static effect_t *
SE_new_effect(IPA_cgraph_edgelist_e edge_type,
IPA_cgraph_node_t *src,
IPA_cgraph_node_t *dst,
IPA_cgraph_edge_data_t *edata,
int skew)
{
effect_t *new_effect;
void *item;
int key;
/* Don't follow inter-graph edges through globals into
other graphs */
if (src->cgraph != cg || dst->cgraph != cg)
return NULL;
/* Has the effect already been handled
*/
key = GETKEY(src, dst,
edata->target_offset,
edata->assign_size,
edata->source_offset);
cmp_src = src;
cmp_dst = dst;
cmp_edge_type = edge_type;
cmp_edata = edata;
cmp_skew = skew;
item = IPA_htab_find(effect_htab, key, SE_effect_compare);
if (item != NULL)
return NULL;
/* Create new effect
*/
new_effect = calloc(1,sizeof(effect_t));
new_effect->edge_type = edge_type;
new_effect->src = src;
new_effect->dst = dst;
new_effect->edata.target_offset = edata->target_offset;
new_effect->edata.target_stride = edata->target_stride;
new_effect->edata.assign_size = edata->assign_size;
new_effect->edata.source_offset = edata->source_offset;
new_effect->edata.source_stride = edata->source_stride;
new_effect->skew = skew;
#if DB_EFF
debug_effect("New Effect", new_effect, "\n");
#endif
effect_list = List_insert_last(effect_list, new_effect);
/* Add effect to the history
*/
if (!effect_htab)
effect_htab = IPA_htab_new(6);
effect_htab = IPA_htab_insert(effect_htab, new_effect, key);
return new_effect;
}
void executeVm(Cpu_t *cpu)
{
uint8_t temp;
uint8_t command;
//SYSTEMOUTHEX("adr",cpu->Pc);
//SYSTEMOUTHEX("flag",cpu->flag);
command=cpu->M[cpu->Pc];
cpu->Pc++;
switch(command)
{
// KA K->Ar 0, 1 The pressed key from the hex keypad is saved to the A register.
// If a key is not pressed, the Flag is set to 1, otherwise it is 0.
case KA:{
DISASM("KA ");
if(KEYHIT())
{
cpu->M[AR]=GETKEY();
cpu->flag=0;
SYSTEMOUTHEX("Key:",cpu->M[AR]);
}else {
SYSTEMOUT("nokey");
cpu->flag=1;
}
}break;
// AO Ar->Op 1 The 7-segment readout displays the value currently contained in the A register.
case AO:{
DISASM("AO ");
//show7Segment(cpu->M[AR]);
DISPLAYOUTHEX(cpu->M[AR]);
//PRINT7SEGMENT(x);
cpu->flag=1;
}break;
// CH Ar<=>Br
// Yr<=>Zr 1 Exchange the contents of the A and B registers, and the Y and Z registers.
case CH:{
DISASM("CH ");
temp=cpu->M[AR];
cpu->M[AR]=cpu->M[BR];
cpu->M[BR]=temp;
temp=cpu->M[YR];
cpu->M[YR]=cpu->M[ZR];
cpu->M[ZR]=temp;
cpu->flag=1;
}break;
// CY Ar<=>Yr 1 Exchange the contents of the A and Y registers.
case CY:{
DISASM("CY ");
temp=cpu->M[AR];
cpu->M[AR]=cpu->M[YR];
cpu->M[YR]=temp;
cpu->flag=1;
}break;
// AM Ar->M 1 Write the contents of the A register to data memory (memory address is 50 + Y register).
case AM:{
DISASM("AM ");
cpu->M[((cpu->M[YR])&0xF)+M_OFFSET]=cpu->M[AR];
cpu->flag=1;
}break;
// MA M->Ar 1 Write the contents of data memory (50 + Y register) to the A register.
case MA:{
DISASM("MA ");
cpu->M[AR]=cpu->M[((cpu->M[YR])&0xF)+M_OFFSET];
cpu->flag=1;
}break;
// M+ M+Ar->Ar 0, 1 Add the contents of data memory (50 + Y register) to the A register. If there is overflow, the Flag is set to 1, otherwise 0.
case MPLUS:{
DISASM("M+ ");
cpu->M[AR]+=cpu->M[((cpu->M[YR])&0xF)+M_OFFSET];
if(((cpu->M[AR])&0x10)!=0)cpu->flag=1;
else cpu->flag=0;
cpu->M[AR]&=0x0F;
}break;
// M- M-Ar->Ar 0, 1 Subtract the contents of data memory (50 + Y register) from the A register. If the result is negative, the Flag is set to 1, otherwise 0.
case MMINUS:{
DISASM("M- ");
cpu->M[AR]-=cpu->M[((cpu->M[YR])&0xF)+M_OFFSET];
if(((cpu->M[AR])&0x10)!=0)cpu->flag=1;
else cpu->flag=0;
cpu->M[AR]&=0x0F;
}break;
// TIA [ ] [ ] -> Ar 1 Transfer immediate to the A register.
case TIA:{
DISASM("TIA ");
cpu->M[AR]=cpu->M[cpu->Pc];
cpu->Pc++;
cpu->flag=1;
}break;
// AIA [ ] Ar + [ ] -> Ar 0, 1 Add immediate to the A register. If there is overflow, the Flag is set to 1, otherwise 0.
case AIA:{
DISASM("AIA ");
cpu->M[AR]+=cpu->M[cpu->Pc];
if(((cpu->M[AR])&0x10)!=0)cpu->flag=1;
else cpu->flag=0;
cpu->M[AR]&=0x0F;
cpu->Pc++;
}break;
// TIY [ ] [ ] -> Yr 1 Transfer immediate to the Y register.
case TIY:{
DISASM("TIA ");
cpu->M[YR]=cpu->M[cpu->Pc];
cpu->Pc++;
cpu->flag=1;
}break;
// AIY [ ] Yr + [ ] -> Yr 0, 1 Add immediate to the Y register. If there is overflow, the Flag is set to 1, otherwise 0.
case AIY:{
DISASM("AIY ");
cpu->M[YR]+=cpu->M[cpu->Pc];
if(((cpu->M[YR])&0x10)!=0)cpu->flag=1;
else cpu->flag=0;
cpu->M[YR]&=0x0F;
cpu->Pc++;
}break;
// CIA [ ] Ar != [ ] ? 0, 1 Compare immediate to the A register. If equal, Flag reset to 0, otherwise set to 1.
case CIA:{
DISASM("CIA ");
if(cpu->M[AR]!=cpu->M[cpu->Pc])cpu->flag=0;
else cpu->flag=1;
cpu->Pc++;
}break;
// CIY [ ] Yr != [ ] ? 0, 1 Compare immediate to the Y register. If equal, Flag reset to 0, otherwise set to 1.
case CIY:{
DISASM("CIY ");
if(cpu->M[YR]!=cpu->M[cpu->Pc])cpu->flag=0;
else cpu->flag=1;
cpu->Pc++;
}break;
//JUMP [ ] [ ] 1 Jump to the immediate address if the Flag is 1, otherwise just increment the program counter.
//The Flag is then set to 1. Note that this is an absolute address. That is, JUMP [0] [2] will change the address pointer to hex address 0x02.
//You can jump both forward and backward in program space.
case JUMP:{
DISASM("JUMP ");
if((cpu->flag)==1)
{
temp=cpu->M[cpu->Pc]<<4;
cpu->Pc++;
temp+=cpu->M[cpu->Pc]<<4;
cpu->Pc=temp;
}else{
cpu->Pc++;
cpu->flag=1;
}
}break;
// --- --- --- Extended code. See table below.
case EXTENDED:{
command=(cpu->M[cpu->Pc])|0xE0;
SYSTEMOUTHEX("com:",command);
cpu->Pc++;
if(cpu->flag==1)switch(command)
{
case CAL_RSTO:{
DISASM("CAL_RSTO ");
SYSTEMOUTCHAR(' ');
//SYSTEMOUT("clear 7 seg");
}break;
case CAL_SETR:{
DISASM("CAL_SETR ");
cpu->leds|=(1<<(cpu->M[YR]));
SHOWLEDS(cpu->leds);
//SYSTEMOUT("led on");
}break;
case CAL_RSTR:{
DISASM("CAL_RSTR ");
cpu->leds&=~(1<<(cpu->M[YR]));
SHOWLEDS(cpu->leds);
//SYSTEMOUT("led off");
}break;
// 0xE4 // CAL CMPL 1 Complement the A register (1 <=> 0).
case CAL_CMPL:{
DISASM("CAL_CMPL ");
cpu->M[AR]=(~cpu->M[AR])&0x0F;
cpu->flag=1;
}break;
//0xE5 // CAL CHNG 1 Swap the A/B/Y/Z registers with A'/B'/Y'/Z'
case CAL_CHNG:{
DISASM("CAL_CHNG ");
temp=cpu->M[AR];
cpu->M[AR]=cpu->M[AR_];
cpu->M[AR_]=temp;
temp=cpu->M[BR];
cpu->M[BR]=cpu->M[BR_];
cpu->M[BR_]=temp;
temp=cpu->M[YR];
cpu->M[YR]=cpu->M[YR_];
cpu->M[YR_]=temp;
temp=cpu->M[ZR];
cpu->M[ZR]=cpu->M[ZR_];
cpu->M[ZR_]=temp;
cpu->flag=1;
}break;
// 0xE6 // CAL SIFT 0, 1 Shift the A register right 1 bit. If the starting value is even (bit 0 = 0), set the Flag to 1, otherwise 0.
case CAL_SIFT:{
DISASM("CAL_SIFT ");
if((cpu->M[AR])&1)cpu->flag=1;
else cpu->flag=0;
cpu->M[AR]=(~cpu->M[AR])>>1;
}break;
//0xE7 // CAL ENDS 1 Play the End sound.
case CAL_ENDS:{
DISASM("CAL_ENDS ");
SOUND(NOTE_D6,80);
SOUND(NOTE_E6,80);
SOUND(NOTE_F6,80);
SOUND(NOTE_G6,80);
SOUND(NOTE_A6,80);
SOUND(NOTE_B6,80);
//soundf(0);
//SOUND(440,500);
SYSTEMOUT("end sound");
cpu->flag=1;
}break;
//0xE8 // CAL ERRS 1 Play the Error sound.
case CAL_ERRS:{
DISASM("CAL_ERRS ");
for(int n = 0; n < 6; n++)
{
SOUND(NOTE_G5,20);
SOUND(NOTE_A5,20);
SOUND(NOTE_B5,20);
SOUND(NOTE_C6,20);
SOUND(NOTE_D6,20);
SOUND(NOTE_E6,20);
}
//SOUND(200,500);
SYSTEMOUT("play error sound");
cpu->flag=1;
}break;
//0xE9 // CAL SHTS 1 Play a short "pi" sound.
case CAL_SHTS:{
DISASM("CAL_SHTS ");
SOUND(NOTE_C5,150);
SYSTEMOUT("play short peep sound");
cpu->flag=1;
}break;
//0xEA // CAL LONS 1 Play a longer "pi-" sound.
case CAL_LONS:{
DISASM("CAL_LONS ");
SOUND(NOTE_C5,450);
SYSTEMOUT("play longer peep sound");
cpu->flag=1;
}break;
//0xEB // CAL SUND 1 Play a note based on the value of the A register
//(allowed values are 1 - E).
case CAL_SUND:{
DISASM("CAL_SUND ");
//SOUND(cpu->M[AR],500);
gmcSound(cpu->M[AR],300);
SYSTEMOUT("play A reg");
cpu->flag=1;
}break;
//0xEC // CAL TIMR 1
//Pause for the time calculated by (value of A register +1) * 0.1 seconds.
case CAL_TIMR:{
DISASM("CAL_TIMR ");
showMatrix(((cpu->M[AR])*100+1));
cpu->flag=1;
}break;
//0xED // CAL DSPR 1 Set the 2-pin LEDs with the value from data memory. The data to display is as follows: the upper three bits come from memory address 5F (bits 0-2), and the lower four from memory address 5E (bits 0-3).
case CAL_DSPR:{
DISASM("CAL_DSPR ");
SYSTEMOUT("set LED");
cpu->flag=1;
}break;
//0xEE // CAL DEM- 1
//Subtract the value of the A register from the value in data memory.
//The new value is stored in data memory as a decimal.
//Afterwards, the Y register is decremented by 1.
case CAL_DEMMINUS:{
DISASM("CAL_DEM- ");
//SYSTEMOUT("dem-");
cpu->M[YR]=cpu->M[YR]-cpu->M[AR];
cpu->M[YR]++;
cpu->M[YR]&=0xF;
cpu->flag=1;
}break;
//0xEF // CAL DEM+ 1
//Add the value of the A register to the value in data memory.
//The new value is stored in memory as a decimal.
//If the result is overflow, data memory will be automatically adjusted.
//Afterwards, the Y register is decremented.
case CAL_DEMPLUS:{
DISASM("CAL_DEM+ ");
cpu->M[YR]=cpu->M[YR]+cpu->M[AR];
cpu->M[YR]--;
cpu->M[YR]&=0xF;
cpu->flag=1;
}break;
}
}break;
}
}