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Production of combustible gas via incorporating CO<sub>2</sub> to pyrolysis of medicinal herbal wasteProduction of combustible gas via incorporating CO2 to pyrolysis of medicinal herbal waste

Other Titles
Production of combustible gas via incorporating CO2 to pyrolysis of medicinal herbal waste
Authors
Cho, Seong-HeonLee, TaewooCha, HoyeonChen, Wei-HsinTsang, Yiu FaiKwon, Eilhann E.
Issue Date
Nov-2024
Publisher
ELSEVIER
Keywords
circular economy; waste valorization; red ginseng marc
Citation
INDUSTRIAL CROPS AND PRODUCTS, v.219, pp 1 - 9
Pages
9
Indexed
SCIE
SCOPUS
Journal Title
INDUSTRIAL CROPS AND PRODUCTS
Volume
219
Start Page
1
End Page
9
URI
https://scholarworks.bwise.kr/hanyang/handle/2021.sw.hanyang/194919
DOI
10.1016/j.indcrop.2024.119110
ISSN
0926-6690
1872-633X
Abstract
With the recent increase in the utilization of medicinal herbs, the generation of medicinal herbal waste has increased. However, conventional protocols for solid waste management (landfill and incineration) present environmental threats considering the complex chemical composition of medicinal herbal waste. Thus, this study introduces a thermochemical approach for managing medicinal herbal waste, focusing on conversion of red ginseng marc (RGM) into energy resource. This study explores an innovative strategy to maximize the production of pyrogenic gases using CO2 form improved syngas generation. The experimental results revealed an enhancement in CO from the pyrolysis of RGM under the CO2 condition in reference with the N2 condition, which was ascribed to gas-phased homogeneous reaction of CO2 with volatile matters liberated from RGM. Moreover, gas-phase reactions have proven to be effective in decreasing the benzene analogs, especially polycyclic aromatic hydrocarbons (PAHs), in pyrogenic liquids. To accelerate the gas-phase reaction rate, a nickel (Ni)-based catalyst was employed for the RGM pyrolysis. The introduction of Ni catalyst to the gas-phase reaction led to an CO enhancement (272 %) from the RGM pyrolysis in the presence of CO2. All experimental observations highlight the potential of incorporating CO2 in thermochemical conversion of RGM as an innovative way to enhance energy recovery.
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Kwon, Eilhann E.
COLLEGE OF ENGINEERING (DEPARTMENT OF EARTH RESOURCES AND ENVIRONMENTAL ENGINEERING)
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