Facilitating the structural characterisation of non-canonical amino acids in biomolecular NMR
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Published:2023-02-24
Issue:1
Volume:4
Page:57-72
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ISSN:2699-0016
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Container-title:Magnetic Resonance
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language:en
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Short-container-title:Magn. Reson.
Author:
Kuschert SarahORCID, Stroet MartinORCID, Chin Yanni Ka-Yan, Conibear Anne ClaireORCID, Jia Xinying, Lee Thomas, Bartling Christian Reinhard OttoORCID, Strømgaard Kristian, Güntert Peter, Rosengren Karl JohanORCID, Mark Alan Edward, Mobli MehdiORCID
Abstract
Abstract. Peptides and proteins containing non-canonical amino acids (ncAAs) are a
large and important class of biopolymers. They include non-ribosomally
synthesised peptides, post-translationally modified proteins, expressed or
synthesised proteins containing unnatural amino acids, and peptides and
proteins that are chemically modified. Here, we describe a general procedure
for generating atomic descriptions required to incorporate ncAAs within
popular NMR structure determination software such as CYANA, CNS, Xplor-NIH
and ARIA. This procedure is made publicly available via the existing
Automated Topology Builder (ATB) server (https://atb.uq.edu.au, last access: 17 February 2023) with all submitted
ncAAs stored in a dedicated database. The described procedure also includes
a general method for linking of side chains of amino acids from CYANA
templates. To ensure compatibility with other systems, atom names comply
with IUPAC guidelines. In addition to describing the workflow, 3D models of
complex natural products generated by CYANA are presented, including
vancomycin. In order to demonstrate the manner in which the templates for
ncAAs generated by the ATB can be used in practice, we use a combination of
CYANA and CNS to solve the structure of a synthetic peptide designed to
disrupt Alzheimer-related protein–protein interactions. Automating the
generation of structural templates for ncAAs will extend the utility of NMR
spectroscopy to studies of more complex biomolecules, with applications in
the rapidly growing fields of synthetic biology and chemical biology. The procedures
we outline can also be used to standardise the creation of structural
templates for any amino acid and thus have the potential to impact
structural biology more generally.
Funder
Australian Research Council Austrian Science Fund
Publisher
Copernicus GmbH
Subject
Atomic and Molecular Physics, and Optics,Condensed Matter Physics,Analytical Chemistry
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