Maltose-bis(hydroxymethyl)phenol (MBPs) and Maltose-tris(hydroxymethyl)phenol (MTPs) Amphiphiles for Membrane Protein Stability
Author(s) -
Muhammad Ehsan,
Haoqing Wang,
Cristina Cecchetti,
Jonas S. Mortensen,
Yang Du,
Parameswaran Hariharan,
Andreas Nygaard,
Ho Jin Lee,
Lubna Ghani,
Lan Guan,
Claus J. Løland,
Bernadette Byrne,
Brian K. Kobilka,
Pil Seok Chae
Publication year - 2021
Publication title -
acs chemical biology
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.899
H-Index - 111
eISSN - 1554-8937
pISSN - 1554-8929
DOI - 10.1021/acschembio.1c00578
Subject(s) - hydroxymethyl , chemistry , maltose , tris , maltose binding protein , amphiphile , membrane , phenol , membrane protein , denaturation (fissile materials) , biochemistry , solubilization , chromatography , organic chemistry , enzyme , polymer , copolymer , nuclear chemistry , fusion protein , gene , recombinant dna
Membrane protein structures provide a fundamental understanding of their molecular actions and are of importance for drug development. Detergents are widely used to solubilize, stabilize, and crystallize membrane proteins, but membrane proteins solubilized in conventional detergents are prone to denaturation and aggregation. Thus, developing novel detergents with enhanced efficacy for protein stabilization remains important. We report herein the design and synthesis of a class of phenol-derived maltoside detergents. Using two different linkers, we prepared two sets of new detergents, designated maltose-bis(hydroxymethyl)phenol (MBPs) and maltose-tris(hydroxymethyl)phenol (MTPs). The evaluation of these detergents with three transporters and two G-protein coupled receptors allowed us to identify a couple of new detergents (MBP-C9 and MTP-C12) that consistently conferred enhanced stability to all tested proteins compared to a gold standard detergent (DDM). Furthermore, the data analysis based on the detergent structures provides key detergent features responsible for membrane protein stabilization that together will facilitate the future design of novel detergents.
Accelerating Research
Robert Robinson Avenue,
Oxford Science Park, Oxford
OX4 4GP, United Kingdom
Address
John Eccles HouseRobert Robinson Avenue,
Oxford Science Park, Oxford
OX4 4GP, United Kingdom