Co-production of biodiesel and methacrylated fatty acid through enzymatic catalysis with methyl methacrylate as acyl acceptor
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Co-production of biodiesel and methacrylated fatty acid through enzymatic catalysis with methyl methacrylate as acyl acceptor
Chinese Journal of Chemical EngineeringVol. 85, Issue 9, Pages: 16-24(2025)
Affiliations:
National Energy R&D Center for Biorefinery, Beijing Key Laboratory of Bioprocess, College of Life Science and Technology, Beijing University of Chemical Technology,Beijing,China,100029
Author bio:
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Published:2025
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Dong Lu, Shuming Jin, Qiuyang Wu, Jiahao Liu, Fang Wang, Li Deng, Kaili Nie. Co-production of biodiesel and methacrylated fatty acid through enzymatic catalysis with methyl methacrylate as acyl acceptor[J]. Chinese Journal of Chemical Engineering, 2025, 85(9): 16-24.
DOI:
Dong Lu, Shuming Jin, Qiuyang Wu, Jiahao Liu, Fang Wang, Li Deng, Kaili Nie. Co-production of biodiesel and methacrylated fatty acid through enzymatic catalysis with methyl methacrylate as acyl acceptor[J]. Chinese Journal of Chemical Engineering, 2025, 85(9): 16-24.DOI:
Co-production of biodiesel and methacrylated fatty acid through enzymatic catalysis with methyl methacrylate as acyl acceptor
Traditional biodiesel production primarily uses methanol as the acyl acceptor
but its toxicity to lipase increases process complexity and operational difficulty elevate manufacturing costs. This study aimed to explore a new method for enzymatic synthesis of biodiesel with methyl methacrylate (MMA) as acyl acceptor. Meanwhile
a 1
3-position specific lipase Lipozyme RM IM was applied as biocatalyst
which enables simultaneous production of biodiesel (FAMEs) and methacrylate fatty acid glycerides (MFAGs)
via
specific
sn
-1
3 transesterification of MMA with triglyceride. Under the optimal reaction conditions: temperature of 50 ℃
molar ratio of 4:1 for MMA to triglyceride
enzyme dosage of 7.5% (mass)
and an extra water addition of 0.5% (mass); triglyceride conversion rate of 97%
and FAMEs yield of 65% could be obtained. Simultaneously
the multistage short-path distillation and column chromatographic method were combined used for the separation of the mixed products. Finally
the purity of FAME
MFADG
DMFAG
and MMFAG were 98%
97.8%
95.3%
and 81.78%
respectively. In this new approach
MMA demonstrates lower toxicity to lipases
allowing for straightforward addition of all the substrates without complex addition process
and enhancing operational feasibility. Meanwhile
the by-products of MFAGs could be applied as monomers in varnishes and protective coatings
which increased the value of the products. Thus
this investigation providing a
n alternative way to produce biodiesel
and providing a new pathway for the sustainable development of biodiesel.
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Related Institution
Biodiesel Engineering Lab of China Petroleum & Chemical Industry Federation, and Zhejiang Province Key Lab of Biofuel, Zhejiang University of Technology