Molecular determinants of protein-based coacervates

被引:37
|
作者
Kapelner, Rachel A. [1 ]
Yeong, Vivian [1 ]
Obermeyer, Allie C. [1 ]
机构
[1] Columbia Univ, Dept Chem Engn, New York, NY 10027 USA
基金
美国国家科学基金会;
关键词
Complex coacervation; Associative phase separation; Proteins; Polyelectrolytes; Biomolecular condensates; COMPLEX COACERVATION; SUPERCHARGED PROTEINS; PHASE-SEPARATION; BEHAVIOR; SEQUENCE;
D O I
10.1016/j.cocis.2020.101407
中图分类号
O64 [物理化学(理论化学)、化学物理学];
学科分类号
070304 ; 081704 ;
摘要
Protein-polyelectrolyte coacervates have gained interest for their potential to stabilize proteins or function as adhesives and their biological implications in the formation of membraneless organelles. To effectively design these materials or predict their biological formation, knowledge of the macromolecular properties that dictate phase separation is required. This review highlights recent advances in the understanding of molecular determinants of protein-polyelectrolyte phase behavior. Properties that promote the phase separation of protein-polyelectrolyte pairs are covered from the perspective of synthetic systems and simplified biological condensates. Prominent factors that determine coacervate formation and material properties include nonspecific intermolecular interactions, as well as specific biological interactions and structures. Here, we summarize the essential roles of electrostatics, including charge magnitude and distribution, (bio) polymer chemistry and structure, and post-translational modifications to protein phase separation in both a synthetic and cellular context.
引用
收藏
页数:12
相关论文
共 50 条
  • [31] Determinants of rural household food security in Indonesia: the case of protein-based food consumption
    Umaroh, R.
    Pangaribowo, E. H.
    3RD ENVIRONMENTAL RESOURCES MANAGEMENT IN GLOBAL REGION, 2020, 451
  • [32] Creating Protein-Based Molecular Motors That Move along DNA Nanotubes
    Ibusuki, Ryota
    Oiwa, Kazuhiro
    Kojima, Hiroaki
    Furuta, Ken'ya
    BIOPHYSICAL JOURNAL, 2018, 114 (03) : 647A - 648A
  • [33] An Artificial Protein-Based Burnt-Bridges Molecular Motor Design
    Korosec, Chapin S.
    Forde, Nancy R.
    BIOPHYSICAL JOURNAL, 2020, 118 (03) : 281A - 281A
  • [34] Hybrid bioinorganic smart membranes that incorporate protein-based molecular switches
    Rao, GVR
    Balamurugan, S
    Meyer, DE
    Chilkoti, A
    López, GP
    LANGMUIR, 2002, 18 (05) : 1819 - 1824
  • [35] Protein-based fluorescent metal nanoclusters for small molecular drug screening
    Yu, Yong
    New, Siu Yee
    Xie, Jianping
    Su, Xiaodi
    Tan, Yen Nee
    CHEMICAL COMMUNICATIONS, 2014, 50 (89) : 13805 - 13808
  • [36] Patterning of protein-based materials
    Humenik, Martin
    Winkler, Anika
    Scheibel, Thomas
    BIOPOLYMERS, 2021, 112 (02)
  • [37] Developing Protein-Based Plastics
    Grewell, David
    Schrader, James
    Srinivasan, Gowrishankar
    SOY-BASED CHEMICALS AND MATERIALS, 2014, 1178 : 357 - +
  • [38] Protein-based protonic transistors
    Ordinario, David
    Phan, Long
    Jocson, Jonah
    Nguyen, Tam
    Gorodetsky, Alon
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2015, 249
  • [39] Electroactive protein-based materials
    Deravi, Leila
    ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY, 2017, 253
  • [40] Protein-based functional nanocomposites
    Wang, Zheyu
    Kang, Saewon
    Cao, Sisi
    Krecker, Michelle
    Tsukruk, Vladimir V.
    Singamaneni, Srikanth
    MRS BULLETIN, 2020, 45 (12) : 1017 - 1026