Multifunctional Phra Phrom‐like Graphene‐Based Membrane for Environmental Remediation and Resources Regeneration

Author:

Huang Tsung‐Han1ORCID,Tian Xin‐Yuan12,Chen Yi‐Yun1,Widakdo Januar3ORCID,Austria Hannah Faye M.1ORCID,Setiawan Owen1ORCID,Subrahmanya T. M.1ORCID,Hung Wei‐Song1ORCID,Wang Da‐Ming4,Chang Ching‐Yuan5,Wang Chih‐Feng6,Hu Chien‐Chieh1,Lin Chia‐Her7,Lai Yu‐Lun8,Lee Kueir‐Rarn9,Lai Juin‐Yih110

Affiliation:

1. Graduate Institute of Applied Science and Technology Advanced Membrane Materials Research Center National Taiwan University of Science and Technology Taipei 10607 Taiwan

2. Department of Materials and Textiles Asia Eastern University of Science and Technology Taipei 22061 Taiwan

3. Department of Physics Faculty of Mathematics and Natural Sciences Universitas Indonesia Depok 16424 Indonesia

4. Department of Chemical Engineering National Taiwan University Taipei 10617 Taiwan

5. Department of Mechanical Engineering National Taipei University of Technology Taipei 10617 Taiwan

6. Institute of Advanced Semiconductor Packaging and Testing National Sun Yat‐sen University Kaohsiung 804201 Taiwan

7. Department of Chemistry National Taiwan Normal University Taipei 11677 Taiwan

8. Green Energy and Environment Research Laboratories Industrial Technology Research Institute Hsinchu 31057 Taiwan

9. R&D Center for Membrane Technology and Department of Chemical Engineering Chung Yuan University Chung Li 32023 Taiwan

10. Department of Chemical Engineering and Materials Science Yuan Ze University Taoyuan 320315 Taiwan

Abstract

AbstractWater and energy shortages are interdependent major worldwide issues that cannot be disregarded. In this work, graphene and BaTiO3 are used to synergistically facilitate the self‐assembly of the β‐phase that is known to induce the piezoelectric properties of the polyvinylidene fluoride (PVDF). This leads to a PVDF/graphene‐BaTiO3 nanocomposite with a unique capability of integrating Phra Phrom‐like four functions into one single asymmetric membrane: i) solar evaporation, ii) power generation, iii) piezo‐photodegradation, and iv) self‐cleaning/monitoring for environmental remediation and resources regeneration. The high heat accumulation capability and piezoelectric performance of the membrane enable it to simultaneously achieve a water production rate of 0.99 kgm−2h−1, in compliance with WHO standards, and a maximum power output of 5.73 Wm−2 in simulated natural environments. Upon subjecting the membranes to environmental cleaning, they not only show a 93% dye degradation rate due to the synergistic effect of piezoelectricity and photocatalysis but also resolve the membrane fouling issue, exhibiting ≈200% resistance change compared to the static state. The successful integration of these four functions into one membrane shows the great potential of this work toward a more sustainable and viable water and energy production approach.

Funder

National Science and Technology Council

Science for Equity, Empowerment and Development Division

Publisher

Wiley

Subject

Electrochemistry,Condensed Matter Physics,Biomaterials,Electronic, Optical and Magnetic Materials

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