Jingzhou Zhou

State Key Laboratory of Pollution Control and Resource Reuse

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Siqing Xia

State Key Laboratory of Pollution Control and Resource Reuse

Lin Yang

State Key Laboratory of Pollution Control and Resource Reuse

Xiaodi Li

State Key Laboratory of Pollution Control and Resource Reuse

Si Pang

Tongji University

Chengyang Wu

University of Shanghai for Science and Technology

Bruce E. Rittmann

Arizona State University

Ben Dai

State Key Laboratory of Pollution Control and Resource Reuse

Mengying Yao

State Key Laboratory of Pollution Control and Resource Reuse

Zhenyu Wang

Jiangxi Normal University

Junxia He

State Key Laboratory of Pollution Control and Resource Reuse

Cooperative Institutions

State Key Laboratory of Pollution Control and Resource Reuse

Tongji University

Shanghai Institute of Pollution Control and Ecological Security

Beijing University of Technology

Arizona State University

Chinese Academy of Sciences

Ministry of Water Resources of the People's Republic of China

Nanjing University

University of Shanghai for Science and Technology

Jiangnan University

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Biological conversion of sulfisoxazole in an autotrophic hydrogen-based membrane biofilm reactor

Journal of Water Process Engineering (2022)

Lin Yang Si Pang Jingzhou Zhou Chengyang Wu Xiaodi Li

Electron acceptor

Sulfisoxazole

10.1016/j.jwpe.2022.103396

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Citations (8)

Microbial synergy mechanism of hydrogen flux influence on hydrogen-based partial denitrification coupled with anammox in a membrane biofilm reactor

Environmental Research (2025)

Si Pang Xiang Cai Lin Yang Jingzhou Zhou Xiaodi Li

Anammox

Carbon fibers

10.1016/j.envres.2025.120827

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Transferable and flexible thin film devices for engineering applications

Journal of Micromechanics and Microengineering (2014)

Madhu Santosh K. Mutyala Jingzhou Zhou Xiaochun Li

Thin film devices can be of significance for manufacturing, energy conversion systems, solid state electronics, wireless applications, etc. However, these thin film sensors/devices are normally fabricated on rigid silicon substrates, thus neither flexible nor transferrable for engineering applications. This paper reports an innovative approach to transfer polyimide (PI) embedded thin film devices, which were fabricated on glass, to thin metal foils. Thin film thermocouples (TFTCs) were fabricated on a thin PI film, which was spin coated and cured on a glass substrate. Another layer of PI film was then spin coated again on TFTC/PI and cured to obtain the embedded TFTCs. Assisted by oxygen plasma surface coarsening of the PI film on the glass substrate, the PI embedded TFTC was successfully transferred from the glass substrate to a flexible copper foil. To demonstrate the functionality of the flexible embedded thin film sensors, they were transferred to the sonotrode tip of an ultrasonic metal welding machine for in situ process monitoring. The dynamic temperatures near the sonotrode tip were effectively measured under various ultrasonic vibration amplitudes. This technique of transferring polymer embedded electronic devices onto metal foils yield great potentials for numerous engineering applications.

Flexible Electronics

10.1088/0960-1317/24/5/055019

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Dissimilatory and Cytoplasmic Antimonate Reductions in a Hydrogen-Based Membrane Biofilm Reactor

Environmental Science & Technology (2022)

Jingzhou Zhou Chengyang Wu Si Pang Lin Yang Mengying Yao

A hydrogen-based membrane biofilm reactor (H2-MBfR) was operated to investigate the bioreduction of antimonate [Sb(V)] in terms of Sb(V) removal, the fate of Sb, and the pathways of reduction metabolism. The MBfR achieved up to 80% Sb(V) removal and an Sb(V) removal flux of 0.55 g/m2·day. Sb(V) was reduced to Sb(III), which mainly formed Sb2O3 precipitates in the biofilm matrix, although some Sb(III) was retained intracellularly. High Sb(V) loading caused stress that deteriorated performance that was not recovered when the high Sb(V) loading was removed. The biofilm community consisted of DSbRB (dissimilatory Sb-reduction bacteria), SbRB (Sb-resistant bacteria), and DIRB (dissimilatory iron-reducing bacteria). Dissimilatory antimonate reduction, mediated by the respiratory arsenate reductase ArrAB, was the main reduction route, but respiratory reduction coexisted with cytoplasmic Sb(V)-reduction mediated by arsenate reductase ArsC. Increasing Sb(V) loading caused stress that led to increases in the expression of arsC gene and intracellular accumulation of Sb(III). By illuminating the roles of the dissimilatory and cytoplasmic Sb(V) reduction mechanism in the biofilms of the H2-MBfR, this study reveals that the Sb(V) loading should be controlled to avoid stress that deteriorates Sb(V) reduction.

Antimonate

10.1021/acs.est.2c04939

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Citations (15)

Changed carbon fixing affects denitrification in a hydrogen-based membrane biofilm reactor under high salinity conditions

Journal of Water Process Engineering (2022)

Si Pang Yun Zhou Lin Yang Chengyang Wu Jingzhou Zhou

10.1016/j.jwpe.2022.103097

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Simultaneous hydroxyapatite-based phosphorus recovery and partial denitrification-anammox-based nitrogen removal during sludge leachate treatment

Journal of Water Process Engineering (2024)

Ben Dai Yifeng Yang Zuobin Wang Jingzhou Zhou Xiaodi Li

Anammox

10.1016/j.jwpe.2024.106049

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Synergistic Inorganic Carbon and Denitrification Genes Contributed to Nitrite Accumulation in a Hydrogen-Based Membrane Biofilm Reactor

Bioengineering (2022)

Si Pang Bruce E. Rittmann Chengyang Wu Lin Yang Jingzhou Zhou

Partial denitrification, the termination of NO3--N reduction at nitrite (NO2--N), has received growing interest for treating wastewaters with high ammonium concentrations, because it can be coupled to anammox for total-nitrogen removal. NO2- accumulation in the hydrogen (H2)-based membrane biofilm reactor (MBfR) has rarely been studied, and the mechanisms behind its accumulation have not been defined. This study aimed at achieving the partial denitrification with H2-based autotrophic reducing bacteria in a MBfR. Results showed that by increasing the NO3- loading, increasing the pH, and decreasing the inorganic-carbon concentration, a nitrite transformation rate higher than 68% was achieved. Community analysis indicated that Thauera and Azoarcus became the dominant genera when partial denitrification was occurring. Functional genes abundances proved that partial denitrification to accumulate NO2- was correlated to increases of gene for the form I RuBisCo enzyme (cbbL). This study confirmed the feasibility of autotrophic partial denitrification formed in the MBfR, and revealed the inorganic carbon mechanism in MBfR denitrification.

Anammox

Autotroph

Carbon fibers

10.3390/bioengineering9050222

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Citations (15)

Hydrazine promoted nitrite reduction in partial-denitrification by enhancing organic-substrate uptake and electron transport

Bioresource Technology (2024)

Ben Dai Jingzhou Zhou Zuobin Wang Yifeng Yang Zhenyu Wang

Hydrazine (antidepressant)

Aerobic denitrification

10.1016/j.biortech.2024.131991