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Preface |
6 |
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Contents |
10 |
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List of Contributors |
12 |
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Elastic Growth Models |
14 |
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1 Introduction |
14 |
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2 One-dimensional Theory: Elasticity, Visco-elasticity, and Plasticity |
15 |
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3 One-dimensional Theory: Growth Models |
18 |
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4 Three-dimensional Growth |
34 |
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5 Conclusions |
53 |
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References |
53 |
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A Model of Pattern Coupled to Form in Metazoans |
58 |
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1 Introduction |
59 |
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2 Aspects of the Genome |
62 |
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3 The Pattern Model |
64 |
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4 Morphology |
77 |
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5 Notes on Sample Numerical Results |
85 |
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6 Summary and Outlook |
88 |
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Appendix A |
91 |
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Appendix B |
93 |
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References |
97 |
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Mathematical Modeling of HIV-1 Infection and Drug Therapy |
100 |
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1 Introduction |
100 |
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2 Basic Model of Virus Infection |
103 |
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3 Delay Models |
105 |
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4 Age-structured Models |
109 |
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5 Drug Resistance |
120 |
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6 Viral and Latent Reservoir Persistence |
135 |
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7 Discussion |
136 |
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References |
139 |
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Overcoming the Key Challenges in De Novo Protein Design: Enhancing Computational E . ciency and Incorporating True Backbone Flexibility |
145 |
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1 Introduction |
145 |
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2 The Original De Novo Protein Design Framework |
148 |
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3 Improvement of the De Novo Protein Design Framework |
153 |
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4 Case Studies |
174 |
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5 Conclusions |
187 |
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References |
188 |
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An Improved Heuristic for Consistent Biclustering Problems |
196 |
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1 Introduction |
196 |
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2 Consistent Biclustering |
198 |
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3 Supervised Biclustering |
201 |
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4 Heuristic Algorithm |
202 |
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5 Numerical Experiments |
204 |
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6 Conclusion Remarks |
206 |
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References |
208 |
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The Steiner Tree Problem and Its Application to the Modelling of Biomolecular Structures |
210 |
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1 Introduction |
210 |
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2 The Fermat-Steiner Problem. Motivations for Further Study |
210 |
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3 Consecutive Evenly Spaced Points |
214 |
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4 Steiner Points and Steiner Trees |
220 |
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5 Generic Sequences of Points and the Construction of the Steiner Ratio Function |
224 |
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6 An Unconstrained Optimization Problem. The Euclidean Steiner Ratio for Very Large Number of Points |
227 |
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7 Concluding Remarks |
229 |
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References |
229 |
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Phenotypic Switching and Mutation in the Presence of a Biocide: No Replication of Phenotypic Variant |
231 |
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1 Introduction |
231 |
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2 Mutation and Phenotypic Change |
232 |
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3 Di.erent Consumption Functions |
238 |
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4 Numerical Results |
244 |
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5 Discussion and Conclusion |
247 |
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Appendix A: Proofs |
248 |
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References |
251 |
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From Spatial Pattern in the Distribution and Abundance of Species to a Uni . ed Theory of Ecology: The Role of Maximum Entropy Methods |
253 |
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1 Introduction |
253 |
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2 Scaling Metrics in Spatial Ecology |
254 |
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3 Models of Spatial Pattern in Ecology |
257 |
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4 Intercomparisons of the Four Models |
267 |
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5 Tests of Models: an Overview |
268 |
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6 Advantages of the Maximum Entropy Framework in Ecology |
272 |
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7 Toward a Uni.ed Theory of Ecology |
275 |
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References |
279 |
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Protein Structure and Its Folding Rate |
283 |
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1 Introduction |
283 |
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2 Protein Structure |
284 |
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3 Phase Transitions in Protein Molecules |
287 |
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4 Theory of Protein Folding |
298 |
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5 Concluding Remarks |
307 |
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References |
308 |
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Index |
312 |
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