Xianglin Liu

Xianglin Liu

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Xianglin Liu

State Key Laboratory of Water Pollution Control and Green Resource Recycling, School of the Environment

Research Focus & Metrics

Academic Career Length

5Years (2022-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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17 September 2023 in Science of The Total Environment
Verified
Journal Article
Closed access
JLJue Li
Jue Li
XZXiaowei Zheng
Xiaowei Zheng
XLXianglin Liu
Xianglin Liu
LZLiangliang Zhang
Liangliang Zhang
SZShun Zhang
Shun Zhang
ZFZhengqiu Fan
Zhengqiu Fan

5 November 2022 in Journal of Environmental Sciences
Verified
Journal Article
Closed access
LZLiangliang Zhang
Liangliang Zhang
XZXiaowei Zheng
Xiaowei Zheng
XLXianglin Liu
Xianglin Liu
JLJue Li
Jue Li
YLYanyao Li
Yanyao Li
ZFZhengqiu Fan
Zhengqiu Fan

21 October 2025 in Environmental Science & Technology
Verified
Journal Article
Closed access
XGXiao Gou
Xiao Gou
XLXianglin Liu
Xianglin Liu
XSXinxin Su
Xinxin Su
HJHuimin Ji
Huimin Ji
QWQiong Wang
Qiong Wang
XZXiaowei Zhang
Xiaowei Zhang

20 September 2025 in Environmental Science & Technology
Verified
Journal Article
Closed access
XLXianglin Liu
Xianglin Liu
YDYanqing Deng
Yanqing Deng
SCSizhi Chen
Sizhi Chen
JWJin Wang
Jin Wang
YZYan Zhang
Yan Zhang
XZXiaowei Zhang
Xiaowei Zhang

13 March 2026
Verified
Conference Paper
Open access
ERErika Ferreira Rodrigues
Erika Ferreira Rodrigues
POPaulo Eduardo De Oliveira
Paulo Eduardo De Oliveira
XZXiaowei Zhang
Xiaowei Zhang
KLKam-Biu Liu
Kam-Biu Liu
QYQiang Yao
Qiang Yao
XLXianglin Liu
Xianglin Liu
Sedimentary DNA (sedaDNA), pollen, and charcoal records from two sediment cores along the lower Negro River floodplain revealed complementary ecological and hydrological patterns throughout the Holocene in the main blackwater river located in central Amazonia. The sedaDNA record from the Lake Pacú sediment core (~9440–370 cal yr BP) provides unprecedented insight into microbial and planktonic communities across millennial-scale environmental changes. During the early Holocene (~9440–8852 cal yr BP), the presence of planktonic diatoms (Discostella nipponica, Melosira varians) and ciliates (Rimostrombidium sp., Strombidium sp.) indicate shallow, moderately productive waters with relatively low acidity compared with current Negro River conditions. A transition from ~8852 to 4520 cal yr BP is characterized by increased biological diversity compared to the early Holocene, with higher abundances and taxonomic richness of diatoms, ciliates, rotifers (Brachionus sp., Asplanchna brightwellii), and Chlorophyta (Pyramimonas tetrarhynchus). These assemblages suggest episodes of elevated nutrient input, temporary water column stratification and hydrological connectivity with surrounding floodplain environments. This interval reflects a dynamic limnological regime, with productivity fluctuating under seasonal flooding and broader hydroclimatic variability. The Late Holocene interval (~4520–370 cal yr BP) shows a pronounced ecological shift. Particularly around ~3000 cal yr BP, sedaDNA reveals the occurrence of mesotrophic diatoms, green algae, rotifers and ciliates, taxa not found under the acidic, humic waters of the Negro River. These conditions were likely driven by river connectivity, changes in water level and flow from tributaries such as the Branco River, whose chemical properties differ significantly from the Negro River. After this interval, these taxa decline toward the most recent samples, reflecting a return to more acidic, low productivity conditions similar to the river today. Complementarily, palynological data from the Apuaú River sediment core (~6450–3540 cal yr BP), a left bank tributary of the Negro River, document simultaneous expansion of Várzea type vegetation and the presence of mesotrophic diatoms (~13%), reinforcing a regional pattern of increased nutrient flux and hydrological heterogeneity during the mid- to late Holocene. Additionally, charcoal peaks dated to ~3320–2620 cal yr BP indicate intensified fire activity during the late Holocene, most likely associated with a regional dry phase rather than anthropogenic activity. Overall, our multi-proxy reconstruction of the lower Negro River provides a rare molecular record throughout the Holocene, revealing shifts in aquatic communities, vegetation and fire regimes in central Amazonia.