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9781584885498

Pattern Discovery in Bioinformatics: Theory & Algorithms

by ;
  • ISBN13:

    9781584885498

  • ISBN10:

    1584885491

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 2007-07-04
  • Publisher: Chapman & Hall/

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Summary

The computational methods of bioinformatics are being used more and more to process the large volume of current biological data. Promoting an understanding of the underlying biology that produces this data, Pattern Discovery in Bioinformatics: Theory and Algorithms provides the tools to study regularities in biological data.Taking a systematic approach to pattern discovery, the book supplies sound mathematical definitions and efficient algorithms to explain vital information about biological data. It explores various data patterns, including strings, clusters, permutations, topology, partial orders, and boolean expressions. Each of these classes captures a different form of regularity in the data, providing possible answers to a wide range of questions. The book also reviews basic statistics, including probability, information theory, and the central limit theorem.This self-contained book provides a solid foundation in computational methods, enabling the solution of difficult biological questions.

Table of Contents

Introductionp. 1
Ubiquity of Patternsp. 1
Motivations from Biologyp. 2
The Need for Rigorp. 2
Who is a Reader of this Book?p. 3
About this bookp. 4
The Fundamentalsp. 7
Basic Algorithmicsp. 9
Introductionp. 9
Graphsp. 9
Tree Problem 1: Minimum Spanning Treep. 14
Prim's algorithmp. 17
Tree Problem 2: Steiner Treep. 21
Tree Problem 3: Minimum Mutation Labelingp. 22
Fitch's algorithmp. 23
Storing & Retrieving Elementsp. 27
Asymptotic Functionsp. 30
Recurrence Equationsp. 32
Counting binary treesp. 34
Enumerating unrooted trees (Prufer sequence)p. 36
NP-Complete Class of Problemsp. 40
Exercisesp. 41
Basic Statisticsp. 47
Introductionp. 47
Basic Probabilityp. 48
Probability space foundationsp. 48
Multiple events (Bayes' theorem)p. 50
Inclusion-exclusion principlep. 51
Discrete probability spacep. 54
Algebra of random variablesp. 57
Expectationsp. 58
Discrete probability distribution (binomial, Poisson)p. 60
Continuous probability distribution (normal)p. 64
Continuous probability space ([ohm] is R)p. 66
The Bare Truth about Inferential Statisticsp. 69
Probability distribution invariantsp. 70
Samples & summary statisticsp. 72
The central limit theoremp. 77
Statistical significance (p-value)p. 80
Summaryp. 82
Exercisesp. 82
What Are Patterns?p. 89
Introductionp. 89
Common Threadp. 90
Pattern Dualityp. 90
Operators on pp. 92
Irredundant Patternsp. 92
Special case: maximalityp. 93
Transitivity of redundancyp. 95
Uniqueness propertyp. 95
Case studiesp. 96
Constrained Patternsp. 99
When is a Pattern Specification Nontrivial?p. 99
Classes of Patternsp. 100
Exercisesp. 103
Patterns on Linear Stringsp. 111
Modeling the Stream of Lifep. 113
Introductionp. 113
Modeling a Biopolymerp. 113
Repeats in DNAp. 114
Directionality of biopolymersp. 115
Modeling a random permutationp. 117
Modeling a random stringp. 119
Bernoulli Schemep. 120
Markov Chainp. 121
Stationary distributionp. 123
Computing probabilitiesp. 127
Hidden Markov Model (HMM)p. 128
The decoding problem (Viterbi algorithm)p. 130
Comparison of the Schemesp. 133
Conclusionp. 133
Exercisesp. 134
String Pattern Specificationsp. 139
Introductionp. 139
Notationp. 140
Solid Patternsp. 142
Maximalityp. 144
Counting the maximal patternsp. 144
Rigid Patternsp. 149
Maximal rigid patternsp. 150
Enumerating maximal rigid patternsp. 152
Density-constrained patternsp. 156
Quorum-constrained patternsp. 157
Large- [Sigma] inputp. 158
Irredundant patternsp. 160
Extensible Patternsp. 164
Maximal extensible patternsp. 165
Generalizationsp. 165
Homologous setsp. 165
Sequence on realsp. 167
Exercisesp. 170
Algorithms & Pattern Statisticsp. 183
Introductionp. 183
Discovery Algorithmp. 183
Pattern Statisticsp. 191
Rigid Patternsp. 191
Extensible Patternsp. 193
Nondegenerate extensible patternsp. 194
Degenerate extensible patternsp. 196
Correction factor for the dot characterp. 197
Measure of Surprisep. 198
z-scorep. 199
x-square ratiop. 199
Interplay of combinatorics & statisticsp. 200
Applicationsp. 201
Exercisesp. 203
Motif Learningp. 213
Introduction: Local Multiple Alignmentp. 213
Probabilistic Model: Motif Profilep. 214
The Learning Problemp. 215
Importance Measurep. 216
Statistical significancep. 216
Information contentp. 219
Algorithms to Learn a Motif Profilep. 220
An Expectation Maximization Frameworkp. 222
The initial estimate [rho subscript o]p. 222
Estimating z given [rho]p. 223
Estimating [rho] given zp. 224
A Gibbs Sampling Strategyp. 227
Estimating [rho] given an alignmentp. 227
Estimating background probabilities given Zp. 228
Estimating Z given [rho]p. 228
Interpreting the Motif Profile in Terms of pp. 229
Exercisesp. 230
The Subtle Motifp. 235
Introduction: Consensus Motifp. 235
Combinatorial Model: Subtle Motifp. 236
Distance between Motifsp. 238
Statistics of Subtle Motifsp. 240
Performance Scorep. 245
Enumeration Schemesp. 246
Neighbor enumeration (exact)p. 246
Submotif enumeration (inexact)p. 249
A Combinatorial Algorithmp. 252
A Probabilistic Algorithmp. 255
A Modular Solutionp. 257
Conclusionp. 259
Exercisesp. 260
Patterns on Meta-Datap. 263
Permutation Patternsp. 265
Introductionp. 265
Notationp. 266
How Many Permutation Patterns?p. 267
Maximalityp. 268
P[subscript = 1]: Linear notation & PQ treesp. 269
P[subscript > i]: Linear notation?p. 271
Parikh Mapping-based Algorithmp. 273
Tagging techniquep. 275
Time complexity analysisp. 275
Intervalsp. 278
The naive algorithmp. 280
The Uno-Yagiura RC algorithmp. 281
Intervals to PQ Treesp. 294
Irreducible intervalsp. 295
Encoding intervals as a PQ treep. 297
Applicationsp. 307
Case study I: Human and ratp. 308
Case study II: E. Coli K-12 and B. Subtilisp. 309
Conclusionp. 311
Exercisesp. 312
Permutation Pattern Probabilitiesp. 323
Introductionp. 323
Unstructured Permutationsp. 323
Multinomial coefficientsp. 325
Patterns with multiplicitiesp. 328
Structured Permutationsp. 329
P-arrangementp. 330
An incremental methodp. 331
An upper bound on P-arrangementsp. 336
A lower bound on P-arrangementsp. 341
Estimating the number of frontiersp. 342
Combinatorics to probabilitiesp. 345
Exercisesp. 346
Topological Motifsp. 355
Introductionp. 355
Graph notationp. 355
What Are Topological Motifs?p. 356
Combinatorics in topologiesp. 357
Input with self-isomorphismsp. 358
The Topological Motifp. 359
Maximalityp. 367
Compact Topological Motifsp. 369
Occurrence-isomorphismsp. 369
Vertex indistinguishabilityp. 372
Compact listp. 373
Compact vertex, edge & motifp. 373
Maximal compact listsp. 374
Conjugates of compact listsp. 374
Characteristics of compact listsp. 378
Maximal operations on compact listsp. 380
Maximal subsets of location listsp. 381
Binary relations on compact listsp. 384
Compact motifs from compact listsp. 384
The Discovery Methodp. 392
The algorithmp. 393
Related Classical Problemsp. 399
Applicationsp. 400
Conclusionp. 402
Exercisesp. 402
Set-Theoretic Algorithmic Toolsp. 417
Introductionp. 417
Some Basic Properties of Finite Setsp. 418
Partial Order Graph G(S, E) of Setsp. 419
Reduced partial order graphp. 420
Straddle graphp. 421
Boolean Closure of Setsp. 423
Intersection closurep. 423
Union closurep. 424
Consecutive (Linear) Arrangement of Set Membersp. 426
PQ treesp. 426
Straddling setsp. 429
Maximal Set Intersection Problem (maxSIP)p. 434
Ordered enumeration triep. 435
Depth first traversal of the triep. 436
Minimal Set Intersection Problem (minSIP)p. 447
Algorithmp. 447
Minimal from maximal setsp. 448
Multi-Setsp. 450
Ordered enumeration trie of multi-setsp. 451
Enumeration algorithmp. 453
Adapting the Enumeration Schemep. 455
Exercisesp. 458
Expression & Partial Order Motifsp. 469
Introductionp. 469
Motivationp. 470
Extracting (Monotone CNF) Boolean Expressionsp. 471
Extracting biclustersp. 475
Extracting patterns in microarraysp. 478
Extracting Partial Ordersp. 480
Partial ordersp. 480
Partial order construction problemp. 481
Excess in partial ordersp. 483
Statistics of Partial Ordersp. 485
Computing Cex(B)p. 489
Redescriptionsp. 493
Application: Partial Order of Expressionsp. 494
Summaryp. 495
Exercisesp. 496
Referencesp. 503
Indexp. 515
Table of Contents provided by Ingram. All Rights Reserved.

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