Peidong Zhang

Prof. Peidong Zhang


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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7 December 2022 in Sustainability
Verified
Journal Article
Open access
PDF file
YLYinchu Liu
Yinchu Liu
ZGZhen Guo
Zhen Guo
PZPeidong Zhang
Peidong Zhang
JDJun Du
Jun Du
PGPing Gao
Ping Gao
ZZZhiwei Zhang
Zhiwei Zhang
Coastal wetlands are a type of unique ecosystem, in which rhizosphere microorganisms of vegetation play a significant role in the overall ecology. Rhizosphere soil samples from the vegetation of Liaohekou Coastal Wetlands, Northeast China (40°54′44″ N, 121°47′51″ E), were collected in seven habitats (Suaeda and Phragmites community in different coverage, aquaculture ponds and farmland biotopes) to evaluate the diversity and structure of bacterial community using high throughput sequencing. Soil physicochemical characteristics and bacterial communities were found to be affected by vegetation coverage by ANOVA tests. As and Ni were the main heavy metal variables affecting the bacterial communities as demonstrated by RDA tests, while NO3−-N were important variables in nutrient factors. Proteobacteria was the predominant phylum in all soils. Gillisia and Woeseia were the two most dominant genera peculiarly in Suaeda and Phragmites community. Meanwhile SparCC showed that Woeseia play a dominant role in wetland rhizosphere bacterial communities. The Chemoheterotrophic function was dominant in all communities with FAPROTAX results, while in wetland the cycle of Sulfur and Nitrogen were significantly affected by vegetation type and coverage. In conclusion, this study revealed the structural composition and diversity of rhizosphere bacterial communities under different vegetation types and coverage. This research could help deepen our understanding of the microbial ecology on the wetlands and provide information on bacterial communities in various habitats.

27 November 2024 in Sustainability
Verified
Journal Article
Open access
PDF file
ZGZhen Guo
Zhen Guo
AFAiping Feng
Aiping Feng
ZZZhiwei Zhang
Zhiwei Zhang
PZPeidong Zhang
Peidong Zhang
HNHuanshan Ning
Huanshan Ning
YZYunling Zhuang
Yunling Zhuang
Island infrastructure material stock (MS) analysis reveals resource flow and accumulation, providing policymakers with insights for managing resources and planning. This study comprehensively analyzed the MS of infrastructure on Miao Island using a bottom-up approach and multi-source data. Key findings include the following: In 2020, the total in-use MS was 249.8 kt, with stone, gravel, and sand accounting for 80%. Transportation infrastructure held the largest share (40.8%). Over the past 40 years, Miao Island’s infrastructure MS increased by 256%, with a net addition of 179.6 kt. The three distinct development periods were closely linked to China’s reform and local stimulus plans. Miao Island has a lower construction intensity than urban areas, with a per capita MS growth rate of 10.12 t/yr. Despite this, future waste remains a challenge to the island’s capacity. Given the constraints of limited investment due to population decline and the aging of in-use stock, island infrastructure should conform to local resource availability and long-term plans. Priority should be given to environmental compatibility, resilience to resource disruptions, and establishing a circular system to support sustainable island development.