Expanded-bed protein refolding using a solid-phase artificial chaperone

被引:47
|
作者
Mannen, T
Yamaguchi, S
Honda, J
Sugimoto, S
Nagamune, T
机构
[1] Univ Tokyo, Dept Chem & Biotechnol, Bunkyo Ku, Tokyo 1138656, Japan
[2] Aventis Pharma Ltd, Bioproc Dev Ctr, Kawagoe, Saitama 3501165, Japan
关键词
protein refolding; artificial chaperone; solid phase; expanded bed;
D O I
10.1263/jbb.91.403
中图分类号
Q81 [生物工程学(生物技术)]; Q93 [微生物学];
学科分类号
071005 ; 0836 ; 090102 ; 100705 ;
摘要
An efficient solid-phase protein refolding method based on artificial chaperone-assisted refolding is proposed. The method employs insoluble cyclodextrin polymer beads and the expanded-bed technique. a-Glucosidase, whose spontaneous refolding yield from a urea-denatured state is up to 30% at a protein concentration of up to 10 mug/ml, could be refolded with a yield that was improved more than two-fold at a protein concentration more than five-fold higher when protein solution was circulated through an expanded bed under optimized conditions. Unlike the conventional liquid-phase artificial chaperone system, further steps to purify the refolded product, which are generally needed to remove detergent-cyclodextrin complex and excess cyclodextrin, were unnecessary. In addition, the polymer beads were reusable after simple washing with water, and the continuous system is suitable for easy scale-up using commercially available devices. This new method is considered to be a powerful means of achieving large-scale protein refolding for industrial protein production.
引用
收藏
页码:403 / 408
页数:6
相关论文
共 50 条
  • [21] Solid-phase assisted refolding of carbonic anhydrase using β-cyclodextrin-polyurethane polymer
    Esmaeili, Mohammad Ali
    Yazdanparast, Razieh
    PROTEIN JOURNAL, 2008, 27 (05): : 334 - 342
  • [22] Solid-phase Assisted Refolding of Carbonic Anhydrase Using β-Cyclodextrin-Polyurethane Polymer
    Mohammad Ali Esmaeili
    Razieh Yazdanparast
    The Protein Journal, 2008, 27 : 334 - 342
  • [23] Treatment of anaerobic expanded-bed reactor effluent using cross-flow microfiltration
    AlMalack, MH
    Gomez, LA
    Anderson, GK
    JOURNAL OF ENVIRONMENTAL SCIENCE AND HEALTH PART A-TOXIC/HAZARDOUS SUBSTANCES & ENVIRONMENTAL ENGINEERING, 1996, 31 (10): : 2635 - 2649
  • [24] A novel protein refolding method integrating ion exchange chromatography with artificial molecular chaperone
    Qin Ming Zhang Chao Zhan Wang* Jiang Feng Liu Li Li Wang Key Laboratory of Synthetic and Natural Functional Molecule Chemistry of Ministry of Education
    Chinese Chemical Letters, 2008, (05) : 595 - 598
  • [25] A novel protein refolding method integrating ion exchange chromatography with artificial molecular chaperone
    Zhang, Qin Ming
    Wang, Chao Zhan
    Liu, Jiang Feng
    Wang, Li Li
    CHINESE CHEMICAL LETTERS, 2008, 19 (05) : 595 - 598
  • [26] Amphiphilic nanogel of enzymatically synthesized glycogen as an artificial molecular chaperone for effective protein refolding
    Takeda, Shigeo
    Takahashi, Haruko
    Sawada, Shin-ichi
    Sasaki, Yoshihiro
    Akiyoshi, Kazunari
    RSC ADVANCES, 2013, 3 (48): : 25716 - 25718
  • [27] Protein refolding assisted by self-assembled nanogels as novel artificial molecular chaperone
    Nomura, Y
    Ikeda, M
    Yamaguchi, N
    Aoyama, Y
    Akiyoshi, K
    FEBS LETTERS, 2003, 553 (03) : 271 - 276
  • [28] A novel system for continuous protein refolding and on-line capture by expanded bed adsorption
    Ferré, H
    Ruffet, E
    Nielsen, LLB
    Nissen, MH
    Hobley, TJ
    Thomas, ORT
    Buus, S
    PROTEIN SCIENCE, 2005, 14 (08) : 2141 - 2153
  • [29] The effect of protein aggregate size on the kinetics of refolding using chaperone cocktail
    Um, Yu Mi
    Oh, Jisun
    Shin, Jung Woo
    Choe, Woo Seok
    NEW BIOTECHNOLOGY, 2012, 29 : S217 - S217
  • [30] Immobilization and functional reconstitution of antibody Fab fragment by solid-phase refolding
    Kumada, Yoichi
    Hamasaki, Kyoto
    Nakagawa, Aya
    Sasaki, Eiju
    Shirai, Tatsunori
    Okumura, Masahiro
    Inoue, Manami
    Kishimoto, Michimasa
    JOURNAL OF IMMUNOLOGICAL METHODS, 2013, 400 : 70 - 77