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Phylogenetic Trees Made Easy: A How-To Manual 4th ed. 2011 [Pehme köide]

  • Formaat: Paperback / softback, 282 pages, kõrgus x laius: 234x177 mm, 282 p., 1 Paperback / softback
  • Ilmumisaeg: 07-Jul-2011
  • Kirjastus: Sinauer Associates Inc.,U.S.
  • ISBN-10: 0878936068
  • ISBN-13: 9780878936069
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  • Formaat: Paperback / softback, 282 pages, kõrgus x laius: 234x177 mm, 282 p., 1 Paperback / softback
  • Ilmumisaeg: 07-Jul-2011
  • Kirjastus: Sinauer Associates Inc.,U.S.
  • ISBN-10: 0878936068
  • ISBN-13: 9780878936069
Teised raamatud teemal:
With the advent of gene sequencing, says Hall (emeritus, U. of Rochester) phylogenetic analysis escaped from its obscure niche in taxonomy to become a core feature of genomics and bioinformatics. The reputation of phylogenetic trees as arcane and difficult remained, however, and indeed was nurtured by the few who used them. They are not difficult, he says, and offers essentially a cookbook for beginners to creating phylogenetic trees from protein or nucleic acid sequencing data. He assumes readers know how to use a personal computer and can get around the World Wide Web. No dates are noted for previous editions. Annotation ©2011 Book News, Inc., Portland, OR (booknews.com)

Arvustused

"Overall, this is an incredibly helpful book for those trying to reconstruct the evolutionary histories of proteins, species, or populations."

--Sam Kieschnick, Journal of the Botanical Research Institute of Texas

Chapter 1 Read Me First!
1(10)
New and Improved Software
2(1)
Just What Is a Phylogenetic Tree?
3(1)
Estimating Phylogenetic Trees: The Basics
4(1)
Beyond the Basics
5(1)
Learn More about the Principles
6(1)
About Appendix III F.A.Q.
7(1)
Computer Programs and Where to Obtain Them
7(2)
MEGA 5
8(1)
MrBayes
8(1)
FigTree
8(1)
Codeml
8(1)
SplitsTree and Dendroscope
8(1)
Utility Programs
8(1)
Text Editors
9(1)
Acknowledging Computer Programs
9(1)
The Phylogenetic Trees Made Easy Website
9(2)
Chapter 2 Tutorial: Estimate a Tree
11(18)
Why Create Phylogenetic Trees?
11(1)
About this Tutorial
12(1)
Macintosh and Linux users
12(1)
A word about screen shots
12(1)
Search for Sequences Related to Your Sequence
13(3)
Decide Which Related Sequences to Include on Your Tree
16(4)
Establishing homology
17(1)
To include or not to include, that is the question
18(2)
Download the Sequences
20(3)
Align the Sequences
23(1)
Make a Neighbor Joining Tree
24(4)
Summary
28(1)
Chapter 3 Acquiring the Sequences
29(18)
Hunting Homologs: What Sequences Can Be Included on a Single Tree?
29(1)
Becoming More Familiar with BLAST
30(2)
BLAST help
32(1)
Using the Nucleotide BLAST Page
32(2)
Using BLAST to Search for Related Protein Sequences
34(4)
Finalizing Selected Sequences for a Tree
38(5)
Other Ways to Find Sequences of Interest (Beware! The Risks Are High)
43(4)
Chapter 4 Aligning the Sequences
47(14)
Aligning Sequences with MUSCLE
47(4)
Examine and Possibly Manually Adjust the Alignment
51(5)
Trim excess sequence
51(3)
Eliminate duplicate sequences
54(2)
Check Average Identity to Estimate Reliability of the Alignment
56(2)
Codons: Pairwise amino acid identity
56(1)
Non-coding DNA sequences
57(1)
Increasing Alignment Speed by Adjusting MUSCLE's Parameter Settings
58(2)
How MUSCLE works
58(1)
Adjusting parameters to increase alignment speed
59(1)
Aligning Sequences with Clusta/W
60(1)
Chapter 5 Major Methods for Estimating Phylogenetic Trees
61(8)
Learn More About Tree-Searching Methods
62(2)
Distance versus Character-Based Methods
64(1)
Learn More About Distance Methods
64(2)
Which Method Should You Use?
66(3)
Accuracy
66(1)
Ease of interpretation
67(1)
Time and convenience
67(2)
Chapter 6 Neighbor Joining Trees
69(22)
Using MEGA 5 to Estimate a Neighbor Joining Tree
69(1)
Learn More About Phylogenetic Trees
70(5)
Determine the suitability of the data for a Neighbor Joining tree
73(1)
Estimate the tree
74(1)
Learn More About Evolutionary Models
75(5)
Unrooted and Rooted trees
80(2)
Estimating the Reliability of a Tree
82(1)
Learn More About Estimating The Reliability Of Phylogenetic Trees
83(6)
What about Protein Sequences?
89(2)
Chapter 7 Drawing Phylogenetic Trees
91(20)
Changing the Appearance of a Tree
92(14)
The Options dialog
94(2)
Branch styles
96(3)
Fine-tuning the appearance of a tree
99(3)
Subtrees
102(4)
Rooting a Tree
106(2)
Finding an outgroup
108(1)
Saving Trees
108(1)
Saving a tree description
108(1)
Saving a tree image
108(1)
Captions
109(2)
Chapter 8 Parsimony
111(12)
Learn More About Parsimony
111(2)
MP Search Methods
113(3)
Multiple Equally Parsimonious Trees
116(6)
Calculating branch lengths
117(1)
Consensus and bootstrap trees
118(4)
In the Final Analysis
122(1)
Chapter 9 Maximum Likelihood
123(16)
Learn More About Maximum Likelihood
123(2)
ML Analysis Using MEGA
125(9)
Test alternative models
126(3)
Rooting the ML tree
129(3)
The special case of zero length branches
132(2)
Estimating the Reliability of an ML Tree by Bootstrapping
134(3)
What about Protein Sequences?
137(2)
Chapter 10 Bayesian Inference of Trees Using MrBayes
139(22)
MrBayes: An Overview
139(2)
Learn More About Bayesian Inference
141(2)
Saving time (and perhaps your sanity)
142(1)
Choose a model
143(1)
A General Strategy for Estimating Trees Using MrBayes
143(1)
Creating the Execution File
144(4)
What the statements in the example mrbayes block do
145(3)
How the stoprule option of the mcmc command is implemented
148(1)
How Do You Run a MrBayes Analysis?
148(1)
More Complex (and More Useful) MrBayes Blocks
149(2)
Including a user tree
149(1)
The nperts option of the mcmc command
150(1)
Coding sequences and the charset statement
150(1)
The Screen Output while MrBayes Is Running
151(1)
What If You Don't Get Convergence?
152(4)
What about Protein Sequences?
156(1)
Visualizing the MrBayes Tree
156(2)
Using FigTree
158(3)
The side panel
158(2)
The icons above the tree
160(1)
Chapter 11 Working with Various Computer Platforms
161(16)
Command Line Programs
161(1)
MEGA on the Macintosh Platform
162(3)
Navigating among folders on the Mac
162(3)
Printing trees and text from MEGA
165(1)
The Line Endings Issue
165(1)
Installing Command Line Programs
165(3)
Macintosh and Linux: Use the bin folder
166(1)
Windows: Create a bin folder and a path to it
166(2)
Command Line Programs: The Running Environment
168(4)
Windows: A brief visit to the Command Prompt program
168(2)
Macintosh and Linux: A brief visit to Terminal and Unix
170(2)
Acquiring and Installing MrBayes
172(2)
Windows users
172(1)
Macintosh and Linux users
173(1)
Compile MrBayes for your Mac
173(1)
Running the Utility Programs
174(3)
Utility programs for Windows
175(1)
Utility programs for Macintosh and Linux
175(2)
Chapter 12 Advanced Alignment Using GUIDANCE
177(14)
Issues of Alignment Reliability
177(1)
Unreliable sequences
177(1)
Unreliable regions
178(1)
How Guidance Works
178(1)
An Example Illustrated by the SmallData Data Set
179(11)
Make a file of the unaligned sequences in FASTA format
180(1)
Starting the run
180(2)
Viewing the results
182(4)
Eliminate unreliable sequences
186(4)
Applications of Guidance
190(1)
Chapter 13 Reconstructing Ancestral Sequences
191(12)
Using Mega to Estimate Ancestral Sequences by Maximum Likelihood
192(9)
Create the alignment
192(1)
Construct the phylogeny
193(1)
Examine the ancestral states at each site in the alignment
194(2)
Estimate the ancestral sequence
196(5)
Calculating the ancestral protein sequence and amino acid probabilities
201(1)
How Accurate are the Estimated Ancestral Sequences?
201(2)
Chapter 14 Detecting Adaptive Evolution
203(16)
Effect of Alignment Accuracy on Detecting Adaptive Evolution
205(1)
Using Mega to Detect Adaptive Evolution
205(6)
Detecting overall selection
205(1)
Detecting selection between pairs
206(2)
Finding the region of the gene that has been subject to positive selection
208(3)
Using Codeml to Detect Adaptive Evolution
211(7)
Installation
211(1)
The files you need to run codeml
211(2)
Questions that underlie the models
213(1)
Run codeml
214(1)
Identify the branches along which selection may have occurred
214(2)
Test the statistical significance of the dN/dS ratios
216(2)
Summary
218(1)
Chapter 15 Phylogenetic Networks
219(30)
Why Trees Are Not Always Sufficient
219(2)
Unrooted and Rooted Phylogenetic Networks
221(1)
Using SplitsTree to Estimate Unrooted Phylogenetic Networks
221(2)
Estimating networks from alignments
221(2)
Learn More About Phylogenetic Networks
223(20)
Rooting an unrooted network
234(1)
Estimating networks from trees
235(1)
Consensus networks
236(5)
Supernetworks
241(2)
Using Dendroscope to Estimate Rooted Networks from Rooted Trees
243(6)
Chapter 16 Some Final Advice: Learn to Program
249(2)
Appendix I File Formats and Their Interconversion
251(8)
Format Descriptions
251(6)
The MEGA format
251(1)
The FASTA format
252(1)
The Nexus format
253(3)
The PHYLIP format
256(1)
Interconverting Formats
257(2)
FastaConvert and MEGA
257(1)
Other format conversion programs
257(2)
Appendix II Additional Programs
259(4)
Appendix III Frequently Asked Questions
263(4)
Literature Cited 267(2)
Index to Major Program Discussions 269(6)
Subject Index 275
BARRY G. HALL is Director of the Bellingham Research Institute, Adjunct Professor of Genomics and Bioinformatics at the Allegheny-Singer Research Institute's Center for Genomic Sciences, and Professor Emeritus of Biology, University of Rochester, USA. He was a founding member of the Society for Molecular Biology and Evolution and has been Editor-in-Chief of the journal Molecular Biology and Evolution, and on the Editorial Boards of Genetica, the Journal of Molecular Evolution, and the Journal of Bacteriology.