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Construction of a Chassis for a Tripartite Protein-Based Molecular Motor
Author(s) -
Lara Siobhan Rebecca Small,
Marc Bruning,
Andrew R. Thomson,
Aimee L. Boyle,
Roberta B. Davies,
Paul M. G. Curmi,
Nancy R. Forde,
Heiner Linke,
Derek N. Woolfson,
Elizabeth H. C. Bromley
Publication year - 2017
Publication title -
acs synthetic biology
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 2.156
H-Index - 66
ISSN - 2161-5063
DOI - 10.1021/acssynbio.7b00037
Subject(s) - antiparallel (mathematics) , molecular motor , folding (dsp implementation) , coiled coil , chassis , exploit , computer science , synthetic biology , disulfide bond , protein folding , biological system , computational biology , chemistry , nanotechnology , biology , biochemistry , engineering , physics , materials science , mechanical engineering , computer security , quantum mechanics , magnetic field
Improving our understanding of biological motors, both to fully comprehend their activities in vital processes, and to exploit their impressive abilities for use in bionanotechnology, is highly desirable. One means of understanding these systems is through the production of synthetic molecular motors. We demonstrate the use of orthogonal coiled-coil dimers (including both parallel and antiparallel coiled coils) as a hub for linking other components of a previously described synthetic molecular motor, the Tumbleweed. We use circular dichroism, analytical ultracentrifugation, dynamic light scattering, and disulfide rearrangement studies to demonstrate the ability of this six-peptide set to form the structure designed for the Tumbleweed motor. The successful formation of a suitable hub structure is both a test of the transferability of design rules for protein folding as well as an important step in the production of a synthetic protein-based molecular motor.

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