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main.c @ 31

Last change on this file since 31 was 4, checked in by syed, 14 years ago
input files added
File size: 249.8 KB

Line
1
2	#include "io.h"
3	#include "ioInt.h"
4	#include "ntk.h"
5	#include "ord.h"
6	#include "part.h"
7	#include "maig.h"
8	#include "ntmaig.h"
9	#include "fsm.h"
10	#include "ctlp.h"
11	#include "ctlsp.h"
12	#include "mc.h"
13	#include "mcInt.h"
14	#include "grabInt.h"
15	#include "bmc.h"
16	#include "bmcInt.h"
17	#include <stdio.h>
18	#include <stdlib.h>
19
20
21	/---------------------------------------------------------------------------/
22	/* Constant declarations */
23	/---------------------------------------------------------------------------/
24	/*
25	* States of the state machine used to parse the input variable name list file.
26	*/
27	#define STATE_TEST 0 /* next char is in first column */
28	#define STATE_WAIT 1 /* wait until end of line '\n' is reached */
29	#define STATE_IN 2 /* parsing a variable name */
30
31	/*
32	* Maximum permissible length of a variable name in the input variable name list file.
33	*/
34	#define MAX_NAME_LENGTH 200
35	#define LENGTH_1 255
36	#define SIZE_1 100
37
38	/*
39	* INPUT FILES
40	*/
41	/*********************************************************/
42
43	#define BLIF_MV_FILE_C1 "concrete_model/concret_main.mv"
44	#define FAIRNESS_FILE_C1 "concrete_model/machine_concret.fair"
45	#define CTL_FILE_C1 "concrete_model/machine_concret.ctl"
46	#define CNF_FILE_C1 "concrete_model/SATcnf_c1.cnf"
47	#define DEBUG_FILE_C1 "concrete_model/debug_trace_crt"
48
49
50	#define BLIF_MV_FILE_A1 "abstract_model/main_abstract.mv"
51	#define FAIRNESS_FILE_A1 "abstract_model/main_abstract.fair"
52	#define CTL_FILE_A1 "abstract_model/machine_concret.ctl"
53	#define CNF_FILE_A1 "abstract_model/SATcnf_a1.cnf"
54	#define DEBUG_FILE_A1 "abstract_model/debug_trace_abs"
55
56	/*****************************************************/
57	/*
58	#define BLIF_MV_FILE_C1 "PBS_VCI_PI/new_main.mv"
59	#define FAIRNESS_FILE_C1 "PBS_VCI_PI/main_mod.fair"
60	#define CTL_FILE_C1 "PBS_VCI_PI/propri_mod.ctl"
61	#define CNF_FILE_C1 "PBS_VCI_PI/SATcnf_c1.cnf"
62	#define CNF_FILE_C1_BIS "PBS_VCI_PI/SATcnf_c1_bis.cnf"
63	#define DEBUG_FILE_C1 "PBS_VCI_PI/debug_trace"
64
65
66	#define BLIF_MV_FILE_A1 "PBS_VCI_PI/new_main.mv"
67	#define FAIRNESS_FILE_A1 "PBS_VCI_PI/main_mod.fair"
68	#define CTL_FILE_A1 "PBS_VCI_PI/propri_mod.ctl"
69	#define CNF_FILE_A1 "PBS_VCI_PI/SATcnf_a1.cnf"
70	#define DEBUG_FILE_A1 "PBS_VCI_PI/debug_trace"
71	*/
72
73	//#define BLIF_MV_FILE_C1 "VCI_PI/Concrete/main_concret.mv"
74	//#define FAIRNESS_FILE_C1 "VCI_PI/Concrete/main_concret.fair"
75	//#define CTL_FILE_C1 "VCI_PI/Concrete/main_concret.ctl"
76	//#define CNF_FILE_C1 "VCI_PI/Concrete/SATcnf_c1.cnf"
77	//#define DEBUG_FILE_C1 "VCI_PI/Concrete/debug_trace"
78
79	//#define BLIF_MV_FILE_A1 "VCI_PI/Concrete/main_concret.mv"
80	//#define FAIRNESS_FILE_A1 "VCI_PI/Concrete/main_concret.fair"
81	//#define CTL_FILE_A1 "VCI_PI/Concrete/main_concret.ctl"
82	//#define CNF_FILE_A1 "VCI_PI/Concrete/SATcnf_a1.cnf"
83	//#define DEBUG_FILE_A1 "VCI_PI/Concrete/debug_trace"
84
85	//#define BLIF_MV_FILE_A1 "VCI_PI/main_abstract.mv"
86	//#define FAIRNESS_FILE_A1 "VCI_PI/main_abstract.fair"
87	//#define CTL_FILE_A1 "VCI_PI/main_concret.ctl"
88	//#define CNF_FILE_A1 "VCI_PI/SATcnf_a1.cnf"
89	//#define DEBUG_FILE_A1 "VCI_PI/debug_trace"
90
91	// #define BLIF_MV_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2/main_abstract.mv"
92	// #define FAIRNESS_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2/main_abstract.fair"
93	// #define CTL_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2/machine_concret.ctl"
94	// #define CNF_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2/SATcnf_a1.cnf"
95	// #define DEBUG_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2/debug_trace"
96
97	// #define BLIF_MV_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2_REFINED2/main_abstract.mv"
98	// #define FAIRNESS_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2_REFINED2/main_abstract.fair"
99	// #define CTL_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2_REFINED2/machine_concret.ctl"
100	// #define CNF_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2_REFINED2/SATcnf_a1.cnf"
101	// #define DEBUG_FILE_A1 "EX_A1/Abs_Phi1_and_Phi2_REFINED2/debug_trace"
102
103	// #define BLIF_MV_FILE_C1 "METRONOME/metronome.mv"
104	// #define FAIRNESS_FILE_C1 "METRONOME/metronome.fair"
105	// #define CTL_FILE_C1 "METRONOME/metronome.ctl"
106	// #define CNF_FILE_C1 "METRONOME/SATcnf_c2.cnf"
107
108	// #define BLIF_MV_FILE_C1 "GATES/NOT/Concret_Main.mv"
109	// #define FAIRNESS_FILE_C1 "GATES/NOT/not.fair"
110	// #define CTL_FILE_C1 "GATES/NOT/not.ctl"
111	// #define CNF_FILE_C1 "GATES/NOT/SATcnf_not.cnf"
112
113	// #define BLIF_MV_FILE_C1 "GATES/NOT2/Concret_Main.mv"
114	// #define FAIRNESS_FILE_C1 "GATES/NOT2/not2.fair"
115	// #define CTL_FILE_C1 "GATES/NOT2/not2.ctl"
116	// #define CNF_FILE_C1 "GATES/NOT2/SATcnf_not2.cnf"
117
118	// #define BLIF_MV_FILE_C1 "GATES/NOT4/Concret_Main.mv"
119	// #define FAIRNESS_FILE_C1 "GATES/NOT4/not4.fair"
120	// #define CTL_FILE_C1 "GATES/NOT4/not4.ctl"
121	// #define CNF_FILE_C1 "GATES/NOT4/SATcnf_not4.cnf"
122
123	// #define BLIF_MV_FILE_C1 "GATES/AND/Concret_Main.mv"
124	// #define FAIRNESS_FILE_C1 "GATES/AND/and.fair"
125	// #define CTL_FILE_C1 "GATES/AND/and.ctl"
126	// #define CNF_FILE_C1 "GATES/AND/SATcnf_and.cnf"
127
128	// #define BLIF_MV_FILE_C1 "GATES/AND2/Concret_Main.mv"
129	// #define FAIRNESS_FILE_C1 "GATES/AND2/and2.fair"
130	// #define CTL_FILE_C1 "GATES/AND2/and2.ctl"
131	// #define CNF_FILE_C1 "GATES/AND2/SATcnf_and2.cnf"
132
133	// #define BLIF_MV_FILE_C1 "GATES/OR/Concret_Main.mv"
134	// #define FAIRNESS_FILE_C1 "GATES/OR/or.fair"
135	// #define CTL_FILE_C1 "GATES/OR/or.ctl"
136	// #define CNF_FILE_C1 "GATES/OR/SATcnf_or.cnf"
137
138	// #define BLIF_MV_FILE_C1 "GATES/OR2/Concret_Main.mv"
139	// #define FAIRNESS_FILE_C1 "GATES/OR2/or2.fair"
140	// #define CTL_FILE_C1 "GATES/OR2/or2.ctl"
141	// #define CNF_FILE_C1 "GATES/OR2/SATcnf_or2.cnf"
142
143	// #define BLIF_MV_FILE_C1 "GATES/SFM2006_Circuit/Concret_Main.mv"
144	// #define FAIRNESS_FILE_C1 "GATES/SFM2006_Circuit/sfm.fair"
145	// #define CTL_FILE_C1 "GATES/SFM2006_Circuit/sfm.ctl"
146	// #define CNF_FILE_C1 "GATES/SFM2006_Circuit/SATcnf_sfm.cnf"
147
148	// #define BLIF_MV_FILE_C1 "GATES/SFM2006_Circuit2/Concret_Main.mv"
149	// #define FAIRNESS_FILE_C1 "GATES/SFM2006_Circuit2/sfm2.fair"
150	// #define CTL_FILE_C1 "GATES/SFM2006_Circuit2/sfm2.ctl"
151	// #define CNF_FILE_C1 "GATES/SFM2006_Circuit2/SATcnf_sfm2.cnf"
152
153	// #define BLIF_MV_FILE_C1 "GATES/SFM2006_Circuit3/Concret_Main.mv"
154	// #define FAIRNESS_FILE_C1 "GATES/SFM2006_Circuit3/sfm3.fair"
155	// #define CTL_FILE_C1 "GATES/SFM2006_Circuit3/sfm3.ctl"
156	// #define CNF_FILE_C1 "GATES/SFM2006_Circuit3/SATcnf_sfm3.cnf"
157
158	//#define BLIF_MV_FILE_A2 "MEE/metronome.mv"
159	//#define FAIRNESS_FILE_A2 "EC1/machine_concret.fair"
160	//#define CTL_FILE_A1 "EX1/machine_concret.ctl"
161	//#define CNF_FILE_A2 "EX1/SATcnf_a2.cnf"
162
163	/---------------------------------------------------------------------------/
164	/* Structure declarations */
165	/---------------------------------------------------------------------------/
166	/Struct********************************************************************
167	Synopsis [A struct to store a string of characters]
168	******************************************************************************/
169	typedef char string1 [255];
170
171
172	/Struct********************************************************************
173	Synopsis [A struct to store of variables in the counter-example.]
174	******************************************************************************/
175	typedef struct {
176	int varIndex; // not really necessary
177	int varId;
178	int varValue;
179	// char *varName
180	// char *symbolicValue
181	string1 varName; // change to dynamic allocation later
182	string1 symbolicValue; // change to dynamic allocation later
183	} CEXVarStruct;
184
185
186	/Struct********************************************************************
187	Synopsis [A struct to store counter-example data.]
188	******************************************************************************/
189	typedef struct {
190	int pathIndex;
191	int n_outputVar;
192	int n_inputVar;
193	CEXVarStruct *outputVar;
194	CEXVarStruct *inputVar;
195	}CEXStruct;
196
197
198	/---------------------------------------------------------------------------/
199	/* Variable declarations */
200	/---------------------------------------------------------------------------/
201	Hrc_Manager_t *hmgrGlobalC;
202
203	FILE *vis_stderr;
204	FILE *vis_stdout;
205	FILE *vis_historyFile;
206	FILE *vis_stdpipe;
207	array_t *vm_commandHistoryArray;
208	char *vm_programName;
209	static int mcTimeOut; //Time-out value for model-checking
210	static jmp_buf timeOutEnv;
211	static long alarmLapTime; /* starting CPU time for timeout */
212	static jmp_buf env;
213
214	extern FILE *IoYyin;
215	extern int globalCurrentStackDepth;
216	#ifdef IODEBUG
217	extern int IoYydebug;
218	#endif /IODEBUG /
219
220	char currentPath [LENGTH_1];
221	static CEXVarStruct *testCEXVar;
222	static CEXStruct *testCEX;
223
224
225	/---------------------------------------------------------------------------/
226	/* Static function prototypes */
227	/---------------------------------------------------------------------------/
228
229	static Hrc_Manager_t read_blif_mvMine (FILE fp, Hrc_Manager_t *hmgr, boolean isCanonical, boolean isIncremental, boolean isVerbose);
230	static int read_fairnessMine (Hrc_Manager_t hmgr, int argc, char argv);
231	static int init_verifyMine (Hrc_Manager_t hmgr, int argc, char argv);
232	static int flatten_hierarchyMine (Hrc_Manager_t hmgr, int argc, char argv);
233	static int static_orderMine (Hrc_Manager_t hmgr, int argc, char argv);
234	static int build_partition_mddsMine (Hrc_Manager_t hmgr, int argc, char argv);
235	static int build_partition_maigsMine(Hrc_Manager_t hmgr, int argc, char argv);
236	static int print_ioMine (Hrc_Manager_t hmgr, int argc, char argv);
237	static int model_checkMine (Hrc_Manager_t hmgr, int argc, char argv);
238	static int print_modelsMine(Hrc_Manager_t hmgr, int argc, char argv);
239	static int print_fairnessMine(Hrc_Manager_t hmgr, int argc, char argv);
240	static Hrc_Node_t cdMine(Hrc_Manager_t hmgr, int argc, char *argv); //returns child or parent node
241	static Hrc_Node_t lsMine(Hrc_Manager_t hmgr, int argc, char *argv); //returns current node
242	static char pwdMine(Hrc_Manager_t hmgr, int argc, char *argv); //returns the path of the current node
243	static int print_latchesMine(Hrc_Manager_t hmgr, int argc, char argv);
244
245	static boolean McPrintPassFailMine (mdd_manager mddMgr, Fsm_Fsm_t modelFsm, Mc_FwdBwdAnalysis traversalDirection, Ctlp_Formula_t ctlFormula, mdd_t ctlFormulaStates, mdd_t modelInitialStates, array_t modelCareStatesArray, McOptions_t *options, Mc_VerbosityLevel verbosity);
246	static int McFsmDebugFormulaMine (McOptions_t options, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, array_t careSetArray);
247	static array_t * McFsmStateDebugFormulaMine( McOptions_t options, Ctlp_Formula_t ctlFormula, mdd_t aState, Fsm_Fsm_t modelFsm, array_t careSetArray, array_t prevCExArray);
248	static array_t * FsmStateDebugConvertedFormulaMine(McOptions_t options, Ctlp_Formula_t ctlFormula, mdd_t aState, Fsm_Fsm_t modelFsm, array_t careSetArray, array_t *preCExArray);
249	static array_t * FsmPathDebugFormulaMine(McOptions_t options, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, McPath_t witnessPath, array_t careSetArray, array_t *preCExArray);
250
251	static void DebugIDMine(McOptions_t options, Ctlp_Formula_t aFormula, mdd_t aState, Fsm_Fsm_t modelFsm);
252	static void DebugTrueFalseMine(Ctlp_Formula_t aFormula, mdd_t aState, Fsm_Fsm_t *modelFsm);
253	static array_t * DebugBooleanMine(McOptions_t options, Ctlp_Formula_t aFormula, mdd_t aState, Fsm_Fsm_t modelFsm, array_t careSetArray, array_t *preCExArray);
254	static McPath_t * DebugEXMine (Ctlp_Formula_t aFormula, mdd_t aState, Fsm_Fsm_t modelFsm, array_t careSetArray);
255	static McPath_t * DebugEUMine (Ctlp_Formula_t aFormula, mdd_t aState, Fsm_Fsm_t modelFsm, array_t careSetArray);
256	static McPath_t * DebugEGMine (Ctlp_Formula_t aFormula, mdd_t aState, Fsm_Fsm_t modelFsm, array_t careSetArray, McOptions_t *options);
257
258	static array_t * FsmPathDebugEXFormulaMine(McOptions_t options, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, McPath_t witnessPath, array_t careSetArray, array_t *preCExArray);
259	static array_t * FsmPathDebugEUFormulaMine(McOptions_t options, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, McPath_t witnessPath, array_t careSetArray, array_t *preCExArray);
260	static array_t * FsmPathDebugEGFormulaMine(McOptions_t options, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, McPath_t witnessPath, array_t careSetArray, array_t *preCExArray);
261	static array_t * FsmPathDebugEFFormulaMine(McOptions_t options, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, McPath_t witnessPath, array_t careSetArray, array_t *preCExArray);
262
263	static array_t * FsmPathDebugAXFormulaMine(McOptions_t options, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, McPath_t counterExamplePath, array_t careSetArray, array_t *preCExArray);
264	static array_t * FsmPathDebugAFFormulaMine(McOptions_t options, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, McPath_t counterExamplePath, array_t careSetArray, array_t *preCExArray);
265	static array_t * FsmPathDebugAGFormulaMine(McOptions_t options, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, McPath_t counterExamplePath, array_t careSetArray, array_t *preCExArray);
266	static array_t * FsmPathDebugAUFormulaMine(McOptions_t options, mdd_t aState, Ctlp_Formula_t ctlFormula, Fsm_Fsm_t modelFsm, array_t careSetArray, array_t *preCExArray);
267
268	static int Mc_PrintPathMine (array_t aPath, Fsm_Fsm_t modelFsm, boolean printInput);
269	static void McPrintTransitionMine (mdd_t aState, mdd_t bState, mdd_t uInput, mdd_t vInput, array_t stateSupport, array_t inputSupport, boolean printInputs, Fsm_Fsm_t modelFsm, CEXStruct CEXPath, int seqNumber, BmcCnfClauses_t *cnfClauses);
270	static void Mc_MintermPrintMine (mdd_t aMinterm, array_t support, Ntk_Network_t *aNetwork);
271	static char Mc_MintermToStringMine( mdd_t aMinterm, array_t aSupport, Ntk_Network_t aNetwork, CEXStruct CEXPath, int seqNumber, boolean inOutIndicator, BmcCnfClauses_t cnfClauses);
272	static array_t McConvertMintermToValueArrayMine( mdd_t aMinterm, array_t aSupport, mdd_manager mddMgr);
273	static void McStatePassesOrFailsFormulaMine ( mdd_t aState, Ctlp_Formula_t formula, int pass, McDbgLevel debugLevel, Fsm_Fsm_t *modelFsm);
274	static void McStateFailsFormulaMine (mdd_t aState, Ctlp_Formula_t formula, McDbgLevel debugLevel, Fsm_Fsm_t *modelFsm);
275	static void McStatePassesFormulaMine( mdd_t aState, Ctlp_Formula_t formula, McDbgLevel debugLevel,Fsm_Fsm_t *modelFsm);
276
277	static int _HrcStringCmp(const void * s1, const void * s2);
278	static McOptions_t ParseMcOptions( int argc, char *argv);
279	static void TimeOutHandle(void);
280	static Ord_OrderType StringConvertToOrderType(char *string);
281	static boolean NetworkCheckSuppliedNodeList(Ntk_Network_t * network, lsList suppliedNodeList, Ord_OrderType orderType);
282	static boolean FileReadNameList(FILE * fp, lsList * nameList, int verbose);
283	static void _IoGlobalVariablesInitialize(void);
284	static void _IoGlobalVariablesFree(void);
285	static void _IoGlobalSubcktInfoFree(void);
286	static void _IoSubcktArrayFree(array_t *array);
287	static void _IoSubcktFree(IoSubckt_t *subckt);
288	static void _IoGlobalResetInfoFree(void);
289	static boolean _IoNodeTestCompatibilityAux(Hrc_Manager_t hmgr, Hrc_Node_t hnode1, Hrc_Node_t *hnode2, boolean mode);
290	static void _IoManagerCanonicalize(Hrc_Manager_t *hmgr);
291	static int nodenameCompare(const void * node1, const void * node2);
292	static void PrintNodeStats(Hrc_Node_t *node, boolean isHnode);
293	static void NodeListChildren(Hrc_Node_t *hnode, boolean recursiveFlag, int depth);
294	static array_t NodeListChildrenMine(Hrc_Node_t hnode, boolean recursiveFlag, int depth);
295	static void PrintSpace(int depth);
296	static int cmp(const void * s1, const void * s2);
297	static boolean MintermCheckWellFormed(mdd_t aMinterm, array_t aSupport, mdd_manager *mddMgr);
298	static boolean SetCheckSupport(mdd_t aMinterm, array_t aSupport, mdd_manager *mddMgr);
299
300	static char CNFVariableNameConstructor(char varName, int varEncoding, int pathIndex);
301	static void BmcCnfGenerateClausesForPathMine (Ntk_Network_t network, int from, int to, int initialState, BmcCnfClauses_t cnfClauses, st_table nodeToMvfAigTable, st_table CoiTable);
302	static void BmcGenerateClausesFromStateTostateMine (bAig_Manager_t manager, bAigEdge_t fromAigArray, bAigEdge_t toAigArray, int mvfSize, int fromState, int toState, BmcCnfClauses_t cnfClauses, int outIndex);
303	static void BmcWriteClausesMine( mAig_Manager_t maigManager, FILE cnfFile, BmcCnfClauses_t cnfClauses, BmcOption_t options);
304	static int DecBinConverter (int decValue, int size, int binValue);
305	static int SATSolverFileGen (Hrc_Manager_t *hmgr, char fileName, int steps, BmcOption_t *options);
306	static int SATSolver (int steps, BmcOption_t *options);
307	static void build_unroll_circuit(Ntk_Network_t * ntk, int bound,BmcOption_t * options,BmcCnfClauses_t* cnfClauses);
308	static array_t * checkSATCircus( satManager_t cm,BmcOption_t options, boolean unsatcore, satArray_t *clauseIndexInCore);
309	static st_table * generateAllLatches(Ntk_Network_t * ntk);
310	static void printSATAssig( array_t* result);
311	static int findIndex(BmcCnfClauses_t* cnfClauses , char * nodeName);
312
313
314	/********************************************************/
315	/* Main */
316	/********************************************************/
317
318	int main(int argc, char **argv)
319	{
320	vis_stderr =stderr;
321	vis_stdout = stdout;
322
323	Hrc_Manager_t *hmgrC;
324	Hrc_Manager_t *hmgrA;
325
326	(void)fprintf(vis_stderr,"\n============= VIS ============= \n\n");
327
328
329	/** CONCRETE MODEL ***/
330	(void)fprintf(vis_stderr,">>>>>>>>>>>>>>>>> CONCRETE MODEL : LOAD & SET UP... \n\n");
331	// --- read_blif_mv ---
332	FILE *fpC;
333	fpC = Cmd_FileOpen(BLIF_MV_FILE_C1, "r", NIL(char *), 1);
334	boolean isCanonicalC = 0;
335	boolean isIncrementalC = 0;
336	boolean isVerboseC = 0;
337	hmgrC = read_blif_mvMine (fpC, hmgrC, isCanonicalC, isIncrementalC, isVerboseC);
338	(void) fprintf(vis_stderr, "* 'read_blif_mv' of the concrete model completed. * \n");
339
340	hmgrGlobalC = hmgrC;
341
342	// --- print_io (display inputs and outputs) ---
343	int print_ioExecC;
344	int argcIOC = 1;
345	char *argvIOC[1] = {"print_io"};
346
347	print_ioExecC = print_ioMine (&hmgrC, argcIOC, argvIOC);
348	(void) fprintf(vis_stderr, "* 'print_io' for concrete model completed. * \n");
349
350	// --- init_verify ---
351	int init_verifyExecC;
352	int argcIVC = 1;
353	char *argvIVC[1] = {"init_verify"};
354	init_verifyExecC = init_verifyMine (&hmgrC, argcIVC, argvIVC);
355	(void) fprintf(vis_stderr, "* 'init_verify' for concrete model completed. * \n");
356
357	// --- build_partition_maigs ---
358	int build_part_maigsExecC;
359	int argcBPMAIGSC = 1;
360	char *argvBPMAIGSC[1] = {"build_partition_maigs"};
361	build_part_maigsExecC = build_partition_maigsMine (&hmgrC, argcBPMAIGSC, argvBPMAIGSC);
362	(void) fprintf(vis_stderr, "* 'build_partition_maigs' for concrete model completed. * \n");
363
364	// --- read_fairness ---
365	int fairnessReadC;
366	int argcFC = 2;
367	char *argvFC[2] = {"read_fairness", FAIRNESS_FILE_C1};
368	fairnessReadC = read_fairnessMine (&hmgrC, argcFC, argvFC);
369	(void) fprintf(vis_stderr, "* 'read_fairness' for concrete model completed. * \n");
370
371	// --- print_fairness ---
372	int fairnessPrintC;
373	int argcFPC = 1;
374	char *argvFPC[1] = {"print_fairness"};
375	fairnessPrintC = print_fairnessMine (&hmgrC, argcFPC, argvFPC);
376	(void) fprintf(vis_stderr, "* 'print_fairness' for concrete model completed. * \n");
377
378
379	// // --- print_latches (display latches in current node) ---
380	// int print_latchesExec;
381	// int argcPL = 1;
382	// char *argvPL[1]= {"print_latches"};
383	//
384	// print_latchesExec = print_latchesMine (&hmgr, argcPL, argvPL);
385	// (void) fprintf(vis_stderr, "* 'print_latches' completed. * \n");
386
387	(void)fprintf(vis_stderr,"\n... CONCRETE MODEL : LOAD & SET UP DONE! <<<<<<<<<<<<<<<<\n\n");
388
389
390
391	/** ABSTRACT MODEL ***/
392	(void)fprintf(vis_stderr,">>>>>>>>>>>>>>>>> ABSTRACT MODEL : LOAD & SET UP...\n");
393	// --- read_blif_mv ---
394	FILE *fpA;
395	fpA = Cmd_FileOpen(BLIF_MV_FILE_A1, "r", NIL(char *), 1);
396	boolean isCanonicalA = 0;
397	boolean isIncrementalA = 0;
398	boolean isVerboseA = 0;
399	hmgrA = read_blif_mvMine (fpA, hmgrA, isCanonicalA, isIncrementalA, isVerboseA);
400	(void) fprintf(vis_stderr, "* 'read_blif_mv' of the abstract model completed. * \n");
401
402
403	// --- print_io (display inputs and outputs) ---
404	int print_ioExecA;
405	int argcIOA = 1;
406	char *argvIOA[1] = {"print_io"};
407
408	print_ioExecA = print_ioMine (&hmgrA, argcIOA, argvIOA);
409	(void) fprintf(vis_stderr, "* 'print_io' for abstract model completed. * \n");
410
411	// --- init_verify ---
412	int init_verifyExecA;
413	int argcIVA = 1;
414	char *argvIVA[1] = {"init_verify"};
415	init_verifyExecA = init_verifyMine (&hmgrA, argcIVA, argvIVA);
416	(void) fprintf(vis_stderr, "* 'init_verify' for abstract model completed. * \n");
417
418	// --- read_fairness ---
419	int fairnessReadA;
420	int argcFA = 2;
421	char *argvFA[2] = {"read_fairness", FAIRNESS_FILE_A1};
422	fairnessReadA = read_fairnessMine (&hmgrA, argcFA, argvFA);
423	(void) fprintf(vis_stderr, "* 'read_fairness' for abstract model completed. * \n");
424
425	// --- print_fairness ---
426	int fairnessPrintA;
427	int argcFPA = 1;
428	char *argvFPA[1] = {"print_fairness"};
429	fairnessPrintA = print_fairnessMine (&hmgrA, argcFPA, argvFPA);
430	(void) fprintf(vis_stderr, "* 'print_fairness' for abstract model completed. * \n");
431
432	(void)fprintf(vis_stderr,"\n... ABSTRACT MODEL : LOAD & SET UP DONE! <<<<<<<<<<<<<<<<\n\n");
433
434	// --- model_check ---
435	int model_checkExecA;
436	int argcMCA = 4;
437	// char *argvMC[2]= {"model_check", "EX_C1/machine_concret.ctl"};
438	// char *argvMC[4]= {"model_check", "-d", "3", "EX_C1/machine_concret.ctl"};
439	// char *argvMCA[2]= {"model_check", CTL_FILE_A1};
440	// char *argvMCA[4]= {"model_check", "-d", "1", CTL_FILE_A1};
441	char *argvMCA[4]= {"model_check", "-d", "2", CTL_FILE_A1};
442	// char *argvMCA[4]= {"model_check", "-d", "3", CTL_FILE_A1};
443	// char *argvMCA[5]= {"model_check", "-i", "-d", "3", CTL_FILE_A1};
444	// char *argvMC[6]= {"model_check", "-i", "-W", "-d", "2", "EX_C1/machine_concret.ctl"};
445	// char *argvMCA[6]= {"model_check", "-d", "2", "-f", DEBUG_FILE_A1, CTL_FILE_A1};
446	// char *argvMC[6]= {"model_check", "-v", "2", "-d", "2", "EX_C1/machine_concret.ctl"};
447	// char *argvMC[7]= {"model_check", "-i", "-w", "EX_C1/w_node_file", "-d", "2", "EX_C1/machine_concret.ctl"};
448	// char *argvMC[7]= {"model_check", "-d", "3", "-f", DEBUG_FILE_A1, "-i", CTL_FILE_A1};
449	// char *argvMC[8]= {"model_check", "-d", "3", "-f", "EX_C1/debug_trace", "-v", "2", "EX_C1/machine_concret.ctl"};
450	// char *argvMC[9]= {"model_check", "-d", "3", "-f", "EX_C1/debug_trace", "-i", "-v", "2", "EX_C1/machine_concret.ctl"};
451
452	model_checkExecA = model_checkMine (&hmgrA, argcMCA, argvMCA);
453	(void) fprintf(vis_stderr, "* 'model_check' of abstract model completed. * \n");
454
455
456	(void) fprintf(vis_stderr,"\n========== END OF VIS ========= \n\n");
457
458	return 0;
459
460	}
461
462
463	/---------------------------------------------------------------------------/
464	/* Definition of static functions */
465	/---------------------------------------------------------------------------/
466
467	/Function******************************************************************
468
469	Synopsis []
470
471	Description [Refer to 'Hrc_Manager_t * Io_BlifMvRead( FILE *fp,
472	Hrc_Manager_t *hmgr, boolean isCanonical, boolean isIncremental,
473	boolean isVerbose)' in ntkCmd.c]
474
475	SideEffects []
476
477	SeeAlso []
478
479	******************************************************************************/
480
481	static Hrc_Manager_t read_blif_mvMine (FILE fp, Hrc_Manager_t *hmgr,
482	boolean isCanonical, boolean isIncremental, boolean isVerbose)
483	{
484
485	(void) fprintf(vis_stderr, "* 'read_blif_mv' begins. * \n");
486
487	Hrc_Node_t *root;
488	static Hrc_Manager_t *newHmgr;
489
490	if (isIncremental == 0){
491	newHmgr = Hrc_ManagerAlloc();
492	}
493	else { /* isIncremental == 1 */
494	if (Hrc_ManagerReadCurrentNode(hmgr) == NIL(Hrc_Node_t)){
495	(void)fprintf(vis_stderr,"No hierarchy has been created. Cannot do inremental read-in.\n");
496	return NIL(Hrc_Manager_t);
497	}
498	newHmgr = hmgr;
499	}
500
501	if (setjmp(env)){
502	if (isIncremental == 0){
503	Hrc_ManagerFree(newHmgr);
504	}
505	else {
506	int i;
507	/* free all the new models defined in an incremental file */
508	for (i=0; i < array_n(globalNewModelArray); i++){
509	Hrc_ModelDelete(hmgr,Hrc_ModelReadName(array_fetch(Hrc_Model_t *,globalNewModelArray,i)));
510	}
511	}
512	_IoGlobalVariablesFree();
513	return NIL(Hrc_Manager_t);
514	}
515	else {
516	_IoGlobalVariablesInitialize();
517	if (isIncremental == 0){
518	globalYaccHmgr = newHmgr;
519	}
520	else {
521	globalYaccHmgr = hmgr;
522	}
523	#ifdef IODEBUG
524	IoYydebug = 1;
525	#endif /* IODEBUG */
526	IoYyin = fp;
527	IoYyrestart(IoYyin);
528	if (IoYyparse() == 1){
529	IoError();
530	}
531
532	/* globalNewModelArray contains all the models defined in the previous
533	IoYyparse(). If isIncremental==0, then they are simply all the models.
534	If isIncremental==1, then they are new models defined in the file. */
535
536	if (IoNetworkTestConsistency(newHmgr,globalNewModelArray,globalParserSubcktInfo,globalParserResetInfo,isVerbose) == 0){
537	IoError();
538	}
539
540	if (globalRootModel == NIL(Hrc_Model_t)){
541	globalRootModel = globalFirstModel;
542	globalRootInstanceName = util_strsav(Hrc_ModelReadName(globalRootModel));
543	}
544	else if (globalRootInstanceName == NIL(char)){
545	globalRootInstanceName = util_strsav(Hrc_ModelReadName(globalRootModel));
546	}
547
548	if (isCanonical == 1){
549	_IoManagerCanonicalize(newHmgr);
550	}
551
552	root = Hrc_ModelCreateHierarchy(newHmgr,globalRootModel,globalRootInstanceName);
553	FREE(globalRootInstanceName);
554
555	if (isIncremental == 0){
556	Hrc_ManagerSetRootNode(newHmgr,root);
557	Hrc_ManagerSetCurrentNode(newHmgr,root);
558	_IoGlobalVariablesFree();
559	return newHmgr;
560	}
561	else { /* isIncremental == 1, note that newHmgr == hmgr */
562	if (_IoNodeTestCompatibility(hmgr,Hrc_ManagerReadCurrentNode(hmgr),root) == 0){
563	int i;
564	(void)fprintf(vis_stderr,"The blif-mv file is not compatible with the existing hierarchy.\n");
565	Hrc_TreeReplace(NIL(Hrc_Node_t),root);
566	/* free all the new models defined in an incremental file */
567	for (i=0; i < array_n(globalNewModelArray); i++){
568	Hrc_ModelDelete(hmgr,Hrc_ModelReadName(array_fetch(Hrc_Model_t *,globalNewModelArray,i)));
569	}
570	_IoGlobalVariablesFree();
571	return NIL(Hrc_Manager_t);
572	}
573	Hrc_TreeReplace(Hrc_ManagerReadCurrentNode(hmgr),root);
574	Hrc_ManagerSetCurrentNode(hmgr,root);
575	_IoGlobalVariablesFree();
576	return hmgr;
577	}
578	}
579
580
581	}
582
583
584	/Function******************************************************************
585
586	Synopsis []
587
588	Description [Refer to 'static int CommandInitVerify(Hrc_Manager_t ** hmgr,
589	int argc, char ** argv);' in ntkCmd.c]
590
591	SideEffects []
592
593	SeeAlso []
594
595	******************************************************************************/
596	static int init_verifyMine (Hrc_Manager_t hmgr, int argc, char argv)
597	{
598
599	(void) fprintf(vis_stderr, "* 'init_verify' begins. * \n");
600
601	int c;
602	Hrc_Node_t currentNode = Hrc_ManagerReadCurrentNode(hmgr);
603
604	/*
605	* Parse the command line.
606	*/
607	util_getopt_reset();
608	while ((c = util_getopt(argc, argv, "bh")) != EOF) {
609	switch (c) {
610	case 'b':
611	break;
612	case 'h':
613	goto usage;
614	default:
615	goto usage;
616	}
617	}
618
619	if (currentNode == NIL(Hrc_Node_t)) {
620	(void) fprintf(vis_stdout, "The hierarchy manager is empty. Read in design.\n");
621	return 1;
622	}
623
624
625	// ++ add condition to test if the functions failed
626	(void) fprintf(vis_stderr, "---- 'init_verify' : (1) ");
627	// --- init_verify : (1) flatten_hierarchy ---
628	int flatten_hierarchyExec;
629	int argcFH = 1;
630	char *argvFH[1]= {"flatten_hierarchy"};
631	flatten_hierarchyExec = flatten_hierarchyMine (hmgr, argcFH, argvFH);
632	// flatten_hierarchyExec = flatten_hierarchyMine (&(*hmgr), argcFH, argvFH);
633	(void) fprintf(vis_stderr, "---- 'init_verify' : (1) * 'flatten_hierarchy' completed. * \n");
634
635	// --- init_verify : (2) static_order ---
636	(void) fprintf(vis_stderr, "---- 'init_verify' : (2) ");
637	int static_orderExec;
638	int argcSO = 1;
639	char *argvSO[1]= {"static_order"};
640	static_orderExec = static_orderMine (hmgr, argcSO, argvSO);
641	(void) fprintf(vis_stderr, "---- 'init_verify' : (2) * 'static_order' completed. * \n");
642
643	// --- init_verify : (3) build_partition_mdds ---
644	(void) fprintf(vis_stderr, "---- 'init_verify' : (3) ");
645	int build_part_mddsExec;
646	int argcBPMDDS = 1;
647	char *argvBPMDDS[1]= {"build_partition_mdds"};
648	build_part_mddsExec = build_partition_mddsMine (hmgr, argcBPMDDS, argvBPMDDS);
649	(void) fprintf(vis_stderr, "---- 'init_verify' : (3) * 'build_partition_mdds' completed. * \n");
650
651	return 0; /* normal exit */
652
653
654	usage:
655	(void) fprintf(vis_stderr, "usage: init_verify [-b] [-h]\n");
656	(void) fprintf(vis_stderr, " -b not used any longer.\n");
657	(void) fprintf(vis_stderr, " -h print the command usage\n");
658	return 1; /* error exit */
659
660	}
661
662
663	/Function******************************************************************
664
665	Synopsis []
666
667	Description [Refer to 'static int CommandFlattenHierarchy(Hrc_Manager_t **
668	hmgr, int argc, char ** argv);' in ntkCmd.c]
669
670	SideEffects []
671
672	SeeAlso []
673
674	******************************************************************************/
675	static int flatten_hierarchyMine (Hrc_Manager_t hmgr, int argc, char argv)
676	{
677
678	(void) fprintf(vis_stderr, "* 'flatten_hierarchy' begins. * \n");
679
680	int c;
681	Ntk_Network_t *network;
682	char *fileName = NIL(char);
683	int verbose = 0; /* default */
684	int sweep = 1;
685	lsList varNameList = (lsList) NULL;
686	Hrc_Node_t currentNode = Hrc_ManagerReadCurrentNode(hmgr);
687
688	/*
689	* Parse the command line.
690	*/
691	util_getopt_reset();
692	while ((c = util_getopt(argc, argv, "a:bhsv:")) != EOF) {
693	switch (c) {
694	case 'a':
695	fileName = util_optarg;
696	break;
697	case 'b':
698	break;
699	case 'h':
700	goto usage;
701	case 's':
702	sweep = 0;
703	break;
704	case 'v':
705	verbose = atoi(util_optarg);
706	break;
707	default:
708	goto usage;
709	}
710	}
711
712	if (currentNode == NIL(Hrc_Node_t)) {
713	(void) fprintf(vis_stdout, "The hierarchy manager is empty. Read in design.\n");
714	return 1;
715	}
716
717	/*
718	* Process the file containing the variable names.
719	*/
720	if (fileName != NIL(char)) {
721	FILE fp = Cmd_FileOpen(fileName, "r", NIL(char ), 0);
722	if (fp == NIL(FILE)) {
723	return 1;
724	}
725	else {
726	boolean status;
727
728	error_init();
729	status = FileReadNameList(fp, &varNameList, verbose);
730	(void) fclose(fp);
731	if (status == FALSE) {
732	(void) fprintf(vis_stderr, "Error reading variable name file:\n");
733	(void) fprintf(vis_stderr, "%s", error_string());
734	(void) fprintf(vis_stderr, "Cannot perform flatten_hierarchy.\n");
735	return 1;
736	}
737	}
738	}
739
740
741	/*
742	* If a network already exists, delete it. Then create the new one, and
743	* register it with the hrcNode.
744	*/
745	network = (Ntk_Network_t *) Hrc_NodeReadApplInfo(currentNode,
746	NTK_HRC_NODE_APPL_KEY);
747	if (network != NIL(Ntk_Network_t)) {
748	(void) fprintf(vis_stdout, "Deleting current network and creating new one.\n");
749	Hrc_NodeFreeApplInfo(currentNode, NTK_HRC_NODE_APPL_KEY);
750	}
751
752	error_init();
753
754	network = Ntk_HrcNodeConvertToNetwork(currentNode, TRUE, varNameList);
755
756	/* Clean up the varNameList. */
757	if (varNameList != (lsList) NULL) {
758	lsGen gen;
759	char *varName;
760
761	lsForEachItem(varNameList, gen, varName) {
762	FREE(varName);
763	}
764	(void) lsDestroy(varNameList, (void (*) (lsGeneric)) NULL);
765	}
766	/* sweep network */
767	if (network != NIL(Ntk_Network_t) && sweep ==1) {
768	Ntk_NetworkSweep(network, verbose);
769	}
770
771	if (network == NIL(Ntk_Network_t)) {
772	(void) fprintf(vis_stderr, "%s", error_string());
773	(void) fprintf(vis_stderr, "Cannot perform flatten_hierarchy.\n");
774	return 1;
775	}
776
777	Hrc_NodeAddApplInfo(currentNode, NTK_HRC_NODE_APPL_KEY,
778	(Hrc_ApplInfoFreeFn) Ntk_NetworkFreeCallback,
779	(Hrc_ApplInfoChangeFn) NULL, /* not currently used by hrc */
780	(void *) network);
781
782	return 0; /* normal exit */
783
784	usage:
785	(void) fprintf(vis_stderr, "usage: flatten_hierarchy [-a file] [-b] [-h] [-s] [-v #]\n");
786	(void) fprintf(vis_stderr, " -a file variables to abstract\n");
787	(void) fprintf(vis_stderr, " -b not used any longer\n");
788	(void) fprintf(vis_stderr, " -h print the command usage\n");
789	(void) fprintf(vis_stderr, " -s do not perform a sweep\n");
790	(void) fprintf(vis_stderr, " -v # verbosity level\n");
791	return 1; /* error exit */
792	}
793
794
795	/Function******************************************************************
796
797	Synopsis []
798
799	Description [Refer to 'static int CommandStaticOrder(Hrc_Manager_t ** hmgr,
800	int argc, char ** argv);' in ordCmd.c]
801
802	SideEffects []
803
804	SeeAlso []
805
806	******************************************************************************/
807	static int static_orderMine (Hrc_Manager_t hmgr, int argc, char argv)
808	{
809
810	(void) fprintf(vis_stderr, "* 'static_order' begins. * \n");
811
812	int c;
813	FILE *fp;
814	static int timeOutPeriod;
815	static int verbose;
816	static Ord_NodeMethod nodeMethod;
817	static Ord_RootMethod rootMethod;
818	static Ord_OrderType suppliedOrderType;
819	static Ord_OrderType generatedOrderType;
820	static boolean nsAfterSupport;
821	lsList suppliedNodeList = (lsList) NULL;
822	/* list of Ntk_Node_t * */
823	Ntk_Network_t *network;
824
825	/*
826	* These are the default values. These variables must be declared static
827	* to avoid lint warnings. Since they are static, we must reinitialize
828	* them outside of the variable declarations.
829	*/
830	timeOutPeriod = 0;
831	verbose = 0;
832	nodeMethod = Ord_NodesByDefault_c;
833	rootMethod = Ord_RootsByDefault_c;
834	suppliedOrderType = Ord_Unassigned_c; /* default */
835	generatedOrderType = Ord_InputAndLatch_c;/* default */
836	nsAfterSupport = FALSE; /* default */
837
838	/*
839	* Parse the command line.
840	*/
841	util_getopt_reset();
842	while ((c = util_getopt(argc, argv, "av:o:s:t:n:r:h")) != EOF) {
843	switch (c) {
844	case 'a':
845	nsAfterSupport = TRUE;
846	break;
847	case 'h':
848	goto usage;
849	case 'v':
850	verbose = atoi(util_optarg);
851	break;
852	case 't':
853	timeOutPeriod = atoi(util_optarg);
854	break;
855	case 'o':
856	generatedOrderType = StringConvertToOrderType(util_optarg);
857	if ((generatedOrderType == Ord_NextStateNode_c)
858	\|\| (generatedOrderType == Ord_Partial_c)) {
859	(void) fprintf(vis_stderr, "disallowed output order type: %s\n", util_optarg);
860	goto usage;
861	}
862	else if (generatedOrderType == Ord_Unassigned_c) {
863	(void) fprintf(vis_stderr, "unknown output order type: %s\n", util_optarg);
864	goto usage;
865	}
866	break;
867	case 's':
868	suppliedOrderType = StringConvertToOrderType(util_optarg);
869	if (suppliedOrderType == Ord_Unassigned_c) {
870	(void) fprintf(vis_stderr, "unknown input order type: %s\n", util_optarg);
871	goto usage;
872	}
873	break;
874	case 'n':
875	if (strcmp("interleave", util_optarg) == 0) {
876	nodeMethod = Ord_NodesByInterleaving_c;
877	}
878	else if (strcmp("merge_left", util_optarg) == 0) {
879	nodeMethod = Ord_NodesByMergingLeft_c;
880	}
881	else if (strcmp("merge_right", util_optarg) == 0) {
882	nodeMethod = Ord_NodesByMergingRight_c;
883	}
884	else if (strcmp("append", util_optarg) == 0) {
885	nodeMethod = Ord_NodesByAppending_c;
886	}
887	else {
888	(void) fprintf(vis_stderr, "unknown node order method: %s\n", util_optarg);
889	goto usage;
890	}
891	break;
892	case 'r':
893	if (strcmp("depth", util_optarg) == 0) {
894	rootMethod = Ord_RootsByDepth_c;
895	}
896	else if (strcmp("mincomm", util_optarg) == 0) {
897	rootMethod = Ord_RootsByPerm_c;
898	}
899	else {
900	(void) fprintf(vis_stderr, "unknown root order method: %s\n", util_optarg);
901	goto usage;
902	}
903	break;
904	default:
905	goto usage;
906	}
907	}
908
909	network = Ntk_HrcManagerReadCurrentNetwork(*hmgr);
910	if (network == NIL(Ntk_Network_t)) {
911	return 1;
912	}
913
914	if ((suppliedOrderType == Ord_InputAndLatch_c) && (generatedOrderType == Ord_All_c)) {
915	(void) fprintf(vis_stderr, "-o all -s input_and_latch not currently supported\n");
916	return 1;
917	}
918
919	/*
920	* The minimum set of variables that can be ordered are those specified by
921	* Ord_InputAndLatch_c. If these have already been ordered, then just return.
922	*/
923	if (Ord_NetworkTestAreVariablesOrdered(network, Ord_InputAndLatch_c)) {
924	(void) fprintf(vis_stderr, "Variables already ordered. ");
925	(void) fprintf(vis_stderr, "Reinvoke flatten_hierarchy to undo variable ordering.\n");
926	return 1;
927	}
928
929
930	/*
931	* Process the input ordering file.
932	*/
933	if (suppliedOrderType == Ord_Unassigned_c) {
934	if (argc - util_optind > 0) {
935	(void) fprintf(vis_stderr, "must specify -s if supplying order file\n");
936	goto usage;
937	}
938	}
939	else {
940	if (argc - util_optind == 0) {
941	(void) fprintf(vis_stderr, "order file not provided\n");
942	goto usage;
943	}
944	else if (argc - util_optind > 1) {
945	(void) fprintf(vis_stderr, "too many arguments\n");
946	goto usage;
947	}
948
949	fp = Cmd_FileOpen(argv[util_optind], "r", NIL(char *), 0);
950	if (fp == NIL(FILE)) {
951	(void) fprintf(vis_stderr, "File %s is not readable, please check if it exists\n", argv[util_optind]);
952	return 1;
953	}
954	else {
955	boolean status;
956
957	error_init();
958	status = Ord_FileReadNodeList(fp, network, &suppliedNodeList, verbose);
959	if (status == FALSE) {
960	(void) fprintf(vis_stderr, "Error reading ordering file:\n");
961	(void) fprintf(vis_stderr, "%s", error_string());
962	(void) fprintf(vis_stderr, "Cannot perform static ordering.\n");
963	(void) fclose(fp);
964	return 1;
965	}
966	else if (NetworkCheckSuppliedNodeList(network, suppliedNodeList,
967	suppliedOrderType) == FALSE) {
968	(void) fprintf(vis_stderr, "Incorrect nodes supplied:\n");
969	(void) fprintf(vis_stderr, "%s", error_string());
970	(void) fprintf(vis_stderr, "Cannot perform static ordering.\n");
971	(void) fclose(fp);
972	(void) lsDestroy(suppliedNodeList, (void (*) (lsGeneric)) NULL);
973	return 1;
974	}
975	else {
976	(void) fclose(fp);
977	if (verbose > 0) {
978	(void) fprintf(vis_stdout, "\nNodes supplied in ordering file, ");
979	(void) fprintf(vis_stdout, "according to -s option: \n");
980	OrdNodeListWrite(vis_stdout, suppliedNodeList);
981	}
982	}
983	}
984	}
985
986
987	/*
988	* In order for static ordering to proceed, network must not have any
989	* combinational cycles.
990	*/
991	error_init();
992	if(Ntk_NetworkTestIsAcyclic(network) == 0) {
993	(void) fprintf(vis_stderr, "Combinational cycle found: ");
994	(void) fprintf(vis_stderr, "%s\n", error_string());
995	(void) fprintf(vis_stderr, "cannot perform static ordering\n");
996	if (suppliedOrderType != Ord_Unassigned_c) {
997	(void) lsDestroy(suppliedNodeList, (void (*) (lsGeneric)) NULL);
998	}
999	return 1;
1000	}
1001
1002	/* Start the timer before calling the variable ordering routine. */
1003	if (timeOutPeriod > 0){
1004	(void) signal(SIGALRM, (void(*)(int))TimeOutHandle);
1005	(void) alarm(timeOutPeriod);
1006	if (setjmp(timeOutEnv) > 0) {
1007	(void) fprintf(vis_stderr, "Timeout occurred after %d seconds.\n", timeOutPeriod);
1008	alarm(0);
1009	return 1;
1010	}
1011	}
1012
1013	/*
1014	* Order the variables.
1015	*/
1016	Ord_NetworkOrderVariables(network, rootMethod, nodeMethod, nsAfterSupport,
1017	generatedOrderType, suppliedOrderType,
1018	suppliedNodeList, verbose);
1019
1020	if (suppliedOrderType != Ord_Unassigned_c) {
1021	(void) lsDestroy(suppliedNodeList, (void (*) (lsGeneric)) NULL);
1022	}
1023
1024	/*
1025	* As a sanity check, make sure that all the variables in generatedOrderType
1026	* have an MDD id.
1027	*/
1028	assert(Ord_NetworkTestAreVariablesOrdered(network, generatedOrderType));
1029
1030	alarm(0);
1031	return 0; /* Everything okay */
1032
1033	usage:
1034	(void) fprintf(vis_stderr, "usage: static_order [-a] [-h] [-n method] [-o type] [-r method] -s type [-t time] [-v #] file\n");
1035	(void) fprintf(vis_stderr, " -a order NS variables after support\n");
1036	(void) fprintf(vis_stderr, " -h print the command usage\n");
1037	(void) fprintf(vis_stderr, " -n method node ordering method\n");
1038	(void) fprintf(vis_stderr, " (interleave (default), append, merge_left, merge_right)\n");
1039	(void) fprintf(vis_stderr, " -o type nodes to order (all, input_and_latch (default))\n");
1040	(void) fprintf(vis_stderr, " -r method root ordering method (depth, mincomm (default for < 30 latches))\n");
1041	(void) fprintf(vis_stderr, " -s type nodes in file (all, input_and_latch, next_state_node, partial)\n");
1042	(void) fprintf(vis_stderr, " -t time time out period (in seconds)\n");
1043	(void) fprintf(vis_stderr, " -v # verbosity level\n");
1044	(void) fprintf(vis_stderr, " file supplied ordering of nodes\n");
1045
1046	return 1;
1047
1048	}
1049
1050
1051	/Function******************************************************************
1052
1053	Synopsis []
1054
1055	Description [Refer to 'static int CommandBuildPartitionMdds(Hrc_Manager_t **
1056	hmgr, int argc, char ** argv);' in partCmd.c]
1057
1058	SideEffects []
1059
1060	SeeAlso []
1061
1062	******************************************************************************/
1063	static int build_partition_mddsMine (Hrc_Manager_t hmgr, int argc, char argv)
1064	{
1065
1066	(void) fprintf(vis_stderr, "* 'build_partition_mdds' begins. * \n");
1067
1068	static Part_PartitionMethod method;
1069	static boolean inTermsOfLeaves;
1070	lsList nodeList = lsCreate();
1071	graph_t *partition;
1072	static int verbose;
1073	static int sanityCheck;
1074	static int timeOutPeriod;
1075	int c;
1076	int length;
1077	char *methodString;
1078	char *modelName;
1079	Hrc_Node_t *currentNode;
1080	Ntk_Network_t network = Ntk_HrcManagerReadCurrentNetwork(hmgr);
1081	char *nodeName;
1082	char *tmpNodeName;
1083	char *realName;
1084	FILE *nodeFile;
1085	static boolean fileUsed;
1086
1087	fileUsed = FALSE;
1088	inTermsOfLeaves = FALSE;
1089	verbose = 0;
1090	sanityCheck = 0;
1091	timeOutPeriod = 0;
1092
1093	nodeFile = NIL(FILE);
1094	util_getopt_reset();
1095	while ((c = util_getopt(argc, argv, "f:hvin:s:t:")) != EOF) {
1096	switch(c) {
1097	case 'f':
1098	fileUsed = TRUE;
1099	nodeFile = Cmd_FileOpen(util_optarg, "r", &realName, 1);
1100	FREE(realName);
1101	if (nodeFile == NIL(FILE)){
1102	(void)fprintf(vis_stderr,"Cannot open %s\n", util_optarg);
1103	lsDestroy(nodeList, (void (*)(lsGeneric))0);
1104	return 1;
1105	}
1106	else{
1107	tmpNodeName = ALLOC(char, 512);
1108	while(fscanf(nodeFile, "%s\n", tmpNodeName) != EOF){
1109	if(*tmpNodeName != '#'){
1110	nodeName = ALLOC(char, strlen(tmpNodeName) + 2);
1111	sprintf(nodeName, "%s", tmpNodeName);
1112	lsNewEnd(nodeList, (lsGeneric)nodeName, NIL(lsHandle));
1113	}
1114	}
1115	FREE(tmpNodeName);
1116	}
1117	break;
1118	case 'h':
1119	goto usage;
1120	case 'i':
1121	inTermsOfLeaves = TRUE;
1122	break;
1123	case 'v':
1124	verbose = 1;
1125	break;
1126	case 's':
1127	sanityCheck = atoi(util_optarg);
1128	break;
1129	case 't':
1130	timeOutPeriod = atoi(util_optarg);
1131	break;
1132	case 'n':
1133	length = strlen(util_optarg);
1134	for(c = 0; c < length; c++) {
1135	if (util_optarg[c] == ',') {
1136	util_optarg[c] = 0;
1137	} /* End of if */
1138	} /* End of for */
1139	c = 0;
1140	while (c < length) {
1141	lsNewEnd(nodeList, &util_optarg[c], NIL(lsHandle));
1142	while (util_optarg[c++] != 0);
1143	} /* End of while */
1144	break;
1145	default:
1146	goto usage;
1147	}
1148	}
1149
1150	if (argc == util_optind) {
1151	/* No method specified. Choosing default */
1152	methodString = Cmd_FlagReadByName("partition_method");
1153	if (methodString == NIL(char)) {
1154	methodString = "default";
1155	}
1156	}
1157	else {
1158	methodString = argv[util_optind];
1159	}
1160
1161	if (strcmp(methodString,"inout") == 0) {
1162	method = Part_InOut_c;
1163	if (lsLength(nodeList) != 0) {
1164	(void) fprintf(vis_stderr, "Ignoring provided list of nodes in <inout>");
1165	(void) fprintf(vis_stderr, " method\n");
1166	} /* End of if */
1167	if (inTermsOfLeaves) {
1168	(void) fprintf(vis_stderr, "Ignoring -i flag in the <inout> method\n");
1169	} /* End of if */
1170	}
1171	else if (strcmp(methodString,"partial") == 0) {
1172	method = Part_Partial_c;
1173	/* Make sure a list of nodes has been provided */
1174	if (lsLength(nodeList) == 0) {
1175	(void) fprintf(vis_stderr, "Method <partial> requires a non-empty list");
1176	(void) fprintf(vis_stderr, " of nodes\n");
1177
1178	lsDestroy(nodeList, (void (*)(lsGeneric))0);
1179	goto usage;
1180	} /* End of if */
1181	}
1182	else if (strcmp(methodString,"total") == 0) {
1183	method = Part_Total_c;
1184	if (lsLength(nodeList) != 0) {
1185	(void) fprintf(vis_stderr, "Ignoring provided list of nodes in <total>");
1186	(void) fprintf(vis_stderr, " method\n");
1187	} /* End of if */
1188	}
1189	else if (strcmp(methodString,"frontier") == 0) {
1190	method = Part_Frontier_c;
1191	}
1192	else if (strcmp(methodString,"boundary") == 0) {
1193	method = Part_Boundary_c;
1194	}
1195	else if (strcmp(methodString, "fine") == 0) {
1196	method = Part_Fine_c;
1197	}
1198	else if (strcmp(methodString, "default") == 0) {
1199	method = Part_Default_c;
1200	}
1201	else {
1202	goto usage;
1203	}
1204
1205
1206	/* Check if the network has been read in */
1207	if (network == NIL(Ntk_Network_t)) {
1208	lsDestroy(nodeList, (void (*)(lsGeneric))0);
1209	return 1;
1210	}
1211
1212	/* Check if the network has the variables ordered */
1213	if (Ord_NetworkTestAreVariablesOrdered(network, Ord_InputAndLatch_c) ==
1214	FALSE) {
1215	(void) fprintf(vis_stdout, "The MDD variables have not been ordered. Use static_order.\n");
1216
1217	lsDestroy(nodeList, (void (*)(lsGeneric))0);
1218	return 1;
1219	}
1220
1221	/* Check if there is already a partition attached to the network */
1222	partition = (graph_t *) Ntk_NetworkReadApplInfo(network,
1223	PART_NETWORK_APPL_KEY);
1224
1225	/* If there is, just return. */
1226	if (partition != NIL(graph_t)) {
1227	(void) fprintf(vis_stderr, "partition already built; reinvoke ");
1228	(void) fprintf(vis_stderr, "flatten_hierarchy to remove the current partition\n");
1229	return 1;
1230	}
1231
1232	/* Read the name of the model to be passed to Part_NetworkCreatePartition */
1233	currentNode = Hrc_ManagerReadCurrentNode(*hmgr);
1234	modelName = Hrc_NodeReadModelName(currentNode);
1235
1236	/* Set the timeout */
1237	if (timeOutPeriod > 0) {
1238	(void) signal(SIGALRM, (void(*)(int))TimeOutHandle);
1239	(void) alarm(timeOutPeriod);
1240	if (setjmp(timeOutEnv) > 0) {
1241	(void) fprintf(vis_stdout, "Partition: timeout occurred after ");
1242	(void) fprintf(vis_stdout, "%d seconds\n", timeOutPeriod);
1243	alarm(0);
1244
1245	/* Partial clean up */
1246	lsDestroy(nodeList, (void (*)(lsGeneric))0);
1247	return 1;
1248	}
1249	}
1250
1251	/*
1252	* Execute the partition algorithm. The two nil pointers is to indicate
1253	* that the graph must represent the complete network.
1254	*/
1255	partition = Part_NetworkCreatePartition(network, currentNode, modelName, (lsList)0,
1256	(lsList)0, NIL(mdd_t), method, nodeList,
1257	inTermsOfLeaves, verbose,
1258	sanityCheck);
1259
1260	/* Register the partition in the network if any */
1261	Ntk_NetworkAddApplInfo(network, PART_NETWORK_APPL_KEY,
1262	(Ntk_ApplInfoFreeFn) Part_PartitionFreeCallback,
1263	(void *) partition);
1264
1265	/* Deactivate the alarm */
1266	alarm(0);
1267
1268	/* Clean up */
1269	if(fileUsed){
1270	lsDestroy(nodeList, PartNameFree);
1271	}
1272	else{
1273	lsDestroy(nodeList, (void (*)(lsGeneric))0);
1274	}
1275	return 0;
1276
1277	usage:
1278	(void) fprintf(vis_stderr, "usage: build_partition_mdds [options] [method]\n");
1279	(void) fprintf(vis_stderr, "Options:\n");
1280	(void) fprintf(vis_stderr, " -h\t\tprint the command usage\n");
1281	(void) fprintf(vis_stderr, " -i\t\tBuild the functions in the partition in terms of the\n");
1282	(void) fprintf(vis_stderr, " \t\tcombinational inputs of the system. This option is redundant if\n");
1283	(void) fprintf(vis_stderr, " \t\tthe inout partition is chosen.\n");
1284	(void) fprintf(vis_stderr, " -n <list>\tComma separated list of network nodes to preserve in the\n");
1285	(void) fprintf(vis_stderr, " \tpartitioning. It only matters if the partial method has been\n");
1286	(void) fprintf(vis_stderr, " \tselected.\n");
1287	(void) fprintf(vis_stderr, " -f <file>\tSpecifies the file containing names of network nodes\n");
1288	(void) fprintf(vis_stderr, " \tto preserve while partitioning. This option matters only \n");
1289	(void) fprintf(vis_stderr, " \tif the partial method has been selected. Each node name must\n");
1290	(void) fprintf(vis_stderr, " \tbe listed on a new line. Comments in <file> must begin with '#'.\n");
1291	(void) fprintf(vis_stderr, " -s <num>\tLevel of severity check applied after computation. 0 being no\n");
1292	(void) fprintf(vis_stderr, " \t\tcheck, 1 begin simple check and >1 being exhaustive check.\n");
1293	(void) fprintf(vis_stderr, " -t <sec>\tTime in seconds allowed to build the partition. If the\n");
1294	(void) fprintf(vis_stderr, " \tcomputation time goes above that limit, the process of building\n");
1295	(void) fprintf(vis_stderr, " \tthe partition is aborted.\n");
1296	(void) fprintf(vis_stderr, " -v\t\tverbose\n");
1297	(void) fprintf(vis_stderr, "Methods\n");
1298	(void) fprintf(vis_stderr, " inout\tIt represents the network with one MDD for\n");
1299	(void) fprintf(vis_stderr, " \teach combinational output as a function of the combinational\n");
1300	(void) fprintf(vis_stderr, " \tinputs\n");
1301	(void) fprintf(vis_stderr, " total\tPartitions the network preserving its structure. Every node in\n");
1302	(void) fprintf(vis_stderr, " \tthe network will produce a vertex in the partition graph. The\n");
1303	(void) fprintf(vis_stderr, " \tflag -i explained above controls the support of\n");
1304	(void) fprintf(vis_stderr, " \tthe functions attached to the vertices.\n");
1305	(void) fprintf(vis_stderr, " frontier\tThe default method. Partitions the network creating vertices for intermediate nodes\n");
1306	(void) fprintf(vis_stderr, " \tas necessary to control the BDD size. The threshold value of the\n");
1307	(void) fprintf(vis_stderr, " \tBDD can be specified by partition_threshold.\n");
1308	(void) fprintf(vis_stderr, " partial\tPartitions the network preserving certain nodes specified with\n");
1309	(void) fprintf(vis_stderr, " \tthe option -n or -f.\n");
1310	(void) fprintf(vis_stderr, " boundary\tPartitions the network preserving all nodes that are \n");
1311	(void) fprintf(vis_stderr, " \tsubcircuit IOs.\n");
1312
1313	lsDestroy(nodeList, (void (*)(lsGeneric))0);
1314
1315	return 1; /* Error exit */
1316	} /* End of CommandBuildPartitionMdds */
1317
1318
1319	/Function******************************************************************
1320
1321	Synopsis []
1322
1323	Description [Refer to 'static int CommandBuildPartitionMAigs(Hrc_Manager_t
1324	hmgr, int argc, char argv);' in ntmaigCmd.c]
1325
1326	SideEffects []
1327
1328	SeeAlso []
1329
1330	******************************************************************************/
1331	static int build_partition_maigsMine(Hrc_Manager_t hmgr, int argc, char argv)
1332	{
1333
1334	(void) fprintf(vis_stderr, "* 'build_partition_maigs' begins. * \n");
1335
1336	Ntk_Node_t node, latch;
1337	lsGen gen;
1338	array_t result; / array of MvfAig_Function_t* */
1339	array_t *roots;
1340	st_table *leaves;
1341	array_t *inputs;
1342	Ntk_Network_t network = Ntk_HrcManagerReadCurrentNetwork(hmgr);
1343	mAig_Manager_t *manager;
1344	MvfAig_Function_t *mvfAig;
1345	st_table nodeToMvfAigTable; / mapes each node with its mvfAig */
1346	int c, sweepFlag, DFSFlag;
1347	int i;
1348
1349	sweepFlag = 1;
1350	DFSFlag = 0;
1351	util_getopt_reset();
1352	while ((c = util_getopt(argc,argv,"sdnh")) != EOF){
1353	switch(c){
1354	case 's':
1355	sweepFlag = 1;
1356	break;
1357	case 'd':
1358	DFSFlag = 1;
1359	break;
1360	case 'n':
1361	sweepFlag = 0;
1362	break;
1363	case 'h':
1364	goto usage;
1365	default:
1366	goto usage;
1367	}
1368	}
1369	if (network == NIL(Ntk_Network_t)) {
1370	return 1;
1371	}
1372
1373	manager = Ntk_NetworkReadMAigManager(network);
1374
1375	if (manager == NIL(mAig_Manager_t)) {
1376	manager = mAig_initAig();
1377	Ntk_NetworkSetMAigManager(network, manager);
1378	/*
1379	mAig_mAigSetNetwork(manager, network);
1380	*/
1381	}
1382
1383	/* Check if there is already a MvfAigs Table attached to the network */
1384	nodeToMvfAigTable = (st_table *) Ntk_NetworkReadApplInfo(network,
1385	MVFAIG_NETWORK_APPL_KEY);
1386
1387	if (nodeToMvfAigTable != NIL(st_table)){
1388	/*
1389	st_foreach_item(nodeToMvfAigTable, stGen, (char ) &node, (char ) &MvfAig) {
1390	printf("\nNode name = %s :",Ntk_NodeReadName(node));
1391	for (j=0; j< array_n(MvfAig); j++){
1392	printf(" %d ",array_fetch(bAigEdge_t, (array_t *) MvfAig, j));
1393	}
1394	}
1395	*/
1396	(void) fprintf(vis_stderr, "maig partition already built; reinvoke\n");
1397	(void) fprintf(vis_stderr, "flatten_hierarchy to remove the current maig partition\n");
1398	return 1;
1399	}
1400
1401	roots = array_alloc(Ntk_Node_t *, 0);
1402	Ntk_NetworkForEachCombOutput(network, gen, node) {
1403	array_insert_last(Ntk_Node_t *, roots, node);
1404	}
1405	Ntk_NetworkForEachNode(network, gen, node) {
1406	if(Ntk_NodeTestIsShadow(node)) continue;
1407	if(Ntk_NodeTestIsCombInput(node)) continue;
1408	if(Ntk_NodeTestIsCombOutput(node))continue;
1409
1410	if(Ntk_NodeReadNumFanouts(node) == 0 && Ntk_NodeReadNumFanins(node)) {
1411	/**
1412	fprintf(vis_stdout, "WARNING : dangling node %s\n", Ntk_NodeReadName(node));
1413	**/
1414	array_insert_last(Ntk_Node_t *, roots, node);
1415	}
1416	}
1417
1418	leaves = st_init_table(st_ptrcmp, st_ptrhash);
1419
1420	inputs = array_alloc(Ntk_Node_t *, 16);
1421	Ntk_NetworkForEachCombInput(network, gen, node) {
1422	array_insert_last(Ntk_Node_t *, inputs, node);
1423	}
1424	array_sort(inputs, nodenameCompare);
1425	for(i=0; i<array_n(inputs); i++) {
1426	node = array_fetch(Ntk_Node_t *, inputs, i);
1427	st_insert(leaves, node, (char *) ntmaig_UNUSED);
1428	Ntk_NodeSetMAigId(node,
1429	mAig_CreateVar(manager,
1430	Ntk_NodeReadName(node),
1431	Var_VariableReadNumValues(Ntk_NodeReadVariable(node))));
1432	}
1433
1434	if(DFSFlag == 0)
1435	bAig_BuildAigBFSManner(network, manager, leaves, sweepFlag);
1436
1437	result = ntmaig_NetworkBuildMvfAigs(network, roots, leaves);
1438
1439	nodeToMvfAigTable = (st_table *) Ntk_NetworkReadApplInfo(network,
1440	MVFAIG_NETWORK_APPL_KEY);
1441	Ntk_NetworkForEachLatch(network, gen, latch) {
1442	node = Ntk_LatchReadDataInput(latch);
1443	st_lookup(nodeToMvfAigTable, node, &mvfAig);
1444	Ntk_NodeSetMAigId(node,
1445	mAig_CreateVarFromAig(manager, Ntk_NodeReadName(node), mvfAig));
1446	node = Ntk_LatchReadInitialInput(latch);
1447	st_lookup(nodeToMvfAigTable, node, &mvfAig);
1448	Ntk_NodeSetMAigId(node,
1449	mAig_CreateVarFromAig(manager, Ntk_NodeReadName(node), mvfAig));
1450	}
1451
1452	roots->num = 0;
1453	Ntk_NetworkForEachLatch(network, gen, latch) {
1454	if(!st_lookup(nodeToMvfAigTable, latch, &mvfAig))
1455	array_insert_last(Ntk_Node_t *, roots, latch);
1456	}
1457	result = ntmaig_NetworkBuildMvfAigs(network, roots, leaves);
1458
1459	array_free(roots);
1460	array_free(inputs);
1461	st_free_table(leaves);
1462
1463	/*
1464	* Free the array of MvfAigs.
1465	*/
1466	MvfAig_FunctionArrayFree(result);
1467
1468	if(sweepFlag)
1469	bAig_BddSweepMain(network, 0);
1470
1471	return 0;
1472
1473	usage:
1474	(void) fprintf(vis_stderr, "usage: build_partition_maig [-h]\n");
1475	(void) fprintf(vis_stderr, " -h print the command usage\n");
1476	(void) fprintf(vis_stderr, " -n disable bdd sweeping\n");
1477	(void) fprintf(vis_stderr, " -d build AIG DFS manner\n");
1478	return 1; /* error exit */
1479
1480	}
1481
1482	/Function******************************************************************
1483
1484	Synopsis []
1485
1486	Description [Refer to 'static int CommandReadFairness(Hrc_Manager_t ** hmgr,
1487	int argc, char ** argv)' in fsmCmd.c]
1488
1489	SideEffects []
1490
1491	SeeAlso []
1492
1493	******************************************************************************/
1494
1495	static int read_fairnessMine (Hrc_Manager_t hmgr, int argc, char argv)
1496	{
1497
1498	(void) fprintf(vis_stderr, "* 'read_fairness' begins. * \n");
1499
1500	int c;
1501	FILE *fp;
1502	array_t *formulaArray;
1503	Fsm_Fsm_t fsm = Fsm_HrcManagerReadCurrentFsm(hmgr);
1504
1505	/*
1506	* Parse command line options.
1507	*/
1508	util_getopt_reset();
1509	while ((c = util_getopt(argc, argv, "h")) != EOF) {
1510	switch(c) {
1511	case 'h':
1512	goto usage;
1513	default:
1514	goto usage;
1515	}
1516	/* NOT REACHED */
1517	}
1518
1519	if (fsm == NIL(Fsm_Fsm_t)) {
1520	(void) fprintf(vis_stderr, "** fair error: Fairness constraint not recorded.\n");
1521	return 1;
1522	}
1523
1524	/*
1525	* Open the fairness file.
1526	*/
1527	if (argc - util_optind == 0) {
1528	(void) fprintf(vis_stderr, "** fair error: fairness file not provided\n");
1529	goto usage;
1530	}
1531	else if (argc - util_optind > 1) {
1532	(void) fprintf(vis_stderr, "** fair error: too many arguments\n");
1533	goto usage;
1534	}
1535
1536	fp = Cmd_FileOpen(argv[util_optind], "r", NIL(char *), 0);
1537	if (fp == NIL(FILE)) {
1538	return 1;
1539	}
1540
1541	/*
1542	* Parse the formulas in the file.
1543	*/
1544	formulaArray = Ctlp_FileParseFormulaArray(fp);
1545	(void) fclose(fp);
1546
1547	if (formulaArray == NIL(array_t)) {
1548	(void) fprintf(vis_stderr, "** fair error: error reading fairness conditions.\n");
1549	return 1;
1550	}
1551	else if (array_n(formulaArray) == 0) {
1552	(void) fprintf(vis_stderr, "** fair error: fairness file is empty.\n");
1553	(void) fprintf(vis_stderr, "** fair error: Use reset_fairness to reset the fairness constraint.");
1554	return 1;
1555	}
1556	else {
1557	int j;
1558	Fsm_Fairness_t *fairness;
1559	Ntk_Network_t *network = Fsm_FsmReadNetwork(fsm);
1560
1561	/*
1562	* First check that each formula is semantically correct wrt the network.
1563	*/
1564	error_init();
1565	for (j = 0; j < array_n(formulaArray); j++) {
1566	Ctlp_Formula_t *formula;
1567	boolean status;
1568
1569	formula = array_fetch(Ctlp_Formula_t *, formulaArray, j);
1570	status = Mc_FormulaStaticSemanticCheckOnNetwork(formula, network, FALSE);
1571
1572	if (status == FALSE) {
1573	(void) fprintf(vis_stderr,
1574	"** fair error: error reading fairness constraint ");
1575	Ctlp_FormulaPrint(vis_stderr, formula);
1576	(void) fprintf(vis_stderr, ":\n");
1577	(void) fprintf(vis_stderr, "%s", error_string());
1578	(void) fprintf(vis_stderr, "\n");
1579	return 1;
1580	}
1581	}
1582
1583
1584	/*
1585	* Interpret the array of CTL formulas as a set of Buchi conditions.
1586	* Hence, create a single disjunct, consisting of k conjuncts, where k is
1587	* the number of CTL formulas read in. The jth conjunct has the jth
1588	* formula as its finallyInf component, and NULL as its globallyInf
1589	* component.
1590	*/
1591	fairness = FsmFairnessAlloc(fsm);
1592	for (j = 0; j < array_n(formulaArray); j++) {
1593	Ctlp_Formula_t formula = array_fetch(Ctlp_Formula_t , formulaArray, j);
1594
1595	FsmFairnessAddConjunct(fairness, formula, NIL(Ctlp_Formula_t), 0, j);
1596	}
1597	array_free(formulaArray); /* Don't free the formulas themselves. */
1598
1599	/*
1600	* Remove any existing fairnessInfo associated with the FSM, and update
1601	* the fairnessInfo.constraint with the new fairness just read.
1602	*/
1603	FsmFsmFairnessInfoUpdate(fsm, NIL(mdd_t), fairness, NIL(array_t));
1604
1605	return 0;
1606	}
1607
1608	usage:
1609	(void) fprintf(vis_stderr, "usage: read_fairness [-h] file\n");
1610	(void) fprintf(vis_stderr, " -h print the command usage\n");
1611	(void) fprintf(vis_stderr, " file file containing the list of conditions\n");
1612	return 1;
1613
1614	}
1615
1616	/Function******************************************************************
1617
1618	Synopsis []
1619
1620	Description [Refer to 'static int CommandPrintFairness(Hrc_Manager_t ** hmgr,
1621	int argc, char ** argv)' in fsmCmd.c]
1622
1623	SideEffects []
1624
1625	SeeAlso []
1626
1627	******************************************************************************/
1628
1629	static int print_fairnessMine(Hrc_Manager_t hmgr, int argc, char argv)
1630	{
1631
1632	(void) fprintf(vis_stderr, "* 'print_fairness' begins. * \n");
1633
1634	int c;
1635	Fsm_Fairness_t *constraint;
1636	int numDisjuncts;
1637	Fsm_Fsm_t fsm = Fsm_HrcManagerReadCurrentFsm(hmgr);
1638
1639	/*
1640	* Parse command line options.
1641	*/
1642	util_getopt_reset();
1643	while ((c = util_getopt(argc, argv, "h")) != EOF) {
1644	switch(c) {
1645	case 'h':
1646	goto usage;
1647	default:
1648	goto usage;
1649	}
1650	/* NOT REACHED */
1651	}
1652
1653	if (fsm == NIL(Fsm_Fsm_t)) {
1654	return 1;
1655	}
1656
1657	/*
1658	* Print the fairness constraint. It is assumed that there is at least one
1659	* disjunct present. Currently, only Buchi constraints can be printed out.
1660	*/
1661	constraint = Fsm_FsmReadFairnessConstraint(fsm);
1662	assert(constraint != NIL(Fsm_Fairness_t));
1663	numDisjuncts = Fsm_FairnessReadNumDisjuncts(constraint);
1664	assert(numDisjuncts != 0);
1665
1666	if (numDisjuncts > 1) {
1667	(void) fprintf(vis_stdout, "Fairness constraint not Buchi...");
1668	(void) fprintf(vis_stdout, "don't know how to print.\n");
1669	}
1670	else {
1671	int i;
1672	int numConjuncts = Fsm_FairnessReadNumConjunctsOfDisjunct(constraint, 0);
1673
1674	(void) fprintf(vis_stdout, "Fairness constraint:\n");
1675	for (i = 0; i < numConjuncts; i++) {
1676	if (Fsm_FairnessReadGloballyInfFormula(constraint, 0, i) !=
1677	NIL(Ctlp_Formula_t)) {
1678	(void) fprintf(vis_stdout, "Fairness constraint not Buchi...");
1679	(void) fprintf(vis_stdout, "don't know how to print.\n");
1680	}
1681
1682	Ctlp_FormulaPrint(vis_stdout,
1683	Fsm_FairnessReadFinallyInfFormula(constraint, 0, i));
1684	(void) fprintf(vis_stdout, ";\n");
1685	}
1686	}
1687
1688	return 0;
1689
1690	usage:
1691	(void) fprintf(vis_stderr, "usage: print_fairness [-h]\n");
1692	(void) fprintf(vis_stderr, " -h print the command usage\n");
1693	return 1;
1694
1695	}
1696
1697
1698	/Function******************************************************************
1699
1700	Synopsis []
1701
1702	Description [Refer to 'static int CommandPrintIo(Hrc_Manager_t **hmgr, int
1703	argc, char **argv);' in hrcCmd.c]
1704
1705	SideEffects []
1706
1707	SeeAlso []
1708
1709	******************************************************************************/
1710
1711	static int print_ioMine (Hrc_Manager_t hmgr, int argc, char argv)
1712	{
1713
1714	(void) fprintf(vis_stderr, "* 'print_io' begins. * \n");
1715
1716	int c, i;
1717	Hrc_Node_t *node;
1718	Var_Variable_t *var;
1719	array_t *tmpArray;
1720
1721	util_getopt_reset();
1722	while ((c = util_getopt(argc, argv, "h")) != EOF) {
1723	switch(c){
1724	case 'h':
1725	goto usage;
1726	default:
1727	goto usage;
1728	}
1729	}
1730	/* if there are some arguments left */
1731	if (argc != util_optind){
1732	goto usage;
1733	}
1734	node = Hrc_ManagerReadCurrentNode(*hmgr);
1735	if (node == NIL(Hrc_Node_t)){
1736	(void)fprintf(vis_stderr,"No file has been read in.\n");
1737	return 1;
1738	}
1739
1740	if (Hrc_NodeReadNumFormalInputs(node) == 0){
1741	fprintf(vis_stdout,"No inputs\n");
1742	}
1743	else {
1744	tmpArray = array_alloc(char *,0);
1745	Hrc_NodeForEachFormalInput(node,i,var){
1746	array_insert_last(char *,tmpArray,Var_VariableReadName(var));
1747	}
1748	array_sort(tmpArray,_HrcStringCmp);
1749	fprintf(vis_stdout,"inputs:");
1750	for (i=0; i < array_n(tmpArray); i++){
1751	fprintf(vis_stdout," %s",array_fetch(char *,tmpArray,i));
1752	}
1753	fprintf(vis_stdout,"\n");
1754	array_free(tmpArray);
1755	}
1756
1757	if (Hrc_NodeReadNumFormalOutputs(node) == 0){
1758	fprintf(vis_stdout,"No outputs\n");
1759	}
1760	else {
1761	tmpArray = array_alloc(char *,0);
1762	Hrc_NodeForEachFormalOutput(node,i,var){
1763	array_insert_last(char *,tmpArray,Var_VariableReadName(var));
1764	}
1765	array_sort(tmpArray,_HrcStringCmp);
1766	fprintf(vis_stdout,"outputs:");
1767	for (i=0; i < array_n(tmpArray); i++){
1768	fprintf(vis_stdout," %s",array_fetch(char *,tmpArray,i));
1769	}
1770	fprintf(vis_stdout,"\n");
1771	array_free(tmpArray);
1772	}
1773	return 0;
1774
1775	usage:
1776	(void) fprintf(vis_stderr,"usage: print_io [-h]\n");
1777	(void) fprintf(vis_stderr, " -h \t\tprint the command usage\n");
1778	return 1;
1779
1780	}
1781
1782
1783	/Function******************************************************************
1784
1785	Synopsis []
1786
1787	Description [Refer to 'static int CommandMc (Hrc_Manager_t **hmgr, int argc,
1788	char **argv)' function in mcCmd.c]
1789
1790	SideEffects []
1791
1792	SeeAlso []
1793
1794	******************************************************************************/
1795	static int model_checkMine (Hrc_Manager_t hmgr, int argc, char argv)
1796	{
1797
1798	(void) fprintf(vis_stderr, "* 'model_check' begins. * \n");
1799
1800	/* options */
1801	McOptions_t *options;
1802	Mc_VerbosityLevel verbosity;
1803	Mc_DcLevel dcLevel;
1804	FILE *ctlFile;
1805	int timeOutPeriod = 0;
1806	Mc_FwdBwdAnalysis traversalDirection;
1807	int buildOnionRings = 0;
1808	FILE *guideFile;
1809	FILE *systemFile;
1810	Mc_GuidedSearch_t guidedSearchType = Mc_None_c;
1811	Ctlp_FormulaArray_t *hintsArray = NIL(Fsm_HintsArray_t);
1812	array_t hintsStatesArray = NIL(array_t); / array of mdd_t* */
1813	st_table *systemVarBddIdTable;
1814	boolean noShare = 0;
1815	Mc_GSHScheduleType GSHschedule;
1816	boolean checkVacuity;
1817	boolean performCoverageHoskote;
1818	boolean performCoverageImproved;
1819
1820	/* CTL formulae */
1821	array_t *ctlArray;
1822	array_t *ctlNormalFormulaArray;
1823	int i;
1824	int numFormulae;
1825	/* FSM, network and image */
1826	Fsm_Fsm_t *totalFsm = NIL(Fsm_Fsm_t);
1827	Fsm_Fsm_t *modelFsm = NIL(Fsm_Fsm_t);
1828	Fsm_Fsm_t *reducedFsm = NIL(Fsm_Fsm_t);
1829	Ntk_Network_t *network;
1830	mdd_t *modelCareStates = NIL(mdd_t);
1831	array_t *modelCareStatesArray = NIL(array_t);
1832	mdd_t *modelInitialStates;
1833	mdd_t *fairStates;
1834	Fsm_Fairness_t *fairCond;
1835	mdd_manager *mddMgr;
1836	array_t *bddIdArray;
1837	Img_ImageInfo_t *imageInfo;
1838	Mc_EarlyTermination_t *earlyTermination;
1839	/* Coverage estimation */
1840	mdd_t *totalcoveredstates = NIL(mdd_t);
1841	array_t *signalTypeList = array_alloc(int,0);
1842	array_t signalList = array_alloc(char ,0);
1843	array_t statesCoveredList = array_alloc(mdd_t ,0);
1844	array_t newCoveredStatesList = array_alloc(mdd_t ,0);
1845	array_t statesToRemoveList = array_alloc(mdd_t ,0);
1846
1847	/* Early termination is only partially implemented right now. It needs
1848	distribution over all operators, including limited cases of temporal
1849	operators. That should be relatively easy to implement. */
1850
1851	/* time keeping */
1852	long totalInitialTime; /* for model checking */
1853	long initialTime, finalTime; /* for model checking */
1854
1855	error_init();
1856	Img_ResetNumberOfImageComputation(Img_Both_c);
1857
1858	/* read options */
1859	if (!(options = ParseMcOptions(argc, argv))) {
1860	return 1;
1861	}
1862	verbosity = McOptionsReadVerbosityLevel(options);
1863	dcLevel = McOptionsReadDcLevel(options);
1864	ctlFile = McOptionsReadCtlFile(options);
1865	timeOutPeriod = McOptionsReadTimeOutPeriod(options);
1866	traversalDirection = McOptionsReadTraversalDirection(options);
1867	buildOnionRings =
1868	(McOptionsReadDbgLevel(options) != McDbgLevelNone_c \|\| verbosity);
1869	noShare = McOptionsReadUseFormulaTree(options);
1870	GSHschedule = McOptionsReadSchedule(options);
1871	checkVacuity = McOptionsReadVacuityDetect(options);
1872	/* for the command mc -C foo.ctl */
1873	performCoverageHoskote = McOptionsReadCoverageHoskote(options);
1874	/* for the command mc -I foo.ctl */
1875	performCoverageImproved = McOptionsReadCoverageImproved(options);
1876
1877	/* Check for incompatible options and do some option-specific
1878	* intializations.
1879	*/
1880
1881	if (traversalDirection == McFwd_c) {
1882	if (checkVacuity) {
1883	fprintf(vis_stderr, "** mc error: -V and -B are incompatible with -F\n");
1884	McOptionsFree(options);
1885	return 1;
1886	}
1887	if (performCoverageHoskote \|\| performCoverageImproved) {
1888	fprintf(vis_stderr, "** mc error: -I and -C are incompatible with -F\n");
1889	McOptionsFree(options);
1890	return 1;
1891	}
1892	}
1893
1894	if (checkVacuity) {
1895	if (performCoverageHoskote \|\| performCoverageImproved) {
1896	fprintf(vis_stderr, "** mc error: -I and -C are incompatible with -V and -B\n");
1897	McOptionsFree(options);
1898	return 1;
1899	}
1900	}
1901
1902	guideFile = McOptionsReadGuideFile(options);
1903
1904	if(guideFile != NIL(FILE) ){
1905	guidedSearchType = Mc_ReadGuidedSearchType();
1906	if(guidedSearchType == Mc_None_c){ /* illegal setting */
1907	fprintf(vis_stderr, "** mc error: Unknown hint type\n");
1908	fclose(guideFile);
1909	McOptionsFree(options);
1910	return 1;
1911	}
1912
1913	if(traversalDirection == McFwd_c){ /* illegal combination */
1914	fprintf(vis_stderr, "** mc error: -g is incompatible with -F\n");
1915	fclose(guideFile);
1916	McOptionsFree(options);
1917	return 1;
1918	}
1919
1920	if(Img_UserSpecifiedMethod() != Img_Iwls95_c &&
1921	Img_UserSpecifiedMethod() != Img_Monolithic_c &&
1922	Img_UserSpecifiedMethod() != Img_Mlp_c){
1923	fprintf(vis_stderr, "** mc error: -g only works with iwls95, MLP, or monolithic image methods.\n");
1924	fclose(guideFile);
1925	McOptionsFree(options);
1926	return 1;
1927	}
1928
1929	hintsArray = Mc_ReadHints(guideFile);
1930	fclose(guideFile); guideFile = NIL(FILE);
1931	if( hintsArray == NIL(array_t) ){
1932	McOptionsFree(options);
1933	return 1;
1934	}
1935
1936	} /* if guided search */
1937
1938	/* If don't-cares are used, -r implies -c. Note that the satisfying
1939	sets of a subformula are only in terms of propositions therein
1940	and their cone of influence. Hence, we can share satisfying sets
1941	among formulae. I don't quite understand what the problem with
1942	don't-cares is (RB) */
1943	if (McOptionsReadReduceFsm(options))
1944	if (dcLevel != McDcLevelNone_c)
1945	McOptionsSetUseFormulaTree(options, TRUE);
1946
1947	if (traversalDirection == McFwd_c &&
1948	McOptionsReadDbgLevel(options) != McDbgLevelNone_c) {
1949	McOptionsSetDbgLevel(options, McDbgLevelNone_c);
1950	(void)fprintf(vis_stderr, "** mc warning : option -d is ignored.\n");
1951	}
1952
1953	/* Read CTL formulae */
1954	ctlArray = Ctlsp_FileParseCTLFormulaArray(ctlFile);
1955	fclose(ctlFile); ctlFile = NIL(FILE);
1956	if (ctlArray == NIL(array_t)) {
1957	(void) fprintf(vis_stderr,
1958	"** mc error: error in parsing formulas from file\n");
1959	McOptionsFree(options);
1960	return 1;
1961	}
1962
1963	/* read network */
1964	network = Ntk_HrcManagerReadCurrentNetwork(*hmgr);
1965	if (network == NIL(Ntk_Network_t)) {
1966	fprintf(vis_stdout, "%s\n", error_string());
1967	error_init();
1968	Ctlp_FormulaArrayFree(ctlArray);
1969	McOptionsFree(options);
1970	return 1;
1971	}
1972
1973	/* read fsm */
1974	totalFsm = Fsm_NetworkReadOrCreateFsm(network);
1975	if (totalFsm == NIL(Fsm_Fsm_t)) {
1976	fprintf(vis_stdout, "%s\n", error_string());
1977	error_init();
1978	Ctlp_FormulaArrayFree(ctlArray);
1979	McOptionsFree(options);
1980	return 1;
1981	}
1982
1983	/* Assign variables to system if doing FAFW */
1984	systemVarBddIdTable = NIL(st_table);
1985	systemFile = McOptionsReadSystemFile(options);
1986	if (systemFile != NIL(FILE)) {
1987	systemVarBddIdTable = Mc_ReadSystemVariablesFAFW(totalFsm, systemFile);
1988	fclose(systemFile); systemFile = NIL(FILE);
1989	if (systemVarBddIdTable == (st_table )-1 ) { / FS: error message? */
1990	Ctlp_FormulaArrayFree(ctlArray);
1991	McOptionsFree(options);
1992	return 1;
1993	}
1994	} /* if FAFW */
1995
1996	if(options->FAFWFlag && systemVarBddIdTable == 0) {
1997	systemVarBddIdTable = Mc_SetAllInputToSystem(totalFsm);
1998	}
1999
2000	if (verbosity > McVerbosityNone_c)
2001	totalInitialTime = util_cpu_time();
2002	else /* to remove uninitialized variable warning */
2003	totalInitialTime = 0;
2004
2005	if(traversalDirection == McFwd_c){
2006	mdd_t *totalInitialStates;
2007	double nInitialStates;
2008
2009	totalInitialStates = Fsm_FsmComputeInitialStates(totalFsm);
2010	nInitialStates = mdd_count_onset(Fsm_FsmReadMddManager(totalFsm),
2011	totalInitialStates,
2012	Fsm_FsmReadPresentStateVars(totalFsm));
2013	mdd_free(totalInitialStates);
2014
2015	/* If the number of initial states is only one, we can use both
2016	* conversion formulas(init ^ f != FALSE and init ^ !f == FALSE),
2017	* however, if we have multiple initial states, we should use
2018	* p0 ^ !f == FALSE.
2019	*/
2020	ctlNormalFormulaArray =
2021	Ctlp_FormulaArrayConvertToForward(ctlArray, (nInitialStates == 1.0),
2022	noShare);
2023	/* end conversion for forward traversal */
2024	} else if (noShare) { /* conversion for backward, no sharing */
2025	ctlNormalFormulaArray =
2026	Ctlp_FormulaArrayConvertToExistentialFormTree(ctlArray);
2027	}else{ /* conversion for backward, with sharing */
2028	/* Note that converting to DAG after converting to existential form would
2029	lead to more sharing, but it cannot be done since equal subformula that
2030	are converted from different formulae need different pointers back to
2031	their originals */
2032	if (checkVacuity) {
2033	ctlNormalFormulaArray =
2034	Ctlp_FormulaArrayConvertToExistentialFormTree(ctlArray);
2035	}
2036	else {
2037	array_t *temp = Ctlp_FormulaArrayConvertToDAG( ctlArray );
2038	array_free( ctlArray );
2039	ctlArray = temp;
2040	ctlNormalFormulaArray =
2041	Ctlp_FormulaDAGConvertToExistentialFormDAG(ctlArray);
2042	}
2043	}
2044	/* At this point, ctlNormalFormulaArray contains the formulas that are
2045	actually going to be checked, and ctlArray contains the formulas from
2046	which the conversion has been done. Both need to be kept around until the
2047	end, for debugging purposes. */
2048
2049	numFormulae = array_n(ctlNormalFormulaArray);
2050
2051	/* time out */
2052	if (timeOutPeriod > 0) {
2053	/* Set the static variables used by the signal handler. */
2054	mcTimeOut = timeOutPeriod;
2055	alarmLapTime = util_cpu_ctime();
2056	(void) signal(SIGALRM, (void(*)(int))TimeOutHandle);
2057	(void) alarm(timeOutPeriod);
2058	if (setjmp(timeOutEnv) > 0) {
2059	(void) fprintf(vis_stdout,
2060	"# MC: timeout occurred after %d seconds.\n", timeOutPeriod);
2061	(void) fprintf(vis_stdout, "# MC: data may be corrupted.\n");
2062	if (verbosity > McVerbosityNone_c) {
2063	fprintf(vis_stdout, "-- total %d image computations and %d preimage computations\n",
2064	Img_GetNumberOfImageComputation(Img_Forward_c),
2065	Img_GetNumberOfImageComputation(Img_Backward_c));
2066	}
2067	alarm(0);
2068	return 1;
2069	}
2070	}
2071
2072
2073	/* Create reduced fsm, if necessary */
2074	if (!McOptionsReadReduceFsm(options)){
2075	/* We want to minimize only when "-r" option is not specified */
2076	/* reduceFsm would be NIL, if there is no reduction observed */
2077	assert (reducedFsm == NIL(Fsm_Fsm_t));
2078	reducedFsm = McConstructReducedFsm(network, ctlNormalFormulaArray);
2079	if (reducedFsm != NIL(Fsm_Fsm_t) && verbosity != McVerbosityNone_c) {
2080	mddMgr = Fsm_FsmReadMddManager(reducedFsm);
2081	bddIdArray = mdd_id_array_to_bdd_id_array(mddMgr,
2082	Fsm_FsmReadPresentStateVars(reducedFsm));
2083	(void)fprintf(vis_stdout,"Local system includes ");
2084	(void)fprintf(vis_stdout,"%d (%d) multi-value (boolean) variables.\n",
2085	array_n(Fsm_FsmReadPresentStateVars(reducedFsm)),
2086	array_n(bddIdArray));
2087	array_free(bddIdArray);
2088	}
2089	}
2090
2091	/************ for all formulae ********************************/
2092	for(i = 0; i < numFormulae; i++) {
2093	int nImgComps, nPreComps;
2094	boolean result;
2095	Ctlp_Formula_t ctlFormula = array_fetch(Ctlp_Formula_t ,
2096	ctlNormalFormulaArray, i);
2097
2098	modelFsm = NIL(Fsm_Fsm_t);
2099
2100	/* do a check */
2101	if (!Mc_FormulaStaticSemanticCheckOnNetwork(ctlFormula, network, FALSE)) {
2102	(void) fprintf(vis_stdout,
2103	"** mc error: error in parsing Atomic Formula:\n%s\n",
2104	error_string());
2105	error_init();
2106	Ctlp_FormulaFree(ctlFormula);
2107	continue;
2108	}
2109
2110	/* Create reduced fsm */
2111	if (McOptionsReadReduceFsm(options)) {
2112	/* We have not done top level reduction. */
2113	/* Using the same variable reducedFsm here */
2114	array_t oneFormulaArray = array_alloc(Ctlp_Formula_t , 1);
2115
2116	assert(reducedFsm == NIL(Fsm_Fsm_t));
2117	array_insert_last(Ctlp_Formula_t *, oneFormulaArray, ctlFormula);
2118	reducedFsm = McConstructReducedFsm(network, oneFormulaArray);
2119	array_free(oneFormulaArray);
2120
2121	if (reducedFsm && verbosity != McVerbosityNone_c) {
2122	mddMgr = Fsm_FsmReadMddManager(reducedFsm);
2123	bddIdArray = mdd_id_array_to_bdd_id_array(mddMgr,
2124	Fsm_FsmReadPresentStateVars(reducedFsm));
2125	(void)fprintf(vis_stdout,"Local system includes ");
2126	(void)fprintf(vis_stdout,"%d (%d) multi-value (boolean) variables.\n",
2127	array_n(Fsm_FsmReadPresentStateVars(reducedFsm)),
2128	array_n(bddIdArray));
2129	array_free(bddIdArray);
2130	}
2131	}/* if readreducefsm */
2132
2133	/* Let us see if we got any reduction via top level or via "-r" */
2134	if (reducedFsm == NIL(Fsm_Fsm_t))
2135	modelFsm = totalFsm; /* no reduction */
2136	else
2137	modelFsm = reducedFsm; /* some reduction at some point */
2138
2139	/* compute initial states */
2140	modelInitialStates = Fsm_FsmComputeInitialStates(modelFsm);
2141	if (modelInitialStates == NIL(mdd_t)) {
2142	int j;
2143	(void) fprintf(vis_stdout,
2144	"** mc error: Cannot build init states (mutual latch dependency?)\n%s\n",
2145	error_string());
2146	if (modelFsm != totalFsm)
2147	Fsm_FsmFree(reducedFsm);
2148
2149	alarm(0);
2150
2151	for(j = i; j < numFormulae; j++)
2152	Ctlp_FormulaFree(
2153	array_fetch( Ctlp_Formula_t *, ctlNormalFormulaArray, j ) );
2154	array_free( ctlNormalFormulaArray );
2155
2156	Ctlp_FormulaArrayFree( ctlArray );
2157
2158	McOptionsFree(options);
2159
2160	return 1;
2161	}
2162
2163	earlyTermination = Mc_EarlyTerminationAlloc(McAll_c, modelInitialStates);
2164
2165	if(hintsArray != NIL(Ctlp_FormulaArray_t)) {
2166	hintsStatesArray = Mc_EvaluateHints(modelFsm, hintsArray);
2167	if( hintsStatesArray == NIL(array_t) \|\|
2168	(guidedSearchType == Mc_Global_c &&
2169	Ctlp_CheckClassOfExistentialFormula(ctlFormula) == Ctlp_Mixed_c)) {
2170	int j;
2171
2172	if( guidedSearchType == Mc_Global_c &&
2173	Ctlp_CheckClassOfExistentialFormula(ctlFormula) == Ctlp_Mixed_c)
2174	fprintf(vis_stderr, "** mc error: global hints incompatible with "
2175	"mixed formulae\n");
2176
2177	Mc_EarlyTerminationFree(earlyTermination);
2178	mdd_free(modelInitialStates);
2179	if (modelFsm != totalFsm)
2180	Fsm_FsmFree(reducedFsm);
2181	alarm(0);
2182	for(j = i; j < numFormulae; j++)
2183	Ctlp_FormulaFree(
2184	array_fetch( Ctlp_Formula_t *, ctlNormalFormulaArray, j ) );
2185	array_free( ctlNormalFormulaArray );
2186	Ctlp_FormulaArrayFree( ctlArray );
2187	McOptionsFree(options);
2188	return 1;
2189	} /* problem with hints */
2190	} /* hints exist */
2191
2192	/* stats */
2193	if (verbosity > McVerbosityNone_c) {
2194	initialTime = util_cpu_time();
2195	nImgComps = Img_GetNumberOfImageComputation(Img_Forward_c);
2196	nPreComps = Img_GetNumberOfImageComputation(Img_Backward_c);
2197	} else { /* to remove uninitialized variable warnings */
2198	initialTime = 0;
2199	nImgComps = 0;
2200	nPreComps = 0;
2201	}
2202	mddMgr = Fsm_FsmReadMddManager(modelFsm);
2203
2204	/* compute don't cares. */
2205	if (modelCareStatesArray == NIL(array_t)) {
2206	long iTime; /* starting time for reachability analysis */
2207	if (verbosity > McVerbosityNone_c && i == 0)
2208	iTime = util_cpu_time();
2209	else /* to remove uninitialized variable warnings */
2210	iTime = 0;
2211
2212	/* ardc */
2213	if (dcLevel == McDcLevelArdc_c) {
2214	Fsm_ArdcOptions_t *ardcOptions = McOptionsReadArdcOptions(options);
2215
2216	modelCareStatesArray = Fsm_ArdcComputeOverApproximateReachableStates(
2217	modelFsm, 0, verbosity, 0, 0, 0, 0, 0, 0, ardcOptions);
2218	if (verbosity > McVerbosityNone_c && i == 0)
2219	Fsm_ArdcPrintReachabilityResults(modelFsm, util_cpu_time() - iTime);
2220
2221	/* rch dc */
2222	} else if (dcLevel >= McDcLevelRch_c) {
2223	modelCareStates =
2224	Fsm_FsmComputeReachableStates(modelFsm, 0, 1, 0, 0, 0, 0, 0,
2225	Fsm_Rch_Default_c, 0, 0,
2226	NIL(array_t), FALSE, NIL(array_t));
2227	if (verbosity > McVerbosityNone_c && i == 0) {
2228	Fsm_FsmReachabilityPrintResults(modelFsm, util_cpu_time() - iTime,
2229	Fsm_Rch_Default_c);
2230	}
2231
2232	modelCareStatesArray = array_alloc(mdd_t *, 0);
2233	array_insert(mdd_t *, modelCareStatesArray, 0, modelCareStates);
2234	} else {
2235	modelCareStates = mdd_one(mddMgr);
2236	modelCareStatesArray = array_alloc(mdd_t *, 0);
2237	array_insert(mdd_t *, modelCareStatesArray, 0, modelCareStates);
2238	}
2239	}
2240
2241	Fsm_MinimizeTransitionRelationWithReachabilityInfo(
2242	modelFsm, (traversalDirection == McFwd_c) ? Img_Both_c : Img_Backward_c,
2243	verbosity > 1);
2244
2245	/* fairness conditions */
2246	fairStates = Fsm_FsmComputeFairStates(modelFsm, modelCareStatesArray,
2247	verbosity, dcLevel, GSHschedule,
2248	McBwd_c, FALSE);
2249	fairCond = Fsm_FsmReadFairnessConstraint(modelFsm);
2250
2251	if (mdd_lequal(modelInitialStates, fairStates, 1, 0)) {
2252	(void)fprintf(vis_stdout,
2253	"** mc warning: There are no fair initial states\n");
2254	}
2255	else if (!mdd_lequal(modelInitialStates, fairStates, 1, 1)) {
2256	(void)fprintf(vis_stdout,
2257	"** mc warning: Some initial states are not fair\n");
2258	}
2259
2260	/* some user feedback */
2261	if (verbosity != McVerbosityNone_c) {
2262	(void)fprintf(vis_stdout, "Checking formula[%d] : ", i + 1);
2263	Ctlp_FormulaPrint(vis_stdout,
2264	Ctlp_FormulaReadOriginalFormula(ctlFormula));
2265	(void)fprintf (vis_stdout, "\n");
2266	if (traversalDirection == McFwd_c) {
2267	(void)fprintf(vis_stdout, "Forward formula : ");
2268	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
2269	(void)fprintf(vis_stdout, "\n");
2270	}
2271	}
2272
2273	/************ the actual computation ********************************/
2274	if (checkVacuity) {
2275	McVacuityDetection(modelFsm, ctlFormula, i,
2276	fairStates, fairCond, modelCareStatesArray,
2277	earlyTermination, hintsStatesArray,
2278	guidedSearchType, modelInitialStates,
2279	options);
2280	}
2281	else { /* Normal Model Checking */
2282	mdd_t *ctlFormulaStates =
2283	Mc_FsmEvaluateFormula(modelFsm, ctlFormula, fairStates,
2284	fairCond, modelCareStatesArray,
2285	earlyTermination, hintsStatesArray,
2286	guidedSearchType, verbosity, dcLevel,
2287	buildOnionRings, GSHschedule);
2288
2289	McEstimateCoverage(modelFsm, ctlFormula, i, fairStates, fairCond,
2290	modelCareStatesArray, earlyTermination,
2291	hintsStatesArray, guidedSearchType, verbosity,
2292	dcLevel, buildOnionRings, GSHschedule,
2293	traversalDirection, modelInitialStates,
2294	ctlFormulaStates, &totalcoveredstates,
2295	signalTypeList, signalList, statesCoveredList,
2296	newCoveredStatesList, statesToRemoveList,
2297	performCoverageHoskote, performCoverageImproved);
2298
2299	Mc_EarlyTerminationFree(earlyTermination);
2300	if(hintsStatesArray != NIL(array_t))
2301	mdd_array_free(hintsStatesArray);
2302	/* Set up things for possible FAFW analysis of counterexample. */
2303	Fsm_FsmSetFAFWFlag(modelFsm, options->FAFWFlag);
2304	Fsm_FsmSetSystemVariableFAFW(modelFsm, systemVarBddIdTable);
2305	/* user feedback on succes/fail */
2306	result = McPrintPassFailMine(mddMgr, modelFsm, traversalDirection,
2307	ctlFormula, ctlFormulaStates,
2308	modelInitialStates, modelCareStatesArray,
2309	options, verbosity);
2310	Fsm_FsmSetFAFWFlag(modelFsm, 0);
2311	Fsm_FsmSetSystemVariableFAFW(modelFsm, NULL);
2312	mdd_free(ctlFormulaStates);
2313	}
2314
2315	if (verbosity > McVerbosityNone_c) {
2316	finalTime = util_cpu_time();
2317	fprintf(vis_stdout, "-- mc time = %10g\n",
2318	(double)(finalTime - initialTime) / 1000.0);
2319	fprintf(vis_stdout,
2320	"-- %d image computations and %d preimage computations\n",
2321	Img_GetNumberOfImageComputation(Img_Forward_c) - nImgComps,
2322	Img_GetNumberOfImageComputation(Img_Backward_c) - nPreComps);
2323	}
2324	mdd_free(modelInitialStates);
2325	mdd_free(fairStates);
2326	Ctlp_FormulaFree(ctlFormula);
2327
2328	if ((McOptionsReadReduceFsm(options)) &&
2329	(reducedFsm != NIL(Fsm_Fsm_t))) {
2330	/*
2331	** We need to free the reducedFsm only if it was created under "-r"
2332	** option and was non-NIL.
2333	*/
2334	Fsm_FsmFree(reducedFsm);
2335	reducedFsm = NIL(Fsm_Fsm_t);
2336	modelFsm = NIL(Fsm_Fsm_t);
2337	if (modelCareStates) {
2338	mdd_array_free(modelCareStatesArray);
2339	modelCareStates = NIL(mdd_t);
2340	modelCareStatesArray = NIL(array_t);
2341	} else if (modelCareStatesArray) {
2342	modelCareStatesArray = NIL(array_t);
2343	}
2344	}
2345	}/* for all formulae */
2346
2347	if (verbosity > McVerbosityNone_c) {
2348	finalTime = util_cpu_time();
2349	fprintf(vis_stdout, "-- total mc time = %10g\n",
2350	(double)(finalTime - totalInitialTime) / 1000.0);
2351	fprintf(vis_stdout,
2352	"-- total %d image computations and %d preimage computations\n",
2353	Img_GetNumberOfImageComputation(Img_Forward_c),
2354	Img_GetNumberOfImageComputation(Img_Backward_c));
2355	/* Print tfm options if we have a global fsm. */
2356	if (!McOptionsReadReduceFsm(options) && modelFsm != NIL(Fsm_Fsm_t)) {
2357	imageInfo = Fsm_FsmReadImageInfo(modelFsm);
2358	if (Img_ImageInfoObtainMethodType(imageInfo) == Img_Tfm_c \|\|
2359	Img_ImageInfoObtainMethodType(imageInfo) == Img_Hybrid_c) {
2360	Img_TfmPrintStatistics(imageInfo, Img_Both_c);
2361	}
2362	}
2363	}
2364
2365	/* Print results of coverage computation */
2366	McPrintCoverageSummary(modelFsm, dcLevel,
2367	options, modelCareStatesArray,
2368	modelCareStates, totalcoveredstates,
2369	signalTypeList, signalList, statesCoveredList,
2370	performCoverageHoskote, performCoverageImproved);
2371	mdd_array_free(newCoveredStatesList);
2372	mdd_array_free(statesToRemoveList);
2373	array_free(signalTypeList);
2374	array_free(signalList);
2375	mdd_array_free(statesCoveredList);
2376	if (totalcoveredstates != NIL(mdd_t))
2377	mdd_free(totalcoveredstates);
2378
2379	if (modelCareStates) {
2380	mdd_array_free(modelCareStatesArray);
2381	}
2382
2383	if(hintsArray)
2384	Ctlp_FormulaArrayFree(hintsArray);
2385
2386	if ((McOptionsReadReduceFsm(options) == FALSE) &&
2387	(reducedFsm != NIL(Fsm_Fsm_t))) {
2388	/* If "-r" was not specified and we did some reduction at top
2389	level, we need to free it */
2390	Fsm_FsmFree(reducedFsm);
2391	reducedFsm = NIL(Fsm_Fsm_t);
2392	modelFsm = NIL(Fsm_Fsm_t);
2393	}
2394
2395	if(systemVarBddIdTable)
2396	st_free_table(systemVarBddIdTable);
2397	array_free(ctlNormalFormulaArray);
2398	(void) fprintf(vis_stdout, "\n");
2399
2400	Ctlp_FormulaArrayFree(ctlArray);
2401	McOptionsFree(options);
2402	alarm(0);
2403	return 0;
2404
2405	}
2406
2407
2408	/Function******************************************************************
2409
2410	Synopsis [Parse command line options for mc.]
2411
2412	SideEffects []
2413
2414	******************************************************************************/
2415	static McOptions_t *
2416	ParseMcOptions(
2417	int argc,
2418	char **argv)
2419	{
2420	unsigned int i;
2421	int c;
2422	char *guideFileName = NIL(char);
2423	char *variablesForSystem = NIL(char);
2424	FILE *guideFile = NIL(FILE);
2425	FILE *systemFile = NIL(FILE);
2426	boolean doCoverageHoskote = FALSE;
2427	boolean doCoverageImproved = FALSE;
2428	boolean useMore = FALSE;
2429	boolean reduceFsm = FALSE;
2430	boolean printInputs = FALSE;
2431	boolean useFormulaTree = FALSE;
2432	boolean vd = FALSE;
2433	boolean beer = FALSE;
2434	boolean FAFWFlag = FALSE;
2435	boolean GFAFWFlag = FALSE;
2436	FILE *inputFp=NIL(FILE);
2437	FILE *debugOut=NIL(FILE);
2438	char *debugOutName=NIL(char);
2439	Mc_DcLevel dcLevel = McDcLevelRch_c;
2440	McDbgLevel dbgLevel = McDbgLevelNone_c;
2441	Mc_VerbosityLevel verbosityLevel = McVerbosityNone_c;
2442	Mc_FwdBwdAnalysis fwdBwd = McFwd_c;
2443	McOptions_t *options = McOptionsAlloc();
2444	int timeOutPeriod = 0;
2445	Mc_FwdBwdAnalysis traversalDirection = McBwd_c;
2446	Fsm_ArdcOptions_t *ardcOptions;
2447	Mc_GSHScheduleType schedule = McGSH_EL_c;
2448
2449	/*
2450	* Parse command line options.
2451	*/
2452
2453	util_getopt_reset();
2454	while ((c = util_getopt(argc, argv, "bcirmg:hv:d:D:VBf:t:CIFR:S:GWw:")) != EOF) {
2455	switch(c) {
2456	case 'g':
2457	guideFileName = util_strsav(util_optarg);
2458	break;
2459	case 'h':
2460	goto usage;
2461	case 'v':
2462	for (i = 0; i < strlen(util_optarg); i++) {
2463	if (!isdigit((int)util_optarg[i])) {
2464	goto usage;
2465	}
2466	}
2467	verbosityLevel = (Mc_VerbosityLevel) atoi(util_optarg);
2468	break;
2469	case 'd':
2470	for (i = 0; i < strlen(util_optarg); i++) {
2471	if (!isdigit((int)util_optarg[i])) {
2472	goto usage;
2473	}
2474	}
2475	dbgLevel = (McDbgLevel) atoi(util_optarg);
2476	break;
2477	case 'D':
2478	for (i = 0; i < strlen(util_optarg); i++) {
2479	if (!isdigit((int)util_optarg[i])) {
2480	goto usage;
2481	}
2482	}
2483	dcLevel = (Mc_DcLevel) atoi(util_optarg);
2484	break;
2485	case 'b':
2486	fwdBwd = McBwd_c;
2487	break;
2488	case 'V': /Vacuity detection option/
2489	vd = TRUE;
2490	break;
2491	case 'B': /Vacuity detection Beer et al method option/
2492	vd = TRUE;
2493	beer = TRUE;
2494	break;
2495	case 'f':
2496	debugOutName = util_strsav(util_optarg);
2497	break;
2498	case 'm':
2499	useMore = TRUE;
2500	break;
2501	case 'r' :
2502	reduceFsm = TRUE;
2503	break;
2504	case 'c':
2505	useFormulaTree = TRUE;
2506	break;
2507	case 't' :
2508	timeOutPeriod = atoi(util_optarg);
2509	break;
2510	case 'i' :
2511	printInputs = TRUE;
2512	break;
2513	case 'F' :
2514	traversalDirection = McFwd_c;
2515	break;
2516	case 'S' :
2517	schedule = McStringConvertToScheduleType(util_optarg);
2518	break;
2519	case 'w':
2520	variablesForSystem = util_strsav(util_optarg);
2521	case 'W':
2522	FAFWFlag = 1;
2523	break;
2524	case 'G':
2525	GFAFWFlag = 1;
2526	break;
2527	case 'C' :
2528	doCoverageHoskote = TRUE;
2529	break;
2530	case 'I' :
2531	doCoverageImproved = TRUE;
2532	break;
2533	default:
2534	goto usage;
2535	}
2536	}
2537
2538	/*
2539	* Open the ctl file.
2540	*/
2541	if (argc - util_optind == 0) {
2542	(void) fprintf(vis_stderr, "** mc error: file containing ctl formulas not provided\n");
2543	goto usage;
2544	}
2545	else if (argc - util_optind > 1) {
2546	(void) fprintf(vis_stderr, "** mc error: too many arguments\n");
2547	goto usage;
2548	}
2549
2550	McOptionsSetFwdBwd(options, fwdBwd);
2551	McOptionsSetUseMore(options, useMore);
2552	McOptionsSetReduceFsm(options, reduceFsm);
2553	McOptionsSetVacuityDetect(options, vd);
2554	McOptionsSetBeerMethod(options, beer);
2555	McOptionsSetUseFormulaTree(options, useFormulaTree);
2556	McOptionsSetPrintInputs(options, printInputs);
2557	McOptionsSetTimeOutPeriod(options, timeOutPeriod);
2558	McOptionsSetFAFWFlag(options, FAFWFlag + GFAFWFlag);
2559	McOptionsSetCoverageHoskote(options, doCoverageHoskote);
2560	McOptionsSetCoverageImproved(options, doCoverageImproved);
2561
2562	if((FAFWFlag > 0 \|\| GFAFWFlag > 0) && dbgLevel == 0) {
2563	fprintf(vis_stderr, "** mc warning : -w and -W options are ignored without -d option\n");
2564	}
2565
2566	if((FAFWFlag > 0 \|\| GFAFWFlag > 0) && printInputs == 0) {
2567	fprintf(vis_stderr, "** mc warning : -i is recommended with -w or -W option\n");
2568	}
2569	if(FAFWFlag) {
2570	if (bdd_get_package_name() != CUDD) {
2571	fprintf(vis_stderr, "** mc warning : -w and -W option is only available with CUDD\n");
2572	FAFWFlag = 0;
2573	FREE(variablesForSystem);
2574	variablesForSystem = NIL(char);
2575	}
2576	}
2577
2578
2579	if (schedule == McGSH_Unassigned_c) {
2580	(void) fprintf(vis_stderr, "unknown schedule: %s\n", util_optarg);
2581	goto usage;
2582	} else {
2583	McOptionsSetSchedule(options, schedule);
2584	}
2585	inputFp = Cmd_FileOpen(argv[util_optind], "r", NIL(char *), 0);
2586	if (inputFp == NIL(FILE)) {
2587	McOptionsFree(options);
2588	if (guideFileName != NIL(char)) FREE(guideFileName);
2589	return NIL(McOptions_t);
2590	}
2591	McOptionsSetCtlFile(options, inputFp);
2592
2593	if (debugOutName != NIL(char)) {
2594	debugOut = Cmd_FileOpen(debugOutName, "w", NIL(char *), 0);
2595	FREE(debugOutName);
2596	if (debugOut == NIL(FILE)) {
2597	McOptionsFree(options);
2598	if (guideFileName != NIL(char)) FREE(guideFileName);
2599	return NIL(McOptions_t);
2600	}
2601	}
2602	McOptionsSetDebugFile(options, debugOut);
2603
2604
2605	if (guideFileName != NIL(char)) {
2606	guideFile = Cmd_FileOpen(guideFileName, "r", NIL(char *), 0);
2607	if (guideFile == NIL(FILE)) {
2608	fprintf(vis_stderr, "** mc error: cannot open guided search file %s.\n",
2609	guideFileName);
2610	FREE(guideFileName);
2611	guideFileName = NIL(char);
2612	McOptionsFree(options);
2613	return NIL(McOptions_t);
2614	}
2615	FREE(guideFileName);
2616	guideFileName = NIL(char);
2617	}
2618	McOptionsSetGuideFile(options, guideFile);
2619
2620	if (variablesForSystem != NIL(char)) {
2621	systemFile = Cmd_FileOpen(variablesForSystem, "r", NIL(char *), 0);
2622	if (systemFile == NIL(FILE)) {
2623	fprintf(vis_stderr, "** mc error: cannot open system variables file for FAFW %s.\n",
2624	variablesForSystem);
2625	FREE(variablesForSystem);
2626	variablesForSystem = NIL(char);
2627	McOptionsFree(options);
2628	return NIL(McOptions_t);
2629	}
2630	FREE(variablesForSystem);
2631	variablesForSystem = NIL(char);
2632	}
2633	McOptionsSetVariablesForSystem(options, systemFile);
2634
2635	if ((verbosityLevel != McVerbosityNone_c) &&
2636	(verbosityLevel != McVerbosityLittle_c) &&
2637	(verbosityLevel != McVerbositySome_c) &&
2638	(verbosityLevel != McVerbosityMax_c)) {
2639	goto usage;
2640	}
2641	else {
2642	McOptionsSetVerbosityLevel(options, verbosityLevel);
2643	}
2644
2645	if ((dbgLevel != McDbgLevelNone_c) &&
2646	(dbgLevel != McDbgLevelMin_c) &&
2647	(dbgLevel != McDbgLevelMinVerbose_c) &&
2648	(dbgLevel != McDbgLevelMax_c) &&
2649	(dbgLevel != McDbgLevelInteractive_c)) {
2650	goto usage;
2651	}
2652	else {
2653	McOptionsSetDbgLevel(options, dbgLevel);
2654	}
2655
2656	if ((dcLevel != McDcLevelNone_c) &&
2657	(dcLevel != McDcLevelRch_c ) &&
2658	(dcLevel != McDcLevelRchFrontier_c ) &&
2659	(dcLevel != McDcLevelArdc_c )) {
2660	goto usage;
2661	}
2662	else {
2663	McOptionsSetDcLevel(options, dcLevel);
2664	}
2665
2666	McOptionsSetTraversalDirection(options, traversalDirection);
2667	if (dcLevel == McDcLevelArdc_c) {
2668	ardcOptions = Fsm_ArdcAllocOptionsStruct();
2669	Fsm_ArdcGetDefaultOptions(ardcOptions);
2670	} else
2671	ardcOptions = NIL(Fsm_ArdcOptions_t);
2672	McOptionsSetArdcOptions(options, ardcOptions);
2673
2674	return options;
2675
2676	usage:
2677	(void) fprintf(vis_stderr, "usage: model_check [-b][-c][-d dbg_level][-f dbg_file][-g <hintfile>][-h][-i][-m][-r][-V][-B][-t period][-C][-I][-P][-v verbosity_level][-D dc_level][-F][-S <schedule>] <ctl_file>\n");
2678	(void) fprintf(vis_stderr, " -b \tUse backward analysis in debugging\n");
2679	(void) fprintf(vis_stderr, " -c \tNo sharing of CTL parse tree. This option does not matter for vacuity detection.\n");
2680	(void) fprintf(vis_stderr, " -d <dbg_level>\n");
2681	(void) fprintf(vis_stderr, " debug_level = 0 => no debugging (Default)\n");
2682	(void) fprintf(vis_stderr, " debug_level = 1 => automatic minimal debugging\n");
2683	(void) fprintf(vis_stderr, " debug_level = 2 => automatic minimal debugging with extra verbosity\n");
2684	(void) fprintf(vis_stderr, " debug_level = 3 => automatic maximal debugging\n");
2685	(void) fprintf(vis_stderr, " debug_level = 4 => interactive debugging\n");
2686	(void) fprintf(vis_stderr, " -f <dbg_out>\n");
2687	(void) fprintf(vis_stderr, " write error trace to dbg_out\n");
2688	(void) fprintf(vis_stderr, " -g <hint_file> \tSpecify file for guided search.\n");
2689	(void) fprintf(vis_stderr, " -h \tPrints this usage message.\n");
2690	(void) fprintf(vis_stderr, " -i \tPrint input values in debug traces.\n");
2691	(void) fprintf(vis_stderr, " -m \tPipe debug output through more.\n");
2692	(void) fprintf(vis_stderr, " -r reduce FSM with respect to formula being verified\n");
2693	(void) fprintf(vis_stderr, " -t <period> time out period\n");
2694	(void) fprintf(vis_stderr, " -v <verbosity_level>\n");
2695	(void) fprintf(vis_stderr, " verbosity_level = 0 => no feedback (Default)\n");
2696	(void) fprintf(vis_stderr, " verbosity_level = 1 => code status\n");
2697	(void) fprintf(vis_stderr, " verbosity_level = 2 => code status and CPU usage profile\n");
2698	(void) fprintf(vis_stderr, " -w <node file> \tSpecify variables controlled by system.\n");
2699	(void) fprintf(vis_stderr, " -B vacuity detection for w-ACTL formulae using method of Beer et al \n");
2700	(void) fprintf(vis_stderr, " -C Compute coverage of all observable signals using Hoskote et.al's implementation\n");
2701	(void) fprintf(vis_stderr, " -D <dc_level>\n");
2702	(void) fprintf(vis_stderr, " dc_level = 0 => no use of don't cares\n");
2703	(void) fprintf(vis_stderr, " dc_level = 1 => use unreached states as don't cares (Default)\n");
2704	(void) fprintf(vis_stderr, " dc_level = 2 => use unreached states as don't cares\n");
2705
2706	(void) fprintf(vis_stderr, " and aggressive use of DC's to simplify MDD's\n");
2707	(void) fprintf(vis_stderr, " dc_level = 3 => use over-approximate unreached states as don't cares\n");
2708	(void) fprintf(vis_stderr, " and aggressive use of DC's to simplify MDD's\n");
2709	(void) fprintf(vis_stderr, " -F \tUse forward model checking.\n");
2710	(void) fprintf(vis_stderr, " -G \tUse general fate and free will algorithm.\n");
2711	(void) fprintf(vis_stderr, " -I Compute coverage of all observable signals using improved coverage implementation\n");
2712	(void) fprintf(vis_stderr, " -S <schedule>\n");
2713	(void) fprintf(vis_stderr, " schedule is one of {EL,EL1,EL2,budget,random,off}\n");
2714	(void) fprintf(vis_stderr, " -V thorough vacuity detection\n");
2715	(void) fprintf(vis_stderr, " -W \tUse fate and free will algorithm when all the variables are controlled by system.\n");
2716	(void) fprintf(vis_stderr, " <ctl_file> The input file containing CTL formula to be checked.\n");
2717
2718	if (guideFileName != NIL(char)) FREE(guideFileName);
2719	McOptionsFree(options);
2720
2721	return NIL(McOptions_t);
2722	}
2723
2724
2725	/Function******************************************************************
2726
2727	Synopsis []
2728
2729	Description [Refer to 'static int CommandPrintModels (Hrc_Manager_t **hmgr,
2730	int argc, char **argv)' function in hrcCmd.c]
2731
2732	SideEffects []
2733
2734	SeeAlso []
2735
2736	******************************************************************************/
2737
2738	static int print_modelsMine(Hrc_Manager_t hmgr, int argc, char argv)
2739	{
2740
2741	(void) fprintf(vis_stderr, "* 'print_models' begins. * \n");
2742
2743	st_generator *gen;
2744	char *name;
2745	Hrc_Model_t *model;
2746	Hrc_Node_t *node;
2747	int c;
2748
2749	util_getopt_reset();
2750	while ((c = util_getopt(argc, argv, "h")) != EOF) {
2751	switch(c){
2752	case 'h':
2753	goto usage;
2754	default:
2755	goto usage;
2756	}
2757	}
2758	if(argc != 1) {
2759	goto usage;
2760	}
2761
2762	node = Hrc_ManagerReadCurrentNode(*hmgr);
2763	if (node == NIL(Hrc_Node_t)){
2764	(void)fprintf(vis_stderr,"No file has been read in.\n");
2765	return 1;
2766	}
2767
2768	Hrc_ManagerForEachModel(*hmgr, gen, name, model) {
2769	PrintNodeStats(Hrc_ModelReadMasterNode(model), FALSE);
2770	(void) fprintf(vis_stdout, "subckts = %d\n",
2771	st_count(Hrc_ModelReadSubcktTable(model)));
2772	}
2773	return 0;
2774
2775	usage:
2776	(void) fprintf(vis_stderr, "usage: print_models [-h]\n");
2777	(void) fprintf(vis_stderr, " -h \t\tprint the command usage\n");
2778	return 1;
2779
2780	}
2781
2782	/Function******************************************************************
2783
2784	Synopsis [This function prints the statistics of a node.]
2785
2786	SideEffects []
2787
2788	SeeAlso []
2789
2790	******************************************************************************/
2791	static void
2792	PrintNodeStats(
2793	Hrc_Node_t *node,
2794	boolean isHnode)
2795	{
2796	(void) fprintf(vis_stdout, "Model name = %s", Hrc_NodeReadModelName(node));
2797	if(isHnode) {
2798	(void) fprintf(vis_stdout, ", Instance name = %s\n",
2799	Hrc_NodeReadInstanceName(node));
2800	}
2801	else {
2802	(void) fprintf(vis_stdout, "\n");
2803	}
2804	(void) fprintf(vis_stdout, "inputs = %d,", Hrc_NodeReadNumFormalInputs(node));
2805	(void) fprintf(vis_stdout, " outputs = %d,", Hrc_NodeReadNumFormalOutputs(node));
2806	(void) fprintf(vis_stdout, " variables = %d,", Hrc_NodeReadNumVariables(node));
2807	(void) fprintf(vis_stdout, " tables = %d,", Hrc_NodeReadNumTables(node));
2808	(void) fprintf(vis_stdout, " latches = %d", Hrc_NodeReadNumLatches(node));
2809	if(isHnode) {
2810	(void) fprintf(vis_stdout, ", children = %d\n", Hrc_NodeReadNumChildren(node));
2811	}
2812	else {
2813	(void) fprintf(vis_stdout, "\n");
2814	}
2815	}
2816
2817	/Function******************************************************************
2818
2819	Synopsis [returns child or parent node (it is actually the current node)]
2820
2821	Description [Refer to 'static int CommandCd (Hrc_Manager_t **hmgr,
2822	int argc, char **argv)' function in hrcCmd.c]
2823
2824	SideEffects []
2825
2826	SeeAlso []
2827
2828	******************************************************************************/
2829	static Hrc_Node_t cdMine(Hrc_Manager_t hmgr, int argc, char *argv)
2830	{
2831
2832	(void) fprintf(vis_stderr, "* 'cd' begins. * \n");
2833
2834	Hrc_Node_t currentNode, parent, *child;
2835	int c;
2836
2837	util_getopt_reset();
2838	while ((c = util_getopt(argc, argv, "h")) != EOF) {
2839	switch(c){
2840	case 'h':
2841	goto usage;
2842	default:
2843	goto usage;
2844	}
2845	}
2846
2847	if (argc != 2){
2848	goto usage;
2849	}
2850
2851	currentNode = Hrc_ManagerReadCurrentNode(*hmgr);
2852	if (currentNode == NIL(Hrc_Node_t)){
2853	(void)fprintf(vis_stdout,"No file has been read in.\n");
2854	return NIL(Hrc_Node_t);
2855	}
2856	/* go to the parent node */
2857	if (strcmp(*(++argv),"..") == 0){
2858	if ((parent = Hrc_NodeReadParentNode(currentNode)) == NIL(Hrc_Node_t)){
2859	(void)fprintf(vis_stderr,"You are at the root node. Can't cd to a parent.\n");
2860	return currentNode;
2861	}
2862	Hrc_ManagerSetCurrentNode(*hmgr,parent);
2863	return parent;
2864	}
2865
2866	if ((child = Hrc_NodeFindChildByName(currentNode,*argv)) == NIL(Hrc_Node_t)){
2867	(void)fprintf(vis_stderr,"No child node whose name is %s exists in the current node.\n",*argv);
2868	return currentNode;
2869	}
2870	Hrc_ManagerSetCurrentNode(*hmgr,child);
2871	return child;
2872
2873	usage:
2874	(void)fprintf(vis_stderr,"usage: cd [-h] child_name or cd ..\n");
2875	(void) fprintf(vis_stderr, " -h \t\tprint the command usage\n");
2876	return NIL(Hrc_Node_t);
2877	}
2878
2879
2880	/Function******************************************************************
2881
2882	Synopsis [returns current node]
2883
2884	Description [Refer to 'static int CommandLs (Hrc_Manager_t **hmgr,
2885	int argc, char **argv)' function in hrcCmd.c]
2886
2887	SideEffects []
2888
2889	SeeAlso []
2890
2891	******************************************************************************/
2892	static Hrc_Node_t lsMine(Hrc_Manager_t hmgr, int argc, char *argv){
2893
2894	(void) fprintf(vis_stderr, "* 'ls' begins. * \n");
2895
2896	int recursiveFlag = 0;
2897	int c;
2898	Hrc_Node_t *currentNode;
2899
2900	util_getopt_reset();
2901	while ((c = util_getopt(argc, argv, "hR")) != EOF) {
2902	switch(c){
2903	case 'h':
2904	goto usage;
2905	case 'R':
2906	recursiveFlag = 1;
2907	break;
2908	default:
2909	goto usage;
2910	}
2911	}
2912	/* if there are some arguments for ls */
2913	if (argc != util_optind){
2914	goto usage;
2915	}
2916
2917	currentNode = Hrc_ManagerReadCurrentNode(*hmgr);
2918	if (currentNode == NIL(Hrc_Node_t)){
2919	(void)fprintf(vis_stdout,"No file has been read in.\n");
2920	return NIL(Hrc_Node_t);
2921	}
2922	NodeListChildren(currentNode, recursiveFlag, 0);
2923	return currentNode;
2924
2925	usage:
2926	(void)fprintf(vis_stderr,"usage: ls [-h] [-R]\n");
2927	(void) fprintf(vis_stderr, " -h \t\tprint the command usage\n");
2928	(void) fprintf(vis_stderr, " -R \t\tprint recursive tree\n");
2929
2930	return NIL(Hrc_Node_t);
2931
2932	}
2933
2934
2935	/Function******************************************************************
2936
2937	Synopsis []
2938
2939	Description [Refer to 'static int CommandPwd (Hrc_Manager_t **hmgr,
2940	int argc, char **argv)' function in hrcCmd.c]
2941
2942	SideEffects []
2943
2944	SeeAlso []
2945
2946	******************************************************************************/
2947	static char pwdMine(Hrc_Manager_t hmgr, int argc, char *argv){
2948
2949	(void) fprintf(vis_stderr, "* 'pwd' begins. * \n");
2950
2951	Hrc_Node_t *currentNode;
2952	Hrc_Node_t *rootNode;
2953	char separator, hierarchicalName;
2954	int c;
2955
2956	util_getopt_reset();
2957	while ((c = util_getopt(argc, argv, "h")) != EOF) {
2958	switch(c){
2959	case 'h':
2960	goto usage;
2961	default:
2962	goto usage;
2963	}
2964	}
2965	if (argc != 1){
2966	goto usage;
2967	}
2968
2969	currentNode = Hrc_ManagerReadCurrentNode(*hmgr);
2970	if (currentNode == NIL(Hrc_Node_t)){
2971	(void)fprintf(vis_stdout,"No file has been read in.\n");
2972	return NIL(char);
2973	}
2974	rootNode = Hrc_ManagerReadRootNode(*hmgr);
2975	separator = (char *) ((rootNode == currentNode) ? "" : ".");
2976	hierarchicalName = Hrc_NodeFindHierarchicalName(currentNode, FALSE);
2977	(void)fprintf(vis_stdout,"%s%s%s\n", Hrc_NodeReadInstanceName(rootNode),
2978	separator, hierarchicalName);
2979	(void) sprintf(currentPath, "%s%s%s", Hrc_NodeReadInstanceName(rootNode), separator, hierarchicalName);
2980	FREE(hierarchicalName);
2981	return currentPath;
2982
2983	usage:
2984	(void)fprintf(vis_stderr,"usage: pwd [-h]\n");
2985	(void) fprintf(vis_stderr, " -h \t\tprint the command usage\n");
2986	return NIL(char);
2987
2988	}
2989
2990
2991	/Function******************************************************************
2992
2993	Synopsis []
2994
2995	Description [Refer to 'static int CommandPrintLatches (Hrc_Manager_t **hmgr,
2996	int argc, char **argv)' function in hrcCmd.c]
2997
2998	SideEffects []
2999
3000	SeeAlso []
3001
3002	******************************************************************************/
3003	static int print_latchesMine(Hrc_Manager_t hmgr, int argc, char argv){
3004
3005	(void) fprintf(vis_stderr, "* 'print_latches' begins. * \n");
3006
3007	int c, i;
3008	Hrc_Node_t *node;
3009	st_generator *gen;
3010	char *latchName;
3011	Hrc_Latch_t *latch;
3012	array_t *tmpArray;
3013
3014	util_getopt_reset();
3015	while ((c = util_getopt(argc, argv, "h")) != EOF) {
3016	switch(c){
3017	case 'h':
3018	goto usage;
3019	default:
3020	goto usage;
3021	}
3022	}
3023	/* if there are some arguments left */
3024	if (argc != util_optind){
3025	goto usage;
3026	}
3027	node = Hrc_ManagerReadCurrentNode(*hmgr);
3028	if (node == NIL(Hrc_Node_t)){
3029	(void)fprintf(vis_stderr,"No file has been read in.\n");
3030	return 1;
3031	}
3032
3033	if (Hrc_NodeReadNumLatches(node) == 0){
3034	fprintf(vis_stdout,"No latches\n");
3035	}
3036	else {
3037	tmpArray = array_alloc(char *,0);
3038	Hrc_NodeForEachLatch(node,gen,latchName,latch){
3039	array_insert_last(char *,tmpArray,latchName);
3040	}
3041	array_sort(tmpArray,_HrcStringCmp);
3042	for (i=0; i < array_n(tmpArray); i++){
3043	fprintf(vis_stdout,"%s ",array_fetch(char *,tmpArray,i));
3044	}
3045	fprintf(vis_stdout,"\n");
3046	array_free(tmpArray);
3047	}
3048	return 0;
3049
3050	usage:
3051	(void) fprintf(vis_stderr,"usage: print_latches [-h]\n");
3052	(void) fprintf(vis_stderr, " -h \t\tprint the command usage\n");
3053	return 1;
3054	}
3055
3056	/Function******************************************************************
3057
3058	Synopsis [Converts a string to an order type.]
3059
3060	Description [Converts a string to an order type. If string does not refer to
3061	one of the allowed order types, then returns Ord_Unassigned_c.]
3062
3063	SideEffects []
3064
3065	******************************************************************************/
3066	static Ord_OrderType
3067	StringConvertToOrderType(
3068	char *string)
3069	{
3070	if (strcmp("all", string) == 0) {
3071	return Ord_All_c;
3072	}
3073	else if (strcmp("input_and_latch", string) == 0) {
3074	return Ord_InputAndLatch_c;
3075	}
3076	else if (strcmp("next_state_node", string) == 0) {
3077	return Ord_NextStateNode_c;
3078	}
3079	else if (strcmp("partial", string) == 0) {
3080	return Ord_Partial_c;
3081	}
3082	else {
3083	return Ord_Unassigned_c;
3084	}
3085	}
3086
3087
3088	/Function******************************************************************
3089
3090	Synopsis [The core routine for the command ls.]
3091
3092	Description [The core routine for the command ls. If the second argument
3093	is set to 1, it calls the ls routine recursively all the way down to leaves.]
3094
3095	SideEffects []
3096
3097	SeeAlso []
3098
3099	******************************************************************************/
3100	static void
3101	NodeListChildren(
3102	Hrc_Node_t *hnode,
3103	boolean recursiveFlag,
3104	int depth)
3105	{
3106	st_generator *gen;
3107	char *childName;
3108	Hrc_Node_t *child;
3109	int newDepth, i;
3110	array_t *tmpArray;
3111
3112	newDepth = depth + 1;
3113	tmpArray = array_alloc(char *,0);
3114	Hrc_NodeForEachChild(hnode,gen,childName,child){
3115	array_insert_last(char *,tmpArray,childName);
3116	}
3117	array_sort(tmpArray,_HrcStringCmp);
3118	for (i=0; i < array_n(tmpArray); i++){
3119	PrintSpace(depth);
3120	childName = array_fetch(char *,tmpArray,i);
3121	(void)fprintf(vis_stdout,"%s\n",childName);
3122	if (recursiveFlag == 1){
3123	NodeListChildren(Hrc_NodeFindChildByName(hnode,childName),recursiveFlag,newDepth);
3124	}
3125	}
3126	array_free(tmpArray);
3127	}
3128
3129	/Function******************************************************************
3130
3131	Synopsis [The core routine for the command ls. Returns array_t]
3132
3133	Description [The core routine for the command ls. If the second argument
3134	is set to 1, it calls the ls routine recursively all the way down to leaves.]
3135
3136	SideEffects []
3137
3138	SeeAlso []
3139
3140	******************************************************************************/
3141	static array_t NodeListChildrenMine(Hrc_Node_t hnode, boolean recursiveFlag, int depth){
3142
3143	st_generator *gen;
3144	char *childName;
3145	Hrc_Node_t *child;
3146	int newDepth, i;
3147	array_t *tmpArray;
3148
3149	newDepth = depth + 1;
3150	tmpArray = array_alloc(char *,0);
3151	Hrc_NodeForEachChild(hnode,gen,childName,child){
3152	array_insert_last(char *,tmpArray,childName);
3153	}
3154	array_sort(tmpArray,_HrcStringCmp);
3155	for (i=0; i < array_n(tmpArray); i++){
3156	PrintSpace(depth);
3157	childName = array_fetch(char *,tmpArray,i);
3158	(void)fprintf(vis_stdout,"%s\n",childName);
3159	if (recursiveFlag == 1){
3160	NodeListChildren(Hrc_NodeFindChildByName(hnode,childName),recursiveFlag,newDepth);
3161	}
3162	}
3163	// array_free(tmpArray);
3164	return tmpArray;
3165	}
3166
3167	/Function******************************************************************
3168
3169	Synopsis [Prints out spaces.]
3170
3171	SideEffects []
3172
3173	SeeAlso []
3174
3175	******************************************************************************/
3176	static void
3177	PrintSpace(int depth)
3178	{
3179	int i;
3180	for (i=0; i < depth; i++){
3181	(void)fprintf(vis_stdout," ");
3182	}
3183	}
3184
3185
3186	/Function******************************************************************
3187
3188	Synopsis [Verifies that suppliedNodeList has the correct nodes.]
3189
3190	Description [Returns TRUE if the set of nodes in suppliedNodeList matches
3191	the set of nodes in network specified by orderType; else returns FALSE and
3192	writes a message to error_string. OrderType should be one of the following:
3193	1) Ord_All_c: should match the set of all nodes in network; 2)
3194	Ord_InputAndLatch_c: should match the set of inputs (primary + pseudo),
3195	latches, and next state nodes; 3) Ord_NextStateNode_c: should match the set
3196	of next state nodes; number should be the number of latches; 4)
3197	Ord_Partial_c: returns TRUE automatically.]
3198
3199	SideEffects []
3200
3201	******************************************************************************/
3202	static boolean
3203	NetworkCheckSuppliedNodeList(
3204	Ntk_Network_t * network,
3205	lsList suppliedNodeList,
3206	Ord_OrderType orderType)
3207	{
3208	lsGen gen;
3209	st_generator *stGen;
3210	Ntk_Node_t *node;
3211	st_table *requiredNodes;
3212	st_table *suppliedNodes;
3213	char *dummy;
3214	boolean returnFlag = TRUE;
3215
3216	assert(orderType != Ord_Unassigned_c);
3217
3218	if (orderType == Ord_Partial_c) {
3219	return TRUE;
3220	}
3221
3222	/* At this point, orderType must be one of the these. */
3223	assert((orderType == Ord_All_c) \|\| (orderType == Ord_InputAndLatch_c)
3224	\|\| (orderType == Ord_NextStateNode_c));
3225
3226
3227	/*
3228	* Build up the table of required nodes. Next state nodes are included by
3229	* all 3 order types.
3230	*/
3231	requiredNodes = st_init_table(st_ptrcmp, st_ptrhash);
3232	Ntk_NetworkForEachNode(network, gen, node) {
3233	if ((orderType == Ord_All_c) \|\| Ntk_NodeTestIsNextStateNode(node)) {
3234	st_insert(requiredNodes, (char *) node, NIL(char));
3235	}
3236	else if ((orderType == Ord_InputAndLatch_c)
3237	&& Ntk_NodeTestIsCombInput(node)) {
3238	st_insert(requiredNodes, (char *) node, NIL(char));
3239	}
3240	/* else, this node is not included by orderType */
3241	}
3242
3243	/*
3244	* Convert suppliedNodeList to the table of supplied nodes.
3245	*/
3246	suppliedNodes = st_init_table(st_ptrcmp, st_ptrhash);
3247	lsForEachItem(suppliedNodeList, gen, node) {
3248	int status = st_insert(suppliedNodes, (char *) node, NIL(char));
3249	if (status) {
3250	error_append("node ");
3251	error_append(Ntk_NodeReadName(node));
3252	error_append(" appears more than once in ordering file\n");
3253	returnFlag = FALSE;
3254	}
3255	}
3256
3257	/*
3258	* Check that suppliedNodes is contained in requiredNodes.
3259	*/
3260	st_foreach_item(suppliedNodes, stGen, &node, &dummy) {
3261	if (!st_is_member(requiredNodes, node)) {
3262	error_append("node ");
3263	error_append(Ntk_NodeReadName(node));
3264	error_append(" supplied but not required\n");
3265	returnFlag = FALSE;
3266	}
3267	}
3268
3269	/*
3270	* Check that suppliedNodes is contained in requiredNodes.
3271	*/
3272	st_foreach_item(requiredNodes, stGen, &node, &dummy) {
3273	if (!st_is_member(suppliedNodes, node)) {
3274	error_append("node ");
3275	error_append(Ntk_NodeReadName(node));
3276	error_append(" required but not supplied\n");
3277	returnFlag = FALSE;
3278	}
3279	}
3280
3281	st_free_table(requiredNodes);
3282	st_free_table(suppliedNodes);
3283	return returnFlag;
3284	}
3285
3286	/Function******************************************************************
3287
3288	Synopsis [Returns a list of names corresponding to the names in a file.]
3289
3290	Description [Parses a file and builds a name list corresponding to the names
3291	found in the first "column" of each line of the file. Any line starting
3292	with the comment character '#' or white space is ignored. No checks are
3293	made to see if the names are well-formed in any respect. If a problem is
3294	found while parsing the file (e.g. name length exceeded), then a message is
3295	written to error_string, the partial name list is freed, and the function
3296	returns FALSE; otherwise, it returns TRUE, and a pointer to a list is
3297	returned.]
3298
3299	Comment [The parser consists of 3 states. See the documentation
3300	accompanying the #defines defining the state names. This code was adapted
3301	from Ord_FileReadNodeList.]
3302
3303	SideEffects []
3304
3305	******************************************************************************/
3306	static boolean
3307	FileReadNameList(
3308	FILE * fp,
3309	lsList * nameList /* of char , for return /,
3310	int verbose)
3311	{
3312	int c;
3313	int state;
3314	int curPosition = 0;
3315	char *name;
3316	char string[MAX_NAME_LENGTH];
3317	boolean returnFlag = TRUE;
3318
3319	*nameList = lsCreate();
3320
3321	state = STATE_TEST;
3322	while ((c = fgetc(fp)) != EOF) {
3323
3324	switch (state) {
3325	case STATE_TEST:
3326	/* At start of a new line. */
3327	if (c == '#') {
3328	/* Line starting with comment character; wait for newline */
3329	state = STATE_WAIT;
3330	}
3331	else if ((c == ' ') \|\| (c == '\t')) {
3332	/* Line starting with white space; wait for newline */
3333	state = STATE_WAIT;
3334	}
3335	else if (c == '\n') {
3336	/* Line starting with newline; go to next line */
3337	state = STATE_TEST;
3338	}
3339	else {
3340	/* Assume starting a name. */
3341	curPosition = 0;
3342	string[curPosition++] = c;
3343	state = STATE_IN;
3344	}
3345	break;
3346	case STATE_WAIT:
3347	/*
3348	* Waiting for the newline character.
3349	*/
3350	state = (c == '\n') ? STATE_TEST : STATE_WAIT;
3351	break;
3352	case STATE_IN:
3353	/*
3354	* Parsing a name. If white space reached, then terminate the
3355	* name and process it. Else, continue parsing.
3356	*/
3357	if ((c == ' ') \|\| (c == '\n') \|\| (c == '\t')) {
3358	string[curPosition] = '\0';
3359	name = util_strsav(string);
3360	if (verbose > 1) {
3361	(void) fprintf(vis_stdout, "Reading name: %s\n", name);
3362	}
3363	(void) lsNewEnd(*nameList, (lsGeneric) name, LS_NH);
3364
3365	state = (c == '\n') ? STATE_TEST : STATE_WAIT;
3366	}
3367	else {
3368	string[curPosition++] = c;
3369	if (curPosition >= MAX_NAME_LENGTH) {
3370	error_append("maximum name length exceeded");
3371	returnFlag = FALSE;
3372	}
3373	state = STATE_IN; /* redundant, but be explicit */
3374	}
3375	break;
3376	default:
3377	fail("unrecognized state");
3378	}
3379	}
3380
3381	/*
3382	* Handle case where EOF terminates a name.
3383	*/
3384	if (state == STATE_IN) {
3385	string[curPosition] = '\0';
3386	name = util_strsav(string);
3387	if (verbose > 1) {
3388	(void) fprintf(vis_stdout, "Reading name: %s\n", name);
3389	}
3390	(void) lsNewEnd(*nameList, (lsGeneric) name, LS_NH);
3391
3392	}
3393
3394	if (returnFlag) {
3395	return TRUE;
3396	}
3397	else {
3398	(void) lsDestroy(nameList, (void () (lsGeneric)) NULL);
3399	return FALSE;
3400	}
3401	}
3402
3403	/Function******************************************************************
3404
3405	Synopsis [Initilizes all the global variables used in the parser.]
3406
3407	Description []
3408
3409	SideEffects []
3410
3411	SeeAlso []
3412
3413	******************************************************************************/
3414	static void
3415	_IoGlobalVariablesInitialize(void)
3416	{
3417	globalLineNumber = 1;
3418	globalModel = NIL(Hrc_Model_t);
3419	globalHnode = NIL(Hrc_Node_t);
3420	globalFirstModel = NIL(Hrc_Model_t); /* set once */
3421	globalRootModel = NIL(Hrc_Model_t); /* set once */
3422	globalRootInstanceName = NIL(char); /* set once */
3423	globalMvNameArray = NIL(array_t);
3424	globalSymValueArray = NIL(array_t);
3425	globalTableInputArray = NIL(array_t);
3426	globalTableOutputArray = NIL(array_t);
3427	globalTableDefaultArray = NIL(array_t);
3428	globalTableSymCubeArray = NIL(array_t);
3429	globalFormalNameArray = NIL(array_t);
3430	globalActualNameArray = NIL(array_t);
3431
3432	globalSubcktArray = NIL(array_t);
3433	globalResetArray = NIL(array_t);
3434
3435	globalNewModelArray = array_alloc(Hrc_Model_t *,0);
3436
3437	globalCurrentStackDepth = 0;
3438
3439	/* a hash table from a model name to an array of resets/subcircuits in the model */
3440	globalParserResetInfo = st_init_table(st_ptrcmp,st_ptrhash);
3441	globalParserSubcktInfo = st_init_table(st_ptrcmp,st_ptrhash);
3442	}
3443
3444	/Function******************************************************************
3445
3446	Synopsis [Frees all the global data structures used in the parser.]
3447
3448	Description []
3449
3450	SideEffects []
3451
3452	SeeAlso []
3453
3454	******************************************************************************/
3455	static void
3456	_IoGlobalVariablesFree(void)
3457	{
3458	array_free(globalNewModelArray);
3459	_IoGlobalResetInfoFree();
3460	_IoGlobalSubcktInfoFree();
3461	}
3462
3463
3464	/Function******************************************************************
3465
3466	Synopsis [Frees the subckt information only used by the parser.]
3467
3468	Description []
3469
3470	SideEffects []
3471
3472	SeeAlso []
3473
3474	******************************************************************************/
3475	static void
3476	_IoGlobalSubcktInfoFree(void)
3477	{
3478	st_generator *gen;
3479	char key, val;
3480
3481	st_foreach_item(globalParserSubcktInfo,gen,&key,&val){
3482	if ((array_t *)val != NIL(array_t)){
3483	_IoSubcktArrayFree((array_t *)val);
3484	}
3485	}
3486	st_free_table(globalParserSubcktInfo);
3487	}
3488
3489
3490	/Function******************************************************************
3491
3492	Synopsis [Frees an array of the subckt data structure only used by the parser.]
3493
3494	Description []
3495
3496	SideEffects []
3497
3498	SeeAlso []
3499
3500	******************************************************************************/
3501	static void
3502	_IoSubcktArrayFree(array_t *array)
3503	{
3504	int i;
3505
3506	for (i=0; i < array_n(array); i++){
3507	_IoSubcktFree(array_fetch(IoSubckt_t *,array,i));
3508	}
3509	array_free(array);
3510	}
3511
3512	/Function******************************************************************
3513
3514	Synopsis [Frees the subckt data structure used by the parser.]
3515
3516	Description []
3517
3518	SideEffects []
3519
3520	SeeAlso []
3521
3522	******************************************************************************/
3523	static void
3524	_IoSubcktFree(IoSubckt_t *subckt)
3525	{
3526	FREE(subckt->modelName);
3527	FREE(subckt->instanceName);
3528	IoStringArrayFree(subckt->formalNameArray);
3529	IoStringArrayFree(subckt->actualNameArray);
3530	FREE(subckt);
3531	}
3532
3533
3534	/Function******************************************************************
3535
3536	Synopsis [Frees the reset data structure used only by the parser.]
3537
3538	Description []
3539
3540	SideEffects []
3541
3542	SeeAlso []
3543
3544	******************************************************************************/
3545	static void
3546	_IoGlobalResetInfoFree(void)
3547	{
3548	st_generator *gen;
3549	char key, val;
3550	int i;
3551	Tbl_Table_t *resetTable;
3552
3553	st_foreach_item(globalParserResetInfo,gen,&key,&val){
3554	if ((array_t *)val != NIL(array_t)){
3555	for (i=0; i < array_n((array_t *)val); i++){
3556	resetTable = array_fetch(Tbl_Table_t ,(array_t )val,i);
3557	if (resetTable != NIL(Tbl_Table_t)){
3558	Tbl_TableFree(resetTable);
3559	}
3560	}
3561	array_free((array_t *)val);
3562	}
3563	}
3564	st_free_table(globalParserResetInfo);
3565	}
3566
3567
3568	/Function******************************************************************
3569
3570	Synopsis [Checks if two hnodes are compatible with respect to their input
3571	or output interface depending on the last boolean flag.]
3572
3573	Description [Checks if two hnodes are compatible with respect to their input
3574	or output interface depending on the last boolean flag. 0 for input and 1
3575	for output.]
3576
3577	SideEffects []
3578
3579	SeeAlso []
3580
3581	******************************************************************************/
3582	static boolean
3583	_IoNodeTestCompatibilityAux(
3584	Hrc_Manager_t *hmgr,
3585	Hrc_Node_t *hnode1,
3586	Hrc_Node_t *hnode2,
3587	boolean mode)
3588	{
3589	int i, n;
3590	array_t formalVars1, formalVars2;
3591	Var_Variable_t var1, var2;
3592
3593	if (mode == 0){
3594	formalVars1 = Hrc_NodeReadFormalInputs(hnode1);
3595	formalVars2 = Hrc_NodeReadFormalInputs(hnode2);
3596	}
3597	else {
3598	formalVars1 = Hrc_NodeReadFormalOutputs(hnode1);
3599	formalVars2 = Hrc_NodeReadFormalOutputs(hnode2);
3600	}
3601	if ((n = array_n(formalVars1)) != array_n(formalVars2)){
3602	error_append("Two hnodes have different number of formal ");
3603	if (mode == 0){
3604	error_append("inputs.\n");
3605	}
3606	else {
3607	error_append("outputs.\n");
3608	}
3609	return 0;
3610	}
3611	for (i=0; i < n; i++){
3612	var1 = array_fetch(Var_Variable_t *,formalVars1,i);
3613	var2 = array_fetch(Var_Variable_t *,formalVars2,i);
3614	if (strcmp(Var_VariableReadName(var1),Var_VariableReadName(var2)) != 0){
3615	error_append("Two hnodes have different ports, ");
3616	error_append(Var_VariableReadName(var1));
3617	error_append(" and ");
3618	error_append(Var_VariableReadName(var2));
3619	error_append("\n");
3620	return 0;
3621	}
3622	if (Var_VariablesTestHaveSameDomain(var1,var2) == 0){
3623	error_append("Two hnodes have ports defined over different domains, ");
3624	error_append(Var_VariableReadName(var1));
3625	error_append(" and ");
3626	error_append(Var_VariableReadName(var2));
3627	error_append("\n");
3628	return 0;
3629	}
3630	}
3631	return 1;
3632	}
3633
3634
3635	/Function******************************************************************
3636
3637	Synopsis [Canonicalizes all the tables in a given manager using
3638	Tbl_TableCanonicalize().]
3639
3640	SideEffects [The original tables will be overwritten.]
3641
3642	SeeAlso []
3643
3644	******************************************************************************/
3645	static void
3646	_IoManagerCanonicalize(
3647	Hrc_Manager_t *hmgr)
3648	{
3649	int i;
3650	Hrc_Model_t *model;
3651	Hrc_Node_t *node;
3652	Tbl_Table_t *table;
3653	st_generator gen, gen2;
3654	char modelName, latchName;
3655	Hrc_Latch_t *latch;
3656
3657	Hrc_ManagerForEachModel(hmgr,gen,modelName,model){
3658	node = Hrc_ModelReadMasterNode(model);
3659	Hrc_NodeForEachNameTable(node,i,table){
3660	Tbl_TableCanonicalize(table);
3661	}
3662	Hrc_NodeForEachLatch(node,gen2,latchName,latch){
3663	Tbl_TableCanonicalize(Hrc_LatchReadResetTable(latch));
3664	}
3665	}
3666	}
3667
3668
3669	/Function******************************************************************
3670
3671	Synopsis [Handle function for timeout.]
3672
3673	Description [This function is called when the time out occurs.
3674	Since alarm is set with an elapsed time, this function checks if the
3675	CPU time corresponds to the timeout of the command. If not, it
3676	reprograms the alarm to fire again later.]
3677
3678	SideEffects []
3679
3680	******************************************************************************/
3681	static void
3682	TimeOutHandle(void)
3683	{
3684	int seconds = (int) ((util_cpu_ctime() - alarmLapTime) / 1000);
3685
3686	if (seconds < mcTimeOut) {
3687	unsigned slack = (unsigned) (mcTimeOut - seconds);
3688	(void) signal(SIGALRM, (void(*)(int)) TimeOutHandle);
3689	(void) alarm(slack);
3690	} else {
3691	longjmp(timeOutEnv, 1);
3692	}
3693	} /* TimeOutHandle */
3694
3695
3696	/Function******************************************************************
3697
3698	Synopsis []
3699
3700	Description []
3701
3702	SideEffects []
3703
3704	SeeAlso []
3705
3706	******************************************************************************/
3707	static int
3708	nodenameCompare(
3709	const void * node1,
3710	const void * node2)
3711	{
3712	Ntk_Node_t v1, v2;
3713	char name1, name2;
3714
3715	v1 = (Ntk_Node_t *)(node1);
3716	v2 = (Ntk_Node_t *)(node2);
3717	name1 = Ntk_NodeReadName(v1);
3718	name2 = Ntk_NodeReadName(v2);
3719
3720	return (strcmp(name1, name2));
3721	}
3722
3723
3724	/Function******************************************************************
3725
3726	Synopsis [This function is used for string comparison in array_sort.]
3727
3728	Description [This function is used for string comparison in array_sort.]
3729
3730	SideEffects []
3731
3732	SeeAlso []
3733
3734	******************************************************************************/
3735	static int
3736	_HrcStringCmp(
3737	const void * s1,
3738	const void * s2)
3739	{
3740	return(strcmp((char )s1, (char **)s2));
3741	}
3742
3743
3744	/Function******************************************************************
3745
3746	Synopsis [Prints whether model checking passed or failed]
3747
3748	Description [Prints whether model checking passed or failed, and if
3749	requested, a debug trace.]
3750
3751	SideEffects []
3752
3753	******************************************************************************/
3754	static boolean
3755	McPrintPassFailMine(
3756	mdd_manager *mddMgr,
3757	Fsm_Fsm_t *modelFsm,
3758	Mc_FwdBwdAnalysis traversalDirection,
3759	Ctlp_Formula_t *ctlFormula,
3760	mdd_t *ctlFormulaStates,
3761	mdd_t *modelInitialStates,
3762	array_t *modelCareStatesArray,
3763	McOptions_t *options,
3764	Mc_VerbosityLevel verbosity)
3765	{
3766	(void) fprintf(vis_stdout, "![McPrintPassFailMine] Original CTL Formula : ");
3767	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
3768	(void) fprintf(vis_stdout, "\n![McPrintPassFailMine] MC CTL Formula : ");
3769	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
3770	fprintf(vis_stdout, "\n");
3771	if (mdd_lequal(modelInitialStates, ctlFormulaStates, 1, 1)) {
3772	fprintf(vis_stdout, "# MC: formula passed --- ");
3773	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
3774	fprintf(vis_stdout, "\n");
3775	return TRUE;
3776	}
3777	else {
3778	fprintf(vis_stdout, "# MC: formula failed --- ");
3779	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
3780	fprintf(vis_stdout, "\n");
3781	if (McOptionsReadDbgLevel(options) != McDbgLevelNone_c) {
3782	McFsmDebugFormulaMine(options, ctlFormula,modelFsm, modelCareStatesArray);
3783	}
3784	return FALSE;
3785	}
3786	}
3787
3788
3789	/Function******************************************************************
3790
3791	Synopsis [Debug CTL formula in existential normal form]
3792
3793	Description [Debug CTL formula in existential normal form. The extent to
3794	which debug information is generated is a function of options settings.
3795
3796	The debugger works with ctlFormula, but uses the pointers back to
3797	the original formula that it was converted from, to give the user
3798	more sensible feedback. To do this, it relies on a specific
3799	translation: only EF, AU, AF, AG, and AX are converted. Hence, the
3800	only times that the converted bit is set, we have a conversion of
3801	one of these formulas, and the operator is either EU, or negation.
3802	in the latter case, we can conclude from the child of the negation
3803	what formula we converted from: EX means AX, EG means AF, EU means AG,
3804	and OR means AU.
3805	]
3806
3807	SideEffects [Affects vis_stdpipe]
3808
3809	SeeAlso [Ctlp_FormulaConvertToExistentialForm]
3810
3811	******************************************************************************/
3812	static int
3813	McFsmDebugFormulaMine(
3814	McOptions_t *options,
3815	Ctlp_Formula_t *ctlFormula,
3816	Fsm_Fsm_t *modelFsm,
3817	array_t *careSetArray)
3818	{
3819	(void) fprintf(vis_stdout, "![McFsmDebugFormulaMine] Original CTL Formula : ");
3820	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
3821	(void) fprintf(vis_stdout, "\n![McFsmDebugFormulaMine] MC CTL Formula : ");
3822	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
3823	fprintf(vis_stdout, "\n");
3824	mdd_t *modelInitialStates = Fsm_FsmComputeInitialStates(modelFsm);
3825	mdd_t *goodStates = Ctlp_FormulaObtainLatestApprox(ctlFormula);
3826	mdd_t *badStates = mdd_and(modelInitialStates, goodStates, 1, 0);
3827	mdd_t *witnessSuccState;
3828	FILE *debugFile = McOptionsReadDebugFile(options);
3829	FILE *oldStdOut;
3830	FILE *oldStdErr;
3831	extern FILE *vis_stdpipe;
3832	char *nrOfTracesString;
3833	int nrOfTraces; /* nr of debug traces that we output */
3834	int i; /* counts debug traces */
3835	array_t *completeCExArray;
3836	array_t *initCExArray;
3837	initCExArray = array_alloc(mdd_t *, 0);
3838
3839	mdd_free(modelInitialStates);
3840
3841	oldStdOut = vis_stdout;
3842	oldStdErr = vis_stderr;
3843
3844	nrOfTracesString = Cmd_FlagReadByName("nr_counterexamples");
3845	if(nrOfTracesString == NIL(char))
3846	nrOfTraces = 1;
3847	else
3848	nrOfTraces = atoi(nrOfTracesString);
3849
3850	(void) fprintf(vis_stderr, "[McFsmDebugFormulaMine] Number of debug traces = %d \n", nrOfTraces);
3851
3852	if (debugFile) {
3853	vis_stdpipe = debugFile;
3854	vis_stdout = vis_stdpipe;
3855	(void)fprintf(vis_stdpipe, "# MC: formula failed --- ");
3856	Ctlp_FormulaPrint(vis_stdpipe,Ctlp_FormulaReadOriginalFormula(ctlFormula));
3857	(void)fprintf(vis_stdpipe, "\n");
3858	} else if (McOptionsReadUseMore(options)){
3859	vis_stdpipe = popen("more", "w");
3860	vis_stdout = vis_stdpipe;
3861	vis_stderr = vis_stdpipe;
3862	}
3863	else
3864	vis_stdpipe = vis_stdout;
3865
3866	for(i = 0; i < nrOfTraces; i++){
3867	(void)fprintf(vis_stdout, "# MC: Calling debugger for trace %d\n",
3868	i+1);
3869	witnessSuccState = McComputeACloseState(badStates, goodStates, modelFsm);
3870
3871	completeCExArray = McFsmStateDebugFormulaMine(options, ctlFormula, witnessSuccState, modelFsm,
3872	careSetArray, initCExArray);
3873	(void) fprintf(vis_stdout, "\n![McFsmDebugFormulaMine] -> nb completeCExArray : %d \n", array_n(completeCExArray));
3874	// (void) fprintf(vis_stdout, "\n![McFsmDebugFormulaMine] -> nb initCExArray : %d \n", array_n(initCExArray));
3875
3876	(void) fprintf(vis_stdout, "\n![McFsmDebugFormulaMine] START xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx \n");
3877	boolean printInputs = McOptionsReadPrintInputs( options );
3878	Mc_PrintPathMine( completeCExArray, modelFsm, printInputs );
3879	(void) fprintf(vis_stdout, "\n![McFsmDebugFormulaMine] END xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx \n");
3880
3881	(void)fprintf(vis_stdout, "\n");
3882
3883	mdd_free(witnessSuccState);
3884	}
3885	mdd_free(badStates);
3886	mdd_free(goodStates);
3887
3888	if (vis_stdout != oldStdOut && vis_stdout != debugFile)
3889	(void)pclose(vis_stdpipe);
3890
3891	vis_stdout = oldStdOut;
3892	vis_stderr = oldStdErr;
3893
3894	return 1;
3895	}
3896
3897
3898	/Function******************************************************************
3899
3900	Synopsis [Debug CTL formula in existential normal form at state aState]
3901
3902	Description [Debug CTL formula in existential normal form at state
3903	aState. Formula is assumed to have been CONVERTED to existential normal
3904	form.]
3905
3906	SideEffects []
3907
3908	******************************************************************************/
3909	static array_t *
3910	McFsmStateDebugFormulaMine(
3911	McOptions_t *options,
3912	Ctlp_Formula_t *ctlFormula,
3913	mdd_t *aState,
3914	Fsm_Fsm_t *modelFsm,
3915	array_t *careSetArray,
3916	array_t *prevCExArray)
3917	{
3918	(void) fprintf(vis_stdout, "![McFsmStateDebugFormulaMine] Original CTL Formula : ");
3919	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
3920	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] MC CTL Formula : ");
3921	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 0 --> nb prevCExArray : %d \n", array_n(prevCExArray));
3922	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
3923	fprintf(vis_stdout, "\n");
3924
3925
3926	Ctlp_Formula_t *originalFormula;
3927	array_t *cExampleArray;
3928	// array_t *preCExArray;
3929	array_t *fullCExArray;
3930	McDbgLevel debugLevel = McOptionsReadDbgLevel( options );
3931
3932	//prevCExArray = array_alloc(mdd_t *, 0);
3933	// fullCExArray = prevCExArray;
3934	if ( ctlFormula == NIL(Ctlp_Formula_t) ) {
3935	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] * END * \n");
3936	fullCExArray = prevCExArray;
3937	return fullCExArray;
3938	}
3939	if ( Ctlp_FormulaTestIsConverted( ctlFormula ) ) {
3940	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> FsmStateDebugConvertedFormulaMine \n");
3941	cExampleArray = FsmStateDebugConvertedFormulaMine(options, ctlFormula, aState, modelFsm,
3942	careSetArray, &prevCExArray);
3943
3944	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 1 --> nb cExampleArray : %d ", array_n(cExampleArray ));
3945	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 1 --> nb prevCExArray : %d ", array_n(prevCExArray));
3946
3947	// boolean printInputs = McOptionsReadPrintInputs( options );
3948	// Mc_PrintPathMine( cExampleArray, modelFsm, printInputs );
3949
3950	if (array_n(prevCExArray)==0 ) {
3951	fullCExArray = cExampleArray;
3952	}
3953	else {
3954	fullCExArray = McCreateMergedPath(cExampleArray, prevCExArray);
3955	}
3956
3957	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 1 --> nb fullCExArray : %d ", array_n(fullCExArray ));
3958	prevCExArray = fullCExArray;
3959	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 1 --> nb prevCExArray End : %d ", array_n(prevCExArray));
3960
3961	/* (void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] START OOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO00000000O\n");
3962	boolean printInputs = McOptionsReadPrintInputs( options );
3963	Mc_PrintPathMine( fullCExArray, modelFsm, printInputs );
3964	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] END 0OOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO00000000O\n");
3965	*/
3966	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] * END * \n");
3967	return fullCExArray;
3968	}
3969
3970	originalFormula = Ctlp_FormulaReadOriginalFormula( ctlFormula );
3971
3972	switch ( Ctlp_FormulaReadType( ctlFormula ) ) {
3973
3974	case Ctlp_ID_c :
3975	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> DebugIDMine \n");
3976	DebugIDMine( options, ctlFormula, aState, modelFsm );
3977	fullCExArray = prevCExArray;
3978	break;
3979
3980	case Ctlp_TRUE_c:
3981	case Ctlp_FALSE_c:
3982	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> DebugTrueFalseMine \n");
3983	DebugTrueFalseMine( ctlFormula, aState, modelFsm );
3984	fullCExArray = prevCExArray;
3985	break;
3986
3987	case Ctlp_EQ_c:
3988	case Ctlp_XOR_c:
3989	case Ctlp_THEN_c:
3990	case Ctlp_NOT_c:
3991	case Ctlp_AND_c:
3992	case Ctlp_OR_c:
3993	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> DebugBooleanMine \n");
3994	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 2 --> nb prevCExArray : %d \n", array_n(prevCExArray));
3995	cExampleArray = DebugBooleanMine(options, ctlFormula, aState, modelFsm, careSetArray, &prevCExArray);
3996
3997	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 2 --> nb cExampleArray : %d ", array_n(cExampleArray ));
3998
3999
4000	/* if (array_n(prevCExArray)==0 ) {
4001	fullCExArray = cExampleArray;
4002	}
4003	else {
4004	fullCExArray = McCreateMergedPath(cExampleArray, prevCExArray);
4005	}
4006	*/
4007
4008	fullCExArray = cExampleArray;
4009	prevCExArray = fullCExArray;
4010	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 2 --> nb prevCExArray after DB : %d ", array_n(prevCExArray));
4011	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 2 --> nb fullCExArray : %d ", array_n(fullCExArray ));
4012
4013	break;
4014
4015	case Ctlp_EX_c:
4016	case Ctlp_EU_c:
4017	case Ctlp_EG_c:
4018	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> Ctlp_EG_c\n");
4019	if ( !McStateSatisfiesFormula( ctlFormula, aState ) ) {
4020	mdd_t *passStates = Ctlp_FormulaObtainLatestApprox(ctlFormula);
4021	mdd_t *closeState;
4022	Ntk_Network_t *modelNetwork = Fsm_FsmReadNetwork(modelFsm);
4023	array_t *PSVars = Fsm_FsmReadPresentStateVars(modelFsm);
4024	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> McStateFailsFormulaMine \n");
4025
4026	McStateFailsFormulaMine(aState, originalFormula, debugLevel, modelFsm);
4027	if (mdd_is_tautology(passStates, 0)) {
4028	fprintf(vis_stdout,
4029	"--No state satisfies the formula\n");
4030	mdd_free(passStates);
4031
4032	fullCExArray = prevCExArray;
4033	break;
4034	}
4035	fprintf(vis_stdout,
4036	"--A simple counter example does not exist since it\n");
4037	fprintf(vis_stdout,
4038	" requires generating all paths from the state\n");
4039	fprintf(vis_stdout,
4040	"--A state at minimum distance satisfying the formula is\n");
4041	closeState = McComputeACloseState(passStates, aState, modelFsm);
4042	mdd_free(passStates);
4043	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> Mc_MintermPrintMine \n");
4044	Mc_MintermPrintMine(closeState, PSVars, modelNetwork);
4045	mdd_free(closeState);
4046
4047	fullCExArray = prevCExArray;
4048
4049	break;
4050	}
4051	else {
4052	McPath_t *witnessPath = NIL(McPath_t);
4053	if ( Ctlp_FormulaReadType( ctlFormula ) == Ctlp_EX_c ) {
4054	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> DebugEXMine \n");
4055	witnessPath = DebugEXMine(ctlFormula, aState, modelFsm, careSetArray);
4056	}
4057	else if ( Ctlp_FormulaReadType( ctlFormula ) == Ctlp_EU_c ) {
4058	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> DebugEUMine \n");
4059	witnessPath = DebugEUMine(ctlFormula, aState, modelFsm, careSetArray);
4060	}
4061	else {
4062	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> DebugEGMine \n");
4063	witnessPath = DebugEGMine(ctlFormula, aState, modelFsm, careSetArray,
4064	options);
4065	}
4066	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] >> FsmPathDebugFormulaMine \n");
4067	cExampleArray = FsmPathDebugFormulaMine(options, ctlFormula, modelFsm, witnessPath,
4068	careSetArray, &prevCExArray);
4069	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 3 --> nb cExampleArray : %d ", array_n(cExampleArray ));
4070	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 3 --> nb prevCExArray : %d ", array_n(prevCExArray));
4071
4072	/* if (array_n(prevCExArray)==0 ) {
4073	fullCExArray = cExampleArray;
4074	}
4075	else {
4076	fullCExArray = McCreateMergedPath(cExampleArray, prevCExArray);
4077	}
4078	*/
4079	fullCExArray = prevCExArray;
4080	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] 3 --> nb fullCExArray : %d ", array_n(fullCExArray ));
4081
4082	// McPathFree( witnessPath ); //NOTE: INITIALLY FREED
4083	}
4084	break;
4085
4086	case Ctlp_Cmp_c:
4087	case Ctlp_Init_c:
4088	case Ctlp_FwdU_c:
4089	case Ctlp_FwdG_c:
4090	case Ctlp_EY_c:
4091	case Ctlp_EH_c:
4092	fullCExArray = prevCExArray;
4093	break;
4094
4095	default: {
4096	fail("Bad switch in debugging normal formula\n");
4097	fullCExArray = prevCExArray;
4098	}
4099	}
4100	// *prevCExArray = fullCExArray;
4101	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] LAST --> nb prevCExArray End: %d ", array_n(prevCExArray));
4102	/* (void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] START OOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO00000000O\n");
4103	boolean printInputs = McOptionsReadPrintInputs( options );
4104	Mc_PrintPathMine( prevCExArray, modelFsm, printInputs );
4105	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] END 0OOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOOO00000000O\n");
4106	*/
4107	(void) fprintf(vis_stdout, "\n![McFsmStateDebugFormulaMine] * END * \n");
4108	return fullCExArray;
4109
4110	}
4111
4112	/Function******************************************************************
4113
4114	Synopsis [Debug a converted formula]
4115
4116	Comment [There are five kinds of formula that are converted: EF, AU, AF, AG,
4117	AX. The Ctlp_Formula_t structure has a pointer back to the original formula
4118	(where one exists). For the non-trivial cases (AU, AF, AG, AX) if the
4119	formula is false, we create a counter example, i.e. a fair path which fails
4120	the property. The AG, AX, AF cases are simple; the AU case is tricky because
4121	this can be failed on two ways.]
4122
4123	SideEffects []
4124
4125	******************************************************************************/
4126	static array_t *
4127	FsmStateDebugConvertedFormulaMine(
4128	McOptions_t *options,
4129	Ctlp_Formula_t *ctlFormula,
4130	mdd_t *aState,
4131	Fsm_Fsm_t *modelFsm,
4132	array_t *careSetArray,
4133	array_t **preCExArray)
4134	{
4135	(void) fprintf(vis_stdout, "![FsmStateDebugConvertedFormulaMine] Original CTL Formula : ");
4136	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
4137	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] MC CTL Formula : ");
4138	// (void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
4139	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
4140	fprintf(vis_stdout, "\n");
4141
4142	McPath_t *witnessPath;
4143	McPath_t *counterExamplePath;
4144
4145	array_t *cExArray;
4146
4147	Ctlp_Formula_t *originalFormula =Ctlp_FormulaReadOriginalFormula(ctlFormula);
4148	Ctlp_Formula_t *lFormula = Ctlp_FormulaReadLeftChild( ctlFormula );
4149	McDbgLevel debugLevel = McOptionsReadDbgLevel( options );
4150
4151	if ( Ctlp_FormulaReadType( ctlFormula ) == Ctlp_EU_c ) {
4152	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> Ctlp_EU_c \n");
4153	if ( !McStateSatisfiesFormula( ctlFormula, aState ) ) {
4154	mdd_t *passStates = Ctlp_FormulaObtainLatestApprox(ctlFormula);
4155	mdd_t *closeState;
4156	Ntk_Network_t *modelNetwork = Fsm_FsmReadNetwork(modelFsm);
4157	array_t *PSVars = Fsm_FsmReadPresentStateVars(modelFsm);
4158	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> McStateFailsFormulaMine \n");
4159	McStateFailsFormulaMine( aState, originalFormula, debugLevel, modelFsm );
4160	if (mdd_is_tautology(passStates, 0)) {
4161	fprintf(vis_stdout,
4162	"--No state satisfies the formula\n");
4163	} else {
4164	fprintf(vis_stdout,
4165	"\n--A simple counter example does not exist since it\n");
4166	fprintf(vis_stdout,
4167	" requires generating all paths from the state\n");
4168	fprintf(vis_stdout,
4169	"--A state at minimum distance satisfying the formula is\n");
4170	closeState = McComputeACloseState(passStates, aState, modelFsm);
4171	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> Mc_MintermPrintMine \n");
4172	Mc_MintermPrintMine(closeState, PSVars, modelNetwork);
4173	mdd_free(closeState);
4174	}
4175	mdd_free(passStates);
4176	}
4177	else {
4178	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> DebugEUMine \n");
4179	witnessPath = DebugEUMine(ctlFormula, aState, modelFsm, careSetArray);
4180	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> FsmPathDebugEFFormulaMine\n");
4181	cExArray = FsmPathDebugEFFormulaMine(options, ctlFormula, modelFsm, witnessPath,
4182	careSetArray, preCExArray);
4183	// McPathFree( witnessPath );
4184	}
4185	cExArray = *preCExArray;
4186	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] END \n");
4187	return cExArray;
4188	//return cExArray; // EF Formula not yet treated
4189	}
4190
4191	/*
4192	* The original formula must be an AX,AF,AG, or AU formula
4193	*/
4194	if ( McStateSatisfiesFormula( ctlFormula, aState ) ) {
4195	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> McStatePassesFormulaMine\n");
4196	McStatePassesFormulaMine( aState, originalFormula, debugLevel, modelFsm );
4197	fprintf(vis_stdout,
4198	"--A simple witness does not exist since it requires\n");
4199	fprintf(vis_stdout, " generating all paths from the state\n");
4200	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] END \n");
4201	cExArray = *preCExArray; //Added to avoid seg fault
4202	return cExArray; // maybe aState gotta checkout later!!
4203	}
4204
4205	switch ( Ctlp_FormulaReadType( lFormula ) ) {
4206	case Ctlp_EX_c: {
4207	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> DebugEXMine\n");
4208	counterExamplePath = DebugEXMine(lFormula, aState, modelFsm, careSetArray);
4209	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> FsmPathDebugAXFormulaMine\n");
4210	cExArray = FsmPathDebugAXFormulaMine(options, ctlFormula, modelFsm, counterExamplePath, careSetArray, preCExArray);
4211	// McPathFree( counterExamplePath ); //NOTE: INITIALLY FREED
4212	break;
4213	}
4214
4215	case Ctlp_EG_c: {
4216	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> DebugEGMine\n");
4217	counterExamplePath = DebugEGMine(lFormula, aState, modelFsm, careSetArray,
4218	options);
4219	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> FsmPathDebugAFFormulaMine\n");
4220	cExArray = FsmPathDebugAFFormulaMine(options, ctlFormula, modelFsm, counterExamplePath,
4221	careSetArray, preCExArray);
4222	// McPathFree( counterExamplePath ); //NOTE: INITIALLY FREED
4223	break;
4224	}
4225
4226	case Ctlp_EU_c: {
4227	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> DebugEUMine\n");
4228	counterExamplePath = DebugEUMine(lFormula, aState, modelFsm, careSetArray);
4229	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> FsmPathDebugAGFormulaMine\n");
4230	cExArray = FsmPathDebugAGFormulaMine(options, ctlFormula, modelFsm, counterExamplePath,
4231	careSetArray, preCExArray);
4232	// McPathFree( counterExamplePath ); //NOTE: INITIALLY FREED
4233	break;
4234	}
4235
4236	case Ctlp_OR_c: {
4237	/*
4238	* need special functions bcoz of two possibilities
4239	*/
4240	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] >> FsmPathDebugAUFormulaMine\n");
4241	cExArray = FsmPathDebugAUFormulaMine(options, aState, ctlFormula, modelFsm,
4242	careSetArray, preCExArray);
4243
4244	break;
4245	}
4246
4247	default: fail("Bad formula type in handling converted operator\n");
4248	}
4249	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] LAST ---> nb preCExArray : %d", array_n(*preCExArray));
4250	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] LAST ---> nb cExArray : %d", array_n(cExArray ));
4251
4252	// boolean printInputs = McOptionsReadPrintInputs( options );
4253	// (void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] printInputs = %s \n", (printInputs==TRUE)? "TRUE":"FALSE");
4254	// Mc_PrintPathMine(cExArray, modelFsm, printInputs );
4255	(void) fprintf(vis_stdout, "\n![FsmStateDebugConvertedFormulaMine] END \n");
4256	return cExArray;
4257	}
4258
4259
4260	/Function******************************************************************
4261
4262	Synopsis [Debug a formula of the form EX, EG, EU, EF.]
4263
4264	SideEffects []
4265
4266	******************************************************************************/
4267	static array_t *
4268	FsmPathDebugFormulaMine(
4269	McOptions_t *options,
4270	Ctlp_Formula_t *ctlFormula,
4271	Fsm_Fsm_t *modelFsm,
4272	McPath_t *witnessPath,
4273	array_t *careSetArray,
4274	array_t **preCExArray)
4275	{
4276	(void) fprintf(vis_stdout, "![FsmPathDebugFormulaMine] Original CTL Formula : ");
4277	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
4278	(void) fprintf(vis_stdout, "\n![FsmPathDebugFormulaMine] MC CTL Formula : ");
4279	// (void) fprintf(vis_stdout, "\n![FsmPathDebugFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
4280	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
4281	fprintf(vis_stdout, "\n");
4282
4283	array_t *witnessArray;
4284	switch ( Ctlp_FormulaReadType( ctlFormula ) ) {
4285	case Ctlp_EX_c: {
4286	witnessArray = FsmPathDebugEXFormulaMine(options, ctlFormula, modelFsm, witnessPath,
4287	careSetArray, preCExArray);
4288	break;
4289	}
4290
4291	case Ctlp_EU_c: {
4292	witnessArray = FsmPathDebugEUFormulaMine(options, ctlFormula, modelFsm, witnessPath,
4293	careSetArray, preCExArray);
4294	break;
4295	}
4296
4297	case Ctlp_EG_c: {
4298	witnessArray = FsmPathDebugEGFormulaMine(options, ctlFormula, modelFsm, witnessPath,
4299	careSetArray, preCExArray);
4300	break;
4301	}
4302	default: {
4303	fail("bad switch in converting converted formula\n");
4304	}
4305	}
4306
4307	(void) fprintf(vis_stdout, "\n![FsmPathDebugFormulaMine] ---> witnessArray : %d END\n", array_n(witnessArray));
4308
4309	return witnessArray;
4310	}
4311
4312
4313	/Function******************************************************************
4314
4315	Synopsis [Debug an Atomic Formula]
4316
4317	Description [Debug an Atomic Formula. As per the semantics of fair CTL, a
4318	state satisfies an Atomic Formula just in case the given wire computes the
4319	appropriate Boolean function on that state as input. The state has to be
4320	fair; however we do NOT justify the fairness by printing a path to a fair
4321	cycle. THe user can achieve this effect by adding ANDing in a formula EG
4322	TRUE.]
4323
4324	SideEffects []
4325
4326	******************************************************************************/
4327	static void
4328	DebugIDMine(
4329	McOptions_t *options,
4330	Ctlp_Formula_t *aFormula,
4331	mdd_t *aState,
4332	Fsm_Fsm_t *modelFsm)
4333	{
4334
4335	(void) fprintf(vis_stdout, "![DebugIDMine] Original CTL Formula : ");
4336	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(aFormula));
4337	(void) fprintf(vis_stdout, "\n![DebugIDMine] MC CTL Formula : ");
4338	Ctlp_FormulaPrint(vis_stdout, aFormula);
4339	fprintf(vis_stdout, "\n");
4340
4341	Ctlp_Formula_t *originalFormula = Ctlp_FormulaReadOriginalFormula(aFormula);
4342	McDbgLevel debugLevel = McOptionsReadDbgLevel( options );
4343
4344	if ( McStateSatisfiesFormula( aFormula, aState ) ) {
4345	McStatePassesFormulaMine( aState, originalFormula, debugLevel, modelFsm );
4346	}
4347	else {
4348	McStateFailsFormulaMine( aState, originalFormula, debugLevel, modelFsm );
4349	}
4350	}
4351
4352	/Function******************************************************************
4353
4354	Synopsis [Debug a TRUE/FALSE formula]
4355
4356	SideEffects []
4357
4358	******************************************************************************/
4359	static void
4360	DebugTrueFalseMine(
4361	Ctlp_Formula_t *aFormula,
4362	mdd_t *aState,
4363	Fsm_Fsm_t *modelFsm)
4364	{
4365	(void) fprintf(vis_stdout, "![DebugTrueFalseMine] Original CTL Formula : ");
4366	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(aFormula));
4367	(void) fprintf(vis_stdout, "\n![[DebugTrueFalseMine] MC CTL Formula : ");
4368	Ctlp_FormulaPrint(vis_stdout, aFormula);
4369
4370	fprintf(vis_stdout, "\n");
4371	fprintf(vis_stdout, "--Nothing to debug for %s\n",
4372	((Ctlp_FormulaReadType(aFormula) == Ctlp_TRUE_c) ? "TRUE\n" : "FALSE\n"));
4373	}
4374
4375	/Function******************************************************************
4376
4377	Synopsis [Debug a Boolean formula]
4378
4379	Desciption [Debug a Boolean formula. For Boolean formula built out of binary
4380	connective, we may debug only one branch, if say the formula is an AND and
4381	the left branch is fails.]
4382
4383	SideEffects []
4384
4385	******************************************************************************/
4386	static array_t *
4387	DebugBooleanMine(
4388	McOptions_t *options,
4389	Ctlp_Formula_t *aFormula,
4390	mdd_t *aState,
4391	Fsm_Fsm_t *modelFsm,
4392	array_t *careSetArray,
4393	array_t **preCExArray)
4394	{
4395	(void) fprintf(vis_stdout, "![DebugBooleanMine] Original CTL Formula : ");
4396	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(aFormula));
4397	(void) fprintf(vis_stdout, "\n![DebugBooleanMine] MC CTL Formula : ");
4398	(void) fprintf(vis_stdout, "\n![DebugBooleanMine] 0 ---> nb prevCExArray : %d \n", array_n(*preCExArray));
4399	Ctlp_FormulaPrint(vis_stdout, aFormula);
4400	fprintf(vis_stdout, "\n");
4401
4402	Ctlp_Formula_t *originalFormula = Ctlp_FormulaReadOriginalFormula(aFormula);
4403	Ctlp_Formula_t *lFormula = Ctlp_FormulaReadLeftChild( aFormula );
4404	Ctlp_Formula_t *rFormula = Ctlp_FormulaReadRightChild( aFormula );
4405	McDbgLevel debugLevel = McOptionsReadDbgLevel(options);
4406
4407	if (McStateSatisfiesFormula(aFormula, aState)) {
4408	McStatePassesFormulaMine(aState, originalFormula, debugLevel, modelFsm);
4409	} else {
4410	McStateFailsFormulaMine(aState, originalFormula, debugLevel, modelFsm);
4411	}
4412
4413	/* We always debug the first (left) child. */
4414	array_t *cExArray;
4415	// array_t *prevCExArray;
4416	// prevCExArray = array_alloc(mdd_t *, 0); //Note: added just to respect arg requirements but not used
4417	cExArray = McFsmStateDebugFormulaMine(options, lFormula, aState, modelFsm, careSetArray, *preCExArray);
4418	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 1 ---> nb prevCExArray : %d \n", array_n(*preCExArray));
4419	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 1 ---> nb cExArray : %d \n", array_n(cExArray));
4420	/* What we do for the second child depends on the type of the formula.
4421	* For Ctlp_AND_c, Ctlp_OR_c, Ctlp_THEN_c the right child may not be
4422	* needed. With early termination, the right child may not have the
4423	* information required to produce a counterexample; hence, its debugging
4424	* is not optional. (We may get incorrect answers.)
4425	*/
4426	if (Ctlp_FormulaReadType(aFormula) == Ctlp_AND_c) {
4427	/* If aFormula fails and aState does not satisfy lFormula
4428	* 1. The information about aState at the right child is not
4429	* necessarilty correct. (aState was a don't care state.)
4430	* 2. A counterexample to lFormula is a counterexample to
4431	* aFormula.
4432	* So, if aFormula fails, we should debug the right child only if
4433	* aState satisfies lFormula.
4434	* If, on the other hand, aFormula passes, then aState must satisfy
4435	* lFormula, and we need to witness both lFormula and rFormula.
4436	*/
4437	if (McStateSatisfiesFormula(lFormula, aState)) {
4438	cExArray = McFsmStateDebugFormulaMine(options, rFormula, aState, modelFsm,
4439	careSetArray, *preCExArray);
4440	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 2 ---> nb prevCExArray : %d \n", array_n(*preCExArray));
4441	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 2 ---> nb cExArray : %d \n", array_n(cExArray));
4442	}
4443	} else if (Ctlp_FormulaReadType(aFormula) == Ctlp_OR_c) {
4444	/* if aFormula passes, we should debug the right child only if
4445	* aState does not satisfy lFormula.
4446	* If, on the other hand, aFormula fails, then aState may not satisfy
4447	* lFormula, and we need to produce counterexamples for both lFormula
4448	* and rFormula.
4449	*/
4450	if (!McStateSatisfiesFormula(lFormula, aState)) {
4451	cExArray = McFsmStateDebugFormulaMine(options, rFormula, aState, modelFsm,
4452	careSetArray, *preCExArray);
4453	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 3 ---> nb prevCExArray : %d \n", array_n(*preCExArray));
4454	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 3 ---> nb cExArray : %d \n", array_n(cExArray));
4455	}
4456	} else if (Ctlp_FormulaReadType(aFormula) == Ctlp_THEN_c) {
4457	/* This case is like the OR, with the polarity of the left
4458	* left child reversed.
4459	*/
4460	if (McStateSatisfiesFormula(lFormula, aState)) {
4461	cExArray = McFsmStateDebugFormulaMine(options, rFormula, aState, modelFsm,
4462	careSetArray, *preCExArray);
4463	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 4 ---> nb prevCExArray : %d \n", array_n(*preCExArray));
4464	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 4 ---> nb cExArray : %d \n", array_n(cExArray));
4465	}
4466	} else if (Ctlp_FormulaReadType(aFormula) != Ctlp_NOT_c) {
4467	/* For Ctlp_EQ_c and Ctlp_XOR_c both children must be debugged. */
4468	cExArray = McFsmStateDebugFormulaMine(options, rFormula, aState, modelFsm, careSetArray, *preCExArray);
4469	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 5 ---> nb prevCExArray : %d \n", array_n(*preCExArray));
4470	// (void) fprintf(vis_stdout, "\n![DebugBooleanMine] 5 ---> nb cExArray : %d \n", array_n(cExArray));
4471	}
4472	(void) fprintf(vis_stdout, "\n![DebugBooleanMine] LAST ---> nb prevCExArray : %d ", array_n(*preCExArray));
4473	(void) fprintf(vis_stdout, "\n![DebugBooleanMine] LAST ---> nb cExArray : %d END\n", array_n(cExArray));
4474	return cExArray;
4475	}
4476
4477
4478	/Function******************************************************************
4479
4480	Synopsis [Debug a formula of type EX.]
4481
4482	Description [Debug a formula of type EX at specified state. It is assumed
4483	that aState satisfies the EX formula.]
4484
4485	SideEffects []
4486
4487	******************************************************************************/
4488	static McPath_t *
4489	DebugEXMine(
4490	Ctlp_Formula_t *aFormula,
4491	mdd_t *aState,
4492	Fsm_Fsm_t *modelFsm,
4493	array_t *careSetArray)
4494	{
4495	(void) fprintf(vis_stdout, "![DebugEXMine] Original CTL Formula : ");
4496	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(aFormula));
4497	(void) fprintf(vis_stdout, "\n![DebugEXMine] MC CTL Formula : ");
4498	Ctlp_FormulaPrint(vis_stdout, aFormula);
4499	fprintf(vis_stdout, "\n");
4500
4501	mdd_t *aDupState = mdd_dup( aState );
4502	mdd_t *aStateSuccs;
4503	mdd_t *statesSatisfyingLeftFormula;
4504	mdd_t *targetStates;
4505	mdd_t *witnessSuccState;
4506	Ctlp_Formula_t *lFormula;
4507	McPath_t *witnessPath = McPathAlloc();
4508	array_t stemArray = array_alloc( mdd_t , 0 );
4509	Img_ImageInfo_t * imageInfo = Fsm_FsmReadOrCreateImageInfo(modelFsm, 0, 1);
4510
4511	/*
4512	* By using careSet here, can end up with unreachable successors
4513	*/
4514	aStateSuccs = Img_ImageInfoComputeImageWithDomainVars(imageInfo,
4515	aState, aState, careSetArray);
4516
4517	lFormula = Ctlp_FormulaReadLeftChild( aFormula );
4518	statesSatisfyingLeftFormula = Ctlp_FormulaObtainLatestApprox( lFormula );
4519
4520	targetStates = mdd_and( aStateSuccs, statesSatisfyingLeftFormula, 1, 1 );
4521	mdd_free( aStateSuccs ); mdd_free( statesSatisfyingLeftFormula );
4522
4523	witnessSuccState = Mc_ComputeACloseState( targetStates, aState, modelFsm );
4524	mdd_free( targetStates );
4525
4526	array_insert_last( mdd_t *, stemArray, aDupState );
4527	array_insert_last( mdd_t *, stemArray, witnessSuccState );
4528
4529	McPathSetStemArray( witnessPath, stemArray );
4530
4531	return witnessPath;
4532	}
4533
4534	/Function******************************************************************
4535
4536	Synopsis [Debug a formula of type EU.]
4537
4538	Description [Debug a formula of type EU at specified state. It is assumed that
4539	state fails formula.]
4540
4541	SideEffects []
4542
4543	******************************************************************************/
4544	static McPath_t *
4545	DebugEUMine(
4546	Ctlp_Formula_t *aFormula,
4547	mdd_t *aState,
4548	Fsm_Fsm_t *modelFsm,
4549	array_t *careSetArray)
4550	{
4551	(void) fprintf(vis_stdout, "![DebugEUMine] Original CTL Formula : ");
4552	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(aFormula));
4553	(void) fprintf(vis_stdout, "\n![DebugEUMine] MC CTL Formula : ");
4554	Ctlp_FormulaPrint(vis_stdout, aFormula);
4555	fprintf(vis_stdout, "\n");
4556
4557	McPath_t *witnessPath = McPathAlloc();
4558	array_t OnionRings = (array_t ) Ctlp_FormulaReadDebugData( aFormula );
4559	array_t *pathToCore = Mc_BuildPathToCore(aState, OnionRings,
4560	modelFsm,
4561	McGreaterOrEqualZero_c );
4562
4563	McPathSetStemArray( witnessPath, pathToCore );
4564
4565	return witnessPath;
4566	}
4567
4568	/Function******************************************************************
4569
4570	Synopsis [Debug a formula of type EG.]
4571
4572	Description [Debug a formula of type EG at specified state. It is assumed
4573	that state fails formula. Refer to Clarke et al DAC 1995 for details of the
4574	algorithm.]
4575
4576	SideEffects []
4577
4578	******************************************************************************/
4579	static McPath_t *
4580	DebugEGMine(
4581	Ctlp_Formula_t *aFormula,
4582	mdd_t *aState,
4583	Fsm_Fsm_t *modelFsm,
4584	array_t *careSetArray,
4585	McOptions_t *options)
4586	{
4587	(void) fprintf(vis_stdout, "![DebugEGMine] Original CTL Formula : ");
4588	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(aFormula));
4589	(void) fprintf(vis_stdout, "\n![DebugEGMine] MC CTL Formula : ");
4590	Ctlp_FormulaPrint(vis_stdout, aFormula);
4591	fprintf(vis_stdout, "\n");
4592
4593	array_t arrayOfOnionRings = (array_t ) Ctlp_FormulaReadDebugData(aFormula);
4594	mdd_t *invariantMdd = Ctlp_FormulaObtainLatestApprox( aFormula );
4595	McPath_t *fairPath = McBuildFairPath(aState, invariantMdd, arrayOfOnionRings,
4596	modelFsm, careSetArray,
4597	McOptionsReadVerbosityLevel(options),
4598	McOptionsReadDcLevel(options),
4599	McOptionsReadFwdBwd(options));
4600	mdd_free( invariantMdd );
4601
4602	return fairPath;
4603	}
4604
4605
4606	/Function******************************************************************
4607
4608	Synopsis [Debug a path for EX type formula.]
4609
4610	SideEffects []
4611
4612	******************************************************************************/
4613	static array_t *
4614	FsmPathDebugEXFormulaMine(
4615	McOptions_t *options,
4616	Ctlp_Formula_t *ctlFormula,
4617	Fsm_Fsm_t *modelFsm,
4618	McPath_t *witnessPath,
4619	array_t *careSetArray,
4620	array_t **preCExArray)
4621	{
4622
4623	(void) fprintf(vis_stdout, "![FsmPathDebugEXFormulaMine] Original CTL Formula : ");
4624	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
4625	(void) fprintf(vis_stdout, "\n![FsmPathDebugEXFormulaMine] MC CTL Formula : ");
4626	// (void) fprintf(vis_stdout, "\n![FsmPathDebugEXFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
4627	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
4628	fprintf(vis_stdout, "\n");
4629
4630	array_t *PSVars = Fsm_FsmReadPresentStateVars( modelFsm );
4631	array_t *witnessArray = McPathReadStemArray( witnessPath );
4632	mdd_t firstState = array_fetch( mdd_t , witnessArray, 0 );
4633	char *firstStateName = Mc_MintermToString(firstState, PSVars,
4634	Fsm_FsmReadNetwork(modelFsm));
4635	Ctlp_Formula_t *lChild = Ctlp_FormulaReadLeftChild( ctlFormula );
4636	char *ctlFormulaText = Ctlp_FormulaConvertToString( ctlFormula );
4637	boolean printInputs = McOptionsReadPrintInputs( options );
4638	mdd_t *secondlastState;
4639	if(array_n(witnessArray)<2)
4640	{
4641	fprintf(vis_stdout,"witnessArray has less than two elements, return\n");
4642	if (array_n(witnessArray) > 0) return witnessArray;
4643	else return NIL(array_t);
4644	}
4645	secondlastState= array_fetch( mdd_t *, witnessArray, (array_n(witnessArray)-1) );
4646
4647	(void) fprintf(vis_stderr, "-[FsmPathDebugEXFormulaMine] array_n(witnessArrayEX) = %d\n",array_n(witnessArray));
4648
4649	if( McOptionsReadDbgLevel( options ) == McDbgLevelMin_c)
4650	fprintf(vis_stdout, "--State\n%spasses EX formula\n\n",
4651	firstStateName);
4652	else
4653	fprintf(vis_stdout, "--State\n%spasses formula %s\n\n", firstStateName,
4654	ctlFormulaText );
4655
4656	FREE(firstStateName);
4657	FREE(ctlFormulaText);
4658
4659	array_t *cExArray;
4660	// array_t *prevCExArray;
4661	// prevCExArray = array_alloc(mdd_t *, 0); //Note: added just to respect arg requirements but not used
4662
4663	switch ( McOptionsReadDbgLevel( options ) ) {
4664	case McDbgLevelMin_c:
4665	case McDbgLevelMinVerbose_c:
4666	case McDbgLevelMax_c:
4667	fprintf(vis_stdout, " --Counter example begins\n");
4668	Mc_PrintPath( witnessArray, modelFsm, printInputs );
4669	fprintf(vis_stdout, " --Counter example ends\n\n");
4670	// cExArray = McFsmStateDebugFormulaMine(options, lChild, secondlastState, modelFsm, careSetArray, prevCExArray);
4671	cExArray = McFsmStateDebugFormulaMine(options, lChild, secondlastState, modelFsm, careSetArray, *preCExArray);
4672	break;
4673	case McDbgLevelInteractive_c:
4674	fprintf(vis_stdout, " --Counter example begins\n");
4675	Mc_PrintPath( witnessArray, modelFsm, printInputs );
4676	fprintf(vis_stdout, " --Counter example ends\n\n");
4677	if (McQueryContinue("Continue debugging EX formula? (1-yes,0-no)\n"))
4678	// cExArray = McFsmStateDebugFormulaMine(options, lChild, secondlastState, modelFsm, careSetArray, prevCExArray);
4679	cExArray = McFsmStateDebugFormulaMine(options, lChild, secondlastState, modelFsm, careSetArray, *preCExArray);
4680	break;
4681	default:
4682	fail("Reached bad switch in FsmPathDebugEXFormulaMine\n");
4683	}
4684	// (void) fprintf(vis_stdout, "\n![FsmPathDebugEXFormulaMine] ---> nb prevCExArray : %d END\n", array_n(prevCExArray));
4685	// array_free(prevCExArray);
4686	return witnessArray;
4687	}
4688
4689
4690	/Function******************************************************************
4691
4692	Synopsis [Debug a path for EU type formula.]
4693
4694	SideEffects []
4695
4696	******************************************************************************/
4697	static array_t *
4698	FsmPathDebugEUFormulaMine(
4699	McOptions_t *options,
4700	Ctlp_Formula_t *ctlFormula,
4701	Fsm_Fsm_t *modelFsm,
4702	McPath_t *witnessPath,
4703	array_t *careSetArray,
4704	array_t **preCExArray)
4705	{
4706	(void) fprintf(vis_stdout, "![FsmPathDebugEUFormulaMine] Original CTL Formula : ");
4707	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
4708	(void) fprintf(vis_stdout, "\n![FsmPathDebugEUFormulaMine] MC CTL Formula : ");
4709	// (void) fprintf(vis_stdout, "\n![FsmPathDebugEUFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
4710	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
4711	fprintf(vis_stdout, "\n");
4712	array_t *cExArray;
4713	// array_t *prevCExArray;
4714	// prevCExArray = array_alloc(mdd_t *, 0); //Note: added just to respect arg requirements but not used
4715
4716	char *ctlFormulaText = Ctlp_FormulaConvertToString( ctlFormula );
4717	Ctlp_Formula_t *lFormula = Ctlp_FormulaReadLeftChild( ctlFormula );
4718	Ctlp_Formula_t *rFormula = Ctlp_FormulaReadRightChild( ctlFormula );
4719	char *lFormulaText = Ctlp_FormulaConvertToString( lFormula );
4720	char *rFormulaText = Ctlp_FormulaConvertToString( rFormula );
4721	array_t *PSVars = Fsm_FsmReadPresentStateVars( modelFsm );
4722	array_t *witnessArray = McPathReadStemArray( witnessPath );
4723	mdd_t firstState = array_fetch( mdd_t , witnessArray, 0 );
4724	mdd_t lastState = GET_NORMAL_PT(array_fetch_last( mdd_t , witnessArray ));
4725	char *firstStateName = Mc_MintermToString(firstState, PSVars,
4726	Fsm_FsmReadNetwork(modelFsm));
4727	McDbgLevel debugLevel = McOptionsReadDbgLevel( options );
4728	boolean printInputs = McOptionsReadPrintInputs( options );
4729
4730	if( McOptionsReadDbgLevel( options ) == McDbgLevelMin_c)
4731	fprintf(vis_stdout, "--State\n%spasses EU formula\n\n",
4732	firstStateName);
4733	else
4734	fprintf(vis_stdout, "--State\n%spasses formula %s\n\n", firstStateName,
4735	ctlFormulaText );
4736
4737	if ( array_n(witnessArray ) == 1 ) {
4738	(void) fprintf(vis_stderr, "-[FsmPathDebugEUFormulaMine] VERIFICATION REQUIRED! CEx n_state = %d \n", array_n(witnessArray));
4739	Mc_PrintPath(witnessArray, modelFsm, printInputs); // added
4740	}
4741
4742	(void) fprintf(vis_stderr, "-[FsmPathDebugEUFormulaMine] array_n(witnessArrayEU) = %d\n",array_n(witnessArray));
4743
4744	FREE(firstStateName);
4745	FREE(ctlFormulaText);
4746
4747	switch ( debugLevel ) {
4748	case McDbgLevelMin_c:
4749	case McDbgLevelMinVerbose_c:
4750	if ( array_n(witnessArray ) == 1 ) {
4751	if( debugLevel != McDbgLevelMin_c )
4752	fprintf(vis_stdout, "since %s is true at this state", rFormulaText);
4753	// cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, prevCExArray);
4754	cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, *preCExArray);
4755	}
4756	else {
4757	if( debugLevel != McDbgLevelMin_c )
4758	fprintf(vis_stdout, "--Path on which %s is true till %s is true\n",
4759	lFormulaText, rFormulaText);
4760	fprintf(vis_stdout, " --Counter example begins\n");
4761	Mc_PrintPath(witnessArray, modelFsm, printInputs);
4762	fprintf(vis_stdout, " --Counter example ends\n\n");
4763	// cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, prevCExArray);
4764	cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, *preCExArray);
4765	}
4766	break;
4767	case McDbgLevelMax_c:
4768	case McDbgLevelInteractive_c:
4769	if ( array_n(witnessArray ) == 1 ) {
4770	fprintf(vis_stdout, "since %s is true at this state", rFormulaText);
4771	// cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, prevCExArray);
4772	cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, *preCExArray);
4773	}
4774	else {
4775	int i;
4776	fprintf(vis_stdout, "--Path on which %s is true till %s is true\n",
4777	lFormulaText, rFormulaText);
4778	fprintf(vis_stdout, " --Counter example begins\n");
4779	Mc_PrintPath(witnessArray,modelFsm,printInputs);
4780	fprintf(vis_stdout, " --Counter example ends\n\n");
4781	for( i=0 ; i < ( array_n( witnessArray ) - 1 ); i++ ) {
4782	mdd_t aState = array_fetch( mdd_t , witnessArray, i );
4783
4784	if (debugLevel == McDbgLevelMax_c \|\|
4785	(debugLevel == McDbgLevelInteractive_c &&
4786	McQueryContinue(
4787	"Continue debugging EU formula? (1-yes,0-no)\n"))) {
4788	// cExArray = McFsmStateDebugFormulaMine(options, lFormula, aState, modelFsm, careSetArray, prevCExArray);
4789	cExArray = McFsmStateDebugFormulaMine(options, lFormula, aState, modelFsm, careSetArray, *preCExArray);
4790	}
4791	}
4792	// cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, prevCExArray);
4793	cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, *preCExArray);
4794	}
4795	break;
4796	default:
4797	fail("Should not be here - bad switch in debugging EU formula\n");
4798	}
4799
4800	FREE(lFormulaText);
4801	FREE(rFormulaText);
4802	// (void) fprintf(vis_stdout, "\n![FsmPathDebugEUFormulaMine] ---> nb prevCExArray : %d END\n", array_n(prevCExArray));
4803	// array_free(prevCExArray);
4804	return witnessArray;
4805	}
4806
4807	/Function******************************************************************
4808
4809	Synopsis [Debug a path for EG type formula.]
4810
4811	SideEffects []
4812
4813	******************************************************************************/
4814	static array_t *
4815	FsmPathDebugEGFormulaMine(
4816	McOptions_t *options,
4817	Ctlp_Formula_t *ctlFormula,
4818	Fsm_Fsm_t *modelFsm,
4819	McPath_t *witnessPath,
4820	array_t *careSetArray,
4821	array_t **preCExArray)
4822	{
4823	(void) fprintf(vis_stdout, "![FsmPathDebugEGFormulaMine] Original CTL Formula : ");
4824	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
4825	(void) fprintf(vis_stdout, "\n![FsmPathDebugEGFormulaMine] MC CTL Formula : ");
4826	// (void) fprintf(vis_stdout, "\n![FsmPathDebugEGFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
4827	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
4828	fprintf(vis_stdout, "\n");
4829	array_t *cExArray;
4830	// array_t *prevCExArray;
4831	// prevCExArray = array_alloc(mdd_t *, 0); //Note: added just to respect arg requirements but not used
4832
4833	mdd_t *firstState;
4834	char *firstStateName;
4835	array_t *witnessArray;
4836	array_t *witness;
4837	char *ctlFormulaText = Ctlp_FormulaConvertToString( ctlFormula );
4838	array_t *PSVars = Fsm_FsmReadPresentStateVars( modelFsm );
4839	array_t *stemArray = McPathReadStemArray( witnessPath );
4840	array_t *cycleArray = McPathReadCycleArray( witnessPath );
4841	Ctlp_Formula_t *lFormula = Ctlp_FormulaReadLeftChild( ctlFormula );
4842	char *lFormulaText = Ctlp_FormulaConvertToString( lFormula );
4843	McDbgLevel debugLevel = McOptionsReadDbgLevel( options );
4844	boolean printInputs = McOptionsReadPrintInputs( options );
4845
4846	witnessArray = McCreateMergedPath( stemArray, cycleArray );
4847	firstState = array_fetch( mdd_t *, witnessArray, 0 );
4848	firstStateName = Mc_MintermToString(firstState, PSVars,Fsm_FsmReadNetwork(modelFsm));
4849
4850
4851	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] array_n(stemArrayEG) = %d\n",array_n(stemArray));
4852	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] array_n(cycleArrayEG) = %d\n",array_n(cycleArray));
4853	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] array_n(witnessArrayEG) = %d\n",array_n(witnessArray));
4854
4855
4856
4857	if( McOptionsReadDbgLevel( options ) == McDbgLevelMin_c)
4858	fprintf(vis_stdout, "--State\n%spasses EG formula\n\n",
4859	firstStateName);
4860	else
4861	fprintf(vis_stdout, "--State\n%spasses formula %s\n\n", firstStateName,
4862	ctlFormulaText );
4863
4864	FREE(firstStateName);
4865	FREE(ctlFormulaText);
4866
4867	switch ( debugLevel ) {
4868	case McDbgLevelMin_c:
4869	case McDbgLevelMinVerbose_c: {
4870	McPath_t *normalPath = McPathNormalize( witnessPath );
4871	array_t *stem = McPathReadStemArray( normalPath );
4872	array_t *cycle = McPathReadCycleArray( normalPath );
4873
4874	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] array_n(stemNormEG) = %d\n",array_n(stem));
4875	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] array_n(cycleNormEG) = %d\n",array_n(cycle));
4876	witness = McCreateMergedPath( stem, cycle );
4877	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] array_n(witnessNormEG) = %d\n",array_n(witness));
4878	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
4879	Mc_PrintPath( witness, modelFsm, printInputs );
4880	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
4881
4882	if(debugLevel != McDbgLevelMin_c)
4883	fprintf(vis_stdout, "--Witness is a fair path where %s is always true\n",
4884	lFormulaText);
4885
4886	FREE( lFormulaText );
4887	fprintf(vis_stdout, " --Counter example begins\n");
4888	(void) fprintf( vis_stdout, "--Fair path stem:\n");
4889	Mc_PrintPath( stem, modelFsm, printInputs );
4890
4891	(void) fprintf( vis_stdout, "--Fair path cycle:\n");
4892	Mc_PrintPath( cycle, modelFsm, printInputs );
4893	fprintf(vis_stdout, "\n");
4894	fprintf(vis_stdout, " --Counter example ends\n\n");
4895	McPathFree( normalPath );
4896	break;
4897	}
4898	case McDbgLevelMax_c:
4899	case McDbgLevelInteractive_c: {
4900	McPath_t *normalPath = McPathNormalize( witnessPath );
4901	array_t *stem = McPathReadStemArray( normalPath );
4902	array_t *cycle = McPathReadCycleArray( normalPath );
4903	int i;
4904
4905	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] array_n(stemNormEG) = %d\n",array_n(stem));
4906	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] array_n(cycleNormEG) = %d\n",array_n(cycle));
4907	witness = McCreateMergedPath( stem, cycle );
4908	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] array_n(witnessNormEG) = %d\n",array_n(witness));
4909	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
4910	Mc_PrintPath( witness, modelFsm, printInputs );
4911	(void) fprintf(vis_stderr, "-[FsmPathDebugEGFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
4912
4913	fprintf(vis_stdout, "--Witness is a fair path where %s is always true\n",
4914	lFormulaText);
4915	fprintf(vis_stdout, " --Counter example begins\n");
4916	(void) fprintf( vis_stdout, "--Fair path stem:\n");
4917	Mc_PrintPath( stem, modelFsm, printInputs );
4918	(void) fprintf( vis_stdout, "--Fair path cycle:\n");
4919	Mc_PrintPath( cycle, modelFsm, printInputs );
4920	fprintf(vis_stdout, " --Counter example ends\n\n");
4921	for( i=0 ; i < ( array_n( witnessArray )-1 ); i++ ) {
4922	mdd_t aState = array_fetch( mdd_t , witnessArray, i );
4923
4924	if (debugLevel == McDbgLevelMax_c \|\|
4925	(debugLevel == McDbgLevelInteractive_c &&
4926	McQueryContinue(
4927	"--Continue debugging EG formula? (1-yes,0-no)\n"))) {
4928	// cExArray = McFsmStateDebugFormulaMine(options, lFormula, aState, modelFsm, careSetArray, prevCExArray);
4929	cExArray = McFsmStateDebugFormulaMine(options, lFormula, aState, modelFsm, careSetArray, *preCExArray);
4930	}
4931	}
4932	break;
4933	}
4934	default:
4935	fail("Bad switch in FsmPathDebugEGFormulaMine\n");
4936	witness = NIL(array_t);
4937	}
4938
4939	McNormalizeBddPointer(witnessArray);
4940	mdd_array_free( witnessArray );
4941	// (void) fprintf(vis_stdout, "\n![FsmPathDebugEGFormulaMine] ---> nb prevCExArray : %d END\n", array_n(prevCExArray));
4942	// array_free(prevCExArray);
4943	return witness;
4944	}
4945
4946	/Function******************************************************************
4947
4948	Synopsis [Debug a EF formula]
4949
4950	SideEffects []
4951
4952	******************************************************************************/
4953	static array_t *
4954	FsmPathDebugEFFormulaMine(
4955	McOptions_t *options,
4956	Ctlp_Formula_t *ctlFormula,
4957	Fsm_Fsm_t *modelFsm,
4958	McPath_t *witnessPath,
4959	array_t *careSetArray,
4960	array_t **preCExArray)
4961	{
4962	(void) fprintf(vis_stdout, "![FsmPathDebugEFFormulaMine] Original CTL Formula : ");
4963	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
4964	(void) fprintf(vis_stdout, "\n![FsmPathDebugEFFormulaMine] MC CTL Formula : ");
4965	// (void) fprintf(vis_stdout, "\n![FsmPathDebugEFFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
4966	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
4967	fprintf(vis_stdout, "\n");
4968	array_t *cExArray;
4969	// array_t *prevCExArray;
4970	// prevCExArray = array_alloc(mdd_t *, 0); //Note: added just to respect arg requirements but not used
4971
4972	Ctlp_Formula_t *originalFormula = Ctlp_FormulaReadOriginalFormula(ctlFormula);
4973	char *originalFormulaText = Ctlp_FormulaConvertToString( originalFormula );
4974
4975	array_t *PSVars = Fsm_FsmReadPresentStateVars( modelFsm );
4976	array_t *witnessArray = McPathReadStemArray( witnessPath );
4977
4978	mdd_t firstState = array_fetch( mdd_t , witnessArray, 0 );
4979	mdd_t lastState = array_fetch_last( mdd_t , witnessArray );
4980	char *firstStateName = Mc_MintermToString(firstState, PSVars,
4981	Fsm_FsmReadNetwork(modelFsm));
4982
4983	Ctlp_Formula_t *rFormula = Ctlp_FormulaReadRightChild( ctlFormula );
4984	Ctlp_Formula_t *rOriginalFormula = Ctlp_FormulaReadOriginalFormula(rFormula);
4985	char *rOriginalFormulaText = Ctlp_FormulaConvertToString( rOriginalFormula );
4986	char *rFormulaText = Ctlp_FormulaConvertToString( rFormula );
4987	McDbgLevel debugLevel = McOptionsReadDbgLevel( options );
4988	boolean printInputs = McOptionsReadPrintInputs( options );
4989
4990	if( McOptionsReadDbgLevel( options ) == McDbgLevelMin_c)
4991	fprintf(vis_stdout, "--State\n%spasses EF formula\n\n",
4992	firstStateName);
4993	else
4994	fprintf(vis_stdout, "--State\n%spasses formula %s\n\n", firstStateName,
4995	originalFormulaText );
4996
4997	// Added in case if there's no counter example => CTL fails at initial state
4998	// (void) fprintf(vis_stderr, "-[FsmPathDebugAGFormulaMine] 1) CEx n_state = %d \n", array_n(witnessArray));
4999	if ( array_n(witnessArray ) == 1 ) {
5000	(void) fprintf(vis_stderr, "-[FsmPathDebugEFFormulaMine] VERIFICATION REQUIRED! CEx n_state = %d \n", array_n(witnessArray));
5001	Mc_PrintPath(witnessArray, modelFsm, printInputs); // added
5002	}
5003	(void) fprintf(vis_stderr, "-[FsmPathDebugEFFormulaMine] array_n(witnessArrayEF) = %d\n",array_n(witnessArray));
5004
5005	FREE(firstStateName);
5006	FREE(originalFormulaText);
5007
5008	switch ( debugLevel ) {
5009	case McDbgLevelMin_c:
5010	case McDbgLevelMinVerbose_c:
5011	if ( array_n(witnessArray ) == 1 ) {
5012	if( debugLevel != McDbgLevelMin_c)
5013	fprintf(vis_stdout, "since %s is true at this state\n",
5014	rOriginalFormulaText);
5015
5016	FREE( rOriginalFormulaText );
5017	// cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, prevCExArray);
5018	cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, *preCExArray);
5019	}
5020	else {
5021	if( debugLevel != McDbgLevelMin_c)
5022	fprintf(vis_stdout,
5023	"--Witness is a path to a state where %s is finally true\n",
5024	rOriginalFormulaText);
5025	(void) fprintf( vis_stdout, "\n--Fair path stem:\n");
5026	FREE( rOriginalFormulaText );
5027	fprintf(vis_stdout, " --Counter example begins\n");
5028	Mc_PrintPath( witnessArray, modelFsm, printInputs );
5029	fprintf(vis_stdout, " --Counter example ends\n\n");
5030	}
5031	break;
5032	case McDbgLevelMax_c:
5033	case McDbgLevelInteractive_c:
5034	if ( array_n(witnessArray ) == 1 ) {
5035	// cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, prevCExArray);
5036	cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, *preCExArray);
5037	}
5038	else
5039	{
5040	fprintf(vis_stdout,
5041	"--Witness is a path to a state where %s is finally true\n",
5042	rOriginalFormulaText);
5043	fprintf(vis_stdout, " --Counter example begins\n");
5044	Mc_PrintPath( witnessArray, modelFsm, printInputs);
5045	fprintf(vis_stdout, " --Counter example ends\n\n");
5046	if (debugLevel == McDbgLevelMax_c \|\|
5047	(debugLevel == McDbgLevelInteractive_c &&
5048	McQueryContinue(
5049	"--Continue debugging EF formula? (1-yes,0-no)\n")))
5050	{
5051	// cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, prevCExArray);
5052	cExArray = McFsmStateDebugFormulaMine(options, rFormula, lastState, modelFsm, careSetArray, *preCExArray);
5053	}
5054	}
5055	break;
5056	default:
5057	fail("bad switch in debugging EF\n");
5058	}
5059	// (void) fprintf(vis_stdout, "\n![FsmPathDebugEFFormulaMine] ---> nb prevCExArray : %d END\n", array_n(prevCExArray));
5060	// array_free(prevCExArray);
5061	FREE(rFormulaText);
5062	return witnessArray;
5063	}
5064
5065
5066	/Function******************************************************************
5067
5068	Synopsis [Debug a AX formula]
5069
5070	SideEffects []
5071
5072	******************************************************************************/
5073	static array_t *
5074	FsmPathDebugAXFormulaMine(
5075	McOptions_t *options,
5076	Ctlp_Formula_t *ctlFormula,
5077	Fsm_Fsm_t *modelFsm,
5078	McPath_t *counterExamplePath,
5079	array_t *careSetArray,
5080	array_t **preCExArray)
5081	{
5082	(void) fprintf(vis_stdout, "![FsmPathDebugAXFormulaMine] Original CTL Formula : ");
5083	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
5084	(void) fprintf(vis_stdout, "\n![FsmPathDebugAXFormulaMine] MC CTL Formula : ");
5085	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAXFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
5086	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
5087	fprintf(vis_stdout, "\n");
5088	array_t *cExArray;
5089	// array_t *prevCExArray;
5090	// prevCExArray = array_alloc(mdd_t *, 0); //Note: added just to respect arg requirements but not used
5091
5092	Ctlp_Formula_t *originalFormula = Ctlp_FormulaReadOriginalFormula(ctlFormula);
5093	char *originalFormulaText = Ctlp_FormulaConvertToString( originalFormula );
5094	Ctlp_Formula_t *lFormula = Ctlp_FormulaReadLeftChild( ctlFormula );
5095	Ctlp_Formula_t *llFormula = Ctlp_FormulaReadLeftChild( lFormula );
5096	Ctlp_Formula_t *lllFormula = Ctlp_FormulaReadLeftChild( llFormula );
5097
5098	array_t *PSVars = Fsm_FsmReadPresentStateVars( modelFsm );
5099	array_t *witnessArray = McPathReadStemArray( counterExamplePath );
5100	mdd_t firstState = array_fetch( mdd_t , witnessArray, 0 );
5101	mdd_t lastState = array_fetch( mdd_t , witnessArray, 1 );
5102	char *firstStateName = Mc_MintermToString(firstState, PSVars,
5103	Fsm_FsmReadNetwork(modelFsm));
5104	boolean printInputs = McOptionsReadPrintInputs( options );
5105
5106	(void) fprintf(vis_stderr, "-[FsmPathDebugAXFormulaMine] array_n(witnessArrayAX) = %d\n",array_n(witnessArray));
5107
5108	if( McOptionsReadDbgLevel( options ) == McDbgLevelMin_c)
5109	fprintf(vis_stdout, "--State\n%sfails AX formula\n\n",
5110	firstStateName);
5111	else
5112	fprintf(vis_stdout, "--State\n%sfails %s\n\n", firstStateName,
5113	originalFormulaText );
5114
5115	FREE(firstStateName);
5116	FREE(originalFormulaText);
5117
5118	switch ( McOptionsReadDbgLevel( options ) ) {
5119	case McDbgLevelMin_c:
5120	case McDbgLevelMinVerbose_c:
5121	case McDbgLevelMax_c:
5122	fprintf(vis_stdout, " --Counter example begins\n");
5123	Mc_PrintPath( witnessArray, modelFsm, printInputs );
5124	fprintf(vis_stdout, " --Counter example ends\n\n");
5125	fprintf(vis_stdout, "\n");
5126	// cExArray = McFsmStateDebugFormulaMine(options, lllFormula, lastState, modelFsm, careSetArray, prevCExArray);
5127	cExArray = McFsmStateDebugFormulaMine(options, lllFormula, lastState, modelFsm, careSetArray, *preCExArray);
5128	break;
5129	case McDbgLevelInteractive_c:
5130	fprintf(vis_stdout, " --Counter example begins\n");
5131	Mc_PrintPath( witnessArray, modelFsm, printInputs );
5132	fprintf(vis_stdout, " --Counter example ends\n\n");
5133	if ( McQueryContinue("Continue debugging EX formula? (1-yes,0-no)\n") ) {
5134	// cExArray = McFsmStateDebugFormulaMine(options, lllFormula, lastState, modelFsm, careSetArray, prevCExArray);
5135	cExArray = McFsmStateDebugFormulaMine(options, lllFormula, lastState, modelFsm, careSetArray, *preCExArray);
5136	}
5137	break;
5138	default:
5139	fail("Bad switch in FsmPathDebugAXFormulaMine\n");
5140	}
5141
5142	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAXFormulaMine] ---> nb prevCExArray : %d END\n", array_n(prevCExArray));
5143	// array_free(prevCExArray);
5144	return witnessArray;
5145	}
5146
5147	/Function******************************************************************
5148
5149	Synopsis [Debug a AF formula]
5150
5151	SideEffects []
5152
5153	******************************************************************************/
5154	static array_t *
5155	FsmPathDebugAFFormulaMine(
5156	McOptions_t *options,
5157	Ctlp_Formula_t *ctlFormula,
5158	Fsm_Fsm_t *modelFsm,
5159	McPath_t *counterExamplePath,
5160	array_t *careSetArray,
5161	array_t **preCExArray)
5162	{
5163	(void) fprintf(vis_stdout, "![FsmPathDebugAFFormulaMine] Original CTL Formula : ");
5164	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
5165	(void) fprintf(vis_stdout, "\n![FsmPathDebugAFFormulaMine] MC CTL Formula : ");
5166	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAFFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
5167	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
5168	fprintf(vis_stdout, "\n");
5169	array_t *cExArray;
5170	// array_t *prevCExArray;
5171	// prevCExArray = array_alloc(mdd_t *, 0); //Note: added just to respect arg requirements but not used
5172
5173
5174	Ctlp_Formula_t *originalFormula = Ctlp_FormulaReadOriginalFormula(ctlFormula);
5175	char *originalFormulaText = Ctlp_FormulaConvertToString( originalFormula );
5176	Ctlp_Formula_t *lFormula = Ctlp_FormulaReadLeftChild( ctlFormula );
5177	Ctlp_Formula_t *llFormula = Ctlp_FormulaReadLeftChild( lFormula );
5178	Ctlp_Formula_t *lllFormula = Ctlp_FormulaReadLeftChild( llFormula );
5179	Ctlp_Formula_t *lllOriginalFormula = Ctlp_FormulaReadOriginalFormula(
5180	lllFormula);
5181	char *lllOriginalFormulaText = Ctlp_FormulaConvertToString(
5182	lllOriginalFormula);
5183
5184	mdd_t *firstState;
5185	array_t *witnessArray;
5186	array_t *witness;
5187	array_t *PSVars = Fsm_FsmReadPresentStateVars( modelFsm );
5188	array_t *stemArray = McPathReadStemArray( counterExamplePath );
5189	array_t *cycleArray = McPathReadCycleArray( counterExamplePath );
5190	char *firstStateName;
5191	McDbgLevel debugLevel = McOptionsReadDbgLevel( options );
5192	boolean printInputs = McOptionsReadPrintInputs( options );
5193
5194	witnessArray = McCreateMergedPath( stemArray, cycleArray );
5195	firstState = array_fetch( mdd_t *, witnessArray, 0 );
5196	firstStateName = Mc_MintermToString(firstState, PSVars,
5197	Fsm_FsmReadNetwork(modelFsm));
5198
5199	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] array_n(stemArrayEG) = %d\n",array_n(stemArray));
5200	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] array_n(cycleArrayEG) = %d\n",array_n(cycleArray));
5201	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] array_n(witnessArrayEG) = %d\n",array_n(witnessArray));
5202
5203
5204
5205	if( McOptionsReadDbgLevel( options ) == McDbgLevelMin_c)
5206	fprintf(vis_stdout, "--State\n%sfails AF formula\n\n",
5207	firstStateName);
5208	else
5209	fprintf(vis_stdout, "--State\n%sfails %s\n\n", firstStateName,
5210	originalFormulaText );
5211	FREE(firstStateName);
5212	FREE(originalFormulaText);
5213
5214	switch ( debugLevel ) {
5215	case McDbgLevelMin_c:
5216	case McDbgLevelMinVerbose_c: {
5217	McPath_t *normalPath = McPathNormalize( counterExamplePath );
5218	array_t *stem = McPathReadStemArray( normalPath );
5219	array_t *cycle = McPathReadCycleArray( normalPath );
5220
5221	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] array_n(stemNormEG) = %d\n",array_n(stem));
5222	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] array_n(cycleNormEG) = %d\n",array_n(cycle));
5223	witness = McCreateMergedPath( stem, cycle );
5224	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] array_n(witnessNormEG) = %d\n",array_n(witness));
5225	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
5226	Mc_PrintPath( witness, modelFsm, printInputs );
5227	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
5228
5229	if( debugLevel != McDbgLevelMin_c)
5230	fprintf(vis_stdout, "--A fair path on which %s is always false:\n",
5231	lllOriginalFormulaText );
5232
5233	fprintf(vis_stdout, " --Counter example begins\n");
5234	(void) fprintf( vis_stdout, "--Fair path stem:\n");
5235	Mc_PrintPath( stem, modelFsm, printInputs );
5236
5237	(void) fprintf( vis_stdout, "--Fair path cycle:\n");
5238	Mc_PrintPath( cycle, modelFsm, printInputs );
5239	fprintf(vis_stdout, "\n");
5240	fprintf(vis_stdout, " --Counter example ends\n\n");
5241	McPathFree( normalPath );
5242	break;
5243	}
5244	case McDbgLevelMax_c:
5245	case McDbgLevelInteractive_c: {
5246	int i;
5247	McPath_t *normalPath = McPathNormalize( counterExamplePath );
5248	array_t *stem = McPathReadStemArray( normalPath );
5249	array_t *cycle = McPathReadCycleArray( normalPath );
5250
5251	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] array_n(stemNormEG) = %d\n",array_n(stem));
5252	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] array_n(cycleNormEG) = %d\n",array_n(cycle));
5253	witness = McCreateMergedPath( stem, cycle );
5254	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] array_n(witnessNormEG) = %d\n",array_n(witness));
5255	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
5256	Mc_PrintPath( witness, modelFsm, printInputs );
5257	(void) fprintf(vis_stderr, "-[FsmPathDebugAFFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
5258
5259
5260	fprintf(vis_stdout, "--A fair path on which %s is always false:\n",
5261	lllOriginalFormulaText );
5262	fprintf(vis_stdout, " --Counter example begins\n");
5263	(void) fprintf( vis_stdout, "--Fair path stem:\n");
5264	Mc_PrintPath( stem, modelFsm, printInputs );
5265
5266	(void) fprintf( vis_stdout, "--Fair path cycle:\n");
5267	Mc_PrintPath( cycle, modelFsm, printInputs );
5268	fprintf(vis_stdout, "\n");
5269	fprintf(vis_stdout, " --Counter example ends\n\n");
5270	McPathFree( normalPath );
5271	for( i=0 ; i < ( array_n( witnessArray )-1 ); i++ ) {
5272	mdd_t aState = array_fetch( mdd_t , witnessArray, i );
5273
5274	if (debugLevel == McDbgLevelMax_c \|\|
5275	(debugLevel == McDbgLevelInteractive_c &&
5276	McQueryContinue(
5277	"--Continue debugging AF formula? (1-yes,0-no)\n"))) {
5278	// cExArray = McFsmStateDebugFormulaMine(options, lllFormula, aState, modelFsm, careSetArray, prevCExArray);
5279	cExArray = McFsmStateDebugFormulaMine(options, lllFormula, aState, modelFsm, careSetArray, *preCExArray);
5280	}
5281	}
5282
5283	break;
5284	}
5285	default: {
5286	fail("Bad case in switch for debugging AF formula\n");
5287	witness = NIL(array_t);
5288	}
5289	}
5290
5291	// array_free(prevCExArray);
5292	McNormalizeBddPointer(witnessArray);
5293	mdd_array_free( witnessArray );
5294	FREE(lllOriginalFormulaText);
5295	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAFFormulaMine] ---> nb prevCExArray : %d END\n", array_n(prevCExArray));
5296	return witness;
5297	}
5298
5299	/Function******************************************************************
5300
5301	Synopsis [Debug an AG formula.]
5302
5303	Description [Debugs an AG formula. What it really wants is a formula of the
5304	form !EF! phi, that was converted from the formula AG phi, with all the
5305	converted pointers set as required: the top ! points to the original AG
5306	formula, and top node of phi points to the original phi.]
5307
5308	SideEffects []
5309
5310	******************************************************************************/
5311	static array_t *
5312	FsmPathDebugAGFormulaMine(
5313	McOptions_t *options,
5314	Ctlp_Formula_t *ctlFormula,
5315	Fsm_Fsm_t *modelFsm,
5316	McPath_t *counterExamplePath,
5317	array_t *careSetArray,
5318	array_t **preCExArray)
5319	{
5320	(void) fprintf(vis_stdout, "![FsmPathDebugAGFormulaMine] Original CTL Formula : ");
5321	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
5322	(void) fprintf(vis_stdout, "\n![FsmPathDebugAGFormulaMine] MC CTL Formula : ");
5323	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAGFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
5324	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
5325	fprintf(vis_stdout, "\n");
5326	array_t *cExArray;
5327	// array_t *prevCExArray;
5328	// prevCExArray = array_alloc(mdd_t *, 0); //Note: added just to respect arg requirements but not used
5329
5330	Ctlp_Formula_t *originalFormula = Ctlp_FormulaReadOriginalFormula(ctlFormula);
5331	char *originalFormulaText = Ctlp_FormulaConvertToString( originalFormula );
5332	Ctlp_Formula_t *lFormula = Ctlp_FormulaReadLeftChild( ctlFormula );
5333	Ctlp_Formula_t *lrFormula = Ctlp_FormulaReadRightChild( lFormula );
5334	Ctlp_Formula_t *lrlFormula = Ctlp_FormulaReadLeftChild( lrFormula );
5335	Ctlp_Formula_t *lrlOriginalFormula = Ctlp_FormulaReadOriginalFormula(
5336	lrlFormula);
5337	char *lrlOriginalFormulaText = Ctlp_FormulaConvertToString(
5338	lrlOriginalFormula);
5339
5340	array_t *PSVars = Fsm_FsmReadPresentStateVars( modelFsm );
5341	array_t *witnessArray = McPathReadStemArray( counterExamplePath );
5342	mdd_t firstState = array_fetch( mdd_t , witnessArray, 0 );
5343	mdd_t lastState = GET_NORMAL_PT(array_fetch_last( mdd_t , witnessArray ));
5344	char *firstStateName = Mc_MintermToString(firstState, PSVars,
5345	Fsm_FsmReadNetwork(modelFsm));
5346
5347	// CEXStruct CEXPath [array_n( aPath )];
5348	// Mc_MintermToStringMine( mdd_t aMinterm, array_t aSupport, Ntk_Network_t aNetwork, CEXStruct CEXPath, int seqNumber, boolean inOutIndicator, BmcCnfClauses_t cnfClauses);
5349	(void) fprintf(vis_stderr, "-[FsmPathDebugAGFormulaMine] array_n(witnessArrayAG) = %d\n",array_n(witnessArray));
5350
5351	McDbgLevel debugLevel = McOptionsReadDbgLevel( options );
5352	boolean printInputs = McOptionsReadPrintInputs( options );
5353
5354	assert( Ctlp_FormulaReadType(ctlFormula) == Ctlp_NOT_c );
5355	assert( Ctlp_FormulaTestIsConverted(ctlFormula) );
5356	assert( Ctlp_FormulaReadType(originalFormula) == Ctlp_AG_c );
5357	assert( originalFormulaText != NIL(char) );
5358	assert( Ctlp_FormulaReadType(lFormula) == Ctlp_EU_c );
5359	assert( Ctlp_FormulaReadType(Ctlp_FormulaReadLeftChild(lFormula)) ==
5360	Ctlp_TRUE_c );
5361	assert( Ctlp_FormulaReadType(lrFormula) == Ctlp_NOT_c );
5362	assert( lrlOriginalFormula != NIL(Ctlp_Formula_t) );
5363
5364	if( McOptionsReadDbgLevel( options ) == McDbgLevelMin_c)
5365	fprintf(vis_stdout, "--State\n%sfails AG formula\n\n",
5366	firstStateName);
5367	else
5368	fprintf(vis_stdout, "--State\n%sfails %s\n\n", firstStateName,
5369	originalFormulaText );
5370
5371	// Added in case if there's no counter example => CTL fails at initial state
5372	// (void) fprintf(vis_stderr, "-[FsmPathDebugAGFormulaMine] 1) CEx n_state = %d \n", array_n(witnessArray));
5373	if ( array_n(witnessArray ) == 1 ) {
5374	// (void) fprintf(vis_stderr, "-[FsmPathDebugAGFormulaMine] 2) CEx n_state = %d \n", array_n(witnessArray));
5375	Mc_PrintPath(witnessArray, modelFsm, printInputs); // added
5376	}
5377	FREE(firstStateName);
5378	FREE(originalFormulaText);
5379
5380	switch ( debugLevel ) {
5381	case McDbgLevelMin_c:
5382	case McDbgLevelMinVerbose_c:{
5383	if ( array_n(witnessArray ) == 1 ) {
5384	if( debugLevel != McDbgLevelMin_c)
5385	fprintf(vis_stdout, "since %s is false at this state\n",
5386	lrlOriginalFormulaText );
5387	// cExArray = McFsmStateDebugFormulaMine(options, lrlFormula, lastState, modelFsm, careSetArray, prevCExArray);
5388	cExArray = McFsmStateDebugFormulaMine(options, lrlFormula, lastState, modelFsm, careSetArray, *preCExArray);
5389	}
5390	else {
5391	if( debugLevel != McDbgLevelMin_c)
5392	fprintf(vis_stdout,
5393	"--Counter example is a path to a state where %s is false\n",
5394	lrlOriginalFormulaText);
5395	fprintf(vis_stdout, " --Counter example begins\n");
5396	Mc_PrintPath(witnessArray, modelFsm, printInputs);
5397	fprintf(vis_stdout, " --Counter example ends\n\n");
5398	// cExArray = McFsmStateDebugFormulaMine(options, lrlFormula, lastState, modelFsm, careSetArray, prevCExArray);
5399	cExArray = McFsmStateDebugFormulaMine(options, lrlFormula, lastState, modelFsm, careSetArray, *preCExArray);
5400	}
5401	break;
5402	}
5403	case McDbgLevelMax_c:
5404	case McDbgLevelInteractive_c: {
5405	if ( array_n(witnessArray ) == 1 ) {
5406	if( debugLevel != McDbgLevelMin_c)
5407	fprintf(vis_stdout, "since %s is false at this state\n",
5408	lrlOriginalFormulaText );
5409	// cExArray = McFsmStateDebugFormulaMine(options, lrlFormula, lastState, modelFsm, careSetArray, prevCExArray);
5410	cExArray = McFsmStateDebugFormulaMine(options, lrlFormula, lastState, modelFsm, careSetArray, *preCExArray);
5411	}
5412	else {
5413	fprintf(vis_stdout,
5414	"--Counter example is a path to a state where %s is false\n",
5415	lrlOriginalFormulaText);
5416	fprintf(vis_stdout, " --Counter example begins\n");
5417	Mc_PrintPath( witnessArray, modelFsm, printInputs);
5418	fprintf(vis_stdout, " --Counter example ends\n\n");
5419	if (debugLevel == McDbgLevelMax_c \|\|
5420	(debugLevel == McDbgLevelInteractive_c &&
5421	McQueryContinue(
5422	"--Continue debugging AG formula? (1-yes,0-no)\n")))
5423	{
5424	// cExArray = McFsmStateDebugFormulaMine(options, lrlFormula, lastState, modelFsm, careSetArray, prevCExArray);
5425	cExArray = McFsmStateDebugFormulaMine(options, lrlFormula, lastState, modelFsm, careSetArray, *preCExArray);
5426	}
5427	}
5428	break;
5429	}
5430	default: {
5431	fail("bad switch in debugging AG\n");
5432	}
5433	}
5434	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAGFormulaMine] ---> nb prevCExArray : %d END\n", array_n(prevCExArray));
5435	// array_free(prevCExArray);
5436	FREE(lrlOriginalFormulaText);
5437	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAGFormulaMine] *** Mc_PrintPathMine STARTS ----------------------\n");
5438	// Mc_PrintPathMine(witnessArray, modelFsm, printInputs);
5439	// (void) fprintf(vis_stdout, "![FsmPathDebugAGFormulaMine] Mc_PrintPathMine ENDS *** -------------------------\n");
5440	return witnessArray;
5441	}
5442
5443	/Function******************************************************************
5444
5445	Synopsis [Debug a AU formula]
5446
5447	SideEffects []
5448
5449	******************************************************************************/
5450	static array_t *
5451	FsmPathDebugAUFormulaMine(
5452	McOptions_t *options,
5453	mdd_t *aState,
5454	Ctlp_Formula_t *ctlFormula,
5455	Fsm_Fsm_t *modelFsm,
5456	array_t *careSetArray,
5457	array_t **preCExArray)
5458	{
5459	(void) fprintf(vis_stdout, "![FsmPathDebugAUFormulaMine] Original CTL Formula : ");
5460	Ctlp_FormulaPrint(vis_stdout, Ctlp_FormulaReadOriginalFormula(ctlFormula));
5461	(void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] MC CTL Formula : ");
5462	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] 0 ---> nb preCExArray : %d \n", array_n(*preCExArray));
5463	Ctlp_FormulaPrint(vis_stdout, ctlFormula);
5464	fprintf(vis_stdout, "\n");
5465	array_t *cExArray;
5466	// array_t *prevCExArray;
5467	// prevCExArray = array_alloc(mdd_t *, 0); //Note: added just to respect arg requirements but not used
5468
5469	Ctlp_Formula_t *originalFormula = Ctlp_FormulaReadOriginalFormula(ctlFormula);
5470	char *originalFormulaText = Ctlp_FormulaConvertToString( originalFormula );
5471	Ctlp_Formula_t *lFormula = Ctlp_FormulaReadLeftChild( ctlFormula );
5472	Ctlp_Formula_t *lrFormula = Ctlp_FormulaReadRightChild( lFormula );
5473	Ctlp_Formula_t *lrlFormula = Ctlp_FormulaReadLeftChild( lrFormula );
5474	Ctlp_Formula_t *lrllFormula = Ctlp_FormulaReadLeftChild( lrlFormula );
5475	Ctlp_Formula_t *llFormula = Ctlp_FormulaReadLeftChild( lFormula );
5476	Ctlp_Formula_t *llrFormula = Ctlp_FormulaReadRightChild( llFormula );
5477	Ctlp_Formula_t *llrlFormula = Ctlp_FormulaReadLeftChild( llrFormula );
5478	Ctlp_Formula_t *llrllFormula = Ctlp_FormulaReadLeftChild( llrlFormula );
5479	Ctlp_Formula_t *fFormula = llrllFormula;
5480	Ctlp_Formula_t *gFormula = lrllFormula;
5481	Ctlp_Formula_t *fOriginalFormula = Ctlp_FormulaReadOriginalFormula(fFormula);
5482	Ctlp_Formula_t *gOriginalFormula = Ctlp_FormulaReadOriginalFormula(gFormula);
5483	char *fText = Ctlp_FormulaConvertToString( fOriginalFormula );
5484	char *gText = Ctlp_FormulaConvertToString( gOriginalFormula );
5485
5486	array_t *PSVars = Fsm_FsmReadPresentStateVars( modelFsm );
5487	char *firstStateName = Mc_MintermToString(aState, PSVars,
5488	Fsm_FsmReadNetwork(modelFsm));
5489	McDbgLevel debugLevel = McOptionsReadDbgLevel( options );
5490	boolean printInputs = McOptionsReadPrintInputs( options );
5491
5492	if( McOptionsReadDbgLevel( options ) == McDbgLevelMin_c)
5493	fprintf(vis_stdout, "--State\n%sfails AU formula\n\n",
5494	firstStateName);
5495	else
5496	fprintf(vis_stdout, "--State\n%sfails %s\n\n", firstStateName,
5497	originalFormulaText );
5498	FREE(firstStateName);
5499	FREE(originalFormulaText);
5500
5501	/* orginal formula is A(fUg) => converted is !((E[!g U (!f!g)]) + (EG!g)) /
5502
5503	if ( McStateSatisfiesFormula( llFormula, aState ) ) {
5504	/*
5505	* the case E[!g U (!f*!g)] is true
5506	*/
5507	McPath_t *counterExamplePath = DebugEUMine(llFormula, aState, modelFsm,
5508	careSetArray);
5509
5510	array_t *stemArray = McPathReadStemArray( counterExamplePath );
5511	array_t *witnessArray = stemArray;
5512	mdd_t firstState = array_fetch( mdd_t , witnessArray, 0 );
5513	mdd_t lastState = array_fetch_last( mdd_t , witnessArray );
5514	char *firstStateName = Mc_MintermToString(firstState, PSVars,
5515	Fsm_FsmReadNetwork(modelFsm));
5516
5517	// Added in case if there's no counter example => CTL fails at initial state
5518	// (void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] 1) CEx n_state = %d \n", array_n(witnessArray));
5519	if ( array_n(witnessArray ) == 1 ) {
5520	(void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] VERIFICATION REQUIRED! CEx n_state = %d \n", array_n(witnessArray));
5521	Mc_PrintPath(witnessArray, modelFsm, printInputs); // added
5522	}
5523	(void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] array_n(witnessArrayEU) = %d\n",array_n(witnessArray));
5524
5525	switch ( debugLevel ) {
5526	case McDbgLevelMinVerbose_c:
5527	fprintf(vis_stdout,
5528	"--Counter example is a fair path where %s is false until %s is also false\n",
5529	gText, fText);
5530	case McDbgLevelMin_c:
5531	fprintf(vis_stdout, " --Counter example begins\n");
5532	Mc_PrintPath(witnessArray, modelFsm, printInputs);
5533	fprintf(vis_stdout, " --Counter example ends\n\n");
5534	// cExArray = McFsmStateDebugFormulaMine(options, llrFormula, lastState, modelFsm, careSetArray, prevCExArray);
5535	cExArray = McFsmStateDebugFormulaMine(options, llrFormula, lastState, modelFsm, careSetArray, *preCExArray);
5536	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] 1 ---> nb preCExArray : %d \n", array_n(*preCExArray));
5537	break;
5538
5539	case McDbgLevelMax_c:
5540	case McDbgLevelInteractive_c: {
5541	if ( array_n(witnessArray ) == 1 ) {
5542	fprintf(vis_stdout,
5543	"--At state %s\nformula %s is false and\nformula %s is also false\n",
5544	firstStateName, fText, gText);
5545	if (debugLevel == McDbgLevelMax_c \|\|
5546	(debugLevel == McDbgLevelInteractive_c &&
5547	McQueryContinue(
5548	"Continue debugging AU formula? (1-yes,0-no)\n"))) {
5549	// cExArray = McFsmStateDebugFormulaMine(options, fFormula, aState, modelFsm, careSetArray, prevCExArray);
5550	// cExArray = McFsmStateDebugFormulaMine(options, gFormula, aState, modelFsm, careSetArray, prevCExArray);
5551	cExArray = McFsmStateDebugFormulaMine(options, fFormula, aState, modelFsm, careSetArray, *preCExArray);
5552	cExArray = McFsmStateDebugFormulaMine(options, gFormula, aState, modelFsm, careSetArray, *preCExArray);
5553	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] 2 ---> nb preCExArray : %d \n", array_n(*preCExArray));
5554	}
5555	}
5556	else {
5557	int i;
5558	fprintf(vis_stdout, " --Counter example begins\n");
5559	Mc_PrintPath(witnessArray,modelFsm,printInputs);
5560	fprintf(vis_stdout, " --Counter example ends\n\n");
5561	for( i=0 ; i < ( array_n( witnessArray ) - 1 ); i++ ) {
5562	mdd_t aState = array_fetch( mdd_t , witnessArray, i );
5563
5564	if (debugLevel == McDbgLevelMax_c \|\|
5565	(debugLevel == McDbgLevelInteractive_c &&
5566	McQueryContinue(
5567	"Continue debugging AU formula? (1-yes,0-no)\n"))) {
5568	// cExArray = McFsmStateDebugFormulaMine(options, gFormula, aState, modelFsm, careSetArray, prevCExArray);
5569	cExArray = McFsmStateDebugFormulaMine(options, llrFormula, lastState, modelFsm, careSetArray, *preCExArray);
5570	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] 3 ---> nb preCExArray : %d \n", array_n(*preCExArray));
5571	}
5572	}
5573
5574	if (debugLevel == McDbgLevelMax_c \|\|
5575	(debugLevel == McDbgLevelInteractive_c &&
5576	McQueryContinue(
5577	"Continue debugging AU formula? (1-yes,0-no)\n"))) {
5578	// cExArray = McFsmStateDebugFormulaMine(options, fFormula, lastState, modelFsm, careSetArray, prevCExArray);
5579	// cExArray = McFsmStateDebugFormulaMine(options, gFormula, lastState, modelFsm, careSetArray, prevCExArray);
5580	cExArray = McFsmStateDebugFormulaMine(options, fFormula, lastState, modelFsm, careSetArray, *preCExArray);
5581	cExArray = McFsmStateDebugFormulaMine(options, gFormula, lastState, modelFsm, careSetArray, *preCExArray);
5582	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] 4 ---> nb preCExArray : %d \n", array_n(*preCExArray));
5583	}
5584	}
5585	break;
5586	}
5587
5588	default: {
5589	fail("Unknown case in debugging AU\n");
5590	}
5591	}/* case */
5592	// McPathFree( counterExamplePath ); NOTE: INITIALLY FREED
5593
5594	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
5595
5596	// array_free(prevCExArray);
5597	FREE( fText );
5598	FREE( gText );
5599	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] *** Mc_PrintPathMine WA STARTS ------------------\n");
5600	// Mc_PrintPathMine(witnessArray, modelFsm, printInputs);
5601	// (void) fprintf(vis_stdout, "![FsmPathDebugAUFormulaMine] Mc_PrintPathMine WA ENDS *** -------------------\n");
5602
5603	*preCExArray = cExArray;
5604	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] LAST ---> nb cExArray : %d \n", array_n(cExArray));
5605	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] LAST ---> nb preCExArray : %d \n", array_n(*preCExArray));
5606	(void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] ---> nb witnessArray : %d END\n", array_n(witnessArray));
5607	return witnessArray;
5608	}
5609	else {
5610	/*
5611	* must be the case that EG!g
5612	*/
5613	McPath_t *counterExamplePath = DebugEGMine(lrFormula, aState, modelFsm,
5614	careSetArray,
5615	options);
5616
5617	assert( McStateSatisfiesFormula( lrFormula, aState ) );
5618
5619	array_t *stemArray = McPathReadStemArray( counterExamplePath );
5620	array_t *cycleArray = McPathReadCycleArray( counterExamplePath );
5621	array_t *witnessArray = McCreateMergedPath( stemArray, cycleArray );
5622	McPath_t *normalPath = McPathNormalize( counterExamplePath );
5623	array_t *stem = McPathReadStemArray( normalPath );
5624	array_t *cycle = McPathReadCycleArray( normalPath );
5625
5626	// (void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] array_n(stemArrayEG) = %d\n",array_n(stemArray));
5627	// (void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] array_n(cycleArrayEG) = %d\n",array_n(cycleArray));
5628	// (void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] array_n(witnessArrayEG) = %d\n",array_n(witnessArray));
5629	(void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] array_n(stemNormEG) = %d\n",array_n(stem));
5630	(void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] array_n(cycleNormEG) = %d\n",array_n(cycle));
5631	array_t *witness = McCreateMergedPath( stem, cycle );
5632	(void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] array_n(witnessNormEG) = %d\n",array_n(witness));
5633	// (void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
5634	// Mc_PrintPathMine( witness, modelFsm, printInputs );
5635	// (void) fprintf(vis_stderr, "-[FsmPathDebugAUFormulaMine] xxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxx\n");
5636
5637
5638
5639	if( debugLevel != McDbgLevelMin_c)
5640	fprintf(vis_stdout,
5641	"--Counter example is a fair path where %s is always false\n",
5642	gText);
5643
5644	switch ( debugLevel ) {
5645	case McDbgLevelMin_c:
5646	case McDbgLevelMinVerbose_c:{
5647	/* McPath_t *normalPath = McPathNormalize( counterExamplePath );
5648	array_t *stem = McPathReadStemArray( normalPath );
5649	array_t *cycle = McPathReadCycleArray( normalPath );
5650	*/
5651
5652	fprintf(vis_stdout, " --Counter example begins\n");
5653	(void) fprintf( vis_stdout, "--Fair path stem:\n");
5654	Mc_PrintPath( stem, modelFsm, printInputs );
5655
5656	(void) fprintf( vis_stdout, "--Fair path cycle:\n");
5657	Mc_PrintPath( cycle, modelFsm, printInputs );
5658	fprintf(vis_stdout, " --Counter example ends\n\n");
5659	McPathFree( normalPath );
5660
5661	break;
5662	}
5663
5664	case McDbgLevelMax_c:
5665	case McDbgLevelInteractive_c:
5666	{
5667	int i;
5668	/* array_t *stemArray = McPathReadStemArray( counterExamplePath );
5669	array_t *cycleArray = McPathReadCycleArray( counterExamplePath );
5670	array_t *witnessArray = McCreateMergedPath( stemArray, cycleArray );
5671	McPath_t *normalPath = McPathNormalize( counterExamplePath );
5672	array_t *stem = McPathReadStemArray( normalPath );
5673	array_t *cycle = McPathReadCycleArray( normalPath );
5674	*/
5675	fprintf(vis_stdout, " --Counter example begins\n");
5676	(void) fprintf( vis_stdout, "--Fair path stem:\n");
5677	Mc_PrintPath( stem, modelFsm, printInputs );
5678
5679	(void) fprintf( vis_stdout, "--Fair path cycle:\n");
5680	Mc_PrintPath( cycle, modelFsm, printInputs );
5681	fprintf(vis_stdout, " --Counter example ends\n\n");
5682	McPathFree( normalPath );
5683	for( i=0 ; i < ( array_n( witnessArray )-1 ); i++ ) {
5684	mdd_t aState = array_fetch( mdd_t , witnessArray, i );
5685
5686	if (debugLevel == McDbgLevelMax_c \|\|
5687	(debugLevel == McDbgLevelInteractive_c &&
5688	McQueryContinue(
5689	"--Continue debugging AU formula? (1-yes,0-no)\n"))) {
5690	// cExArray = McFsmStateDebugFormulaMine(options, lrllFormula, aState, modelFsm, careSetArray, prevCExArray);
5691	cExArray = McFsmStateDebugFormulaMine(options, lrllFormula, aState, modelFsm, careSetArray, *preCExArray);
5692	*preCExArray = cExArray;
5693	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] EG 1 ---> nb preCExArray : %d \n", array_n(*preCExArray));
5694	}
5695	}
5696	break;
5697	}
5698
5699	default: {
5700	fail("Bad switch in debugging AU formula\n");
5701	}
5702	}/* case */
5703
5704	// McPathFree( counterExamplePath ); NOTE: INITIALLY FREED
5705	// array_free(prevCExArray);
5706	FREE( fText );
5707	FREE( gText );
5708	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] ---> nb prevCExArray : %d \n", array_n(prevCExArray));
5709
5710	// *preCExArray = cExArray; // preCExArray = &cExArray;
5711
5712	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] LAST ---> nb cExArray : %d \n", array_n(cExArray));
5713	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] LAST ---> nb preCExArray : %d \n", array_n(*preCExArray));
5714	(void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] ---> nb witness : %d END\n", array_n(witness));
5715
5716	// (void) fprintf(vis_stdout, "\n![FsmPathDebugAUFormulaMine] *** Mc_PrintPathMine STARTS ------------------ \n");
5717	// Mc_PrintPathMine(witness, modelFsm, printInputs);
5718	// (void) fprintf(vis_stdout, "![FsmPathDebugAUFormulaMine] Mc_PrintPathMine ENDS *** --------------------- \n");
5719	return witness;
5720	}
5721
5722	}
5723
5724
5725
5726	/Function******************************************************************
5727
5728	Synopsis [Utility function - prints states on path, inputs for transitions]
5729
5730	SideEffects []
5731
5732	******************************************************************************/
5733	static int
5734	Mc_PrintPathMine(
5735	array_t *aPath,
5736	Fsm_Fsm_t *modelFsm,
5737	boolean printInput)
5738	{
5739	(void) fprintf(vis_stderr, "![Mc_PrintPathMine] \n");
5740	int check, forced, i;
5741	int numForced;
5742	mdd_t *inputSet=NIL(mdd_t);
5743	mdd_t *uInput = NIL(mdd_t);
5744	mdd_t *vInput = NIL(mdd_t);
5745
5746	array_t *psVars = Fsm_FsmReadPresentStateVars( modelFsm );
5747	array_t *inputVars = Fsm_FsmReadInputVars( modelFsm );
5748	mdd_manager *mddMgr = Fsm_FsmReadMddManager( modelFsm );
5749
5750	forced = 0;
5751	check = 1;
5752	numForced = 0;
5753
5754
5755	(void) fprintf(vis_stderr, " --- [Mc_PrintPathMine] NUMBER OF STEPS IN THE COUNTER EXAMPLE PATH = %d \n", array_n( aPath ));
5756
5757	CEXStruct CEXPath [array_n( aPath )];
5758	//CEXStruct *testCEX;
5759	//testCEX = (CEXStruct )malloc(sizeof(CEXStruct)array_n( aPath ));
5760
5761	// --- SAT Solver File Generation ---
5762	BmcOption_t *options = BmcOptionAlloc();
5763	int steps = (array_n( aPath ) - 1); // taille du contre exemple
5764	// SATSolverFileGen (&hmgr, CNF_FILE, steps, options);
5765	BmcCnfClauses_t *cnfClauses = NIL(BmcCnfClauses_t);
5766	cnfClauses = BmcCnfClausesAlloc();
5767	Ntk_Network_t * ntk = Ntk_HrcManagerReadCurrentNetwork(hmgrGlobalC);
5768	build_unroll_circuit(ntk,steps,options,cnfClauses);
5769	(void) fprintf(vis_stderr, "* CNF clauses for current network generated. * \n\n");
5770
5771	(void) fprintf(vis_stderr, "* Generating CNF clauses for Counter Example... * \n\n");
5772
5773	for( i = -1 ; i < (array_n( aPath )-1); i++ ) {
5774
5775	CEXPath[i+1].pathIndex = i+1;
5776	CEXPath[i+1].n_outputVar = array_n( psVars );
5777
5778	(void) fprintf(vis_stderr, " --- [Mc_PrintPathMine] CEX PATH INDEX: CEXPath[%d].pathIndex = %d \n", i+1, CEXPath[i+1].pathIndex);
5779	(void) fprintf(vis_stderr, " --- [Mc_PrintPathMine] NUMBER OF OUTPUTS: CEXPath[%d].n_outputVar = %d \n", i+1, CEXPath[i+1].n_outputVar);
5780
5781	//deviceInfo = (deviceStruct )malloc(sizeof(deviceStruct)diagInfo.n_failures);
5782	CEXPath[i+1].outputVar = (CEXVarStruct )malloc(sizeof(CEXVarStruct)CEXPath[i+1].n_outputVar);
5783	//deviceInfo[i].dData = (dataStruct )malloc(sizeof(dataStruct)(deviceInfo[i].nb_d_data));
5784
5785	mdd_t aState = ( i == -1 ) ? NIL(mdd_t) : array_fetch( mdd_t , aPath, i );
5786	mdd_t bState = array_fetch( mdd_t , aPath, (i+1) );
5787
5788	// (void) fprintf(vis_stderr, " --- [Mc_PrintPathMine] aState = %ld \n", aState);
5789	// (void) fprintf(vis_stderr, " --- [Mc_PrintPathMine] bState = %ld \n", bState);
5790
5791	Ntk_Network_t *modelNetwork = Fsm_FsmReadNetwork(modelFsm);
5792
5793	char *aStateString = aState ? Mc_MintermToString( aState, psVars, modelNetwork ) : NIL(char);
5794	char *bStateString = Mc_MintermToStringMine( bState, psVars, modelNetwork, CEXPath, (i+1), FALSE, cnfClauses);
5795	// (void) fprintf(vis_stderr, " --- [Mc_PrintPathMine] aState = %s \n", aStateString);
5796	// (void) fprintf(vis_stderr, " --- [Mc_PrintPathMine] bState = %s \n", bStateString);
5797
5798
5799	if((long)aState%2) {
5800	aState = (mdd_t *)((long)aState -1);
5801	forced++;
5802	}
5803	else forced = 0;
5804
5805	if((long)bState%2) {
5806	bState = (mdd_t *)((long)bState -1);
5807	}
5808
5809	if ( printInput == TRUE && i != -1) {
5810	inputSet = Mc_FsmComputeDrivingInputMinterms( modelFsm, aState, bState );
5811	vInput = Mc_ComputeACloseMinterm( inputSet, uInput, inputVars, mddMgr );
5812	}
5813	if(forced) {
5814	fprintf(vis_stdout, "---- Forced %d\n", forced);
5815	numForced ++;
5816	}
5817	McPrintTransitionMine( aState, bState, uInput, vInput, psVars, inputVars,
5818	printInput, modelFsm, CEXPath, (i+1), cnfClauses);
5819
5820
5821
5822	if ( uInput != NIL(mdd_t) ) {
5823	mdd_free(uInput);
5824	}
5825	uInput = vInput;
5826
5827	if ( inputSet != NIL(mdd_t) ) {
5828	mdd_free(inputSet);
5829	}
5830	}
5831
5832	if ( vInput != NIL(mdd_t) ) {
5833	mdd_free(uInput);
5834	}
5835
5836	if(Fsm_FsmReadFAFWFlag(modelFsm) > 0) {
5837	fprintf(vis_stdout,
5838	"# MC: the number of non-trivial forced segments %d\n",
5839	numForced);
5840	}
5841
5842	FILE *cnfFile = fopen(CNF_FILE_C1,"w");
5843	mAig_Manager_t * maigManager = Ntk_NetworkReadMAigManager(ntk);
5844	BmcWriteClausesMine(maigManager, cnfFile, cnfClauses, options);
5845	fclose(cnfFile);
5846
5847	(void) fprintf(vis_stderr, "* Generation of CNF clauses for Counter Example completed. * \n\n");
5848	// --- SAT Solver ---
5849	options->satInFile= CNF_FILE_C1;
5850	options->verbosityLevel=BmcVerbositySome_c;
5851
5852	SATSolver (steps, options);
5853	(void) fprintf(vis_stderr, "* SAT Solver completed. * \n");
5854
5855	return 1;
5856	}
5857
5858
5859	/Function******************************************************************
5860
5861	Synopsis [Print a transition to vis_stdout.]
5862
5863	Description [Print a transition to vis_stdout. The transition is supposed to be
5864	from aState to bState on input vInput. If uInput is not NIL, instead of
5865	printing vInput, we only print the places where it differs from uInput. If there
5866	is no difference anywhere, we print "-Unchanged-". Similarly, we print only the
5867	incremental difference from aState to bState; if there is none, we print "-Unchanged-".
5868	If aState is NIL we simply print bState and return.]
5869
5870	SideEffects []
5871
5872	******************************************************************************/
5873	static void
5874	McPrintTransitionMine(
5875	mdd_t *aState,
5876	mdd_t *bState,
5877	mdd_t *uInput,
5878	mdd_t *vInput,
5879	array_t *stateSupport,
5880	array_t *inputSupport,
5881	boolean printInputs,
5882	Fsm_Fsm_t *modelFsm,
5883	CEXStruct *CEXPath,
5884	int seqNumber,
5885	BmcCnfClauses_t *cnfClauses)
5886	{
5887	(void) fprintf(vis_stderr, "![McPrintTransitionMine] \n");
5888	Ntk_Network_t *modelNetwork = Fsm_FsmReadNetwork( modelFsm );
5889	char *aString = aState ? Mc_MintermToString( aState, stateSupport, modelNetwork ) : NIL(char);
5890	char *bString = Mc_MintermToString( bState, stateSupport, modelNetwork );
5891
5892	char *tmp1String = aString;
5893	char *tmp2String = bString;
5894	char *ptr1;
5895	char *ptr2;
5896	st_table *node2MvfAigTable;
5897
5898	node2MvfAigTable =
5899	(st_table *)Ntk_NetworkReadApplInfo(modelNetwork, MVFAIG_NETWORK_APPL_KEY);
5900
5901	if ( aState == NIL(mdd_t) ) {
5902	fprintf( vis_stdout, "--State %d:\n%s\n", seqNumber, bString );
5903	FREE(bString);
5904	return;
5905	}
5906
5907	fprintf(vis_stdout, "--Goes to state %d:\n", seqNumber );
5908
5909	{
5910	boolean unchanged=TRUE;
5911	while ( (tmp1String != NIL(char)) && ((ptr1 = strchr( tmp1String, '\n' ) ) != NIL(char) ) ) {
5912	ptr2 = strchr( tmp2String, '\n' );
5913	*ptr1 = 0;
5914	*ptr2 = 0;
5915	if ( (strcmp( tmp1String, tmp2String ) ) ) {
5916	fprintf( vis_stdout, "%s\n", tmp2String );
5917	unchanged = FALSE;
5918	}
5919	tmp1String = & (ptr1[1]);
5920	tmp2String = & (ptr2[1]);
5921	}
5922	if (unchanged == TRUE) {
5923	fprintf( vis_stdout, "<Unchanged>\n");
5924	}
5925	}
5926
5927	if ( array_n( inputSupport ) > 0 ) {
5928	CEXPath[seqNumber].n_inputVar = array_n( inputSupport );
5929	}
5930	else CEXPath[seqNumber].n_inputVar = 0;
5931
5932	(void) fprintf(vis_stderr, " ---- [McPrintTransitionMine] NUMBER OF INPUTS: CEXPath[%d].n_inputVar = %d \n", seqNumber, CEXPath[seqNumber].n_inputVar);
5933	CEXPath[seqNumber].inputVar = (CEXVarStruct )malloc(sizeof(CEXVarStruct)CEXPath[seqNumber].n_inputVar);
5934
5935	if ( printInputs == TRUE ) {
5936
5937	// (void) fprintf(vis_stderr, " ---- [McPrintTransitionMine] NUMBER OF INPUTS = %d \n", array_n( inputSupport ));
5938
5939
5940	/* first test that there are inputs */
5941	if ( array_n( inputSupport ) > 0 ) {
5942	fprintf(vis_stdout, "--On input:\n");
5943
5944	if ( uInput == NIL(mdd_t) ) {
5945	char *vString = Mc_MintermToStringMine( vInput, inputSupport, modelNetwork, CEXPath, seqNumber, TRUE, cnfClauses);
5946	fprintf(vis_stdout, "%s", vString );
5947	FREE(vString);
5948	}
5949	else {
5950	boolean unchanged=TRUE;
5951	char *uString = Mc_MintermToString( uInput, inputSupport, modelNetwork );
5952	char *vString = Mc_MintermToStringMine( vInput, inputSupport, modelNetwork, CEXPath, seqNumber, TRUE, cnfClauses);
5953	tmp1String = uString;
5954	tmp2String = vString;
5955	// (void) fprintf(vis_stderr, " ---- [McPrintTransitionMine] uString = %s \n", uString);
5956	// (void) fprintf(vis_stderr, " ---- [McPrintTransitionMine] vString = %s \n", vString);
5957
5958	while ( (tmp1String != NIL(char)) && ((ptr1 = strchr( tmp1String, '\n' ) ) != NIL(char) ) ) {
5959	ptr2 = strchr( tmp2String, '\n' );
5960	*ptr1 = 0;
5961	*ptr2 = 0;
5962	if ( (strcmp( tmp1String, tmp2String ) ) ) {
5963	fprintf( vis_stdout, "%s\n", tmp2String );
5964	unchanged = FALSE;
5965	}
5966	tmp1String = & (ptr1[1]);
5967	tmp2String = & (ptr2[1]);
5968	}
5969	if (unchanged == TRUE) {
5970	fprintf( vis_stdout, "<Unchanged>\n");
5971	}
5972	FREE(uString);
5973	FREE(vString);
5974	}
5975	}
5976	}
5977
5978	FREE( aString );
5979	FREE( bString );
5980	fprintf (vis_stdout, "\n");
5981	}
5982
5983
5984	/Function******************************************************************
5985
5986	Synopsis [Print a minterm.]
5987
5988	SideEffects []
5989
5990	******************************************************************************/
5991	static void
5992	Mc_MintermPrintMine(
5993	mdd_t *aMinterm,
5994	array_t *support,
5995	Ntk_Network_t *aNetwork)
5996	{
5997	char *tmpString = Mc_MintermToString( aMinterm, support, aNetwork ); // to be modified!!
5998	fprintf( vis_stdout, "%s", tmpString );
5999	FREE(tmpString);
6000	}
6001
6002
6003	/Function******************************************************************
6004
6005	Synopsis [Return a string for a minterm. Only used in 'Mc_PrintPathMine'
6006	function]
6007
6008	SideEffects []
6009
6010	******************************************************************************/
6011	static char *
6012	Mc_MintermToStringMine(
6013	mdd_t *aMinterm,
6014	array_t *aSupport,
6015	Ntk_Network_t *aNetwork,
6016	CEXStruct *CEXPath,
6017	int seqNumber,
6018	boolean inOutIndicator, // TRUE = input Variables, FALSE = output Variables (independent printInput option)
6019	BmcCnfClauses_t *cnfClauses)
6020	{
6021	(void) fprintf(vis_stderr, "![Mc_MintermToStringMine] \n");
6022	int i;
6023	char *tmp1String;
6024	char *tmp2String;
6025	char bodyString[McMaxStringLength_c];
6026	char *mintermString = NIL(char);
6027	mdd_manager *mddMgr = Ntk_NetworkReadMddManager( aNetwork );
6028	array_t *valueArray;
6029	array_t stringArray = array_alloc( char , 0 );
6030	char *symbolicValue;
6031
6032	aMinterm = GET_NORMAL_PT(aMinterm);
6033	valueArray = McConvertMintermToValueArrayMine(aMinterm, aSupport, mddMgr);
6034	// (void) fprintf(vis_stderr, " ---- [Mc_MintermToStringMine] CEX n outputs = %d \n", array_n( aSupport ));
6035	// (void) fprintf(vis_stderr, " ----- [Mc_MintermToStringMine] Number of variables = %d \n", array_n( aSupport ));
6036
6037	// CEXVarStruct testBB [array_n( aSupport)];
6038
6039	for ( i = 0 ; i < array_n( aSupport ); i++ ) {
6040
6041	int mddId = array_fetch( int, aSupport, i );
6042	int value = array_fetch( int, valueArray, i );
6043	Ntk_Node_t *node = Ntk_NetworkFindNodeByMddId( aNetwork, mddId );
6044	char *nodeName = Ntk_NodeReadName( node );
6045	Var_Variable_t *nodeVar = Ntk_NodeReadVariable( node );
6046
6047	// (void) fprintf(vis_stderr, "\n ----- [Mc_MintermToStringMine] VARIABLE %d: \n", i+1 );
6048	// (void) fprintf(vis_stderr, " ----- [Mc_MintermToStringMine] nodeName = %s \n", nodeName);
6049	// (void) fprintf(vis_stderr, " ----- [Mc_MintermToStringMine] mddId = %d \n", mddId);
6050	// (void) fprintf(vis_stderr, " ----- [Mc_MintermToStringMine] value = %d \n", value);
6051
6052	if ( Var_VariableTestIsSymbolic( nodeVar ) ) {
6053	symbolicValue = Var_VariableReadSymbolicValueFromIndex(nodeVar, value );
6054	// (void) fprintf(vis_stderr, " ----- [Mc_MintermToStringMine] symbolic value = %s \n", symbolicValue);
6055	sprintf( bodyString, "%s:%s", nodeName, symbolicValue );
6056	//testBB[i].symbolicValue = symbolicValue;
6057	// sprintf(testBB[i].symbolicValue, "%s", symbolicValue);
6058	}
6059	else {
6060	sprintf( bodyString, "%s:%d", nodeName, value );
6061	//testBB[i].symbolicValue = NIL(char);
6062	symbolicValue = "NIL";
6063	// sprintf(testBB[i].symbolicValue, "%s", "NIL");
6064	}
6065
6066
6067	if (inOutIndicator == TRUE) {
6068	CEXPath[seqNumber].inputVar[i].varIndex = i;
6069	CEXPath[seqNumber].inputVar[i].varId = mddId;
6070	CEXPath[seqNumber].inputVar[i].varValue = value;
6071	sprintf(CEXPath[seqNumber].inputVar[i].varName, "%s", nodeName);
6072	sprintf(CEXPath[seqNumber].inputVar[i].symbolicValue, "%s", symbolicValue);
6073	}
6074	else{
6075	CEXPath[seqNumber].outputVar[i].varIndex = i;
6076	CEXPath[seqNumber].outputVar[i].varId = mddId;
6077	CEXPath[seqNumber].outputVar[i].varValue = value;
6078	sprintf(CEXPath[seqNumber].outputVar[i].varName, "%s", nodeName);
6079	sprintf(CEXPath[seqNumber].outputVar[i].symbolicValue, "%s", symbolicValue);
6080	}
6081
6082	// testBB[i].varIndex = i;
6083	// testBB[i].varId = mddId;
6084	// testBB[i].varValue = value;
6085	// sprintf(testBB[i].varName, "%s", nodeName);
6086	// testBB[i].varName = nodeName;
6087
6088
6089
6090	tmp1String = util_strsav( bodyString );
6091	array_insert_last( char *, stringArray, tmp1String );
6092	}
6093	array_free(valueArray);
6094
6095	array_sort( stringArray, cmp);
6096
6097	for ( i = 0 ; i < array_n( stringArray ); i++ ) {
6098	tmp1String = array_fetch( char *, stringArray, i );
6099	if( i == 0 ) {
6100	mintermString = util_strcat3(tmp1String, "", "" );
6101	}
6102	else {
6103	tmp2String = util_strcat3(mintermString, "\n", tmp1String );
6104	FREE(mintermString);
6105	mintermString = tmp2String;
6106	}
6107	FREE(tmp1String);
6108	}
6109	array_free( stringArray );
6110
6111	tmp1String = util_strcat3(mintermString, "\n", "");
6112	FREE(mintermString);
6113	mintermString = tmp1String;
6114
6115	int j, k;
6116	boolean indexFound;
6117	int lookUpResult;
6118	int n_bitValue; // number of bit - 1 = highest bit number representing the value of the variable
6119	int cnfIndex= malloc(sizeof(int)SIZE_1);
6120	int newIndex;
6121	array_t * newClause;
6122	char *tempCNFString;
6123
6124	for ( i = 0 ; i < array_n( aSupport ); i++ ) {
6125
6126	j=0;
6127	indexFound = TRUE;
6128
6129	if (inOutIndicator == TRUE) {
6130	/* (void) fprintf(vis_stderr, "\n CEXPath[%d].inputVar[%d].varIndex = %d \n", seqNumber, i, CEXPath[seqNumber].inputVar[i].varIndex);
6131	(void) fprintf(vis_stderr, " CEXPath[%d].inputVar[%d].varId = %d \n", seqNumber, i, CEXPath[seqNumber].inputVar[i].varId);
6132	(void) fprintf(vis_stderr, "\n");
6133	(void) fprintf(vis_stderr, " CEXPath[%d].inputVar[%d].varValue = %d \n", seqNumber, i, CEXPath[seqNumber].inputVar[i].varValue);
6134	(void) fprintf(vis_stderr, " CEXPath[%d].inputVar[%d].varName = %s \n", seqNumber, i, CEXPath[seqNumber].inputVar[i].varName);
6135	(void) fprintf(vis_stderr, " CEXPath[%d].inputVar[%d].symbolicValue = %s \n", seqNumber, i, CEXPath[seqNumber].inputVar[i].symbolicValue);
6136	*/
6137
6138	// insertion of cnf clauses related to the input in Counter Example at each state
6139	do{
6140	tempCNFString = CNFVariableNameConstructor(CEXPath[seqNumber].inputVar[i].varName, j, seqNumber-1); // the sequence of input begins at -1 and ends at (last sequence-1)
6141	lookUpResult = st_lookup(cnfClauses->cnfIndexTable, tempCNFString, &cnfIndex[j]);
6142	// (void) fprintf(vis_stderr, "[SeqNumber: %d][i: %d][j: %d] tempCNFString = %s; lookUpResult = %d; cnfIndex = %d;\n", seqNumber, i, j, tempCNFString, lookUpResult, cnfIndex);
6143	if (lookUpResult == 0) {
6144	indexFound = FALSE;
6145	}
6146	else {
6147	indexFound = TRUE;
6148	(void) fprintf(vis_stderr, " [CNF Index Search] Variable bit name = %s => CNF Index = %d \n", tempCNFString, cnfIndex[j]);
6149	j++;
6150	}
6151	}while ((indexFound == TRUE)&&(j<SIZE_1));
6152
6153	if ((indexFound == FALSE)&&(j<SIZE_1)){
6154	n_bitValue = j-1;
6155	// (void) fprintf(vis_stderr, " [Counter] n_bitValue = %d ::: j = %d. \n", n_bitValue, j);
6156	if (n_bitValue > 0){
6157	// Value decomposition en binary. Then affectation of the value of each bit of the variable in CNF format for each index of the variable
6158
6159	int binaryValue = malloc (sizeof(int)(n_bitValue+1));
6160	binaryValue = DecBinConverter (CEXPath[seqNumber].inputVar[i].varValue, (n_bitValue+1), binaryValue);
6161
6162	// (void) fprintf(vis_stderr, "---- Decimal Value = %d ==> Binary Value = ", CEXPath[seqNumber].inputVar[i].varValue);
6163	// for (k=0; k < n_bitValue+1; k++){
6164	// (void) fprintf(vis_stderr, "%d ", binaryValue[n_bitValue-k]);
6165	// }
6166
6167	for (k=0; k<(n_bitValue+1); k++){
6168
6169	newClause = array_alloc(int,1);
6170	// if varValue = 1 => cnfIndex; if varValue = 0 => -cnfIndex
6171	// (void) fprintf(vis_stderr, "CNF Index = %d : Value = %d \n", cnfIndex[k], binaryValue[k]);
6172	// if (binaryValue[k] == 0) array_insert(int,newClause,0,-cnfIndex[k]);
6173	// else array_insert(int, newClause, 0, cnfIndex[k]);
6174
6175	// NOTE: MSB is on lowest bit encoding
6176	// (void) fprintf(vis_stderr, "CNF Index = %d : Value = %d \n", cnfIndex[k], binaryValue[n_bitValue-k]);
6177	if (binaryValue[n_bitValue-k] == 0) array_insert(int,newClause,0,-cnfIndex[k]);
6178	else array_insert(int, newClause, 0, cnfIndex[k]);
6179	BmcCnfInsertClause(cnfClauses, newClause);
6180	array_free(newClause);
6181	}
6182	free (binaryValue);
6183	// (void) fprintf(vis_stderr, "![WARNING] Variable is coded in more than one bit. This case is not yet treated. <n_bitValue = %d> \n", n_bitValue);
6184
6185	}
6186	else{
6187	if (n_bitValue == 0){
6188	newClause = array_alloc(int,1);
6189	// if varValue = 1 => cnfIndex; if varValue = 0 => -cnfIndex
6190	if (CEXPath[seqNumber].inputVar[i].varValue == 0) array_insert(int,newClause,0,-cnfIndex[0]);
6191	else array_insert(int, newClause, 0, cnfIndex[0]);
6192	BmcCnfInsertClause(cnfClauses, newClause);
6193	array_free(newClause);
6194	}
6195	else { // n_bitValue = -1 or <0
6196	(void) fprintf(vis_stderr, "![WARNING] Variable CNF index not found. Verification required. \n", CEXPath[seqNumber].outputVar[i].varName, seqNumber);
6197	}
6198	}
6199	}
6200	else {
6201	(void) fprintf(vis_stderr, "![WARNING] Too many CNF index found for %s at state %d! Verification required.. counter j exceeded security constraint (j < SIZE_1 = 100). \n" );
6202	}
6203
6204
6205	}
6206	else{
6207	/* (void) fprintf(vis_stderr, "\n CEXPath[%d].outputVar[%d].varIndex = %d \n", seqNumber, i, CEXPath[seqNumber].outputVar[i].varIndex);
6208	(void) fprintf(vis_stderr, " CEXPath[%d].outputVar[%d].varId = %d \n", seqNumber, i, CEXPath[seqNumber].outputVar[i].varId);
6209	(void) fprintf(vis_stderr, " CEXPath[%d].outputVar[%d].varValue = %d \n", seqNumber, i, CEXPath[seqNumber].outputVar[i].varValue);
6210	(void) fprintf(vis_stderr, " CEXPath[%d].outputVar[%d].varName = %s \n", seqNumber, i, CEXPath[seqNumber].outputVar[i].varName);
6211	(void) fprintf(vis_stderr, " CEXPath[%d].outputVar[%d].symbolicValue = %s \n", seqNumber, i, CEXPath[seqNumber].outputVar[i].symbolicValue);
6212	*/
6213
6214	//--- CNF: insertion of cnf clauses related to Counter Example output at each state
6215	// if (i>0){ // to exclude the states in CNF
6216
6217	do{
6218	tempCNFString = CNFVariableNameConstructor(CEXPath[seqNumber].outputVar[i].varName, j, seqNumber);
6219	//int findIndex(BmcCnfClauses_t* cnfClauses , char * nodeName)
6220	//propIndex = findIndex(cnfClauses, tempCNFString);
6221	lookUpResult = st_lookup(cnfClauses->cnfIndexTable, tempCNFString, &cnfIndex[j]);
6222	// (void) fprintf(vis_stderr, "[SeqNumber: %d][i: %d][j: %d] tempCNFString = %s; lookUpResult = %d; cnfIndex = %d;\n", seqNumber, i, j, tempCNFString, lookUpResult, cnfIndex);
6223	if (lookUpResult == 0) {
6224	indexFound = FALSE;
6225	}
6226	else {
6227	indexFound = TRUE;
6228	(void) fprintf(vis_stderr, " [CNF Index Search] Variable bit name = %s => CNF Index = %d \n", tempCNFString, cnfIndex[j]);
6229	j++;
6230	}
6231	}while ((indexFound == TRUE)&&(j<SIZE_1));
6232
6233	if ((indexFound == FALSE)&&(j<SIZE_1)){
6234	n_bitValue = j-1;
6235	// (void) fprintf(vis_stderr, " [Counter] n_bitValue = %d ::: j = %d. \n", n_bitValue, j);
6236	if (n_bitValue > 0){
6237	// Value decomposition en binary. Then affectation of the value of each bit of the variable in CNF format for each index of the variable
6238
6239	int binaryValue = malloc (sizeof(int)(n_bitValue+1));
6240	binaryValue = DecBinConverter (CEXPath[seqNumber].outputVar[i].varValue, (n_bitValue+1), binaryValue);
6241
6242	// (void) fprintf(vis_stderr, "####### Decimal Value = %d ==> Binary Value = ", CEXPath[seqNumber].outputVar[i].varValue);
6243	// for (k=0; k<(n_bitValue+1); k++){
6244	// (void) fprintf(vis_stderr, "%d ", binaryValue[n_bitValue-k]);
6245	// }
6246	// (void) fprintf(vis_stderr, "\n");
6247
6248	for (k=0; k<(n_bitValue+1); k++){
6249	// for (k=(n_bitValue); k>=0; k--){
6250	newClause = array_alloc(int,1);
6251	// if varValue = 1 => cnfIndex; if varValue = 0 => -cnfIndex
6252	// (void) fprintf(vis_stderr, "CNF Index = %d : Value = %d \n", cnfIndex[k], binaryValue[k]);
6253	// if (binaryValue[k] == 0) array_insert(int,newClause,0,-cnfIndex[k]);
6254	// else array_insert(int, newClause, 0, cnfIndex[k]);
6255	// NOTE: MSB is on lowest bit encoding
6256	// (void) fprintf(vis_stderr, "CNF Index = %d : Value = %d \n", cnfIndex[k], binaryValue[n_bitValue-k]);
6257	if (binaryValue[n_bitValue-k] == 0) array_insert(int,newClause,0,-cnfIndex[k]);
6258	else array_insert(int, newClause, 0, cnfIndex[k]);
6259	BmcCnfInsertClause(cnfClauses, newClause);
6260	array_free(newClause);
6261
6262	}
6263	free (binaryValue);
6264	// (void) fprintf(vis_stderr, "![WARNING] Variable is coded in more than one bit. This case is not yet treated. <n_bitValue = %d> \n", n_bitValue);
6265
6266	}
6267	else{
6268	if (n_bitValue == 0){
6269	newClause = array_alloc(int,1);
6270	// if varValue = 1 => cnfIndex; if varValue = 0 => -cnfIndex
6271	if (CEXPath[seqNumber].outputVar[i].varValue == 0) array_insert(int,newClause,0,-cnfIndex[0]);
6272	else array_insert(int, newClause, 0, cnfIndex[0]);
6273	BmcCnfInsertClause(cnfClauses, newClause);
6274	array_free(newClause);
6275	}
6276	else { // n_bitValue = -1 or <0
6277	(void) fprintf(vis_stderr, "![WARNING] Variable CNF index not found. Verification required. \n", CEXPath[seqNumber].outputVar[i].varName, seqNumber);
6278	}
6279	}
6280	}
6281	else {
6282	(void) fprintf(vis_stderr, "![WARNING] Too many CNF index found for %s at state %d! Verification required.. counter j exceeded security constraint (j < SIZE_1 = 100). \n" );
6283	}
6284	// }
6285	}
6286	}
6287
6288	return mintermString;
6289	}
6290
6291
6292
6293	/Function******************************************************************
6294
6295	Synopsis [Convert a minterm to an array of integers]
6296
6297	SideEffects []
6298
6299	******************************************************************************/
6300	static array_t *
6301	McConvertMintermToValueArrayMine(
6302	mdd_t *aMinterm,
6303	array_t *aSupport,
6304	mdd_manager *mddMgr)
6305	{
6306	(void) fprintf(vis_stderr, "![McConvertMintermToValueArrayMine] \n");
6307	array_t *resultValueArray;
6308
6309	/* this will be performed only in v0s-g executables */
6310	assert( MintermCheckWellFormed( aMinterm, aSupport, mddMgr ));
6311
6312	resultValueArray = array_alloc( int, 0 );
6313	{
6314	int i;
6315	for( i = 0 ; i < array_n( aSupport ); i++ ) {
6316	int aSupportVar = array_fetch( int, aSupport, i );
6317	int j;
6318	for( j = 0 ; TRUE ; j++) {
6319
6320	mdd_t faceMdd, tmpMdd;
6321	array_t *tmpArray = array_alloc( int, 0 );
6322
6323	array_insert_last( int, tmpArray, j );
6324	faceMdd = mdd_literal( mddMgr, aSupportVar, tmpArray );
6325	array_free( tmpArray );
6326
6327	tmpMdd = mdd_and( faceMdd, aMinterm, 1, 1 );
6328	mdd_free( faceMdd );
6329	if ( !mdd_is_tautology( tmpMdd, 0 ) ) {
6330	mdd_free( tmpMdd );
6331	array_insert_last( int, resultValueArray, j );
6332	break;
6333	}
6334	mdd_free( tmpMdd );
6335	}
6336	}
6337	}
6338
6339	return resultValueArray;
6340	}
6341
6342	/Function******************************************************************
6343
6344	Synopsis [Print message saying given state passes formula.]
6345
6346	SideEffects []
6347
6348	******************************************************************************/
6349	static void
6350	McStatePassesFormulaMine(
6351	mdd_t *aState,
6352	Ctlp_Formula_t *formula,
6353	McDbgLevel debugLevel,
6354	Fsm_Fsm_t *modelFsm)
6355	{
6356	McStatePassesOrFailsFormulaMine( aState, formula, 1, debugLevel, modelFsm );
6357	}
6358
6359
6360	/Function******************************************************************
6361
6362	Synopsis [Print message saying given state fails formula.]
6363
6364	SideEffects []
6365
6366	******************************************************************************/
6367	static void
6368	McStateFailsFormulaMine(
6369	mdd_t *aState,
6370	Ctlp_Formula_t *formula,
6371	McDbgLevel debugLevel,
6372	Fsm_Fsm_t *modelFsm)
6373	{
6374	McStatePassesOrFailsFormulaMine( aState, formula, 0, debugLevel, modelFsm );
6375	}
6376
6377
6378	/Function******************************************************************
6379
6380	Synopsis [Utility function - prints state passes or fails formula]
6381
6382	SideEffects []
6383
6384	******************************************************************************/
6385	static void
6386	McStatePassesOrFailsFormulaMine (
6387	mdd_t *aState,
6388	Ctlp_Formula_t *formula,
6389	int pass,
6390	McDbgLevel debugLevel,
6391	Fsm_Fsm_t *modelFsm)
6392	{
6393
6394	(void) fprintf(vis_stderr, "![McStatePassesOrFailsFormulaMine] \n");
6395	array_t *PSVars = Fsm_FsmReadPresentStateVars( modelFsm );
6396	char *formulaText = Ctlp_FormulaConvertToString( formula );
6397	Ntk_Network_t *modelNetwork = Fsm_FsmReadNetwork( modelFsm );
6398
6399	/* Nodes created in converting formulae like AU may not have text
6400	* attached to them. */
6401	if (formulaText == NIL(char))
6402	return;
6403
6404	fprintf( vis_stdout, "--State\n");
6405	Mc_MintermPrintMine( aState, PSVars, modelNetwork );
6406	if ( pass )
6407	fprintf( vis_stdout, "passes ");
6408	else
6409	fprintf( vis_stdout, "fails ");
6410
6411	if( debugLevel > McDbgLevelMin_c)
6412	fprintf(vis_stdout, "%s.\n\n", formulaText);
6413	else
6414	fprintf(vis_stdout, "\n\n");
6415
6416	FREE(formulaText);
6417	}
6418
6419
6420	/Function******************************************************************
6421
6422	Synopsis [Compare two strings in the from of char **]
6423
6424	SideEffects []
6425
6426	******************************************************************************/
6427	static int
6428	cmp(
6429	const void * s1,
6430	const void * s2)
6431	{
6432	return(strcmp((char )s1, (char **)s2));
6433	}
6434
6435
6436
6437	/Function******************************************************************
6438
6439	Synopsis [Test that given mdd is a minterm.]
6440
6441	SideEffects []
6442
6443	******************************************************************************/
6444	static boolean
6445	MintermCheckWellFormed(
6446	mdd_t *aMinterm,
6447	array_t *aSupport,
6448	mdd_manager *mddMgr)
6449	{
6450
6451	/* first check its support */
6452	if (!SetCheckSupport(aMinterm, aSupport, mddMgr)) {
6453	return FALSE;
6454	}
6455
6456	/* now check its a minterm */
6457	{
6458	float cardinality = mdd_count_onset( mddMgr, aMinterm, aSupport );
6459	if ( cardinality != 1 ) {
6460	fprintf( vis_stderr, "-- onset is not one\n");
6461	return FALSE;
6462	}
6463	}
6464	return TRUE;
6465	}
6466
6467
6468	/Function******************************************************************
6469
6470	Synopsis [Test that given mdd is a minterm.]
6471
6472	SideEffects []
6473
6474	******************************************************************************/
6475	static boolean
6476	SetCheckSupport(
6477	mdd_t *aMinterm,
6478	array_t *aSupport,
6479	mdd_manager *mddMgr)
6480	{
6481	if (!mdd_check_support(mddMgr, aMinterm, aSupport)) {
6482	fprintf(vis_stderr,
6483	"** mc error: support of minterm is not contained in claimed support\n");
6484	return FALSE;
6485	}
6486	return TRUE;
6487	}
6488
6489
6490	/Function******************************************************************
6491
6492	Synopsis [CNF Clause generator - variable name contruction]
6493
6494	SideEffects []
6495
6496	******************************************************************************/
6497	static char CNFVariableNameConstructor(char varName, int varEncoding, int pathIndex)
6498	{
6499	char tempStr [LENGTH_1];
6500	char *cnfVarName;
6501	int nChar;
6502
6503	nChar = sprintf(tempStr, "%s_%d_%d", varName, varEncoding, pathIndex); // value sign has to be added later
6504	cnfVarName = tempStr;
6505	//(void) fprintf(vis_stderr, "[TEST] CNF Variable Name : %s [number of characters = %d] >> return : %s\n", tempStr, nChar, cnfVarName);
6506
6507	return cnfVarName;
6508	}
6509
6510	/Function******************************************************************
6511
6512	Synopsis [
6513	c = a <-> b = (a=0)(b=0) + (a=1)(b=1) ....
6514	For a given term (a=i)*(b=i), if either is Zero, don't generate
6515	clauses for this term.
6516	if both are One, don't generate clauses
6517	for c.
6518	]
6519
6520	SideEffects []
6521
6522	******************************************************************************/
6523	static void
6524	BmcGenerateClausesFromStateTostateMine(
6525	bAig_Manager_t *manager,
6526	bAigEdge_t *fromAigArray,
6527	bAigEdge_t *toAigArray,
6528	int mvfSize,
6529	int fromState,
6530	int toState,
6531	BmcCnfClauses_t *cnfClauses,
6532	int outIndex)
6533	{
6534	array_t clause, tmpclause;
6535	int toIndex, fromIndex, cnfIndex;
6536	int i;
6537
6538	/* used to turn off the warning messages: might be left uninitialized.
6539	We are sure that these two variables will not be used uninitialized.
6540	*/
6541	toIndex =0;
6542	fromIndex = 0;
6543
6544	for(i=0; i< mvfSize; i++){
6545	if ((fromAigArray[i] == bAig_One) && (toAigArray[i] == bAig_One)){
6546	return; /* the clause is always true */
6547	}
6548	}
6549	clause = array_alloc(int, 0);
6550	for(i=0; i< mvfSize; i++){
6551	if ((fromAigArray[i] != bAig_Zero) && (toAigArray[i] != bAig_Zero)){
6552	if (toAigArray[i] != bAig_One){
6553	/* to State */
6554
6555	toIndex = BmcGenerateCnfFormulaForAigFunction(manager,toAigArray[i],
6556	toState,cnfClauses);
6557	}
6558	if (fromAigArray[i] != bAig_One){
6559	/* from State */
6560	fromIndex = BmcGenerateCnfFormulaForAigFunction(manager,
6561	fromAigArray[i],
6562	fromState,
6563	cnfClauses);
6564	}
6565	/*
6566	Create new var for the output of this node. We don't create variable for this node, we only
6567	use its index number.
6568	*/
6569	cnfIndex = cnfClauses->cnfGlobalIndex++; /* index of the output of the OR of T(from, to) */
6570
6571	assert(abs(cnfIndex) <= cnfClauses->cnfGlobalIndex);
6572	assert(abs(fromIndex) <= cnfClauses->cnfGlobalIndex);
6573	assert(abs(toIndex) <= cnfClauses->cnfGlobalIndex);
6574
6575	if (toAigArray[i] == bAig_One){
6576	tmpclause = array_alloc(int, 2);
6577	array_insert(int, tmpclause, 0, -fromIndex);
6578	array_insert(int, tmpclause, 1, cnfIndex);
6579	BmcCnfInsertClause(cnfClauses, tmpclause);
6580	array_free(tmpclause);
6581
6582	tmpclause = array_alloc(int, 2);
6583	array_insert(int, tmpclause, 0, fromIndex);
6584	array_insert(int, tmpclause, 1, -cnfIndex);
6585	BmcCnfInsertClause(cnfClauses, tmpclause);
6586	array_free(tmpclause);
6587
6588	} else if (fromAigArray[i] == bAig_One){
6589	tmpclause = array_alloc(int, 2);
6590	array_insert(int, tmpclause, 0, -toIndex);
6591	array_insert(int, tmpclause, 1, cnfIndex);
6592	BmcCnfInsertClause(cnfClauses, tmpclause);
6593	array_free(tmpclause);
6594
6595	tmpclause = array_alloc(int, 2);
6596	array_insert(int, tmpclause, 0, toIndex);
6597	array_insert(int, tmpclause, 1, -cnfIndex);
6598	BmcCnfInsertClause(cnfClauses, tmpclause);
6599	array_free(tmpclause);
6600
6601	} else {
6602	tmpclause = array_alloc(int, 3);
6603	array_insert(int, tmpclause, 0, -toIndex);
6604	array_insert(int, tmpclause, 1, -fromIndex);
6605	array_insert(int, tmpclause, 2, cnfIndex);
6606	BmcCnfInsertClause(cnfClauses, tmpclause);
6607	array_free(tmpclause);
6608
6609	tmpclause = array_alloc(int, 2);
6610	array_insert(int, tmpclause, 0, toIndex);
6611	array_insert(int, tmpclause, 1, -cnfIndex);
6612	BmcCnfInsertClause(cnfClauses, tmpclause);
6613	array_free(tmpclause);
6614
6615	tmpclause = array_alloc(int, 2);
6616	array_insert(int, tmpclause, 0, fromIndex);
6617	array_insert(int, tmpclause, 1, -cnfIndex);
6618	BmcCnfInsertClause(cnfClauses, tmpclause);
6619	array_free(tmpclause);
6620	}
6621	array_insert_last(int, clause, cnfIndex);
6622	} /* if */
6623	// (void) fprintf(vis_stderr, "[CNF] (%d) > To : %d; From : %d; cnfIndex : %d \n", i, toIndex, fromIndex, cnfIndex);
6624	} /* for i loop */
6625	if (outIndex != 0 ){
6626	array_insert_last(int, clause, -outIndex);
6627	}
6628	BmcCnfInsertClause(cnfClauses, clause);
6629	array_free(clause);
6630
6631	return;
6632	}
6633
6634
6635	/Function******************************************************************
6636
6637	Synopsis [Generate CNF formula for a path from state 'from' to state 'to']
6638
6639	Description [Unfold the transition relation 'k' states (k = to-from +1), and
6640	generate clauses for each state.
6641
6642	For a multi-valued latch of 4 vlaues. Two binary variables are used
6643	to rpresent X, x1 and x0. For this latch, there exist three multi-valued
6644	functions.
6645	One for the binary reoresentation of the variable. For example the
6646	second entry of the mvf = 1, iff ~x1 and x0.
6647	The second mfv is for the data input of the latch. If the And/Inv graph
6648	attached to an entry of this mvf equal to 1, X equal to the binary
6649	representation corresponding to this entry. For example, if the And/
6650	INV graph attached to the first entry =1, then X = ~x1 & ~x0.
6651	To generate the CNF to the transition relation, first generate CNF to
6652	next state varaible using mvf of the latch. Then, generate CNF for
6653	latch data input using current state variavles. Finaly, generate CNF
6654	for the AND of these two MVF. This for every entry of the MVF. Then
6655	OR the results.
6656	The third MVF is for the initial value of the latch. It is treat the
6657	same as the latch data input except if the initial value is constant.
6658
6659	The initialState value may be either BMC_INITIAL_STATES to generate the clause for the intial states.
6660	BMC_NO_INITIAL_STATES otherwise.
6661	]
6662
6663	SideEffects []
6664
6665	SeeAlso []
6666
6667	******************************************************************************/
6668	static void
6669	BmcCnfGenerateClausesForPathMine(
6670	Ntk_Network_t *network,
6671	int from,
6672	int to,
6673	int initialState,
6674	BmcCnfClauses_t *cnfClauses,
6675	st_table *nodeToMvfAigTable,
6676	st_table *CoiTable)
6677	{
6678	mAig_Manager_t *manager = Ntk_NetworkReadMAigManager(network);
6679	st_generator *stGen;
6680
6681	Ntk_Node_t latch, latchData, *latchInit;
6682	MvfAig_Function_t initMvfAig, dataMvfAig, *latchMvfAig;
6683	bAigEdge_t initBAig, latchBAig, *dataBAig;
6684
6685	int i, k, mvfSize;
6686
6687	st_foreach_item(CoiTable, stGen, &latch, NULL) {
6688
6689
6690	latchInit = Ntk_LatchReadInitialInput(latch);
6691	latchData = Ntk_LatchReadDataInput(latch);
6692
6693	/* Get the multi-valued function for each node*/
6694	initMvfAig = Bmc_ReadMvfAig(latchInit, nodeToMvfAigTable);
6695	if (initMvfAig == NIL(MvfAig_Function_t)){
6696	(void) fprintf(vis_stderr, "No multi-valued function for this node %s \n", Ntk_NodeReadName(latchInit));
6697	return;
6698	}
6699	dataMvfAig = Bmc_ReadMvfAig(latchData, nodeToMvfAigTable);
6700	if (dataMvfAig == NIL(MvfAig_Function_t)){
6701	(void) fprintf(vis_stderr, "No multi-valued function for this node %s \n", Ntk_NodeReadName(latchData));
6702	return;
6703	}
6704	latchMvfAig = Bmc_ReadMvfAig(latch, nodeToMvfAigTable);
6705	if (latchMvfAig == NIL(MvfAig_Function_t)){
6706	latchMvfAig = Bmc_NodeBuildMVF(network, latch);
6707	array_free(latchMvfAig);
6708	latchMvfAig = Bmc_ReadMvfAig(latch, nodeToMvfAigTable);
6709	}
6710
6711	mvfSize = array_n(initMvfAig);
6712	initBAig = ALLOC(bAigEdge_t, mvfSize);
6713	dataBAig = ALLOC(bAigEdge_t, mvfSize);
6714	latchBAig = ALLOC(bAigEdge_t, mvfSize);
6715
6716	for(i=0; i< mvfSize; i++){
6717	dataBAig[i] = bAig_GetCanonical(manager, MvfAig_FunctionReadComponent(dataMvfAig, i));
6718	latchBAig[i] = bAig_GetCanonical(manager, MvfAig_FunctionReadComponent(latchMvfAig, i));
6719	initBAig[i] = bAig_GetCanonical(manager, MvfAig_FunctionReadComponent(initMvfAig, i));
6720	}
6721	/*
6722	if (from == 0){
6723	*/
6724	if (initialState == BMC_INITIAL_STATES){
6725	/* Generate the CNF for the initial state of the latch */
6726	BmcGenerateClausesFromStateTostateMine(manager, initBAig, latchBAig, mvfSize, -1, 0, cnfClauses, 0);
6727	}
6728	/* Generate the CNF for the transition functions */
6729	for (k=from; k < to; k++){
6730	BmcGenerateClausesFromStateTostateMine(manager, dataBAig, latchBAig, mvfSize, k, k+1, cnfClauses, 0);
6731	} /* for k state loop */
6732
6733	FREE(initBAig);
6734	FREE(dataBAig);
6735	FREE(latchBAig);
6736	}/* For each latch loop*/
6737
6738	return;
6739	}
6740
6741
6742
6743	/Function******************************************************************
6744
6745	Synopsis [Write the set of clauses in diamacs format to the output file.]
6746
6747	SideEffects []
6748
6749	******************************************************************************/
6750	static void
6751	BmcWriteClausesMine(
6752	mAig_Manager_t *maigManager,
6753	FILE *cnfFile,
6754	BmcCnfClauses_t *cnfClauses,
6755	BmcOption_t *options)
6756	{
6757	st_generator *stGen;
6758	char *name;
6759	int cnfIndex, i, k;
6760
6761	if (options->verbosityLevel == BmcVerbosityMax_c) {
6762	fprintf(vis_stderr,
6763	"\n--- [CNF] Number of Variables = %d Number of Clauses = %d\n",
6764	cnfClauses->cnfGlobalIndex-1, cnfClauses->noOfClauses);
6765	}
6766	st_foreach_item_int(cnfClauses->cnfIndexTable, stGen, &name, &cnfIndex) {
6767	fprintf(cnfFile, "c %s %d\n",name, cnfIndex);
6768	}
6769	(void) fprintf(cnfFile, "p cnf %d %d\n", cnfClauses->cnfGlobalIndex-1,
6770	cnfClauses->noOfClauses);
6771	if (cnfClauses->clauseArray != NIL(array_t)) {
6772	for (i = 0; i < cnfClauses->nextIndex; i++) {
6773	k = array_fetch(int, cnfClauses->clauseArray, i);
6774	(void) fprintf(cnfFile, "%d%c", k, (k == 0) ? '\n' : ' ');
6775	}
6776	}
6777	return;
6778	}
6779
6780
6781	/Function******************************************************************
6782
6783	Synopsis [Decimal value to binary converter - Done by Me]
6784
6785	SideEffects []
6786
6787	******************************************************************************/
6788
6789	static int DecBinConverter (int decValue, int size, int binValue){
6790
6791	int i;
6792	// int tempVal;
6793	// int binValue = malloc (sizeof(int)size);
6794
6795	// tempVal = decValue;
6796	for (i=0; i<size; i++){
6797	// (void) fprintf(vis_stderr, " ***** tempVal = %d \n", tempVal);
6798	binValue[i] = decValue & 1;
6799	decValue = decValue >> 1;
6800	}
6801
6802	return binValue;
6803	}
6804
6805
6806	/Function******************************************************************
6807
6808	Synopsis []
6809
6810	Description [- Done by Cecile Braunstein]
6811
6812	SideEffects []
6813
6814	SeeAlso []
6815
6816	******************************************************************************/
6817	static void printSATAssig( array_t* result)
6818	{
6819	int k;
6820	printf("RESULT : \n");
6821	for(k=0; k< array_n(result); k++){
6822	printf("%d\n",array_fetch(int, result, k));
6823	}
6824	}
6825
6826	/Function******************************************************************
6827
6828	Synopsis []
6829
6830	Description [- Done by Cecile Braunstein]
6831
6832	SideEffects []
6833
6834	SeeAlso []
6835
6836	******************************************************************************/
6837	static int findIndex(BmcCnfClauses_t* cnfClauses , char * nodeName)
6838	{
6839	int index;
6840
6841	st_lookup(cnfClauses->cnfIndexTable,nodeName,&index);
6842	return index;
6843
6844	}
6845
6846
6847	/Function******************************************************************
6848
6849	Synopsis []
6850
6851	Description [- Done by Cecile Braunstein]
6852
6853	SideEffects []
6854
6855	SeeAlso []
6856
6857	******************************************************************************/
6858	static st_table * generateAllLatches(Ntk_Network_t * ntk)
6859	{
6860	st_table *CoiTable = st_init_table(st_ptrcmp, st_ptrhash);
6861	lsGen gen ;
6862	Ntk_Node_t *node;
6863
6864	Ntk_NetworkForEachNode(ntk,gen, node){
6865	if (Ntk_NodeTestIsLatch(node)){
6866	st_insert(CoiTable, (char ) node, (char ) 0);
6867	}
6868	}
6869	return CoiTable;
6870	}
6871
6872
6873	/Function******************************************************************
6874
6875	Synopsis []
6876
6877	Description [- Done by Cecile Braunstein]
6878
6879	SideEffects []
6880
6881	SeeAlso []
6882
6883	******************************************************************************/
6884	static void build_unroll_circuit(Ntk_Network_t * ntk, int bound, BmcOption_t * options,BmcCnfClauses_t* cnfClauses)
6885	{
6886	(void) fprintf(vis_stderr, "\n* Generating CNF clauses for current network. * \n");
6887
6888	st_table *CoiTable = generateAllLatches(ntk);
6889	lsGen gen ;
6890	Ntk_Node_t *node;
6891
6892
6893
6894	Ntk_NetworkForEachNode(ntk,gen, node){
6895	if (Ntk_NodeTestIsLatch(node)){
6896	st_insert(CoiTable, (char ) node, (char ) 0);
6897	}
6898	}
6899
6900	options->verbosityLevel = BmcVerbosityMax_c;
6901	options->satSolver = CirCUs;
6902	options->timeOutPeriod = 0;
6903	options->printInputs = TRUE;
6904	options->minK = bound;
6905	options->maxK = bound;
6906	options->step = bound;
6907	options->dbgLevel = 1;
6908
6909	//nodeToMvfAigTable Maps each node to its Multi-function And/Inv graph
6910	st_table* nodeToMvfAigTable = (st_table *) Ntk_NetworkReadApplInfo(ntk, MVFAIG_NETWORK_APPL_KEY);
6911	assert(nodeToMvfAigTable != NIL(st_table));
6912
6913	// Create clauses database
6914	int initState = BMC_INITIAL_STATES;
6915	BmcCnfGenerateClausesForPathMine(ntk, 0, bound, initState, cnfClauses, nodeToMvfAigTable, CoiTable);
6916
6917	}
6918
6919
6920	/Function******************************************************************
6921
6922	Synopsis [SAT Solver CNF File generator - Done by Cecile Braunstein]
6923
6924	Description [ OBSOLETE!!! ]
6925
6926	SideEffects []
6927
6928	******************************************************************************/
6929
6930	static int SATSolverFileGen (Hrc_Manager_t ** hmgr, char fileName, int steps, BmcOption_t options)
6931	{
6932
6933	(void) fprintf(vis_stderr, "\n* Generating CNF File for SAT Solver. * \n");
6934
6935	// BmcOption_t *options = BmcOptionAlloc();
6936	BmcCnfClauses_t *cnfClauses = NIL(BmcCnfClauses_t);
6937	cnfClauses = BmcCnfClausesAlloc();
6938	Ntk_Network_t * ntk = Ntk_HrcManagerReadCurrentNetwork(*hmgr);
6939	build_unroll_circuit(ntk,steps,options,cnfClauses);
6940
6941	int propIndex;
6942	int newIndex;
6943	array_t * newClause;
6944	char *tempCNFString;
6945
6946	tempCNFString = CNFVariableNameConstructor("o2", 0, 0);
6947	propIndex = findIndex(cnfClauses, tempCNFString);
6948	newClause = array_alloc(int,1);
6949	array_insert(int,newClause,0,-propIndex);
6950	BmcCnfInsertClause(cnfClauses, newClause);
6951	array_free(newClause);
6952
6953	tempCNFString = CNFVariableNameConstructor("o2", 0, 1);
6954	propIndex = findIndex(cnfClauses, tempCNFString);
6955	newClause = array_alloc(int,1);
6956	array_insert(int,newClause,0,-propIndex);
6957	BmcCnfInsertClause(cnfClauses, newClause);
6958	array_free(newClause);
6959
6960	tempCNFString = CNFVariableNameConstructor("o2", 0, 2);
6961	propIndex = findIndex(cnfClauses, tempCNFString);
6962	newClause = array_alloc(int,1);
6963	array_insert(int,newClause,0, -propIndex);
6964	BmcCnfInsertClause(cnfClauses, newClause);
6965	array_free(newClause);
6966
6967	tempCNFString = CNFVariableNameConstructor("o2", 0, 3);
6968	propIndex = findIndex(cnfClauses, tempCNFString);
6969	newClause = array_alloc(int,1);
6970	array_insert(int,newClause,0, propIndex);
6971	BmcCnfInsertClause(cnfClauses, newClause);
6972	array_free(newClause);
6973
6974
6975	FILE *cnfFile = fopen(fileName,"w");
6976	mAig_Manager_t * maigManager = Ntk_NetworkReadMAigManager(ntk);
6977	BmcWriteClausesMine(maigManager, cnfFile, cnfClauses, options);
6978	fclose(cnfFile);
6979
6980	return 0;
6981	}
6982
6983
6984	/Function******************************************************************
6985
6986	Synopsis [- Done by Cecile Braunstein]
6987
6988	Description []
6989
6990	SideEffects []
6991
6992	SeeAlso []
6993
6994	******************************************************************************/
6995
6996	static array_t * checkSATCircus( satManager_t cm,BmcOption_t options, boolean unsatcore, satArray_t *clauseIndexInCore)
6997	{
6998
6999	satOption_t *satOption;
7000	array_t *result = NIL(array_t);
7001	int maxSize;
7002
7003	satOption = sat_InitOption();
7004	satOption->verbose = options->verbosityLevel;
7005	//satOption->unsatCoreFileName = "Ucore.txt";
7006	satOption->clauseDeletionHeuristic = 0;
7007	satOption->coreGeneration = unsatcore;
7008	satOption->minimizeConflictClause = 1;
7009
7010	cm->comment = ALLOC(char, 2);
7011	cm->comment[0] = ' ';
7012	cm->comment[1] = '\0';
7013	cm->stdOut = stdout;
7014	cm->stdErr = stderr;
7015
7016	cm->option = satOption;
7017	cm->each = sat_InitStatistics();
7018
7019	cm->unitLits = sat_ArrayAlloc(16);
7020	cm->pureLits = sat_ArrayAlloc(16);
7021
7022	maxSize = 10000 << (bAigNodeSize-4);
7023	cm->nodesArray = ALLOC(bAigEdge_t, maxSize);
7024	cm->maxNodesArraySize = maxSize;
7025	cm->nodesArraySize = bAigNodeSize;
7026
7027	sat_AllocLiteralsDB(cm);
7028
7029	sat_ReadCNF(cm, options->satInFile);
7030	sat_Main(cm);
7031	if(cm->status == SAT_UNSAT) {
7032	if (options->verbosityLevel != BmcVerbosityNone_c){
7033	(void) fprintf(vis_stderr, "# UNSAT\n");
7034	}
7035	if(unsatcore)
7036	{
7037	clauseIndexInCore = cm->clauseIndexInCore;
7038	}
7039	fflush(cm->stdOut);
7040
7041	}else if(cm->status == SAT_SAT) {
7042	if (options->verbosityLevel != BmcVerbosityNone_c){
7043	(void) fprintf(vis_stderr, "# SAT\n");
7044	}
7045	fflush(cm->stdOut);
7046	result = array_alloc(int, 0);
7047	{
7048	int i, size, value;
7049
7050	size = cm->initNumVariables * bAigNodeSize;
7051	for(i=bAigNodeSize; i<=size; i+=bAigNodeSize) {
7052	value = SATvalue(i);
7053	if(value == 1) {
7054	array_insert_last(int, result, SATnodeID(i));
7055	}
7056	else if(value == 0) {
7057	array_insert_last(int, result, -(SATnodeID(i)));
7058	}
7059	}
7060	}
7061	}
7062	return result;
7063	}
7064
7065
7066	/Function******************************************************************
7067
7068	Synopsis [SAT Solver - Done by Cecile Braunstein]
7069
7070	SideEffects []
7071
7072	******************************************************************************/
7073
7074	static int SATSolver (int steps, BmcOption_t *options)
7075	{
7076
7077	(void) fprintf(vis_stderr, "* SAT Solver begins. * \n");
7078
7079	// Read another design and build new clauses
7080	satManager_t *cm;
7081	cm = sat_InitManager(0);
7082	array_t * result = NIL(array_t);
7083	satArray_t * coreArray= sat_ArrayAlloc(1024);
7084	result = checkSATCircus(cm,options,steps,coreArray);
7085
7086	return 0;
7087	}
7088
7089
7090
7091

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source: cegar_dev/cegar/main.c @ 31

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