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E-raamat: Ancestral Sequence Reconstruction [Oxford Scholarship Online e-raamatud]

Edited by (Department of Molecular Biology, University of Wyoming, USA)
  • Formaat: 272 pages, numerous line figures/tables
  • Ilmumisaeg: 31-May-2007
  • Kirjastus: Oxford University Press
  • ISBN-13: 9780199299188
  • Oxford Scholarship Online e-raamatud
  • Raamatu hind pole hetkel teada
  • Formaat: 272 pages, numerous line figures/tables
  • Ilmumisaeg: 31-May-2007
  • Kirjastus: Oxford University Press
  • ISBN-13: 9780199299188
Liberles (molecular biology, U. of Wyoming) assembles 19 chapters drawn from the meeting, "Using Ancestral Sequence Reconstruction to Understand Protein Function," held in Kristineberg, Sweden, in March 2005. Following a historical and scientific overview of ancestral sequence reconstruction, the use of the technique to applications of drug design and substitutional mapping is discussed. Further chapters cover experimental methodology, and experimental synthesis of ancestral proteins, with specific topics addressing, for example, standard approaches for reconstruction, limitations and considerations, covarion or heterotacheous processes, the reference species tree and how different typologies can affect reconstructed sequences, converting sequences to proteins, and biological questions across different evolutionary depths. Contradictory views are presented to show the ongoing debates in the discipline. Contributors are scientists working around the world in fields such as genetics, biology, and bioinformatics. The volume is meant for graduate students and researchers in molecular biology and evolution, and evolutionary bioinformatics. Annotation ©2007 Book News, Inc., Portland, OR (booknews.com)

Ancestral sequence reconstruction is a technique of growing importance in molecular biology and comparative genomics. As a powerful technique for both testing evolutionary and ecological hypotheses as well as uncovering the link between sequence and molecular phenotype, there are potential applications in a number of fields. Beginning with a historical overview of the field including apllications, the discussion then moves into potential applications in drug discovery and the pharmaceutical industry. A section on computational methodology provides a detailed discussion on available methods for reconstructing ancestral sequences, including advantages,disadvantages, and potential pitfalls. Purely computational applications, including whole proteome reconstruction are discussed. Another section provides a detailed discussion on taking computationally reconstructed sequences and synthesizing them in the laboratory, while the last section describes scientific questions where experimental ancestral sequence reconstruction coupled to a computaional and experimental how-to guide, while simultaneously addressing some of the hot topics in the field.
Foreword and introduction vii
Introduction to the meeting in Kristineberg, Sweden x
Contributors xii
I. Introductory scientific overview
The early days of paleogenomics: connecting molecules to the planet
3(17)
Steven A. Benner
Ancestral sequence reconstruction as a tool to understand natural history and guide synthetic biology: realizing and extending the vision of Zuckerkandl and Pauling
20(14)
Eric A. Gaucher
Linking sequence to function in drug design with ancestral sequence reconstruction
34(9)
Janos T. Kodra
Marie Skovgaard
Dennis Madsen
David A. Liberles
II. Computational methodology and concerns
Probabilistic models and their impact on the accuracy of reconstructed ancestral protein sequences
43(15)
Tal Pupko
Adi Doron-Faigenboim
David A. Liberles
Gina M. Cannarozzi
Probabilistic ancestral sequences based on the Markovian model of evolution: algorithms and applications
58(11)
Gina M. Cannarozzi
Adrian Schneider
Gaston H. Gonnet
Estimating the history of mutations on a phylogeny
69(11)
Jonathan P. Bollback
Paul P. Gardner
Rasmus Nielsen
Coarse projections of the protein-mutational fitness landscape
80(5)
F. Nicholas Braun
Dealing with uncertainty in ancestral sequence reconstruction: sampling from the posterior distribution
85(10)
David D. Pollock
Belinda S.W. Chang
Evolutionary properties of sequences and ancestral state reconstruction
95(8)
Lesley J. Collins
Peter J. Lockhart
Reconstructing the ancestral eukaryote: lessons from the past
103(14)
Mary J. O'Connell
James O. McInerney
III. Computational applications of ancestral sequence reconstruction
Using ancestral sequence inference to determine the trend of functional divergence after gene duplication
117(11)
Xun Gu
Ying Zheng
Yong Huang
Dongping Xu
Reconstruction of ancestral proteomes
128(11)
Toni Gabaldon
Martijn A. Huynen
Computational reconstruction of ancestral genomic regions from evolutionary conserved gene clusters
139(14)
Etienne G.J. Danchin
Eric A. Gaucher
Pierre Pontarotti
IV. Experimental methodology and concerns
Experimental resurrection of ancient biomolecules: gene synthesis, heterologous protein expression, and functional assays
153(11)
Eric A. Gaucher
Dealing with model uncertainty in reconstructing ancestral proteins in the laboratory: examples from archosaur visual pigments and coral fluorescent proteins
164(19)
Belinda S.W. Chang
Mikhail V. Matz
Steven F. Field
Johannes Muller
Ilke van Hazel
V. Experimental synthesis of ancestral proteins to test biological hypotheses
Using ancestral gene resurrection to unravel the evolution of protein function
183(17)
Joseph W. Thornton
Jamie T. Bridgham
A thermophilic last universal ancestor inferred from its estimated amino acid composition
200(8)
Dawn J. Brooks
Eric A. Gaucher
The resurrection of ribonucleases from mammals: from ecology to medicine
208(17)
Slim O. Sassi
Steven A. Benner
Evolution of specificity and diversity
225(11)
Denis C. Shields
Catriona R. Johnston
Iain M. Wallace
Richard J. Edwards
Conclusions and a way forward 236(3)
David A. Liberles
Index 239


David A. Liberles is Assistant Professor at the Department of Molecular Biology, University of Wyoming, USA