Advances in Desiccant Wheels for Dehumidification, VOC Mitigation, and CO2 Removal for Energy-Efficient IAQ Management

被引:0
作者
Shamim, Jubair A. [1 ]
Liu, Xiaoli [1 ]
Krishnan, Easwaran [1 ]
Li, Kai [1 ]
Muneeshwaran, M. [1 ]
Jiang, Huixin [2 ]
Ilani-Kashkouli, Poorandokht [1 ]
Nawaz, Kashif [1 ]
机构
[1] Oak Ridge Natl Lab, Bldg Technol Res & Integrat Ctr BTRIC, Bldg & Transportat Sci Div, Oak Ridge, TN 37830 USA
[2] Oak Ridge Natl Lab, Chem Sci Div, Oak Ridge, TN 37830 USA
关键词
indoor air quality; desiccant wheel; dehumidification; volatile organic compounds; CO2; capture; METAL-ORGANIC FRAMEWORK; MASS-TRANSFER; SILICA-GEL; FIXED-BED; PERFORMANCE EVALUATION; ACTIVATED CARBON; WASTE HEAT; AIR; ADSORPTION; CAPTURE;
D O I
10.1016/j.ijheatmasstransfer.2025.126906
中图分类号
O414.1 [热力学];
学科分类号
摘要
Humidity control is pivotal to maintain occupant thermal comfort and suppress mold growth in indoor environments. Furthermore, poor indoor air quality (IAQ) due to the presence of volatile organic compounds (VOCs) and high concentrations (>1,000 ppm) of CO2 can cause health issues and negatively affect cognitive performance. Therefore, providing high-quality indoor air has gained significant attention over the past decade. Conventional cooling coil and filter-based HVAC systems have limited capability to meet the augmented demand for occupant thermal comfort and high indoor air quality. Moreover, modern buildings are increasingly airtight to save energy, and increasing ventilation to mitigate VOC and CO2 concentration is discouraged. Separate sensible and latent cooling technology using a rotary desiccant wheel presents a promising solution in this respect. Because of the development of desiccant materials with high water vapor, VOC, and CO2 uptake, desiccant wheels can be used as an integrated technology option for IAQ management. To promote desiccant wheel use for energy-efficient management of IAQ in buildings, this article reviews recent advancements in using desiccant wheels for dehumidification, VOC mitigation, and CO2 capture from outdoor air. Finally, the article presents the authors' perspective by summarizing the key research gaps in the field and discussing the future direction of research to address these gaps from two different aspects, namely, suitable adsorbent material development and desiccant wheel design.
引用
收藏
页数:29
相关论文
共 50 条
[41]   A novel energy-efficient batch stripper: Thermodynamic feasibility, cost analysis and CO2 emissions [J].
Jana, Amiya K. .
APPLIED THERMAL ENGINEERING, 2015, 84 :292-300
[42]   Novel Nonaqueous PD/PZ/NMP Absorbent for Energy-Efficient CO2 Capture: Insights into the Crystal-Phase Regulation Mechanism of the Powdery Product [J].
Xie, Feng ;
Li, Guanghuan ;
Yan, Feng ;
Xiao, Chengbin ;
Wang, Pengju ;
Shen, Xuehua ;
Yang, Biao ;
Lin, Han ;
Luo, Huarong ;
Zhang, Zuotai .
ENVIRONMENTAL SCIENCE & TECHNOLOGY, 2025, 59 (08) :3925-3936
[43]   Solid acid catalysts for low-temperature regeneration of non-aqueous sorbents: An innovative technique for energy-efficient CO2 capture processes [J].
Barzagli, Francesco ;
Bhatti, Umair H. ;
Kazmi, Wajahat W. ;
Peruzzini, Maurizio .
CARBON CAPTURE SCIENCE & TECHNOLOGY, 2023, 8
[44]   Nonaqueous (amine plus glycol ether) solvents for energy-efficient CO2 capture: New insights into phase change behaviors and assessment of capture performance [J].
Shen, Shufeng ;
Shi, Xiaoqin ;
Li, Chenxu ;
Guo, Hui ;
Long, Qinghai ;
Wang, Shuo ;
Yin, Xin .
SEPARATION AND PURIFICATION TECHNOLOGY, 2022, 300
[45]   Advancing energy-efficient CO2 capture with organic amine solutions using ionic liquid absorption promoters and zeolite molecular sieve desorption catalysts [J].
Liu, Hang ;
Xing, Yupeng ;
Zhao, Dongya ;
Lu, Shijian ;
Chen, Yurong ;
Cui, Shizhang ;
Song, Xinwang .
SEPARATION AND PURIFICATION TECHNOLOGY, 2025, 363
[46]   Combined energy consumption and CO2 capture management: Improved acid gas removal process integrated with CO2 liquefaction [J].
Chen, Jianjun ;
Lam, Hon Loong ;
Qian, Yu ;
Yang, Siyu .
ENERGY, 2021, 215
[47]   Development of novel amino acid salt-based liquid-liquid-solid absorbent for energy-efficient post-combustion CO2 capture [J].
Ma, Zhixuan ;
Wang, Jing ;
Shen, Shufeng .
SEPARATION AND PURIFICATION TECHNOLOGY, 2025, 354
[48]   CO2 capture for gas turbines: an integrated energy-efficient process combining combustion in oxygen-enriched air, flue gas recirculation, and membrane separation [J].
Belaissaoui, Bouchra ;
Cabot, Gilles ;
Cabot, Marie-Sophie ;
Willson, David ;
Favre, Eric .
CHEMICAL ENGINEERING SCIENCE, 2013, 97 :256-263
[49]   Harvesting surface charges on metals for energy-efficient CO2 capture: A first-principles investigation [J].
Sahu, Tanay ;
O'Brien, Paul G. ;
Ghuman, Kulbir Kaur .
SUSTAINABLE MATERIALS AND TECHNOLOGIES, 2024, 39
[50]   Energy-efficient operation of transcritical and subcritical CO2 inverse cycles via Extremum Seeking Control [J].
Rampazzo, Mirco ;
Cervato, Andrea ;
Corazzol, Chiara ;
Mattiello, Luca ;
Beghi, Alessandro ;
Cecchinato, Luca ;
Virzi, Andrea .
JOURNAL OF PROCESS CONTROL, 2019, 81 :87-97