FUNDAMENTALS of SYSTEMS BIOLOGY From Synthetic Circuits to Whole-cell Models

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FUNDAMENTALS of SYSTEMS BIOLOGY From Synthetic Circuits to Whole-cell Models Markus W. Covert Stanford University 0 CRC Press Taylor & Francis Group Boca Raton London New York

Contents /... Preface, xi Acknowledgments, xvii About the Author, xix SECTION I Building Intuition CHAPTER 1 Variations on a Theme of Control VARIATIONS AUTOREGULATION OUR THEME: A TYPICAL NEGATIVE AUTOREGULATORY CIRCUIT CHAPTER SUMMARY RECOMMENDED READING CHAPTER 2 Variation: Boolean Representations BOOLEAN LOGIC AND RULES STATE MATRICES STATE TRANSITIONS DYNAMICS TIMESCALES ADVANTAGES AND DISADVANTAGES OF BOOLEAN ANALYSIS 3 3 3 4 8 11 11 13 13 13 17 18 19 24 26

vi Contents CHAPTER SUMMARY 26 RECOMMENDED READING 27 PROBLEMS 27 CHAPTER 3 Variation: Analytical Solutions of Ordinary Differential Equations 35 35 SYNTHETIC BIOLOGICAL CIRCUITS 36 FROM COMPARTMENT MODELS TO ODES 37 SPECIFYING AND SIMPLIFYING ODES WITH ASSUMPTIONS THE STEADY-STATE ASSUMPTION SOLVING THE SYSTEM WITHOUT FEEDBACK: REMOVAL OF ACTIVATOR KEY PROPERTIES OF THE SYSTEM DYNAMICS SOLVING THE SYSTEM WITHOUT FEEDBACK: ADDITION OF ACTIVATOR COMPARISON OF MODELING TO EXPERIMENTAL MEASUREMENTS ADDITION OF AUTOREGULATORY FEEDBACK COMPARISON OF THE REGULATED AND UNREGULATED SYSTEMS CHAPTER SUMMARY RECOMMENDED READING PROBLEMS CHAPTER 4 Variation: Graphical Analysis REVISITING THE PROTEIN SYNTHESIS ODES PLOTTING X VERSUS DXIDT FIXED POINTS AND VECTOR FIELDS FROM VECTOR FIELDS TO TIME-COURSE PLOTS NONLINEARITY 41 43 44 46 47 49 50 53 57 58 59 65 65 66 67 68 70 70

Contents vii ADDING FEEDBACK 75 TWO-EQUATION SYSTEMS 77 CHAPTER SUMMARY 81 RECOMMENDED READING 82 PROBLEMS 83 CHAPTER 5 Variation: Numerical Integration 91 91 THE EULER METHOD 92 ACCURACY AND ERROR 94 THE MIDPOINT METHOD 99 THE RUNGE-KUTTA METHOD 103 CHAPTER SUMMARY 106 RECOMMENDED READING 106 PROBLEMS 107 CHAPTER 6 Variation: Stochastic Simulation 111 111 SINGLE CELLS AND LOW MOLECULE NUMBERS 111 STOCHASTIC SIMULATIONS 113 THE PROBABILITY THAT TWO MOLECULES INTERACT AND REACT IN A GIVEN TIME INTERVAL THE PROBABILITY OF A GIVEN MOLECULAR REACTION OCCURRING OVER TIME 116 118 THE RELATIONSHIP BETWEEN KINETIC AND STOCHASTIC CONSTANTS 119 GILLESPIE'S STOCHASTIC SIMULATION ALGORITHM 120 STOCHASTIC SIMULATION OF UNREGULATED GENE EXPRESSION 124 STOCHASTIC SIMULATIONS VERSUS OTHER MODELING APPROACHES 131 CHAPTER SUMMARY 132 RECOMMENDED READING 132

viii Contents SECTION II From Circuits to Networks CHAPTER 7 Transcriptional Regulation 143 143 TRANSCRIPTIONAL REGULATION AND COMPLEXITY 144 MORE COMPLEX TRANSCRIPTIONAL CIRCUITS 145 THE TRANSCRIPTIONAL REGULATORY FEED-FORWARD MOTIF BOOLEAN ANALYSIS OF THE MOST COMMON INTERNALLY CONSISTENT FEED-FORWARD MOTIF IDENTIFIED IN f. COLI AN ODE-BASED APPROACH TO ANALYZING. THE COHERENT FEED-FORWARD LOOP 147 149 152 ROBUSTNESS OF THE COHERENT FEED-FORWARD LOOP 155 EXPERIMENTAL INTERROGATION OF THE COHERENT FEED-FORWARD LOOP 155 CHANGING THE INTERACTION FROM AN AND TO AN OR RELATIONSHIP 156 THE SINGLE-INPUT MODULE 160 JUST-IN-TIME GENE EXPRESSION 162 GENERALIZATION OF THE FEED-FORWARD LOOP 164 AN EXAMPLE OF A MULTIGENE FEED-FORWARD LOOP: FLAGELLAR BIOSYNTHESIS IN f. COLI 166 OTHER REGULATORY MOTIFS 168 CHAPTER SUMMARY 169 RECOMMENDED READING 170 PROBLEMS 171 CHAPTER 8 Signal Transduction 179 179 RECEPTOR-LIGAND BINDING TO FORM A COMPLEX 179 APPLICATION TO REAL RECEPTOR-LIGAND PAIRS 183 FORMATION OF LARGER COMPLEXES 187

Contents ix THE NF-KB SIGNALING NETWORK 191 A DETAILED MODEL OF NF-KB ACTIVITY 193 ALTERNATIVE REPRESENTATIONS FOR THE SAME PROCESS 198 SPECIFYING ~ARAMETER VALUES FROM DATA 200 BOUNDING PARAMETER VALUES 206 MODEL SENSITIVITY TO PARAMETER VALUES 207 REDUCING COMPLEXITY BY ELIMINATING PARAMETERS 210 PARAMETER INTERACTIONS 213 CHAPTER SUMMARY 216 RECOMMENDED READING 217 PROBLEMS 218 CHAPTER 9 Metabolism 233 233 CELLULAR METABOLISM 233 METABOLIC REACTIONS 234 COMPARTMENT MODELS OF METABOLITE CONCENTRATION 237 THE MICHAELIS-MENTEN EQUATION FOR ENZYME KINETICS 237 DETERMINING KINETIC PARAMETERS FOR THE MICHAELIS-MENTEN SYSTEM 245 INCORPORATING ENZYME INHIBITORY EFFECTS 247 FLUX BALANCE ANALYSIS 252 STEADY-STATE ASSUMPTION AND EXCHANGE FLUXES 255 SOLUTION SPACES 258 THE OBJECTIVE FUNCTION 259 DEFINING THE OPTIMIZATION PROBLEM 262 SOLVING FBA PROBLEMS USING MATLAB 263 APPLICATIONS OF FBA TO LARGE-SCALE METABOLIC MODELS 271 USING FBA FOR METABOLIC ENGINEERING 274

x Contents RECOMMENDED READING PROBLEMS CHAPTER 10 Integrated Models 281 282 295 295 DYNAMIC FBA: EXTERNAL VERSUS INTERNAL CONCENTRATIONS 296 ENVIRONMENTAL CONSTRAINTS 298 INTEGRATION OF FBA SIMULATIONS OVER TIME 300 COMPARING DYNAMIC FBA TO EXPERIMENTAL DATA 303 FBA AND TRANSCRIPTIONAL REGULATION 304 TRANSCRIPTIONAL REGULATORY CONSTRAINTS 305 REGULATORY FBA: METHOD 306 REGULATORY FBA: APPLICATION 308 TOWARD WHOLE-CELL MODELING 310 CHAPTER SUMMARY 315 RECOMMENDED READING 316 PROBLEMS 317 GLOSSARY, 323 INDEX, 333