Simon C. Lovell

Dr. Simon C. Lovell


Research Focus & Metrics

Academic Career Length

34Years (1993-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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8 January 2003 in Proteins: Structure, Function, and Bioinformatics
Verified
Journal Article
Closed access
PDF file
SLSimon C. Lovell
Simon C. Lovell
IDIan W. Davis
Ian W. Davis
WAW. Bryan Arendall
W. Bryan Arendall
PBPaul I. W. de Bakker
Paul I. W. de Bakker
JWJ. Michael Word
J. Michael Word
DRDavid C. Richardson
David C. Richardson

1 January 1999 in Journal of Molecular Biology
Verified
Journal Article
Closed access
JWJ. Michael Worda
J. Michael Worda
SLSimon C. Lovell
Simon C. Lovell
JRJane S. Richardson
Jane S. Richardson
DRDavid C. Richardson
David C. Richardson

23 September 2012 in Nature Genetics
Verified
Journal Article
Closed access
PDF file
GRGillian I Rice
Gillian I Rice
PKPaul Kasher
Paul Kasher
GFGabriella M A Forte
Gabriella M A Forte
NMNiamh M Mannion
Niamh M Mannion
SGSam M Greenwood
Sam M Greenwood
YCYanick J Crow
Yanick J Crow

1 January 1999 in Journal of Molecular Biology
Verified
Journal Article
Closed access
JWJ.MIchael Word
J.MIchael Word
SLSimon C. Lovell
Simon C. Lovell
TLThomas Labean
Thomas Labean
HTHope C. Taylor
Hope C. Taylor
MZMichael E. Zalis
Michael E. Zalis
DRDavid C. Richardson
David C. Richardson

14 April 2008 in Cellular and Molecular Life Sciences
Verified
Journal Article
Closed access
PDF file
JBJordi Bella
Jordi Bella
KHK. L. Hindle
K. L. Hindle
PMP. A. McEwan
P. A. McEwan
SLSimon C. Lovell
Simon C. Lovell

30 March 2012 in Protein Science
Verified
Journal Article
Open access
PDF file
DLDavid Liberles
David Liberles
STSarah A. Teichmann
Sarah A. Teichmann
IBIvet Bahar
Ivet Bahar
UBUgo Bastolla
Ugo Bastolla
JBJesse Bloom
Jesse Bloom
SWSimon Whelan
Simon Whelan
The interface of protein structural biology, protein biophysics, molecular evolution, and molecular population genetics forms the foundations for a mechanistic understanding of many aspects of protein biochemistry. Current efforts in interdisciplinary protein modeling are in their infancy and the state‐of‐the art of such models is described. Beyond the relationship between amino acid substitution and static protein structure, protein function, and corresponding organismal fitness, other considerations are also discussed. More complex mutational processes such as insertion and deletion and domain rearrangements and even circular permutations should be evaluated. The role of intrinsically disordered proteins is still controversial, but may be increasingly important to consider. Protein geometry and protein dynamics as a deviation from static considerations of protein structure are also important. Protein expression level is known to be a major determinant of evolutionary rate and several considerations including selection at the mRNA level and the role of interaction specificity are discussed. Lastly, the relationship between modeling and needed high‐throughput experimental data as well as experimental examination of protein evolution using ancestral sequence resurrection and in vitro biochemistry are presented, towards an aim of ultimately generating better models for biological inference and prediction.