Weiguo Zhang

Dr. Weiguo Zhang


Research Focus & Metrics

Academic Career Length

13Years (2014-Present)

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

Representative Publications

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1 December 2014 in Bioresource Technology
Verified
Journal Article
Closed access
WZWeiguo Zhang
Weiguo Zhang
PZPeiliang Zhang
Peiliang Zhang
HSHao Sun
Hao Sun
MCMaozhen Chen
Maozhen Chen
SLShan Lu
Shan Lu
PLPeng-Fu Li
Peng-Fu Li

1 March 2020 in Water Research
Verified
Journal Article
Closed access
MSMan Shi
Man Shi
JLJiangye Li
Jiangye Li
QZQi Zhou
Qi Zhou
GWGuibin Wang
Guibin Wang
WZWeiguo Zhang
Weiguo Zhang
SYShaohua Yan
Shaohua Yan

24 August 2022 in Science of The Total Environment
Verified
Journal Article
Closed access
WLWen Li
Wen Li
WZWeiguo Zhang
Weiguo Zhang
MZMing-Sha Zhang
Ming-Sha Zhang
ZLZhong-Fang Lei
Zhong-Fang Lei
PLPeng-Fu Li
Peng-Fu Li
YGYan Gao
Yan Gao

1 September 2021 in Ecotoxicology and Environmental Safety
Verified
Journal Article
Open access
MZMing-Sha Zhang
Ming-Sha Zhang
WLWen Li
Wen Li
WZWeiguo Zhang
Weiguo Zhang
YLYun-Tao Li
Yun-Tao Li
JLJiang-Ye Li
Jiang-Ye Li
YGYan Gao
Yan Gao
Agricultural runoff is an important antibiotic resistance genes (ARGs) dissemination pathway from farmlands to water environment, however few studies have focused on the influence of agricultural land-use change on the pattern of ARGs in runoff and assess the health risk to public. Lake Tai Basin which experiences agricultural land-use change was selected to elucidate this concern. Our findings revealed that the pattern of ARGs was more diverse and the gene abundance was higher in orchard runoffs by comparison with conventional cropland runoffs. Co-occurrence network analysis between mobile genetic elements and ARGs demonstrated that after agricultural land-use change, ARG dissemination via runoffs became more threatened. In addition, this study illustrated the correlations between the antibiotic resistome and microbiome in runoffs, finding that non-dominant microbial taxa were the limiting factor which determined the pattern of ARGs in surface runoffs. In summary, the pattern and dissemination risk of ARGs in the surface runoff after agricultural land-use change in Lake Tai Basin were clarified via this study.

1 December 2015 in Bioresource Technology
Verified
Journal Article
Closed access
WZWeiguo Zhang
Weiguo Zhang
ZZZhenhua Zhang
Zhenhua Zhang
SYShaohua Yan
Shaohua Yan

1 April 2019 in Biotechnology for Biofuels
Verified
Journal Article
Open access
PDF file
WZWeiguo Zhang
Weiguo Zhang
JLJiangye Li
Jiangye Li
Zhenhua ZhangZhenhua Zhang
Zhenhua Zhang
GFGuangping Fan
Guangping Fan
YAYuchun Ai
Yuchun Ai
Gang PanGang Pan
Gang Pan
The utilization of Chlorella for the dual goals of biofuel production and wastewater nutrient removal is highly attractive. Moreover, this technology combined with flue gas (rich in CO2) cleaning is considered to be an effective way of improving biofuel production. However, the sterilization of wastewater is an energy-consuming step. This study aimed to comprehensively evaluate a cost-effective method of culturing Chlorella pyrenoidosa in unsterilized piggery wastewater for biofuel production by sparging air or simulated flue gas, including algal biomass production, lipid production, nutrient removal rate and the mutual effects between algae and other microbes. The average biomass productivity of C. pyrenoidosa reached 0.11 g L−1 day−1/0.15 g L−1 day−1 and the average lipid productivity reached 19.3 mg L−1 day−1/30.0 mg L−1 day−1 when sparging air or simulated flue gas, respectively. This method achieved fairish nutrient removal efficiency with respect to chemical oxygen demand (43.9%/55.1% when sparging air and simulated flue gas, respectively), ammonia (98.7%/100% when sparging air and simulated flue gas, respectively), total nitrogen (38.6%/51.9% when sparging air or simulated flue gas, respectively) and total phosphorus (42.8%/60.5% when sparging air or simulated flue gas, respectively). Culturing C. pyrenoidosa strongly influenced the microbial community in piggery wastewater. In particular, culturing C. pyrenoidosa enriched the abundance of the obligate parasite Vampirovibrionales, which can result in the death of Chlorella. The study provided a comprehensive evaluation of culturing C. pyrenoidosa in unsterilized piggery wastewater for biofuel production. The results indicated that this cost-effective method is feasible but has considerable room for improving. More importantly, this study elucidated the mutual effects between algae and other microbes. In particular, a detrimental effect of the obligate parasite Vampirovibrionales on algal biomass and lipid production was found.