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Strategic way for peach seed valorisation by integrating thermochemical approaches: Transesterification and pyrolysis

Authors
Kim, Jung HunPark, GyeongnamLee, TaewooLee, JaewonKwon, Eilhann E.
Issue Date
Jan-2026
Publisher
Elsevier B.V.
Keywords
Biochar Catalyst; Biofuel Production; Carbon Management; Oilseed Refinery; Waste-to-energy; Carbon Dioxide; Catalysis; Catalysts; Fruits; Oil Bearing Formations; Oilseeds; Syngas Production; Synthesis Gas; Transesterification; Waste Management; Biochar; Biochar Catalyst; Biofuel Production; Carbon Management; Oilseed Refinery; Peach Seeds; Transesterifications; Valorisation; Waste To Energy; ]+ Catalyst; Pyrolysis
Citation
Journal of Analytical and Applied Pyrolysis, v.193
Indexed
SCIE
SCOPUS
Journal Title
Journal of Analytical and Applied Pyrolysis
Volume
193
URI
https://scholarworks.bwise.kr/erica/handle/2021.sw.erica/126459
DOI
10.1016/j.jaap.2025.107377
ISSN
0165-2370
1873-250X
Abstract
This study aimed to maximise carbon utilisation in the biodiesel (BD) production from transesterification of oil-bearing seed and subsequent pyrolytic valorisation of defatted biomass waste. Peach seed (PS) was selected as a model for the oil-bearing seed. After extracting PS oil (PSO) (56.3 wt% of PS), the defatted PS (DPS) was subjected to CO₂-assisted pyrolysis over a nickel catalyst, resulting in enhanced conversion of DPS into syngas, particularly CO. The homogeneous reaction between CO<inf>2</inf> and VM liberated from DPS led to reduced CO<inf>2</inf> formation and its oxidation with VM, resulting in enhanced CO evolution. Compared with pyrolysis under inert N₂ conditions, syngas production increased by 39.0 % in the presence of CO₂. PSO was converted into BD via thermally induced transesterification, yielding superior BD yield compared to alkali-catalysed conversion. Indeed, the BD yield from thermally induced transesterification was 98.15 wt%, whereas the BD yield from alkali-catalysed transesterification was 87.10 wt%. To further enhance the transesterification kinetics, biochar produced from the pyrolysis of DPS served as a catalyst. This approach resulted in a BD yield of 98.34 wt% at 340 ˚C. CO₂ mitigation potential was evaluated by integrating the pyrolysis of DPS with the BD production process from PSO. © 2025 Elsevier B.V., All rights reserved.
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Jaewon, Lee
ERICA 공학대학 (ERICA 배터리소재화학공학과)
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