Immobilised enzymes in biorenewables production

被引:219
|
作者
Franssen, Maurice C. R. [1 ]
Steunenberg, Peter [1 ]
Scott, Elinor L. [2 ]
Zuilhof, Han [1 ,3 ]
Sanders, Johan P. M. [2 ]
机构
[1] Wageningen Univ, Organ Chem Lab, NL-6703 HB Wageningen, Netherlands
[2] Wageningen Univ, Biobased Commod Chem, NL-6708 WG Wageningen, Netherlands
[3] King Abdulaziz Univ, Dept Chem & Mat Engn, Jeddah 21413, Saudi Arabia
关键词
CANDIDA-RUGOSA LIPASE; ARTHROBACTER-NICOTIANAE CELLS; BIODIESEL FUEL PRODUCTION; DE-NOVO TRANSKETOLASE; PACKED-BED REACTOR; WASTE COOKING OIL; COTTON SEED OIL; ALPHA-AMYLASE; MANGANESE PEROXIDASE; GLUCOSE-ISOMERASE;
D O I
10.1039/c3cs00004d
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Oils, fats, carbohydrates, lignin, and amino acids are all important raw materials for the production of biorenewables. These compounds already play an important role in everyday life in the form of wood, fabrics, starch, paper and rubber. Enzymatic reactions do, in principle, allow the transformation of these raw materials into biorenewables under mild and sustainable conditions. There are a few examples of processes using immobilised enzymes that are already applied on an industrial scale, such as the production of High-Fructose Corn Syrup, but these are still rather rare. Fortunately, there is a rapid expansion in the research efforts that try to improve this, driven by a combination of economic and ecological reasons. This review focusses on those efforts, by looking at attempts to use fatty acids, carbohydrates, proteins and lignin (and their building blocks), as substrates in the synthesis of biorenewables using immobilised enzymes. Therefore, many examples (390 references) from the recent literature are discussed, in which we look both at the specific reactions as well as to the methods of immobilisation of the enzymes, as the latter are shown to be a crucial factor with respect to stability and reuse. The applications of the renewables produced in this way range from building blocks for the pharmaceutical and polymer industry, transport fuels, to additives for the food industry. A critical evaluation of the relevant factors that need to be improved for large-scale use of these examples is presented in the outlook of this review.
引用
收藏
页码:6491 / 6533
页数:43
相关论文
共 50 条
  • [31] CATL 37-Hydrogen production from biorenewables over nonnoble metal catalysts
    Song, Hua
    Zhang, Lingzhi
    Ozkan, Umit S.
    [J]. ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2008, 236
  • [32] Evaluating the composition and processing potential of novel sources of Brazilian biomass for sustainable biorenewables production
    Lima, Marisa A.
    Gomez, Leonardo D.
    Steele-King, Clare G.
    Simister, Rachael
    Bernardinelli, Oigres D.
    Carvalho, Marcelo A.
    Rezende, Camila A.
    Labate, Carlos A.
    deazevedo, Eduardo R.
    McQueen-Mason, Simon J.
    Polikarpov, Igor
    [J]. BIOTECHNOLOGY FOR BIOFUELS, 2014, 7
  • [33] Engineering Escherichia coli membrane phospholipid head distribution improves tolerance and production of biorenewables
    Tan, Zaigao
    Khakbaz, Pouyan
    Chen, Yingxi
    Lombardo, Jeremy
    Yoon, Jong Moon
    Shanks, Jacqueline V.
    Klauda, Jeffery B.
    Jarboe, Laura R.
    [J]. METABOLIC ENGINEERING, 2017, 44 : 1 - 12
  • [34] Systems Problems in Biorenewables Processing
    Marquardt, Wolfgang
    [J]. 10TH INTERNATIONAL SYMPOSIUM ON PROCESS SYSTEMS ENGINEERING, 2009, 27 : 35 - 40
  • [35] Opportunities for biorenewables in oil refineries
    Holmgren, Jennifer
    Marker, Terry L.
    Petri, John
    Kalnes, T.
    McCall, Michael
    Mackowiak, Dave
    Elliot, Doug
    Czernik, Stefan
    Shonnard, David
    [J]. ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2006, 231
  • [36] Opportunites for biorenewables in petroleum refineries
    Marker, TL
    Petri, J
    Kalnes, T
    McCall, M
    Mackowiak, D
    Elliott, DC
    Czernik, S
    Shonnard, D
    [J]. ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2005, 230 : U1683 - U1684
  • [37] Continuous production of α,α-trehalose by immobilised fungal trehalose phosphorylase
    Klimacek, M
    Eis, C
    Nidetzky, B
    [J]. BIOTECHNOLOGY TECHNIQUES, 1999, 13 (04) : 243 - 248
  • [38] Comparison of Enzymes Immobilised on Immobeads and Inclusion Bodies: A Case Study of a Trehalose Transferase
    Mestrom, Luuk
    Marsden, Stefan R.
    McMillan, Duncan G. G.
    Schoevaart, Rob
    Hagedoorn, Peter-Leon
    Hanefeld, Ulf
    [J]. CHEMCATCHEM, 2020, 12 (12) : 3249 - 3256
  • [39] Silicon based μ-immobilised enzyme reactors (μIMER) containing cellulose hydrolysing enzymes
    Melander, C
    Momcilovic, D
    Nilsson, C
    Bengtsson, M
    Laurell, T
    Gorton, L
    [J]. Micro Total Analysis Systems 2004, Vol 1, 2005, (296): : 433 - 435
  • [40] Carbonyl-reducing enzymes as targets of a drug-immobilised affinity carrier
    Andrys, Rudolf
    Zemanova, Lucie
    Lenco, Juraj
    Bilkova, Zuzana
    Wsol, Vladimir
    [J]. CHEMICO-BIOLOGICAL INTERACTIONS, 2015, 234 : 169 - 177