Porous materials MOFs and COFs: Energy-saving adsorbents for atmospheric water harvesting

被引:5
|
作者
Jia, Linhui [1 ,2 ]
Hu, Yang [2 ]
Liu, Zhongxin [1 ]
Hao, Hongxun [1 ]
Xu, Hong [2 ]
Huang, Wei [1 ]
He, Xiangming [2 ]
机构
[1] Hainan Univ, Sch Marine Sci & Engn, Sch Chem & Chem Engn, Haikou 570228, Peoples R China
[2] Tsinghua Univ, Inst Nucl & New Energy Technol, Beijing 100084, Peoples R China
基金
中国国家自然科学基金;
关键词
Atmospheric water harvesting (AWH); Energy consumption of device; Energy-saving adsorbent; MOFs; COFs; METAL-ORGANIC FRAMEWORKS; HYDROPHILIC HYDRATION NUMBERS; SEAWATER DESALINATION; ADSORPTION PROPERTIES; ISOSTERIC HEAT; CARBON-BLACK; SORPTION; DESIGN; STABILITY; CRYSTALLINE;
D O I
10.1016/j.mattod.2024.06.012
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Atmospheric water harvesting (AWH) that extact water from air is adorable technology which can release water stress in arid regions decentralized, however right now the high energy consumption hinders its development especially in low humidity condition. Improving humidity by adsorbing water through porous materials is an effective way to reduce AWH energy consumption. Metal organic frameworks (MOFs) and covalent organic frameworks (COFs), as a representative of new designable porous materials, is expected to solve the energy consumption problem in the practical application process of AWH. This review elucidates the energy-saving effects and design objectives of MOFs and COFs by analyzing the impact of adsorbents on energy consumption. Additionally, the manuscript delves into the principles of water adsorption in MOFs and COFs, subsequently reviewing the design methods for materials optimized for AWH performance. Lastly, the manuscript outlines the primary challenges and development recommendations for future energy-saving AWH solutions in arid regions.
引用
收藏
页码:92 / 111
页数:20
相关论文
共 50 条
  • [41] Development of an Energy-Saving CO2-PSA Process Using Hydrophobic Adsorbents
    Yogo, Katsunori
    Watabe, Tsuyoshi
    Fujioka, Yuichi
    Matsukuma, Yosuke
    Minemoto, Masaki
    10TH INTERNATIONAL CONFERENCE ON GREENHOUSE GAS CONTROL TECHNOLOGIES, 2011, 4 : 803 - 808
  • [42] Mixing Performance of Energy-Saving Gravity Mixer for Powder Materials
    Gyawali, Tek Raj
    Joshi, Buddhi Raj
    Maeda, Matabee K.
    ACI MATERIALS JOURNAL, 2019, 116 (02) : 3 - 8
  • [43] New technology and energy-saving equipment for production of composite materials
    Romanovich, A. A.
    Glagolev, S. N.
    Babaevsky, A. N.
    INTERNATIONAL CONFERENCE ON MECHANICAL ENGINEERING, AUTOMATION AND CONTROL SYSTEMS 2017, 2018, 327
  • [44] Characteristics of CO2and Energy-Saving Concrete with Porous Feldspar
    Han, Jung-Geun
    Cho, Jin-Woo
    Kim, Sung-Wook
    Park, Yun-Suk
    Lee, Jong-Young
    MATERIALS, 2020, 13 (18)
  • [45] RETRACTED: Efficient and Energy-Saving Computation Offloading Mechanism with Energy Harvesting for IoT (Retracted Article)
    Zhang, Yawen
    Miao, Yifeng
    Pan, Shujia
    Chen, Siguang
    SECURITY AND COMMUNICATION NETWORKS, 2021, 2021
  • [46] Synthesis of Ceramic Materials Using Energy-Saving Ecologically Clean Solar Energy
    D. D. Gulamova
    V. P. Shevchenko
    Refractories and Industrial Ceramics, 2014, 55 : 111 - 113
  • [47] Synthesis of Ceramic Materials Using Energy-Saving Ecologically Clean Solar Energy
    Gulamova, D. D.
    Shevchenko, V. P.
    REFRACTORIES AND INDUSTRIAL CERAMICS, 2014, 55 (02) : 111 - 113
  • [48] TpPa-1 COFs-Enhanced Zwitterion Hydrogel for Efficient Harvesting of Atmospheric Water
    Liu, Yueli
    Fu, Jingchao
    Zhu, Yuhao
    Chen, Wen
    CHEMSUSCHEM, 2024, 17 (11)
  • [49] Research on Landscape Energy-Saving Integrated Water Curtain System
    GUO Pengxin
    LI Hongqiang
    HE Changjie
    ZHENG Yingfa
    LI Shuisheng
    ZHANG Guoqiang
    JournalofThermalScience, 2019, 28 (06) : 1150 - 1163
  • [50] Energy-saving retrofit project for refinery deoxidized water pump
    Zhang, Da-Hai
    Wang, Zhen-Bo
    Xu, Wei-Wei
    Wang, Zong-Ming
    Wang, Sheng-Jun
    Kung Cheng Je Wu Li Hsueh Pao/Journal of Engineering Thermophysics, 2010, 31 (SUPPL.): : 217 - 220