago Paleolithic 25,000 years 3 178 0
4 N ~60,000 years ago Paleolithic 60,000 years 16 26,150 13
5 L3 ~70,000 years ago Paleolithic 70,000 years 7 30,162 6
6 L3'4 - - - 2 30,212 0
7 L3'4'6 - - - 2 30,216 0
8 L2'3'4'6 - - - 2 31,333 0
9 L2'3'4'5'6'7 - - - 2 31,349 0
10 L1'2'3'4'5'6'7 - - - 2 31,852 0
11 L ~160,000 years ago Paleolithic 160,000 years 2 32,236 5

Subclades (0)

终端分支 -没有记录的子密钥

Siblings (4)

来自同一父分支的分支( oplogroup)

参考简介

哪里是这个世界

地理分布和现代存在

记录来源

East Asia

现代发行

The populations where mtDNA haplogroup N9A9 is found include:

  1. Han Chinese (various regional groups in eastern and northeastern China)
  2. Japanese (mainland Honshu and some regional groups)
  3. Koreans (peninsular populations)
  4. Mongolic and Tungusic-speaking groups in Northeast Asia (low to moderate frequencies)
  5. Tibeto-Burman populations (scattered, lower frequency occurrences)
  6. Southeast Asian coastal populations (Vietnamese, Thai and southern Chinese coastal groups at low-moderate frequency)
  7. Central Asian groups with East Asian admixture (e.g., some Uyghur, Kazakh, southern Siberian groups at low frequency)
  8. Indigenous and mixed populations in Northeast China and the Amur region
  9. Holocene archaeological remains from East Asia (Neolithic and later contexts in regional ancient DNA studies)
  10. Diaspora and admixed populations outside Asia at very low frequencies due to historic and recent migration
历史背景

分枝穿越时间

大致历史时间范围内的估计形成情况:周期标志提供了背景,并不意味着与特定文化的联系。

  1. ~10k 年前

    新石器革命

    农业开始,定居社区形成

  2. ~8k 年前

    Haplogroup N9A9

    此 mtDNA 分支的形成时间为推定值,日期和地点仅作参考。

    这个分支
  3. ~5k 年前

    青铜时代

    金属加工、书写和早期文明

  4. ~3k 年前

    铁器时代

    铁工具,扩大贸易网络

  5. ~2.5k 年前

    古典时代

    希腊和罗马文明蓬勃发展

  6. 现

    现日

    现代时代

参考简介

考古学背景

已记录的 mtDNA 分支 N9A9 考古关联

有记录的协会

这些标签描述与 N9A9 相关的参考样本所处的考古背景。仅凭这种关联,无法判断所有携带者都属于某种文化或沿同一路线迁徙。

Avar Avar Culture Chinese Iron Age Early Avar Hunnic Period Magyar Commoner Culture Tagar Culture Tangbalesayi Culture Uvs Multi-Period Xiongnu Buryat
文化任务基于古代DNA样本的考古背景,可能代表特定时期的区域协会.
参考简介

样本目录

单倍群 N9A9 的直接携带者 13 名

10 显示 ^ 13 匹配样本

Portraits是AI生成的插图,样本标签和加入ID识别参考记录.

纵向 样本 国家 大纪元 日期 文化 mtDNA 匹配
AI生成的示例性肖像 Ancient Chinese Civilization individual, Inner Mongolia. Hulunbuir. Zhalainuoer. Zhalainuoer mining site, China (81-236 CE)
Sample ID: ZLNR-1
China Iron Age China 81 CE - 236 CE Chinese Iron Age N9a9 Direct
AI生成的示例性肖像 China Ia individual, Inner Mongolia. Hulunbuir. Zhalainuoer. Zhalainuoer mining site, China (81-236 CE)
Sample ID: ZLNR-1
China Iron Age China 81 CE - 236 CE N9a9 Direct
AI生成的示例性肖像 Nomadic Steppe Cultures individual, Tian Shan. Central Steppe, Kyrgyzstan (265-547 CE)
Sample ID: DA65
Kyrgyzstan The Hun Period in Kyrgyzstan 265 CE - 547 CE Hunnic Period N9a9 Direct
AI生成的示例性肖像 Hun individual, Tian Shan. Central Steppe, Kyrgyzstan (265-547 CE)
Sample ID: DA65
Kyrgyzstan The Huns 265 CE - 547 CE N9a9 Direct
AI生成的示例性肖像 Ancient Chinese Civilization individual, Xinjiang. Yili Region. Nileke County. Tangbalesayi, China (368-52 BCE)
Sample ID: C627
China Iron Age Tangbalesayi, Xinjiang, China 368 BCE - 52 BCE Tangbalesayi Culture N9a9 Direct
AI生成的示例性肖像 Ancient Chinese Civilization individual, Xinjiang. Yili Region. Nileke County. Tangbalesayi, China (368-52 BCE)
Sample ID: C4257
China Iron Age Tangbalesayi, Xinjiang, China 368 BCE - 52 BCE Tangbalesayi Culture N9a9 Direct
AI生成的示例性肖像 Uvs EIA Xiongnu Period Late Medieval individual, Uvs. Chandman Mountain. Ulaangom cemetery, Mongolia (400 BCE-1,500 CE)
Sample ID: CHN015
Mongolia Early Iron Age to Xiongnu to Late Medieval Uvs, Mongolia 400 BCE - 1500 CE Uvs Multi-Period N9a9 Direct
AI生成的示例性肖像 Early Middle Avar-o High East Asia individual, Rákóczifalva-Bagi-földek (Jász-Nagykun-Szolnok Coiunty, Szolnok), Hungary (580-720 CE)
Sample ID: RKF135
Hungary Early Middle Avar Period 550-750 CE Avar N9a9 Direct
AI生成的示例性肖像 Eurasian Nomadic individual, Csongrád-Csanád County. Makó-Mikócsa-halom, Hungary (590-654 CE)
Sample ID: MM-80
Hungary Hungary EarlyAvar 590 CE - 654 CE Early Avar N9a9 Direct
AI生成的示例性肖像 Middle Avar-o Low East Asia individual, Rákóczifalva-Bagi-földek (Jász-Nagykun-Szolnok Coiunty, Szolnok), Hungary (661-771 CE)
Sample ID: RKC047
Hungary Hungary MiddleAvar 661-771 calCE Avar Culture N9a9 Direct
MATERNAL LINEAGE · ANCIENT DNA

古代世系证据地图

跟随母舰飞向这个分支 探索古代载体的发现地点

正在装入古老的观测...

标记是考古发现地点。一个破碎的连接器是连续分支之间一种不确定的、拟议中的地理过渡,辅以多个日期的观察;它不是一个准确的旅行路线、出生地或直接血统的证明。父系样本可能属于其他后代分支。在证据不足的地方,差距依然存在。样本日期与随机群形成日期不同。

参考简介

载体分布图

13 个古代 DNA 样本的地理分布,涵盖 N9A9 及其下游分支的携带者

直接承运人
时间段过滤器
所有时间段
显示全部样本
参考简介

时间分布

载体在考古时期的分布

参考简介

地理分布

按有记录的抽样国家计算,反映的是现有的参考选择,而不是人口频率。

参考简介

国家 × 大纪元发行

比较各国和考古时期记录的样本数量。选择一个人口密集的细胞来检查样本。

数据

数据证明( P)

来源信息和数据质量

上次更新 2026-02-16
信心分数 50/100
覆盖范围 Low

数据来源

分类、估计日期和地理背景反映了所记录的参考数据,随着证据的修订而可能发生变化,样本覆盖范围不均匀;所记录的地点和考古协会没有确定个人出身或文化特征。