Review on integrated Adsorption-concentration-catalytic Combustion for VOCs Treatment and Bench-scale Device Design

Jiaxu Wang; Xiangchen Liu; Lishuo Liu; Yuxin Xie

doi:10.47297/wspciWSP2516-252750.20261004

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Review on integrated Adsorption-concentration-catalytic Combustion for VOCs Treatment and Bench-scale Device Design

10卷第4期

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Review on integrated Adsorption-concentration-catalytic Combustion for VOCs Treatment and Bench-scale Device Design
Review on integrated Adsorption-concentration-catalytic Combustion for VOCs Treatment and Bench-scale Device Design
School of Thermal Engineering, Shandong Jianzhu University, Jinan, Shandong, 250101, China
2026年10卷第4期页码：253-255
纸质出版：2026-08-30
DOI：10.47297/wspciWSP2516-252750.20261004
Accepted：

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Jiaxu Wang, Xiangchen Liu, Lishuo Liu & Yuxin Xie. (2026). Review on integrated Adsorption-concentration-catalytic Combustion for VOCs Treatment and Bench-scale Device Design. 创意与创新（英文版）, 10(4), 253-255.

Wang Jiaxu,Liu Xiangchen,Liu Lishuo,et al.Review on integrated Adsorption-concentration-catalytic Combustion for VOCs Treatment and Bench-scale Device Design[J].Creativity and Innovation,2026,10(04):253-255.
Jiaxu Wang, Xiangchen Liu, Lishuo Liu & Yuxin Xie. (2026). Review on integrated Adsorption-concentration-catalytic Combustion for VOCs Treatment and Bench-scale Device Design. 创意与创新（英文版）, 10(4), 253-255. DOI： 10.47297/wspciWSP2516-252750.20261004.

Wang Jiaxu,Liu Xiangchen,Liu Lishuo,et al.Review on integrated Adsorption-concentration-catalytic Combustion for VOCs Treatment and Bench-scale Device Design[J].Creativity and Innovation,2026,10(04):253-255. DOI： 10.47297/wspciWSP2516-252750.20261004.

摘要

Abstract

Adsorption-concentration coupled catalytic combustion is a dominant technology for treating low-concentration and high-volume volatile organic compound (VOC) waste gas. Laboratory-scale facilities with a processing capacity of 1–50 Nm³/h are critical for acquiring fundamental process data and supporting scale-up to industrial applications. This paper reviews published literature on integrated laboratory-scale experimental setups. The feasibility of different modular process schemes is compared

and design considerations for gas distribution

adsorption-desorption

and catalytic heat-exchange units are summarized. Furthermore

operation control strategies

thermal energy utilization approaches

and experimental evaluation methods are analyzed. The state-of-the-art research regarding heat-transfer efficiency and safety performance of laboratory platforms is outlined

providing insights for the future development of relevant experimental devices.

关键词

Keywords

references

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