Gas-Phase Fructose Conversion to Furfural in a Microfluidized Bed Reactor

被引:16
|
作者
Carnevali, Davide [1 ]
Guevremont, Olivier [1 ]
Rigamonti, Marco G. [1 ]
Stucchi, Marta [1 ]
Cavani, Fabrizio [2 ]
Patience, Gregory S. [1 ]
机构
[1] Polytech Montreal, Dept Chem Engn, 2900 Edouard Montpetit Blvd, Montreal, PQ H3T 1J4, Canada
[2] Univ Bologna, Dept Ind Chem, Viale Risorgimento 4, I-40136 Bologna, Italy
来源
基金
加拿大自然科学与工程研究理事会;
关键词
Sugar; Microreactor; Fluidized bed; Furfural; Gas-phase; Tungsten; Atomization; Diformyl furan; ACID-CATALYZED CONVERSION; METHACRYLIC-ACID; D-GLUCOSE; OXIDATION; DEHYDRATION; XYLOSE; 2-METHYL-1,3-PROPANEDIOL; HYDROGENATION; VALEROLACTONE; OPTIMIZATION;
D O I
10.1021/acssuschemeng.8b00510
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Specialty chemicals from sugars are destined to displace fermentation to alcohols due to their superior economic value and atom efficiency. Compared to bioethanol, retention of oxygen functional groups increases by 2-5 times the market value of specialty chemicals like furfural, 2,5-furan dicarboxylic acid, 2,5-dimethyl furan, and gamma-valerolactone. For the first time, we report a gas-phase process that converts C-6 monosaccharides to furfural in a microfluidized bed reactor. A spray nozzle inserted directly into the catalytic bed atomizes a fructose water solution to micron-sized droplets; water evaporates, and WO3/TiO2 converts fructose to furfural. Furfural yield reached 22% after 3 h time-on-stream with 15% diformyl furan as coproduct. Acetic acid yield was mostly below 10% but was as high as 27%. During the initial tests, coke and catalyst agglomerates blocked the sparger tip, and run time varied between 1 and 3 h. Insulating the nozzle leading into the bed reduced the injector wall temperature and improved reactor operability; the 15 mm i.d. reactor ran continuously for 19 h after this modification.
引用
收藏
页码:5580 / 5587
页数:15
相关论文
共 50 条
  • [41] Multimode microwave reactor for heterogeneous gas-phase catalysis
    Will, H
    Scholz, P
    Ondruschka, B
    Burckhardt, W
    CHEMICAL ENGINEERING & TECHNOLOGY, 2003, 26 (11) : 1146 - 1149
  • [42] REACTOR MODELS FOR HETEROGENEOUSLY CATALYZED GAS-PHASE REACTIONS
    EMIG, G
    BERICHTE DER BUNSEN-GESELLSCHAFT-PHYSICAL CHEMISTRY CHEMICAL PHYSICS, 1986, 90 (11): : 968 - 976
  • [43] THE KINETICS OF GAS-PHASE REACTIONS STUDIED IN A HOMOGENEOUS REACTOR
    ROSCOE, JM
    CANADIAN JOURNAL OF CHEMISTRY-REVUE CANADIENNE DE CHIMIE, 1988, 66 (09): : 2325 - 2334
  • [44] OPTIMAL GRADE TRANSITIONS IN A GAS-PHASE POLYETHYLENE REACTOR
    MCAULEY, KB
    MACGREGOR, JF
    AICHE JOURNAL, 1992, 38 (10) : 1564 - 1576
  • [45] DETECTION OF GAS-PHASE SPECIES IN REACTOR AND FLAME ENVIRONMENTS
    CHOI, KJ
    FANG, H
    HAVRILLA, G
    PRUETT, JG
    PROCEEDINGS OF THE SOCIETY OF PHOTO-OPTICAL INSTRUMENTATION ENGINEERS, 1984, 458 : 23 - 27
  • [46] GAS-PHASE DISPERSION IN A GAS-LIQUID JET LOOP REACTOR
    WARNECKE, HJ
    VAUPEL, D
    PRUSS, J
    LANGEMANN, H
    CHEMIE INGENIEUR TECHNIK, 1989, 61 (10) : 815 - 817
  • [47] Modeling techniques for the in situ behavior of Fischer Tropsch's fixed bed reactor in gas-phase and supercritical phase reaction media
    Elbashir, Nimir
    Elmalik, Elfatih
    Mogalicherla, Aswani
    Nasser, Laial Bani
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2012, 244
  • [48] Catalytic Effect of Iron and Nickel on Gas Formation from Fast Biomass Pyrolysis in a Microfluidized Bed Reactor: A Kinetic Study
    Liu, Yuan
    Guo, Feiqiang
    Li, Xiaolei
    Li, Tiantao
    Peng, Kuangye
    Guo, Chenglong
    Chang, Jiafu
    ENERGY & FUELS, 2017, 31 (11) : 12278 - 12287
  • [49] A diffusion model of gas-phase chemical deposition in a vacuum reactor with a reagent fed to a fluidized bed from above
    Abyzov, AM
    THEORETICAL FOUNDATIONS OF CHEMICAL ENGINEERING, 1999, 33 (04) : 357 - 361
  • [50] Dynamic modeling and Molecular Weight Distribution of ethylene copolymerization in an industrial gas-phase Fluidized-Bed Reactor
    Abbasi, Mohammad Reza
    Shamiri, Ahmad
    Hussain, M. A.
    ADVANCED POWDER TECHNOLOGY, 2016, 27 (04) : 1526 - 1538