- Page 2 and 3: Natural Computing Series Series Edi
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- Page 9 and 10: VIII Preface In Chap. 2 we introduc
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- Page 17 and 18: 2 Introduction the number of cars m
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- Page 21 and 22: 6 1 DNA: The Molecule of Life 1.2 T
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- Page 40 and 41: Boolean algebra 2.2 Algorithms and
- Page 42 and 43: 2.3 The Turing Machine 27 So, this
- Page 44 and 45: 2.4 The Random Access Machine 29 Th
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- Page 48 and 49: JUMP while endwhile: WRITE 2 write
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- Page 52 and 53: 2.5 Data Structures 37 tions and pe
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2.6 Computational Complexity 41 sta
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2.8 Summary 43 Table 2.6. Running t
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3 Models of Molecular Computation
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Unrestricted model 3.2 Filtering Mo
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3.2 Filtering Models 49 variable, v
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3.2 Filtering Models 51 which are n
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k=red For each edge {j,k} In parall
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3.2 Filtering Models 55 The maximum
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3.2 Filtering Models 57 We now illu
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Separate on 1 Separate on 2 Separat
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S T S T α β γ α γ δ δ β 3.4
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3.5 Membrane Models 63 tiles within
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3.5 Membrane Models 65 while the se
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3.5 Membrane Models 67 objects, and
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1 2 3 a f 1 2 3 a b 2 f 3.6 Summary
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4 Complexity Issues “Out of inten
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4.2 An Existing Model of DNA Comput
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4.2 An Existing Model of DNA Comput
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4.4 Ogihara and Ray’s Boolean Cir
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4.4 Ogihara and Ray’s Boolean Cir
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x 1 e 1,5 (a) g 5 4.4 Ogihara and R
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4.5 An Alternative Boolean Circuit
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j k 4.6 Proposed Physical Implement
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1 0 1 1 g 1 g 2 1 2 (a) (b) g 3 g 1
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4.8 Example Application: Transitive
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4.9 P-RAM Simulation 91 algorithm m
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and repeat repeat-value times instr
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4.10 The Translation Process 95 pro
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4.10 The Translation Process 97 blo
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4.10 The Translation Process 99 MUL
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Contents of M at start of simulatio
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4.12 A Worked Example: The List Ran
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4.12 A Worked Example: The List Ran
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4.14 Bibliographical Notes 107 We h
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110 5 Physical Implementations not
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112 5 Physical Implementations 5.4
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114 5 Physical Implementations Stag
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116 5 Physical Implementations or e
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118 5 Physical Implementations (Fig
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120 5 Physical Implementations 3. T
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122 5 Physical Implementations sinc
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124 5 Physical Implementations Tabl
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126 5 Physical Implementations Expe
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128 5 Physical Implementations thre
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130 5 Physical Implementations Resu
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132 5 Physical Implementations Fig.
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134 5 Physical Implementations We a
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136 5 Physical Implementations 5.9.
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138 5 Physical Implementations stra
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140 5 Physical Implementations proc
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142 5 Physical Implementations The
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144 5 Physical Implementations 1 =
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6 Cellular Computing “The punched
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PROMOTER STRUCTURAL GENE(S) TERMINA
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6.4 Biological Background 151 Fig.
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6.5 Models of Gene Construction 153
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z z x w x w y y u (a) (b) u (c) Fig
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References 1. Roger L.P. Adams, Joh
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References 159 33. Ravinderjit S. B
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References 161 75. M.A. Harrison. I
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References 163 Computational Molecu
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References 165 157. Ingo Wegener. T
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168 Index clause, 42, 49, 139-141,
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170 Index maximum independent set,
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172 Index Taq, see enzyme, Taq targ