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State-transition table

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1018: 871: 929:. This is denoted in a state-transition table by the set of all target states enclosed in a pair of braces {}. An example of a state-transition table together with the corresponding state diagram for a nondeterministic finite-state machine is given below: 879:
In the state-transition table, all possible inputs to the finite-state machine are enumerated across the columns of the table, while all possible states are enumerated across the rows. If the machine is in the state
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In the second way, one of the dimensions indicates current states, while the other indicates next states. The row/column intersections indicate inputs and (optionally) outputs associated with the state transitions.
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In the first way, one of the dimensions indicates current states, while the other indicates inputs. The row/column intersections indicate next states and (optionally) outputs associated with the state transitions.
768:-dimensional state-transition table in which pairs of rows map (sets of) current states to next states. This is an alternative to representing communication between separate, interdependent finite-state machines. 1057:
For each of the states, scan across the corresponding row and draw an arrow to the destination state(s). There can be multiple arrows for an input character if the finite-state machine is nondeterministic.
89:. They are much more like truth tables than their two-dimensional form. The single dimension indicates inputs, current states, next states and (optionally) outputs associated with the state transitions. 771:
At the other extreme, separate tables have been used for each of the transitions within a single finite-state machine: "AND/OR tables" are similar to incomplete
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in which the inputs include the current state along with other inputs, and the outputs include the next state along with other outputs.
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in which the decision for the rules which are present is implicitly the activation of the associated transition.
1143:"Experience of using a lightweight formal specification method for a commercial embedded system product line" 414:
State-transition tables are typically two-dimensional tables. There are two common ways for arranging them.
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Simultaneous transitions in multiple finite-state machines can be shown in what is effectively an
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and receives an input of 0, the machine will be in two states at the same time, the states S
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and receives an input of 0 (first column), the machine will transition to the state S
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Leveson, Nancy; Heimdahl, Mats Per Erik; Hildreth, Holly; Reese, Jon Damon (1994),
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from a state-transition table. A sequence of easy to follow steps is given below:
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will move to, based on the current state and other inputs. It is essentially a
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State-transition tables are sometimes one-dimensional tables, also called
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For tables used to resolve many-to-many relationships in databases, see
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In the state diagram, the former is denoted by the arrow looping from S
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An example of a state-transition table together with the corresponding
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labeled with a 0. This process can be described statistically using
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labeled with a 1, and the latter is denoted by the arrow from S
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A state-transition table is one of many ways to specify a
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is a table showing what state (or states in the case of a
1194:"Requirements Specification for Process-Control Systems" 1041: 1254: 1054:Draw the circles to represent the states given. 1185: 16:Table in automata theory and sequential logic 618:(S: state, I: input, O: output, —: illegal) 787:for a finite-state machine is given below: 1240:Introduction to the Theory of Computation 1212: 1201:IEEE Transactions on Software Engineering 1161: 1134: 1255: 888:. Now if the machine is in the state S 1140: 1042:Transformations from/to state diagram 923:nondeterministic finite-state machine 13: 1242:. PWS Publishing Co., Boston 1997 1232: 14: 1274: 409: 51:nondeterministic finite automaton 1150:Requirements Engineering Journal 1067:Designate one or more states as 1026:If the machine is in the state S 1016: 869: 426:(S: state, I: input, O: output) 97:(S: state, I: input, O: output) 80: 75: 759: 1: 1127: 7: 1075: 10: 1279: 778: 29: 18: 1172:10.1007/s00766-004-0209-1 1060:Designate a state as the 1046:It is possible to draw a 1141:Breen, Michael (2005), 1122:Ward-Mellor methodology 935:State-transition table 793:State-transition table 68:. Other ways include a 21:State-transition matrix 1263:Automata (computation) 616:State-transition table 424:State-transition table 95:State-transition table 47:state-transition table 87:characteristic tables 1102:Finite-state machine 66:finite-state machine 55:finite-state machine 1012: 936: 865: 794: 619: 427: 98: 1008: 934: 861: 792: 615: 423: 94: 32:Associative entity 1223:10.1109/32.317428 1024: 1023: 1004: 1003: 948: 943: 877: 876: 857: 856: 806: 801: 755: 754: 631: 626: 605: 604: 439: 434: 405: 404: 1270: 1238:Michael Sipser: 1226: 1225: 1216: 1198: 1189: 1183: 1182: 1165: 1147: 1138: 1097:Excitation table 1087:Adjacency matrix 1020: 1013: 1007: 946: 941: 937: 933: 873: 866: 860: 804: 799: 795: 791: 629: 624: 620: 614: 437: 432: 428: 422: 99: 93: 43:sequential logic 25:phase transition 1278: 1277: 1273: 1272: 1271: 1269: 1268: 1267: 1253: 1252: 1235: 1233:Further reading 1230: 1229: 1196: 1190: 1186: 1145: 1139: 1135: 1130: 1078: 1069:accepting state 1044: 1037: 1033: 1029: 1000: 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868: 867: 864: 863:State diagram 849: 843: 837: 836: 829: 823: 817: 816: 812: 809: 805:Current state 797: 796: 790: 789: 788: 786: 785:state diagram 776: 774: 769: 767: 750: 747: 737: 734: 728: 727: 723: 720: 717: 714: 711: 710: 699: 696: 693: 690: 684: 683: 679: 676: 673: 663: 657: 656: 649: 646: 640: 634: 630:Current state 622: 621: 613: 612: 611: 593: 590: 580: 570: 564: 563: 559: 556: 553: 550: 547: 546: 535: 532: 522: 512: 506: 505: 494: 491: 481: 471: 465: 464: 457: 454: 448: 442: 438:Current state 430: 429: 421: 420: 419: 415: 397: 391: 385: 379: 378: 374: 371: 368: 365: 364: 357: 351: 345: 339: 338: 331: 325: 319: 313: 312: 308: 305: 302: 299: 298: 291: 285: 279: 273: 272: 268: 265: 262: 259: 258: 251: 245: 239: 233: 232: 225: 219: 213: 207: 206: 199: 193: 187: 181: 180: 176: 173: 170: 167: 166: 159: 153: 147: 141: 140: 133: 127: 121: 115: 114: 110: 107: 105:Current state 104: 101: 100: 92: 91: 90: 88: 81:One-dimension 73: 71: 70:state diagram 67: 62: 60: 56: 52: 48: 44: 40: 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156:j 154:S 150:1 148:S 144:2 142:I 136:x 134:O 130:i 128:S 124:1 122:S 118:1 116:I 34:. 27:.

Index

State-transition matrix
phase transition
Associative entity
automata theory
sequential logic
nondeterministic finite automaton
finite-state machine
truth table
finite-state machine
state diagram
decision tables
state diagram
FSM state diagram
Markov Chains
nondeterministic finite-state machine
non-determinism
NFSM state diagram
state diagram
start state
accepting state
Adjacency list
Adjacency matrix
Dataflow
Excitation table
Finite-state machine
Index notation
Moore machine
Mealy machine
Ward-Mellor methodology
"Experience of using a lightweight formal specification method for a commercial embedded system product line"

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