if(pc==0x100c9d4 && instr==0xe1b0f00e){					   chy_debug();					   printf("*********************************************\n");					   printf("******SKYEYE N %llx :p %x,i %x\n  SKYEYE******\n",state->NumInstrs,pc,instr);					   printf("*********************************************\n");					   }					 */					if (skyeye_config.log.logon >= 1)						fprintf (skyeye_logfd,							 "N %llx :p %x,i %x,",							 state->NumInstrs, pc,							 instr);					if (skyeye_config.log.logon >= 2)						SKYEYE_OUTREGS (skyeye_logfd);					if (skyeye_config.log.logon >= 3)						SKYEYE_OUTMOREREGS							(skyeye_logfd);					fprintf (skyeye_logfd, "\n");					if (skyeye_config.log.length > 0) {						myinstrnum++;						if (myinstrnum >=						    skyeye_config.log.						    length) {							myinstrnum = 0;							fflush (skyeye_logfd);							fseek (skyeye_logfd,							       0L, SEEK_SET);						}					}				}				//SKYEYE_OUTREGS(skyeye_logfd);				//SKYEYE_OUTMOREREGS(skyeye_logfd);			}		}#if 0				/* Enable this for a helpful bit of debugging when tracing is needed.  */		fprintf (stderr, "pc: %x, instr: %x\n", pc & ~1, instr);		if (instr == 0)			abort ();#endif#if 0				/* Enable this code to help track down stack alignment bugs.  */		{			static ARMword old_sp = -1;			if (old_sp != state->Reg[13]) {				old_sp = state->Reg[13];				fprintf (stderr,					 "pc: %08x: SP set to %08x%s\n",					 pc & ~1, old_sp,					 (old_sp % 8) ? " [UNALIGNED!]" : "");			}		}#endif		/* Any exceptions ?  */		if (state->NresetSig == LOW) {			ARMul_Abort (state, ARMul_ResetV);			/*added energy_prof statement by ksh in 2004-11-26 */			//chy 2005-07-28 for standalone			//ARMul_do_energy(state,instr,pc);			break;		}		else if (!state->NfiqSig && !FFLAG) {			ARMul_Abort (state, ARMul_FIQV);			/*added energy_prof statement by ksh in 2004-11-26 */			//chy 2005-07-28 for standalone			//ARMul_do_energy(state,instr,pc);			break;		}		else if (!state->NirqSig && !IFLAG) {			ARMul_Abort (state, ARMul_IRQV);			/*added energy_prof statement by ksh in 2004-11-26 */			//chy 2005-07-28 for standalone			//ARMul_do_energy(state,instr,pc);			break;		}//teawater add for arm2x86 2005.04.26-------------------------------------------		if (state->tea_pc) {			int i;			if (state->tea_reg_fd) {				fprintf (state->tea_reg_fd, "\n");				for (i = 0; i < 15; i++) {					fprintf (state->tea_reg_fd, "%x,",						 state->Reg[i]);				}				fprintf (state->tea_reg_fd, "%x,", pc);				state->Cpsr = ARMul_GetCPSR (state);				fprintf (state->tea_reg_fd, "%x\n",					 state->Cpsr);			}			else {				printf ("\n");				for (i = 0; i < 15; i++) {					printf ("%x,", state->Reg[i]);				}				printf ("%x,", pc);				state->Cpsr = ARMul_GetCPSR (state);				printf ("%x\n", state->Cpsr);			}		}//AJ2D--------------------------------------------------------------------------		if (state->CallDebug > 0) {			instr = ARMul_Debug (state, pc, instr);			if (state->Emulate < ONCE) {				state->NextInstr = RESUME;				break;			}			if (state->Debug) {				fprintf (stderr,					 "sim: At %08lx Instr %08lx Mode %02lx\n",					 pc, instr, state->Mode);				(void) fgetc (stdin);			}		}		else if (state->Emulate < ONCE) {			state->NextInstr = RESUME;			break;		}		io_do_cycle (state);		state->NumInstrs++;#ifdef MODET		/* Provide Thumb instruction decoding. If the processor is in Thumb		   mode, then we can simply decode the Thumb instruction, and map it		   to the corresponding ARM instruction (by directly loading the		   instr variable, and letting the normal ARM simulator		   execute). There are some caveats to ensure that the correct		   pipelined PC value is used when executing Thumb code, and also for		   dealing with the BL instruction.  */		if (TFLAG) {			ARMword new;			/* Check if in Thumb mode.  */			switch (ARMul_ThumbDecode (state, pc, instr, &new)) {			case t_undefined:				/* This is a Thumb instruction.  */				ARMul_UndefInstr (state, instr);				goto donext;			case t_branch:				/* Already processed.  */				goto donext;			case t_decoded:				/* ARM instruction available.  */				instr = new;				/* So continue instruction decoding.  */				break;			default:				break;			}		}#endif		/* Check the condition codes.  */		if ((temp = TOPBITS (28)) == AL)			/* Vile deed in the need for speed.  */			goto mainswitch;		/* Check the condition code.  */		switch ((int) TOPBITS (28)) {		case AL:			temp = TRUE;			break;		case NV:			if (state->is_v5) {				if (BITS (25, 27) == 5) {	/* BLX(1) */					ARMword dest;					state->Reg[14] = pc + 4;					/* Force entry into Thumb mode.  */					dest = pc + 8 + 1;					if (BIT (23))						dest += (NEGBRANCH +							 (BIT (24) << 1));					else						dest += POSBRANCH +							(BIT (24) << 1);					WriteR15Branch (state, dest);					goto donext;				}				else if ((instr & 0xFC70F000) == 0xF450F000)					/* The PLD instruction.  Ignored.  */					goto donext;				else if (((instr & 0xfe500f00) == 0xfc100100)					 || ((instr & 0xfe500f00) ==					     0xfc000100))					/* wldrw and wstrw are unconditional.  */					goto mainswitch;				else					/* UNDEFINED in v5, UNPREDICTABLE in v3, v4, non executed in v1, v2.  */					ARMul_UndefInstr (state, instr);			}			temp = FALSE;			break;		case EQ:			temp = ZFLAG;			break;		case NE:			temp = !ZFLAG;			break;		case VS:			temp = VFLAG;			break;		case VC:			temp = !VFLAG;			break;		case MI:			temp = NFLAG;			break;		case PL:			temp = !NFLAG;			break;		case CS:			temp = CFLAG;			break;		case CC:			temp = !CFLAG;			break;		case HI:			temp = (CFLAG && !ZFLAG);			break;		case LS:			temp = (!CFLAG || ZFLAG);			break;		case GE:			temp = ((!NFLAG && !VFLAG) || (NFLAG && VFLAG));			break;		case LT:			temp = ((NFLAG && !VFLAG) || (!NFLAG && VFLAG));			break;		case GT:			temp = ((!NFLAG && !VFLAG && !ZFLAG)				|| (NFLAG && VFLAG && !ZFLAG));			break;		case LE:			temp = ((NFLAG && !VFLAG) || (!NFLAG && VFLAG))				|| ZFLAG;			break;		}		/* cc check *///chy 2003-08-24 now #if 0 .... #endif  process cp14, cp15.reg14, I disable it...#if 0		/* Handle the Clock counter here.  */		if (state->is_XScale) {			ARMword cp14r0;			int ok;			ok = state->CPRead[14] (state, 0, &cp14r0);			if (ok && (cp14r0 & ARMul_CP14_R0_ENABLE)) {				unsigned long newcycles, nowtime =					ARMul_Time (state);				newcycles = nowtime - state->LastTime;				state->LastTime = nowtime;				if (cp14r0 & ARMul_CP14_R0_CCD) {					if (state->CP14R0_CCD == -1)						state->CP14R0_CCD = newcycles;					else						state->CP14R0_CCD +=							newcycles;					if (state->CP14R0_CCD >= 64) {						newcycles = 0;						while (state->CP14R0_CCD >=						       64)							state->CP14R0_CCD -=								64,								newcycles++;						goto check_PMUintr;					}				}				else {					ARMword cp14r1;					int do_int = 0;					state->CP14R0_CCD = -1;				      check_PMUintr:					cp14r0 |= ARMul_CP14_R0_FLAG2;					(void) state->CPWrite[14] (state, 0,								   cp14r0);					ok = state->CPRead[14] (state, 1,								&cp14r1);					/* Coded like this for portability.  */					while (ok && newcycles) {						if (cp14r1 == 0xffffffff) {							cp14r1 = 0;							do_int = 1;						}						else							cp14r1++;						newcycles--;					}					(void) state->CPWrite[14] (state, 1,								   cp14r1);					if (do_int					    && (cp14r0 &						ARMul_CP14_R0_INTEN2)) {						ARMword temp;						if (state->						    CPRead[13] (state, 8,								&temp)						    && (temp &							ARMul_CP13_R8_PMUS))							ARMul_Abort (state,								     ARMul_FIQV);						else							ARMul_Abort (state,								     ARMul_IRQV);					}				}			}		}		/* Handle hardware instructions breakpoints here.  */		if (state->is_XScale) {			if ((pc | 3) == (read_cp15_reg (14, 0, 8) | 2)			    || (pc | 3) == (read_cp15_reg (14, 0, 9) | 2)) {				if (XScale_debug_moe				    (state, ARMul_CP14_R10_MOE_IB))					ARMul_OSHandleSWI (state,							   SWI_Breakpoint);			}		}#endif		/* Actual execution of instructions begins here.  */		/* If the condition codes don't match, stop here.  */		if (temp) {		      mainswitch:			if (state->is_XScale) {				if (BIT (20) == 0 && BITS (25, 27) == 0) {					if (BITS (4, 7) == 0xD) {						/* XScale Load Consecutive insn.  */						ARMword temp =							GetLS7RHS (state,								   instr);						ARMword temp2 =							BIT (23) ? LHS +							temp : LHS - temp;						ARMword addr =							BIT (24) ? temp2 :							LHS;						if (BIT (12))							ARMul_UndefInstr								(state,								 instr);						else if (addr & 7)							/* Alignment violation.  */							ARMul_Abort (state,								     ARMul_DataAbortV);						else {							int wb = BIT (21)								||								(!BIT (24));							state->Reg[BITS								   (12, 15)] =								ARMul_LoadWordN								(state, addr);							state->Reg[BITS								   (12,								    15) + 1] =								ARMul_LoadWordN								(state,								 addr + 4);							if (wb)								LSBase = temp2;						}						goto donext;					}					else if (BITS (4, 7) == 0xF) {						/* XScale Store Consecutive insn.  */						ARMword temp =							GetLS7RHS (state,								   instr);						ARMword temp2 =							BIT (23) ? LHS +							temp : LHS - temp;						ARMword addr =							BIT (24) ? temp2 :							LHS;						if (BIT (12))							ARMul_UndefInstr								(state,								 instr);						else if (addr & 7)							/* Alignment violation.  */							ARMul_Abort (state,								     ARMul_DataAbortV);						else {							ARMul_StoreWordN								(state, addr,								 state->								 Reg[BITS								     (12,								      15)]);							ARMul_StoreWordN								(state,								 addr + 4,								 state->								 Reg[BITS								     (12,								      15) +								     1]);							if (BIT (21)							    || !BIT (24))								LSBase = temp2;						}						goto donext;					}				}				//chy 2003-09-03 TMRRC(iwmmxt.c) and MRA has the same decoded instr????				//Now, I commit iwmmxt process, may be future, I will change it!!!! 				//if (ARMul_HandleIwmmxt (state, instr))				//        goto donext;			}			switch ((int) BITS (20, 27)) {				/* Data Processing Register RHS Instructions.  */			case 0x00:	/* AND reg and MUL */#ifdef MODET				if (BITS (4, 11) == 0xB) {					/* STRH register offset, no write-back, down, post indexed.  */					SHDOWNWB ();					break;				}				if (BITS (4, 7) == 0xD) {					Handle_Load_Double (state, instr);					break;				}				if (BITS (4, 7) == 0xF) {					Handle_Store_Double (state, instr);					break;				}#endif				if (BITS (4, 7) == 9) {					/* MUL */					rhs = state->Reg[MULRHSReg];					if (MULLHSReg == MULDESTReg) {						UNDEF_MULDestEQOp1;						state->Reg[MULDESTReg] = 0;					}					else if (MULDESTReg != 15)						state->Reg[MULDESTReg] =							state->							Reg[MULLHSReg] * rhs;					else						UNDEF_MULPCDest;					for (dest = 0, temp = 0; dest < 32;					     dest++)						if (rhs & (1L << dest))							temp = dest;					/* Mult takes this many/2 I cycles.  */					ARMul_Icycles (state,						       ARMul_MultTable[temp],						       0L);				}				else {					/* AND reg.  */					rhs = DPRegRHS;					dest = LHS & rhs;					WRITEDEST (dest);				}				break;			case 0x01:	/* ANDS reg and MULS */#ifdef MODET				if ((BITS (4, 11) & 0xF9) == 0x9)					/* LDR register offset, no write-back, down, post indexed.  */					LHPOSTDOWN ();				/* Fall through to rest of decoding.  */#endif				if (BITS (4, 7) == 9) {					/* MULS */					rhs = state->Reg[MULRHSReg];					if (MULLHSReg == MULDESTReg) {						UNDEF_MULDestEQOp1;						state->Reg[MULDESTReg] = 0;						CLEARN;						SETZ;					}					else if (MULDESTReg != 15) {						dest = state->Reg[MULLHSReg] *							rhs;						ARMul_NegZero (state, dest);						state->Reg[MULDESTReg] = dest;					}					else						UNDEF_MULPCDest;					for (dest = 0, temp = 0; dest < 32;					     dest++)						if (rhs & (1L << dest))							temp = dest;					/* Mult takes this many/2 I cycles.  */					ARMul_Icycles (state,						       ARMul_MultTable[temp],						       0L);				}