void *
alloc (unsigned int size)
{
int *p, len;
int total;
if (!size)
return NULL;
spinlock_lock (&lock);
if (!initialized)
prepare ();
TST ("alloc enter");
if (size < 32)
size = 32;
len = (size + sizeof (int) - 1) / sizeof (int);
p = heap + heaplen - 1;
while (*p) {
if (*p < 0) {
if (-*p >= len)
goto found;
p += *p - 1;
} else {
p -= *p + 1;
}
}
printf ("allocating %u\n", size);
total = 0;
p = heap + heaplen - 1;
while (*p) {
if (*p < 0) {
p += *p - 1;
} else {
total += *p + 1;
p -= *p + 1;
}
}
printf ("allocated %u\n", total * (unsigned int)sizeof (*p));
printf ("size of heap %u\n", heaplen * (unsigned int)sizeof (*p));
panic ("out of memory");
found:
if (-*p <= len + 1) {
*p = -*p;
p -= *p;
} else {
*p += len + 1;
p += *p - 1;
*p = len;
p -= len;
}
TST ("alloc exit");
spinlock_unlock (&lock);
return p;
}
/* This function allocates the first available block in the tmp file */
long allocate()
{
int i;
long offset;
/* search for the first byte with a free bit set */
for (i = 0; i < sizeof bitmap && bitmap[i] == 0; i++)
{
}
/* if we hit the end of the bitmap, return the end of the file */
if (i == sizeof bitmap)
{
offset = lseek(tmpfd, 0L, 2);
}
else /* compute the offset for the free block */
{
for (i <<= 3; TST(i) == 0; i++)
{
}
offset = (long)i * (long)BLKSIZE;
/* mark the block as "allocated" */
CLR(i);
}
return offset;
}
void JitArm::lwz(UGeckoInstruction inst)
{
INSTRUCTION_START
JITDISABLE(LoadStore)
ARMReg rA = gpr.GetReg();
ARMReg rB = gpr.GetReg();
ARMReg RD = gpr.R(inst.RD);
LDR(rA, R9, PPCSTATE_OFF(Exceptions));
CMP(rA, EXCEPTION_DSI);
FixupBranch DoNotLoad = B_CC(CC_EQ);
{
if (inst.RA)
{
MOVI2R(rB, inst.SIMM_16);
ARMReg RA = gpr.R(inst.RA);
ADD(rB, rB, RA);
}
else
MOVI2R(rB, (u32)inst.SIMM_16);
MOVI2R(rA, (u32)&Memory::Read_U32);
PUSH(4, R0, R1, R2, R3);
MOV(R0, rB);
BL(rA);
MOV(rA, R0);
POP(4, R0, R1, R2, R3);
MOV(RD, rA);
gpr.Unlock(rA, rB);
}
SetJumpTarget(DoNotLoad);
if (SConfig::GetInstance().m_LocalCoreStartupParameter.bSkipIdle &&
(inst.hex & 0xFFFF0000) == 0x800D0000 &&
(Memory::ReadUnchecked_U32(js.compilerPC + 4) == 0x28000000 ||
(SConfig::GetInstance().m_LocalCoreStartupParameter.bWii && Memory::ReadUnchecked_U32(js.compilerPC + 4) == 0x2C000000)) &&
Memory::ReadUnchecked_U32(js.compilerPC + 8) == 0x4182fff8)
{
gpr.Flush();
fpr.Flush();
// if it's still 0, we can wait until the next event
TST(RD, RD);
FixupBranch noIdle = B_CC(CC_NEQ);
rA = gpr.GetReg();
MOVI2R(rA, (u32)&PowerPC::OnIdle);
MOVI2R(R0, PowerPC::ppcState.gpr[inst.RA] + (s32)(s16)inst.SIMM_16);
BL(rA);
gpr.Unlock(rA);
WriteExceptionExit();
SetJumpTarget(noIdle);
//js.compilerPC += 8;
return;
}
}
void *
realloc (void *virt, unsigned int len)
{
int *p, alloclen, copylen;
void *r;
if (!virt && !len)
return NULL;
if (!virt)
return alloc (len);
if (!len) {
free (virt);
return NULL;
}
spinlock_lock (&lock);
if (!initialized)
prepare ();
TST ("realloc enter");
if (len < 32)
len = 32;
p = heap + heaplen - 1;
while (*p) {
if (*p < 0)
p += *p - 1;
else if (p - *p == virt)
goto found;
else
p -= *p + 1;
}
panic ("reallocating not allocated memory %p", virt);
found:
alloclen = *p * sizeof *p;
spinlock_unlock (&lock);
if (alloclen > len)
copylen = len;
else
copylen = alloclen;
r = alloc (len);
if (r) {
memcpy (r, virt, copylen);
free (virt);
}
TST ("realloc exit");
return r;
}
int ctl_socket_init(void)
{
int s = server_socket();
if (s < 0)
return -1;
ctl_handler.fd = s;
ctl_handler.handler = ctl_rcv_handler;
TST(add_epoll(&ctl_handler) == 0, -1);
return 0;
}
void
free (void *m)
{
int *p, *q, len;
spinlock_lock (&lock);
if (!initialized)
prepare ();
TST ("free enter");
p = heap + heaplen - 1;
q = NULL;
while (*p) {
if (*p < 0) {
if (!q)
q = p;
p += *p - 1;
} else if (p - *p == m) {
goto found;
} else {
q = NULL;
p -= *p + 1;
}
}
panic ("freeing not allocated memory %p", m);
found:
len = -*p;
while (p[len - 1] < 0)
len += p[len - 1] - 1;
*p = len;
if (q) {
len = *q;
while (q[len - 1] < 0)
len += q[len - 1] - 1;
*q = len;
}
TST ("free exit");
spinlock_unlock (&lock);
}
int main(int argc, char **argv)
{
char *src,*srcf = "foo.tar"; int srcn;
char *f1,*f1t,*f1f = "temp.in.txt"; int f1n, f1nt;
char *f2,*f2t,*f2f = "temp.out.txt"; int f2n, f2nt;
FILE *fp;
Tar *t;
src = file_alloc(srcf,&srcn);
t = tar_from_data(src,srcn);
printf("testing tar\n");
#define TST(COND,MSG) \
if(!(COND)){ \
printf("error " MSG " cond " #COND "\n"); \
exit(1); \
}
f1 = file_alloc(f1f,&f1n);
f1t = tar_alloc_cur_file(t,&f1nt);
TST(0==strcmp(f1f,t->hdr.fname),"not the same filename")
TST(f1n == f1nt,"f1 lengths not equal");
TST(0==memcmp(f1,f1t,f1n),"f1 memory not the same");
free(f1);
free(f1t);
TST(tar_next(t),"couldn't move to second archive'd file");
f2 = file_alloc(f2f,&f2n);
f2t = tar_cur_file(t,&f2nt);
TST(0==strcmp(f2f,t->hdr.fname),"not the same filename")
TST(f2n == f2nt,"f2 lengths not equal");
TST(0==memcmp(f2,f2t,f2n),"f2 memory not the same");
free(f2);
TST(!tar_next(t),"able to move to third archive, should be EOF");
Tar_Destroy(t);
printf("done\n");
}
int server_socket(void)
{
struct sockaddr_un sa;
int s;
TST(strlen(RSTP_SERVER_SOCK_NAME) < sizeof(sa.sun_path), -1);
s = socket(PF_UNIX, SOCK_DGRAM, 0);
if (s < 0) {
ERROR("Couldn't open unix socket: %m");
return -1;
}
set_socket_address(&sa, RSTP_SERVER_SOCK_NAME);
if (bind(s, (struct sockaddr *)&sa, sizeof(sa)) != 0) {
ERROR("Couldn't bind socket: %m");
close(s);
return -1;
}
return s;
}
static void zop_ED_0x2C(void) { /* 0xED 0x2C : TST L */
TST(L);
T_WAIT_UNTIL(TST_OP_T_STATES);
}
static void zop_ED_0x1C(void) { /* 0xED 0x1C : TST E */
TST(E);
T_WAIT_UNTIL(TST_OP_T_STATES);
}
static void zop_ED_0x24(void) { /* 0xED 0x24 : TST H */
TST(H);
T_WAIT_UNTIL(TST_OP_T_STATES);
}
EXPORT_C int dBoxBox (const dVector3 p1, const dMatrix3 R1,
const dVector3 side1, const dVector3 p2,
const dMatrix3 R2, const dVector3 side2,
dVector3 normal, dReal *depth, int *return_code,
int maxc, dContactGeom *contact, int skip)
{
const dReal fudge_factor = REAL(1.05);
dVector3 p,pp,normalC;
const dReal *normalR = 0;
dReal A[3],B[3],R11,R12,R13,R21,R22,R23,R31,R32,R33,
Q11,Q12,Q13,Q21,Q22,Q23,Q31,Q32,Q33,s,s2,l;
int i,j,invert_normal,code;
// get vector from centers of box 1 to box 2, relative to box 1
p[0] = p2[0] - p1[0];
p[1] = p2[1] - p1[1];
p[2] = p2[2] - p1[2];
dMULTIPLY1_331 (pp,R1,p); // get pp = p relative to body 1
// get side lengths / 2
A[0] = dMUL(side1[0],REAL(0.5));
A[1] = dMUL(side1[1],REAL(0.5));
A[2] = dMUL(side1[2],REAL(0.5));
B[0] = dMUL(side2[0],REAL(0.5));
B[1] = dMUL(side2[1],REAL(0.5));
B[2] = dMUL(side2[2],REAL(0.5));
// Rij is R1'*R2, i.e. the relative rotation between R1 and R2
R11 = dDOT44(R1+0,R2+0); R12 = dDOT44(R1+0,R2+1); R13 = dDOT44(R1+0,R2+2);
R21 = dDOT44(R1+1,R2+0); R22 = dDOT44(R1+1,R2+1); R23 = dDOT44(R1+1,R2+2);
R31 = dDOT44(R1+2,R2+0); R32 = dDOT44(R1+2,R2+1); R33 = dDOT44(R1+2,R2+2);
Q11 = dFabs(R11); Q12 = dFabs(R12); Q13 = dFabs(R13);
Q21 = dFabs(R21); Q22 = dFabs(R22); Q23 = dFabs(R23);
Q31 = dFabs(R31); Q32 = dFabs(R32); Q33 = dFabs(R33);
// for all 15 possible separating axes:
// * see if the axis separates the boxes. if so, return 0.
// * find the depth of the penetration along the separating axis (s2)
// * if this is the largest depth so far, record it.
// the normal vector will be set to the separating axis with the smallest
// depth. note: normalR is set to point to a column of R1 or R2 if that is
// the smallest depth normal so far. otherwise normalR is 0 and normalC is
// set to a vector relative to body 1. invert_normal is 1 if the sign of
// the normal should be flipped.
#define TST(expr1,expr2,norm,cc) \
s2 = dFabs(expr1) - (expr2); \
if (s2 > 0) return 0; \
if (s2 > s) { \
s = s2; \
normalR = norm; \
invert_normal = ((expr1) < 0); \
code = (cc); \
}
s = -dInfinity;
invert_normal = 0;
code = 0;
// separating axis = u1,u2,u3
TST (pp[0],(A[0] + dMUL(B[0],Q11) + dMUL(B[1],Q12) + dMUL(B[2],Q13)),R1+0,1);
TST (pp[1],(A[1] + dMUL(B[0],Q21) + dMUL(B[1],Q22) + dMUL(B[2],Q23)),R1+1,2);
TST (pp[2],(A[2] + dMUL(B[0],Q31) + dMUL(B[1],Q32) + dMUL(B[2],Q33)),R1+2,3);
// separating axis = v1,v2,v3
TST (dDOT41(R2+0,p),(dMUL(A[0],Q11) + dMUL(A[1],Q21) + dMUL(A[2],Q31) + B[0]),R2+0,4);
TST (dDOT41(R2+1,p),(dMUL(A[0],Q12) + dMUL(A[1],Q22) + dMUL(A[2],Q32) + B[1]),R2+1,5);
TST (dDOT41(R2+2,p),(dMUL(A[0],Q13) + dMUL(A[1],Q23) + dMUL(A[2],Q33) + B[2]),R2+2,6);
// note: cross product axes need to be scaled when s is computed.
// normal (n1,n2,n3) is relative to box 1.
#undef TST
#define TST(expr1,expr2,n1,n2,n3,cc) \
s2 = dFabs(expr1) - (expr2); \
if (s2 > 0) return 0; \
l = dSqrt (dMUL((n1),(n1)) + dMUL((n2),(n2)) + dMUL((n3),(n3))); \
if (l > 0) { \
s2 = dDIV(s2,l); \
if (dMUL(s2,fudge_factor) > s) { \
s = s2; \
normalR = 0; \
normalC[0] = dDIV((n1),l); normalC[1] = dDIV((n2),l); normalC[2] = dDIV((n3),l); \
invert_normal = ((expr1) < 0); \
code = (cc); \
} \
}
// separating axis = u1 x (v1,v2,v3)
TST((dMUL(pp[2],R21)-dMUL(pp[1],R31)),(dMUL(A[1],Q31)+dMUL(A[2],Q21)+dMUL(B[1],Q13)+dMUL(B[2],Q12)),0,-R31,R21,7);
TST((dMUL(pp[2],R22)-dMUL(pp[1],R32)),(dMUL(A[1],Q32)+dMUL(A[2],Q22)+dMUL(B[0],Q13)+dMUL(B[2],Q11)),0,-R32,R22,8);
TST((dMUL(pp[2],R23)-dMUL(pp[1],R33)),(dMUL(A[1],Q33)+dMUL(A[2],Q23)+dMUL(B[0],Q12)+dMUL(B[1],Q11)),0,-R33,R23,9);
// separating axis = u2 x (v1,v2,v3)
TST((dMUL(pp[0],R31)-dMUL(pp[2],R11)),(dMUL(A[0],Q31)+dMUL(A[2],Q11)+dMUL(B[1],Q23)+dMUL(B[2],Q22)),R31,0,-R11,10);
TST((dMUL(pp[0],R32)-dMUL(pp[2],R12)),(dMUL(A[0],Q32)+dMUL(A[2],Q12)+dMUL(B[0],Q23)+dMUL(B[2],Q21)),R32,0,-R12,11);
TST((dMUL(pp[0],R33)-dMUL(pp[2],R13)),(dMUL(A[0],Q33)+dMUL(A[2],Q13)+dMUL(B[0],Q22)+dMUL(B[1],Q21)),R33,0,-R13,12);
// separating axis = u3 x (v1,v2,v3)
TST((dMUL(pp[1],R11)-dMUL(pp[0],R21)),(dMUL(A[0],Q21)+dMUL(A[1],Q11)+dMUL(B[1],Q33)+dMUL(B[2],Q32)),-R21,R11,0,13);
TST((dMUL(pp[1],R12)-dMUL(pp[0],R22)),(dMUL(A[0],Q22)+dMUL(A[1],Q12)+dMUL(B[0],Q33)+dMUL(B[2],Q31)),-R22,R12,0,14);
TST((dMUL(pp[1],R13)-dMUL(pp[0],R23)),(dMUL(A[0],Q23)+dMUL(A[1],Q13)+dMUL(B[0],Q32)+dMUL(B[1],Q31)),-R23,R13,0,15);
#undef TST
if (!code) return 0;
// if we get to this point, the boxes interpenetrate. compute the normal
// in global coordinates.
if (normalR) {
normal[0] = normalR[0];
normal[1] = normalR[4];
normal[2] = normalR[8];
}
else {
dMULTIPLY0_331 (normal,R1,normalC);
}
if (invert_normal) {
normal[0] = -normal[0];
normal[1] = -normal[1];
normal[2] = -normal[2];
}
*depth = -s;
// compute contact point(s)
if (code > 6) {
// an edge from box 1 touches an edge from box 2.
// find a point pa on the intersecting edge of box 1
dVector3 pa;
dReal sign;
for (i=0; i<3; i++) pa[i] = p1[i];
for (j=0; j<3; j++) {
sign = (dDOT14(normal,R1+j) > 0) ? REAL(1.0) : REAL(-1.0);
for (i=0; i<3; i++) pa[i] += dMUL(sign,dMUL(A[j],R1[i*4+j]));
}
// find a point pb on the intersecting edge of box 2
dVector3 pb;
for (i=0; i<3; i++) pb[i] = p2[i];
for (j=0; j<3; j++) {
sign = (dDOT14(normal,R2+j) > 0) ? REAL(-1.0) : REAL(1.0);
for (i=0; i<3; i++) pb[i] += dMUL(sign,dMUL(B[j],R2[i*4+j]));
}
dReal alpha,beta;
dVector3 ua,ub;
for (i=0; i<3; i++) ua[i] = R1[((code)-7)/3 + i*4];
for (i=0; i<3; i++) ub[i] = R2[((code)-7)%3 + i*4];
dLineClosestApproach (pa,ua,pb,ub,&alpha,&beta);
for (i=0; i<3; i++) pa[i] += dMUL(ua[i],alpha);
for (i=0; i<3; i++) pb[i] += dMUL(ub[i],beta);
for (i=0; i<3; i++) contact[0].pos[i] = dMUL(REAL(0.5),(pa[i]+pb[i]));
contact[0].depth = *depth;
*return_code = code;
return 1;
}
// okay, we have a face-something intersection (because the separating
// axis is perpendicular to a face). define face 'a' to be the reference
// face (i.e. the normal vector is perpendicular to this) and face 'b' to be
// the incident face (the closest face of the other box).
const dReal *Ra,*Rb,*pa,*pb,*Sa,*Sb;
if (code <= 3) {
Ra = R1;
Rb = R2;
pa = p1;
pb = p2;
Sa = A;
Sb = B;
}
else {
Ra = R2;
Rb = R1;
pa = p2;
pb = p1;
Sa = B;
Sb = A;
}
// nr = normal vector of reference face dotted with axes of incident box.
// anr = absolute values of nr.
dVector3 normal2,nr,anr;
if (code <= 3) {
normal2[0] = normal[0];
normal2[1] = normal[1];
normal2[2] = normal[2];
}
else {
normal2[0] = -normal[0];
normal2[1] = -normal[1];
normal2[2] = -normal[2];
}
dMULTIPLY1_331 (nr,Rb,normal2);
anr[0] = dFabs (nr[0]);
anr[1] = dFabs (nr[1]);
anr[2] = dFabs (nr[2]);
// find the largest compontent of anr: this corresponds to the normal
// for the indident face. the other axis numbers of the indicent face
// are stored in a1,a2.
int lanr,a1,a2;
if (anr[1] > anr[0]) {
if (anr[1] > anr[2]) {
a1 = 0;
lanr = 1;
a2 = 2;
}
else {
a1 = 0;
a2 = 1;
lanr = 2;
}
}
else {
if (anr[0] > anr[2]) {
lanr = 0;
a1 = 1;
a2 = 2;
}
else {
a1 = 0;
a2 = 1;
lanr = 2;
}
}
// compute center point of incident face, in reference-face coordinates
dVector3 center;
if (nr[lanr] < 0) {
for (i=0; i<3; i++) center[i] = pb[i] - pa[i] + dMUL(Sb[lanr],Rb[i*4+lanr]);
}
else {
for (i=0; i<3; i++) center[i] = pb[i] - pa[i] - dMUL(Sb[lanr],Rb[i*4+lanr]);
}
// find the normal and non-normal axis numbers of the reference box
int codeN,code1,code2;
if (code <= 3) codeN = code-1; else codeN = code-4;
if (codeN==0) {
code1 = 1;
code2 = 2;
}
else if (codeN==1) {
code1 = 0;
code2 = 2;
}
else {
code1 = 0;
code2 = 1;
}
// find the four corners of the incident face, in reference-face coordinates
dReal quad[8]; // 2D coordinate of incident face (x,y pairs)
dReal c1,c2,m11,m12,m21,m22;
c1 = dDOT14 (center,Ra+code1);
c2 = dDOT14 (center,Ra+code2);
// optimize this? - we have already computed this data above, but it is not
// stored in an easy-to-index format. for now it's quicker just to recompute
// the four dot products.
m11 = dDOT44 (Ra+code1,Rb+a1);
m12 = dDOT44 (Ra+code1,Rb+a2);
m21 = dDOT44 (Ra+code2,Rb+a1);
m22 = dDOT44 (Ra+code2,Rb+a2);
{
dReal k1 = dMUL(m11,Sb[a1]);
dReal k2 = dMUL(m21,Sb[a1]);
dReal k3 = dMUL(m12,Sb[a2]);
dReal k4 = dMUL(m22,Sb[a2]);
quad[0] = c1 - k1 - k3;
quad[1] = c2 - k2 - k4;
quad[2] = c1 - k1 + k3;
quad[3] = c2 - k2 + k4;
quad[4] = c1 + k1 + k3;
quad[5] = c2 + k2 + k4;
quad[6] = c1 + k1 - k3;
quad[7] = c2 + k2 - k4;
}
// find the size of the reference face
dReal rect[2];
rect[0] = Sa[code1];
rect[1] = Sa[code2];
// intersect the incident and reference faces
dReal ret[16];
int n = intersectRectQuad (rect,quad,ret);
if (n < 1) return 0; // this should never happen
// convert the intersection points into reference-face coordinates,
// and compute the contact position and depth for each point. only keep
// those points that have a positive (penetrating) depth. delete points in
// the 'ret' array as necessary so that 'point' and 'ret' correspond.
dReal point[3*8]; // penetrating contact points
dReal dep[8]; // depths for those points
dReal det1 = dRecip(dMUL(m11,m22) - dMUL(m12,m21));
m11 = dMUL(m11,det1);
m12 = dMUL(m12,det1);
m21 = dMUL(m21,det1);
m22 = dMUL(m22,det1);
int cnum = 0; // number of penetrating contact points found
for (j=0; j < n; j++) {
dReal k1 = dMUL(m22,(ret[j*2]-c1)) - dMUL(m12,(ret[j*2+1]-c2));
dReal k2 = -dMUL(m21,(ret[j*2]-c1)) + dMUL(m11,(ret[j*2+1]-c2));
for (i=0; i<3; i++) point[cnum*3+i] =
center[i] + dMUL(k1,Rb[i*4+a1]) + dMUL(k2,Rb[i*4+a2]);
dep[cnum] = Sa[codeN] - dDOT(normal2,point+cnum*3);
if (dep[cnum] >= 0) {
ret[cnum*2] = ret[j*2];
ret[cnum*2+1] = ret[j*2+1];
cnum++;
}
}
if (cnum < 1) return 0; // this should never happen
// we can't generate more contacts than we actually have
if (maxc > cnum) maxc = cnum;
if (maxc < 1) maxc = 1;
if (cnum <= maxc) {
// we have less contacts than we need, so we use them all
for (j=0; j < cnum; j++) {
dContactGeom *con = CONTACT(contact,skip*j);
for (i=0; i<3; i++) con->pos[i] = point[j*3+i] + pa[i];
con->depth = dep[j];
}
}
else {
// we have more contacts than are wanted, some of them must be culled.
// find the deepest point, it is always the first contact.
int i1 = 0;
dReal maxdepth = dep[0];
for (i=1; i<cnum; i++) {
if (dep[i] > maxdepth) {
maxdepth = dep[i];
i1 = i;
}
}
int iret[8];
cullPoints (cnum,ret,maxc,i1,iret);
for (j=0; j < maxc; j++) {
dContactGeom *con = CONTACT(contact,skip*j);
for (i=0; i<3; i++) con->pos[i] = point[iret[j]*3+i] + pa[i];
con->depth = dep[iret[j]];
}
cnum = maxc;
}
*return_code = code;
return cnum;
}
void JitArm::fcmpo(UGeckoInstruction inst)
{
INSTRUCTION_START
JITDISABLE(bJITFloatingPointOff)
u32 a = inst.FA, b = inst.FB;
int cr = inst.CRFD;
ARMReg vA = fpr.R0(a);
ARMReg vB = fpr.R0(b);
ARMReg fpscrReg = gpr.GetReg();
ARMReg crReg = gpr.GetReg();
Operand2 FPRFMask(0x1F, 0xA); // 0x1F000
Operand2 LessThan(0x8, 0xA); // 0x8000
Operand2 GreaterThan(0x4, 0xA); // 0x4000
Operand2 EqualTo(0x2, 0xA); // 0x2000
Operand2 NANRes(0x1, 0xA); // 0x1000
FixupBranch Done1, Done2, Done3;
LDR(fpscrReg, R9, PPCSTATE_OFF(fpscr));
BIC(fpscrReg, fpscrReg, FPRFMask);
VCMPE(vA, vB);
VMRS(_PC);
SetCC(CC_LT);
ORR(fpscrReg, fpscrReg, LessThan);
MOV(crReg, 8);
Done1 = B();
SetCC(CC_GT);
ORR(fpscrReg, fpscrReg, GreaterThan);
MOV(crReg, 4);
Done2 = B();
SetCC(CC_EQ);
ORR(fpscrReg, fpscrReg, EqualTo);
MOV(crReg, 2);
Done3 = B();
SetCC();
ORR(fpscrReg, fpscrReg, NANRes);
MOV(crReg, 1);
VCMPE(vA, vA);
VMRS(_PC);
FixupBranch NanA = B_CC(CC_NEQ);
VCMPE(vB, vB);
VMRS(_PC);
FixupBranch NanB = B_CC(CC_NEQ);
SetFPException(fpscrReg, FPSCR_VXVC);
FixupBranch Done4 = B();
SetJumpTarget(NanA);
SetJumpTarget(NanB);
SetFPException(fpscrReg, FPSCR_VXSNAN);
TST(fpscrReg, VEMask);
FixupBranch noVXVC = B_CC(CC_NEQ);
SetFPException(fpscrReg, FPSCR_VXVC);
SetJumpTarget(noVXVC);
SetJumpTarget(Done1);
SetJumpTarget(Done2);
SetJumpTarget(Done3);
SetJumpTarget(Done4);
STRB(crReg, R9, PPCSTATE_OFF(cr_fast) + cr);
STR(fpscrReg, R9, PPCSTATE_OFF(fpscr));
gpr.Unlock(fpscrReg, crReg);
}
static void zop_ED_0x04(void) { /* 0xED 0x04 : TST B */
TST(B);
T_WAIT_UNTIL(TST_OP_T_STATES);
}
void decodeInstruction(instruction_t instruction,uint32_t *registro,flags_t *bandera, uint8_t *SRAM, uint16_t *codificacion, char **Flash)
{
int i;
*codificacion=0; // valor incial
// comparar el mnemonic con el nombre de cada una de las funciones, y asi ejecutar la adecuada
if( strcmp(instruction.mnemonic,"LDR") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
*codificacion=(13<<11)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
instruction.op3_value<<=2;
if(((*(registro+instruction.op2_value)+instruction.op3_value)>=0x20000000)&&((*(registro+instruction.op2_value)+instruction.op3_value)<0x40000000))
{
LDR(registro+instruction.op1_value,*(registro+instruction.op2_value),instruction.op3_value,SRAM);
}
if((*(registro+instruction.op2_value)+instruction.op3_value)<0x20000000)
{
}
if((*(registro+instruction.op2_value)+instruction.op3_value)>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+instruction.op3_value)&0xFF,registro+instruction.op1_value,Read);
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='S') && (instruction.op3_type=='#'))
{
*codificacion=(19<<11)+(instruction.op1_value<<8)+instruction.op3_value;
instruction.op3_value<<=2;
if(((*(registro+13)+instruction.op3_value)>=0x20000000)&&((*(registro+13)+instruction.op3_value)<0x40000000))
{
LDR(registro+instruction.op1_value,*(registro+13),instruction.op3_value,SRAM);
}
if((*(registro+13)+instruction.op3_value)<0x20000000)
{
}
if((*(registro+13)+instruction.op3_value)>=0x40000000)
{
//IOAccess((*(registro+13)+instruction.op3_value)&0xFF,registro+instruction.op1_value,Read);
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='P') && (instruction.op3_type=='#')) // label
{
*codificacion=(9<<11)+(instruction.op1_value<<8)+instruction.op3_value;
instruction.op3_value<<=2;
if(((*(registro+15)+instruction.op3_value)>=0x20000000)&&((*(registro+15)+instruction.op3_value)<0x40000000))
{
LDR(registro+instruction.op1_value,*(registro+15),instruction.op3_value,SRAM);
}
if((*(registro+15)+instruction.op3_value)<0x20000000)
{
}
if((*(registro+15)+instruction.op3_value)>=0x40000000)
{
//IOAccess((*(registro+15)+instruction.op3_value)&0xFF,registro+instruction.op1_value,Read);
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='R'))
{
*codificacion=(11<<11)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x20000000)&&((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x40000000))
{
LDR(registro+instruction.op1_value,*(registro+instruction.op2_value),*(registro+instruction.op3_value),SRAM);
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x20000000)
{
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))&0xFF,registro+instruction.op1_value,Read);
}
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"LDRB") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
*codificacion=(15<<11)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+instruction.op3_value)>=0x20000000)&&((*(registro+instruction.op2_value)+instruction.op3_value)<0x40000000))
{
LDRB(registro+instruction.op1_value,*(registro+instruction.op2_value),instruction.op3_value,SRAM);
}
if((*(registro+instruction.op2_value)+instruction.op3_value)<0x20000000)
{
}
if((*(registro+instruction.op2_value)+instruction.op3_value)>=0x40000000)
{
uint8_t data;
IOAccess((*(registro+instruction.op2_value)+instruction.op3_value)&0xFF,&data,Read);
*(registro+instruction.op1_value)= (uint32_t)data;
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='R'))
{
*codificacion=(1<<14)+(7<<10)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x20000000)&&((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x40000000))
{
LDRB(registro+instruction.op1_value,*(registro+instruction.op2_value),*(registro+instruction.op3_value),SRAM);
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x20000000)
{
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x40000000)
{
uint8_t data;
IOAccess((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))&0xFF,&data,Read);
*(registro+instruction.op1_value)=(uint32_t) data;
}
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"LDRH") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
*codificacion=(1<<15)+(1<<11)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
instruction.op3_value<<=1;
if(((*(registro+instruction.op2_value)+instruction.op3_value)>=0x20000000)&&((*(registro+instruction.op2_value)+instruction.op3_value)<0x40000000))
{
LDRH(registro+instruction.op1_value,*(registro+instruction.op2_value),instruction.op3_value,SRAM);
}
if((*(registro+instruction.op2_value)+instruction.op3_value)<0x20000000)
{
}
if((*(registro+instruction.op2_value)+instruction.op3_value)>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+instruction.op3_value)&0xFF,registro+instruction.op1_value,Read);
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='R'))
{
*codificacion=(5<<12)+(5<<9)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x20000000)&&((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x40000000))
{
LDRH(registro+instruction.op1_value,*(registro+instruction.op2_value),*(registro+instruction.op3_value),SRAM);
}
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x20000000)
{
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))&0xFF,registro+instruction.op1_value,Read);
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"LDRSB") ==0)
{
*codificacion=(5<<12)+(3<<9)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x20000000)&&((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x40000000))
{
LDRSB(registro+instruction.op1_value,*(registro+instruction.op2_value),*(registro+instruction.op3_value),SRAM);
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x20000000)
{
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))&0xFF,registro+instruction.op1_value,Read);
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"LDRSH") ==0)
{
*codificacion=(5<<12)+(7<<9)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x20000000)&&((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x40000000))
{
LDRSH(registro+instruction.op1_value,*(registro+instruction.op2_value),*(registro+instruction.op3_value),SRAM);
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x20000000)
{
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))&0xFF,registro+instruction.op1_value,Read);
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"STR") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
*codificacion=(3<<13)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
instruction.op3_value<<=2;
if(((*(registro+instruction.op2_value)+instruction.op3_value)>=0x20000000)&&((*(registro+instruction.op2_value)+instruction.op3_value)<0x40000000))
{
STR(*(registro+instruction.op1_value),*(registro+instruction.op2_value),instruction.op3_value,SRAM);
}
if((*(registro+instruction.op2_value)+instruction.op3_value)<0x20000000)
{
}
if((*(registro+instruction.op2_value)+instruction.op3_value)>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+instruction.op3_value)&0xFF,registro+instruction.op1_value,Write);
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='S') && (instruction.op3_type=='#'))
{
*codificacion=(9<<12)+(instruction.op1_value<<8)+instruction.op3_type;
instruction.op3_value<<=2;
if(((*(registro+13)+instruction.op3_value)>=0x20000000)&&((*(registro+13)+instruction.op3_value)<0x40000000))
{
STR(*(registro+instruction.op1_value),*(registro+13),instruction.op3_value,SRAM);
}
if((*(registro+13)+instruction.op3_value)<0x20000000)
{
}
if((*(registro+13)+instruction.op3_value)>=0x40000000)
{
//IOAccess((*(registro+13)+instruction.op3_value)&0xFF,registro+instruction.op1_value,Write);
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='R'))
{
*codificacion=(5<<12)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x20000000)&&((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x40000000))
{
STR(*(registro+instruction.op1_value),*(registro+instruction.op2_value),*(registro+instruction.op3_value),SRAM);
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x20000000)
{
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))&0xFF,registro+instruction.op1_value,Write);
}
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"STRB") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
*codificacion=(7<<12)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+instruction.op3_value)>=0x20000000)&&((*(registro+instruction.op2_value)+instruction.op3_value)<0x40000000))
{
STRB(*(registro+instruction.op1_value),*(registro+instruction.op2_value),instruction.op3_value,SRAM);
}
if((*(registro+instruction.op2_value)+instruction.op3_value)<0x20000000)
{
}
if((*(registro+instruction.op2_value)+instruction.op3_value)>=0x40000000)
{
uint8_t data;
data=(uint8_t)(*(registro+instruction.op1_value));
IOAccess((*(registro+instruction.op2_value)+instruction.op3_value)&0xFF,&data,Write);
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='R'))
{
*codificacion=(21<<10)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x20000000)&&((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x40000000))
{
STRB(*(registro+instruction.op1_value),*(registro+instruction.op2_value),*(registro+instruction.op3_value),SRAM);
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x20000000)
{
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x40000000)
{
uint8_t data;
data=(uint8_t)(*(registro+instruction.op1_value));
IOAccess((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))&0xFF,&data,Write);
}
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"STRH") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
*codificacion=(1<<15)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
instruction.op3_value<<=1;
if(((*(registro+instruction.op2_value)+instruction.op3_value)>=0x20000000)&&((*(registro+instruction.op2_value)+instruction.op3_value)<0x40000000))
{
STRH(*(registro+instruction.op1_value),*(registro+instruction.op2_value),instruction.op3_value,SRAM);
}
if((*(registro+instruction.op2_value)+instruction.op3_value)<0x20000000)
{
}
if((*(registro+instruction.op2_value)+instruction.op3_value)>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+instruction.op3_value)&0xFF,registro+instruction.op1_value,Write);
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='R'))
{
*codificacion=(5<<12)+(1<<9)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
if(((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x20000000)&&((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x40000000))
{
STRH(*(registro+instruction.op1_value),*(registro+instruction.op2_value),*(registro+instruction.op3_value),SRAM);
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))<0x20000000)
{
}
if((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))>=0x40000000)
{
//IOAccess((*(registro+instruction.op2_value)+*(registro+instruction.op3_value))&0xFF,registro+instruction.op1_value,Write);
}
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"PUSH") ==0)
{
for(i=0;i<8;i++)
{
*codificacion+=(instruction.registers_list[i]<<i);
}
*codificacion+=(11<<12)+(1<<10)+(instruction.registers_list[14]<<8);
PUSH(registro,SRAM,&instruction.registers_list[0]);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"POP") ==0)
{
for(i=0;i<8;i++)
{
*codificacion+=(instruction.registers_list[i]<<i);
}
*codificacion=(11<<12)+(3<<10)+(instruction.registers_list[15]<<8);
POP(registro,SRAM,&instruction.registers_list[0]);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"ADCS") ==0)
{
*codificacion=(1<<14)+(5<<6)+(instruction.op2_value<<3)+instruction.op1_value;
ADCS(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"ADD") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R'))
{
ADD(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value));
*codificacion=(1<<14)+(1<<10)+(instruction.op2_value<<3)+((8&instruction.op1_value)<<4)+(7&instruction.op1_value);
}
if((instruction.op1_type=='R') && (instruction.op2_type=='S') && (instruction.op3_type=='#'))
{
ADD(registro+instruction.op1_value,*(registro+13),instruction.op2_value);
*codificacion=(21<<11)+(instruction.op1_value<<8)+instruction.op3_value;
}
if((instruction.op1_type=='S') && (instruction.op2_type=='S') && (instruction.op3_type=='#'))
{
ADD(registro+13,*(registro+13),instruction.op3_value);
*codificacion=(11<<12)+instruction.op3_value;
}
if((instruction.op1_type=='R') && (instruction.op2_type=='S') && (instruction.op3_type=='R'))
{
ADD(registro+instruction.op1_value,*(registro+13),*(registro+instruction.op3_value));
*codificacion=(1<<14)+(1<<10)+(13<<3)+((8&instruction.op1_value)<<4)+(7&instruction.op1_value);
}
if((instruction.op1_type=='S') && (instruction.op2_type=='R'))
{
ADD(registro+13,*(registro+13),*(registro+instruction.op2_value));
*codificacion=(1<<14)+(9<<7)+5+(instruction.op2_value<<3);
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"ADDS") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
ADDS(registro+instruction.op1_value,*(registro+instruction.op2_value),instruction.op3_value,bandera);
*codificacion=(7<<10)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
}
if((instruction.op1_type=='R') && (instruction.op2_type=='#'))
{
ADDS(registro+instruction.op1_value,*(registro+instruction.op1_value),instruction.op2_value,bandera);
*codificacion=(3<<12)+(instruction.op1_value<<8)+instruction.op2_value;
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='R'))
{
ADDS(registro+instruction.op1_value,*(registro+instruction.op2_value),*(registro+instruction.op3_value), bandera);
*codificacion=(3<<11)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
}
registro[15]++;
}
// los parametros de las demas funciones aritmeticas, de desplazamiento y logicas son similares
if( strcmp(instruction.mnemonic,"ANDS") ==0)
{
*codificacion=(1<<14)+(instruction.op2_value<<3)+instruction.op1_value;
ANDS(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"ASRS") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R'))
{
ASRS(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera);
*codificacion=(1<<14)+(1<<8)+(instruction.op2_value<<3)+instruction.op1_value;
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
ASRS(registro+instruction.op1_value,*(registro+instruction.op2_value),instruction.op3_value,bandera);
*codificacion=(1<<12)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"BICS") ==0)
{
*codificacion=(1<<14)+(14<<6)+(instruction.op2_value<<3)+instruction.op1_value;
BICS(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"CMN") ==0)
{
*codificacion=(1<<14)+(11<6)+(instruction.op2_value<<3)+instruction.op1_value;
CMN(*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera); // En diferencia a las demas funciones, se envian como parametros 2 valores
registro[15]++;
}
if( strcmp(instruction.mnemonic,"CMP") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R'))
{
if(instruction.op1_value>=8)
{
CMP(*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera); // En diferencia a las demas funciones, se envian como parametros 2 valores
*codificacion=(1<<14)+(5<<8)+(instruction.op2_value<<3)+(7&instruction.op1_value)+((8&instruction.op1_value)<<4);
}
else
{
CMP(*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera); // En diferencia a las demas funciones, se envian como parametros 2 valores
*codificacion=(1<<14)+(10<<6)+(instruction.op2_value<<3)+instruction.op1_value;
}
}
if((instruction.op1_type=='R') && (instruction.op2_type=='#'))
{
CMP(*(registro+instruction.op1_value),instruction.op2_value, bandera); // Como parametros se tienen el contenido de un registro y un valor
*codificacion=(5<<11)+(instruction.op1_value<<8)+instruction.op2_value;
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"EORS") ==0)
{
*codificacion=(1<<14)+(1<<6)+(instruction.op2_value<<3)+instruction.op1_value;
EORS(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value),bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"LSLS") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R'))
{
LSLS(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera);
*codificacion=(1<<14)+(1<<7)+(instruction.op2_value<<3)+instruction.op1_value;
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
LSLS(registro+instruction.op1_value,*(registro+instruction.op2_value),instruction.op3_value,bandera);
*codificacion=(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"LSRS") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R'))
{
LSRS(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera);
*codificacion=(1<<14)+(3<<6)+(instruction.op2_value<<3)+instruction.op1_value;
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
LSRS(registro+instruction.op1_value,*(registro+instruction.op2_value),instruction.op3_value,bandera);
*codificacion=(1<<11)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"MOV") ==0)
{
*codificacion=(1<<14)+(3<<9)+(instruction.op2_value<<3)+(7&instruction.op1_value)+((8&instruction.op1_value)<<4);
MOV(registro+instruction.op1_value,*(registro+instruction.op2_value)); // Envio como parametros una direccion y el contenido de un registro
registro[15]++;
}
if( strcmp(instruction.mnemonic,"MOVS") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='#'))
{
MOVS(registro+instruction.op1_value,instruction.op2_value, bandera);
*codificacion=(1<<13)+(instruction.op1_value<<8)+instruction.op2_value;
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R'))
{
MOVS(registro+instruction.op1_value,*(registro+instruction.op2_value),bandera);
*codificacion=(instruction.op2_value<<3)+instruction.op1_value;
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"MULS") ==0)
{
*codificacion=(1<<14)+(13<<6)+(instruction.op2_value<<3)+instruction.op3_value;
MULS(registro+instruction.op1_value,*(registro+instruction.op2_value),*(registro+instruction.op3_value), bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"MVNS") ==0)
{
*codificacion=(1<<14)+(15<<6)+(instruction.op2_value<<3)+instruction.op1_value;
RSBS(registro+instruction.op1_value,*(registro+instruction.op2_value), bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"NOP") ==0)
{
*codificacion=(11<<12)+(15<<8);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"ORRS") ==0)
{
*codificacion=(1<<14)+(3<<8)+(instruction.op2_value<<3)+instruction.op1_value;
ORRS(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"REV") ==0)
{
*codificacion=(11<<12)+(5<<9)+(instruction.op2_value<<3)+instruction.op1_value;
REV(registro+instruction.op1_value, *(registro+instruction.op2_value));
registro[15]++;
}
if( strcmp(instruction.mnemonic,"REV16") ==0)
{
*codificacion=(11<<12)+(5<<9)+(1<<6)+(instruction.op2_value<<3)+instruction.op1_value;
REV16(registro+instruction.op1_value,*(registro+instruction.op2_value));
registro[15]++;
}
if( strcmp(instruction.mnemonic,"REVSH") ==0)
{
*codificacion=(11<<12)+(5<<9)+(3<<6)+(instruction.op2_value<<3)+instruction.op1_value;
REVSH(registro+instruction.op1_value,*(registro+instruction.op2_value));
registro[15]++;
}
if( strcmp(instruction.mnemonic,"RORS") ==0)
{
*codificacion=(1<<14)+(7<<6)+(instruction.op2_value<<3)+instruction.op1_value;
RORS(registro+instruction.op1_value,*(registro+instruction.op2_value), bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"RSBS") ==0)
{
*codificacion=(1<<14)+(9<<6)+(instruction.op2_value<<3)+instruction.op1_value;
RSBS(registro+instruction.op1_value,*(registro+instruction.op2_value), bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"SBCS") ==0)
{
*codificacion=(1<<14)+(3<<7)+(instruction.op2_value<<3)+instruction.op1_value;
SBCS(registro+instruction.op1_value,*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera);
registro[15]++;
}
if( strcmp(instruction.mnemonic,"SUB") ==0)
{
if((instruction.op1_type=='S') && (instruction.op2_type=='S') && (instruction.op3_type=='#'))
{
SUB(registro+13,*(registro+13),instruction.op3_value);
*codificacion=(11<<12)+(1<<7)+instruction.op3_value;
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"SUBS") ==0)
{
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='#'))
{
SUBS(registro+instruction.op1_value,*(registro+instruction.op2_value),instruction.op3_value,bandera);
*codificacion=(15<<9)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
}
if((instruction.op1_type=='R') && (instruction.op2_type=='#'))
{
SUBS(registro+instruction.op1_value,*(registro+instruction.op1_value),instruction.op2_value,bandera);
*codificacion=(7<<11)+(instruction.op1_value<<8)+instruction.op2_value;
}
if((instruction.op1_type=='R') && (instruction.op2_type=='R') && (instruction.op3_type=='R'))
{
SUBS(registro+instruction.op1_value,*(registro+instruction.op2_value),*(registro+instruction.op3_value), bandera);
*codificacion=(13<<9)+(instruction.op3_value<<6)+(instruction.op2_value<<3)+instruction.op1_value;
}
registro[15]++;
}
if( strcmp(instruction.mnemonic,"TST") ==0)
{
*codificacion=(1<<14)+(1<<9)+(instruction.op2_value<<3)+instruction.op1_value;
TST(*(registro+instruction.op1_value),*(registro+instruction.op2_value), bandera); // Como parametros se tienen el contenido de un registro y un valor
registro[15]++;
}
// Las siguientes funciones, son funciones de saltos
if( strcmp(instruction.mnemonic,"B") ==0)
{
*codificacion=(7<<13)+instruction.op1_value;
B(registro,instruction.op1_value); // Envio como parametroa la direccion de registro y el valor del salto
}
if( strcmp(instruction.mnemonic,"BL") ==0)
{
*codificacion=(31<<11)+(2047&instruction.op1_value);
BL(registro,instruction.op1_value); // Envio como parametroa la direccion de registro y el valor del salto
}
if( strcmp(instruction.mnemonic,"BLX") ==0)
{
*codificacion=(1<<14)+(15<<7)+(instruction.op1_value<<3);
BLX(registro,*(registro+instruction.op1_value)); // Envio como parametroa la direccion de registro y el contenido de un registro
}
if( strcmp(instruction.mnemonic,"BX") ==0)
{
*codificacion=(1<<14)+(14<<7)+(instruction.op1_value<<3);
if(instruction.op1_type=='L') // Sucede cuando
{
BX(registro,registro[14]); // PC=LR
}
if(instruction.op1_type=='R') // Sucede cuando se tiene como parametro un registro diferente a LR
{
BX(registro,*(registro+instruction.op1_value));
}
}
if( strcmp(instruction.mnemonic,"BEQ") ==0)
{
*codificacion=(13<<12)+instruction.op1_value;
BEQ(registro,instruction.op1_value,*bandera); // Envio como parametros la direccion de registro, el valor del salto y las banderas
}
// Todas las siguientes funciones de salto tienen los mismos parametro que BEQ
if( strcmp(instruction.mnemonic,"BNE") ==0)
{
*codificacion=(13<<12)+(1<<8)+instruction.op1_value;
BNE(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BCS") ==0)
{
*codificacion=(13<<12)+(2<<8)+instruction.op1_value;
BCS(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BCC") ==0)
{
*codificacion=(13<<12)+(3<<8)+instruction.op1_value;
BCC(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BMI") ==0)
{
*codificacion=(13<<12)+(4<<8)+instruction.op1_value;
BMI(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BPL") ==0)
{
*codificacion=(13<<12)+(5<<8)+instruction.op1_value;
BPL(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BVS") ==0)
{
*codificacion=(13<<12)+(6<<8)+instruction.op1_value;
BVS(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BVC") ==0)
{
*codificacion=(13<<12)+(7<<8)+instruction.op1_value;
BVC(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BHI") ==0)
{
*codificacion=(13<<12)+(8<<8)+instruction.op1_value;
BHI(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BLS") ==0)
{
*codificacion=(13<<12)+(9<<8)+instruction.op1_value;
BLS(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BGE") ==0)
{
*codificacion=(13<<12)+(10<<8)+instruction.op1_value;
BGE(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BLT") ==0)
{
*codificacion=(13<<12)+(11<<8)+instruction.op1_value;
BLT(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BGT") ==0)
{
*codificacion=(13<<12)+(12<<8)+instruction.op1_value;
BGT(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BLE") ==0)
{
*codificacion=(13<<12)+(13<<8)+instruction.op1_value;
BLE(registro,instruction.op1_value,*bandera);
}
if( strcmp(instruction.mnemonic,"BAL") ==0)
{
*codificacion=(13<<12)+(14<<8)+instruction.op1_value;
BAL(registro,instruction.op1_value,*bandera);
}
}
int tst(void)
{
int ret = 0;
int num = 0;
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%.0d", 0);
TST_B_TST(ret, 1, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%.d", 0);
TST_B_TST(ret, 2, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%I.*d", 0, 0);
TST_B_TST(ret, 3, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%.0x", 0);
TST_B_TST(ret, 4, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%.x", 0);
TST_B_TST(ret, 5, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%.*x", 0, 0);
TST_B_TST(ret, 6, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%#.*x", 0, 0);
TST_B_TST(ret, 7, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%.0o", 0);
TST_B_TST(ret, 8, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%.o", 0);
TST_B_TST(ret, 9, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%.*o", 0, 0);
TST_B_TST(ret, 10, s1->len);
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%#.o", 0);
TST_B_TST(ret, 11, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, "0"));
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%#x", 1);
TST_B_TST(ret, 12, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, "0x1"));
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%#.x", 1);
TST_B_TST(ret, 13, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, "0x1"));
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%#x", 0);
TST_B_TST(ret, 14, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, "0"));
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%#8o", 1);
TST_B_TST(ret, 15, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, " 01"));
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%#08o", 0);
TST_B_TST(ret, 16, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, "00000000"));
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%#8x", 1);
TST_B_TST(ret, 17, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, " 0x1"));
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%#08x", 1);
TST_B_TST(ret, 18, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, "0x000001"));
vstr_del(s1, 1, s1->len);
vstr_add_fmt(s1, 0, "%-*d", 4, 1);
TST_B_TST(ret, 18, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, "1 "));
sprintf(buf, "%#.o", 0);
if (!buf[0])
return (EXIT_FAILED_OK); /* Solaris (2.8) gets this wrong at least... */
num = 5;
while (num--)
{
unsigned int mfail_count = 0;
int spaces = 2;
while (spaces < 10)
{
const char *fmt = NULL;
#define FMT(x) (fmt = ((num == 0xff) ? "<%" x "x>" : (num == 0xfe) ? "<%" x "X>" : (num == 0777) ? "<%" x "o>" : "<%" x "d>"))
FMT("+#*");
vstr_del(s3, 1, s3->len);
mfail_count = 0;
do
{
ASSERT(!s3->len);
vstr_free_spare_nodes(s3->conf, VSTR_TYPE_NODE_BUF, 1000);
tst_mfail_num(++mfail_count);
} while (!vstr_add_fmt(s3, s3->len, fmt, spaces, num));
tst_mfail_num(0);
sprintf(buf, fmt, spaces, num);
TST_B_TST(ret, 19, !VSTR_CMP_CSTR_EQ(s3, 1, s3->len, buf));
FMT("*");
vstr_del(s3, 1, s3->len);
mfail_count = 0;
do
{
ASSERT(!s3->len);
vstr_free_spare_nodes(s3->conf, VSTR_TYPE_NODE_BUF, 1000);
tst_mfail_num(++mfail_count);
} while (!vstr_add_fmt(s3, s3->len, fmt, -spaces, num));
tst_mfail_num(0);
sprintf(buf, fmt, -spaces, num);
TST_B_TST(ret, 19, !VSTR_CMP_CSTR_EQ(s3, 1, s3->len, buf));
FMT(" #.*");
vstr_del(s3, 1, s3->len);
mfail_count = 0;
do
{
ASSERT(!s3->len);
vstr_free_spare_nodes(s3->conf, VSTR_TYPE_NODE_BUF, 1000);
tst_mfail_num(++mfail_count);
} while (!vstr_add_fmt(s3, s3->len, fmt, spaces, num));
tst_mfail_num(0);
sprintf(buf, fmt, spaces, num);
TST_B_TST(ret, 19, !VSTR_CMP_CSTR_EQ(s3, 1, s3->len, buf));
++spaces;
}
switch (num)
{
case 4: num = -3; break;
case -4: num = 0x100; break;
case 0xff: break;
case 0xfe: num = 01000; break;
case 0777: num = 1; break;
case 0: break;
}
}
{
static const char fmts[][80] = {
"<%o|%#o|%d|%x|%#x|%#d>",
"<%0o|%0#o|%0d|%0x|%0#x|%0#d>",
"<%.o|%#.o|%.d|%.x|%#.x|%#.d>",
"<%0.o|%0#.o|%0.d|%0.x|%0#.x|%0#.d>",
"<%.1o|%#.1o|%.1d|%.1x|%#.1x|%#.1d>",
"<%0.1o|%0#.1o|%0.1d|%0.1x|%0#.1x|%0#.1d>",
"<%8o|%#8o|%8d|%8x|%#8x|%#8d>",
"<%08o|%#08o|%08d|%08x|%0#8x|%0#8d>",
"<%8.o|%#8.o|%8.d|%8.x|%#8.x|%#8.d>",
"<%08.o|%#08.o|%08.d|%08.x|%0#8.x|%0#8.d>",
"<%4.1o|%#4.1o|%4.1d|%4.1x|%#4.1x|%#4.1d>",
"<%4.8o|%#4.8o|%4.8d|%4.8x|%#4.8x|%#4.8d>",
"<%8.4o|%#8.4o|%8.4d|%8.4x|%#8.4x|%#8.4d>",
"<%04.1o|%0#4.1o|%04.1d|%04.1x|%0#4.1x|%0#4.1d>",
"<%04.8o|%0#4.8o|%04.8d|%04.8x|%0#4.8x|%0#4.8d>",
"<%08.4o|%0#8.4o|%08.4d|%08.4x|%0#8.4x|%0#8.4d>",
"<%-o|%-#o|%-d|%-x|%-#x|%-#d>",
"<%-0o|%-0#o|%-0d|%-0x|%-0#x|%-0#d>",
"<%-.o|%-#.o|%-.d|%-.x|%-#.x|%-#.d>",
"<%-0.o|%-0#.o|%-0.d|%-0.x|%-0#.x|%-0#.d>",
"<%-.1o|%-#.1o|%-.1d|%-.1x|%-#.1x|%-#.1d>",
"<%-0.1o|%-0#.1o|%-0.1d|%-0.1x|%-0#.1x|%-0#.1d>",
"<%-8o|%-#8o|%-8d|%-8x|%-#8x|%-#8d>",
"<%-08o|%-#08o|%-08d|%-08x|%-0#8x|%-0#8d>",
"<%-8.o|%-#8.o|%-8.d|%-8.x|%-#8.x|%-#8.d>",
"<%-08.o|%-#08.o|%-08.d|%-08.x|%-0#8.x|%-0#8.d>",
"<%-4.1o|%-#4.1o|%-4.1d|%-4.1x|%-#4.1x|%-#4.1d>",
"<%-4.8o|%-#4.8o|%-4.8d|%-4.8x|%-#4.8x|%-#4.8d>",
"<%-8.4o|%-#8.4o|%-8.4d|%-8.4x|%-#8.4x|%-#8.4d>",
"<%-04.1o|%-0#4.1o|%-04.1d|%-04.1x|%-0#4.1x|%-0#4.1d>",
"<%-04.8o|%-0#4.8o|%-04.8d|%-04.8x|%-0#4.8x|%-0#4.8d>",
"<%-08.4o|%-0#8.4o|%-08.4d|%-08.4x|%-0#8.4x|%-0#8.4d>",
"<%+o|%+#o|%+d|%+x|%+#x|%+#d>",
"<%+0o|%+0#o|%+0d|%+0x|%+0#x|%+0#d>",
"<%+.o|%+#.o|%+.d|%+.x|%+#.x|%+#.d>",
"<%+0.o|%+0#.o|%+0.d|%+0.x|%+0#.x|%+0#.d>",
"<%+.1o|%+#.1o|%+.1d|%+.1x|%+#.1x|%+#.1d>",
"<%+0.1o|%+0#.1o|%+0.1d|%+0.1x|%+0#.1x|%+0#.1d>",
"<%+8o|%+#8o|%+8d|%+8x|%+#8x|%+#8d>",
"<%+08o|%+#08o|%+08d|%+08x|%+0#8x|%+0#8d>",
"<%+8.o|%+#8.o|%+8.d|%+8.x|%+#8.x|%+#8.d>",
"<%+08.o|%+#08.o|%+08.d|%+08.x|%+0#8.x|%+0#8.d>",
"<%+4.1o|%+#4.1o|%+4.1d|%+4.1x|%+#4.1x|%+#4.1d>",
"<%+4.8o|%+#4.8o|%+4.8d|%+4.8x|%+#4.8x|%+#4.8d>",
"<%+8.4o|%+#8.4o|%+8.4d|%+8.4x|%+#8.4x|%+#8.4d>",
"<%+04.1o|%+0#4.1o|%+04.1d|%+04.1x|%+0#4.1x|%+0#4.1d>",
"<%+04.8o|%+0#4.8o|%+04.8d|%+04.8x|%+0#4.8x|%+0#4.8d>",
"<%+08.4o|%+0#8.4o|%+08.4d|%+08.4x|%+0#8.4x|%+0#8.4d>",
"<% o|% #o|% d|% x|% #x|% #d>",
"<% 0o|% 0#o|% 0d|% 0x|% 0#x|% 0#d>",
"<% .o|% #.o|% .d|% .x|% #.x|% #.d>",
"<% 0.o|% 0#.o|% 0.d|% 0.x|% 0#.x|% 0#.d>",
"<% .1o|% #.1o|% .1d|% .1x|% #.1x|% #.1d>",
"<% 0.1o|% 0#.1o|% 0.1d|% 0.1x|% 0#.1x|% 0#.1d>",
"<% 8o|% #8o|% 8d|% 8x|% #8x|% #8d>",
"<% 08o|% #08o|% 08d|% 08x|% 0#8x|% 0#8d>",
"<% 8.o|% #8.o|% 8.d|% 8.x|% #8.x|% #8.d>",
"<% 08.o|% #08.o|% 08.d|% 08.x|% 0#8.x|% 0#8.d>",
"<% 4.1o|% #4.1o|% 4.1d|% 4.1x|% #4.1x|% #4.1d>",
"<% 4.8o|% #4.8o|% 4.8d|% 4.8x|% #4.8x|% #4.8d>",
"<% 8.4o|% #8.4o|% 8.4d|% 8.4x|% #8.4x|% #8.4d>",
"<% 04.1o|% 0#4.1o|% 04.1d|% 04.1x|% 0#4.1x|% 0#4.1d>",
"<% 04.8o|% 0#4.8o|% 04.8d|% 04.8x|% 0#4.8x|% 0#4.8d>",
"<% 08.4o|% 0#8.4o|% 08.4d|% 08.4x|% 0#8.4x|% 0#8.4d>"
};
#define TST(sym, fmt, val) \
tst_ ## sym (fmt, \
(val), (val), (val), (val), (val), (val))
unsigned int count = 0;
while (count < 0x1002)
{
unsigned int scan = 0;
while (scan < sizeof(fmts)/sizeof(fmts[0]))
{
TST(host, fmts[scan], count);
TST(vstr, fmts[scan], count);
TST_B_TST(ret, 30, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, buf));
TST(host, fmts[scan], -(int)count);
TST(vstr, fmts[scan], -(int)count);
TST_B_TST(ret, 30, !VSTR_CMP_CSTR_EQ(s1, 1, s1->len, buf));
++scan;
}
switch (count)
{ case 0x0000: count = 0x0001; break;
case 0x0001: count = 10; break;
case 10: count = 0x0010; break;
case 0x0010: count = 100; break;
case 100: count = 0x0100; break;
case 0x0100: count = 1000; break;
case 1000: count = 0x1000; break;
case 0x1000: count = 0x1001; break;
case 0x1001: count = 0x10000001; break;
case 0x10000001: count = 0x10000002; break;
default: abort();
}
}
}
return (TST_B_RET(ret));
}
int main(int argc, char ** argv) {
memory::initialize(0);
bool do_display_usage = false;
bool test_all = false;
parse_cmd_line_args(argc, argv, do_display_usage, test_all);
TST(random);
TST(vector);
TST(symbol_table);
TST(region);
TST(symbol);
TST(heap);
TST(hashtable);
TST(rational);
TST(inf_rational);
TST(ast);
TST(optional);
TST(bit_vector);
TST(fixed_bit_vector);
TST(tbv);
TST(doc);
TST(udoc_relation);
TST(string_buffer);
TST(map);
TST(diff_logic);
TST(uint_set);
TST_ARGV(expr_rand);
TST(list);
TST(small_object_allocator);
TST(timeout);
TST(proof_checker);
TST(simplifier);
TST(bv_simplifier_plugin);
TST(bit_blaster);
TST(var_subst);
TST(simple_parser);
TST(api);
TST(old_interval);
TST(get_implied_equalities);
TST(arith_simplifier_plugin);
TST(matcher);
TST(object_allocator);
TST(mpz);
TST(mpq);
TST(mpf);
TST(total_order);
TST(dl_table);
TST(dl_context);
TST(dl_util);
TST(dl_product_relation);
TST(dl_relation);
TST(parray);
TST(stack);
TST(escaped);
TST(buffer);
TST(chashtable);
TST(ex);
TST(nlarith_util);
TST(api_bug);
TST(arith_rewriter);
TST(check_assumptions);
TST(smt_context);
TST(theory_dl);
TST(model_retrieval);
TST(model_based_opt);
TST(factor_rewriter);
TST(smt2print_parse);
TST(substitution);
TST(polynomial);
TST(upolynomial);
TST(algebraic);
TST(polynomial_factorization);
TST(prime_generator);
TST(permutation);
TST(nlsat);
TST(ext_numeral);
TST(interval);
TST(f2n);
TST(hwf);
TST(trigo);
TST(bits);
TST(mpbq);
TST(mpfx);
TST(mpff);
TST(horn_subsume_model_converter);
TST(model2expr);
TST(hilbert_basis);
TST(heap_trie);
TST(karr);
TST(no_overflow);
TST(memory);
TST(datalog_parser);
TST_ARGV(datalog_parser_file);
TST(dl_query);
TST(quant_solve);
TST(rcf);
TST(polynorm);
TST(qe_arith);
TST(expr_substitution);
TST(sorting_network);
TST(theory_pb);
TST(simplex);
TST(sat_user_scope);
TST(pdr);
TST_ARGV(ddnf);
TST(model_evaluator);
//TST_ARGV(hs);
}
int dBoxBox (const dVector3 p1, const dMatrix3 R1,
const dVector3 side1, const dVector3 p2,
const dMatrix3 R2, const dVector3 side2,
dVector3 normal, dReal *depth, int *return_code,
int flags, dContactGeom *contact, int skip)
{
const dReal fudge_factor = REAL(1.05);
dVector3 p,pp,normalC={0,0,0};
const dReal *normalR = 0;
dReal A[3],B[3],R11,R12,R13,R21,R22,R23,R31,R32,R33,
Q11,Q12,Q13,Q21,Q22,Q23,Q31,Q32,Q33,s,s2,l,expr1_val;
int i,j,invert_normal,code;
// get vector from centers of box 1 to box 2, relative to box 1
p[0] = p2[0] - p1[0];
p[1] = p2[1] - p1[1];
p[2] = p2[2] - p1[2];
dMultiply1_331 (pp,R1,p); // get pp = p relative to body 1
// get side lengths / 2
A[0] = side1[0]*REAL(0.5);
A[1] = side1[1]*REAL(0.5);
A[2] = side1[2]*REAL(0.5);
B[0] = side2[0]*REAL(0.5);
B[1] = side2[1]*REAL(0.5);
B[2] = side2[2]*REAL(0.5);
// Rij is R1'*R2, i.e. the relative rotation between R1 and R2
R11 = dCalcVectorDot3_44(R1+0,R2+0); R12 = dCalcVectorDot3_44(R1+0,R2+1); R13 = dCalcVectorDot3_44(R1+0,R2+2);
R21 = dCalcVectorDot3_44(R1+1,R2+0); R22 = dCalcVectorDot3_44(R1+1,R2+1); R23 = dCalcVectorDot3_44(R1+1,R2+2);
R31 = dCalcVectorDot3_44(R1+2,R2+0); R32 = dCalcVectorDot3_44(R1+2,R2+1); R33 = dCalcVectorDot3_44(R1+2,R2+2);
Q11 = dFabs(R11); Q12 = dFabs(R12); Q13 = dFabs(R13);
Q21 = dFabs(R21); Q22 = dFabs(R22); Q23 = dFabs(R23);
Q31 = dFabs(R31); Q32 = dFabs(R32); Q33 = dFabs(R33);
// for all 15 possible separating axes:
// * see if the axis separates the boxes. if so, return 0.
// * find the depth of the penetration along the separating axis (s2)
// * if this is the largest depth so far, record it.
// the normal vector will be set to the separating axis with the smallest
// depth. note: normalR is set to point to a column of R1 or R2 if that is
// the smallest depth normal so far. otherwise normalR is 0 and normalC is
// set to a vector relative to body 1. invert_normal is 1 if the sign of
// the normal should be flipped.
do {
#define TST(expr1,expr2,norm,cc) \
expr1_val = (expr1); /* Avoid duplicate evaluation of expr1 */ \
s2 = dFabs(expr1_val) - (expr2); \
if (s2 > 0) return 0; \
if (s2 > s) { \
s = s2; \
normalR = norm; \
invert_normal = ((expr1_val) < 0); \
code = (cc); \
if (flags & CONTACTS_UNIMPORTANT) break; \
}
s = -dInfinity;
invert_normal = 0;
code = 0;
// separating axis = u1,u2,u3
TST (pp[0],(A[0] + B[0]*Q11 + B[1]*Q12 + B[2]*Q13),R1+0,1);
TST (pp[1],(A[1] + B[0]*Q21 + B[1]*Q22 + B[2]*Q23),R1+1,2);
TST (pp[2],(A[2] + B[0]*Q31 + B[1]*Q32 + B[2]*Q33),R1+2,3);
// separating axis = v1,v2,v3
TST (dCalcVectorDot3_41(R2+0,p),(A[0]*Q11 + A[1]*Q21 + A[2]*Q31 + B[0]),R2+0,4);
TST (dCalcVectorDot3_41(R2+1,p),(A[0]*Q12 + A[1]*Q22 + A[2]*Q32 + B[1]),R2+1,5);
TST (dCalcVectorDot3_41(R2+2,p),(A[0]*Q13 + A[1]*Q23 + A[2]*Q33 + B[2]),R2+2,6);
// note: cross product axes need to be scaled when s is computed.
// normal (n1,n2,n3) is relative to box 1.
#undef TST
#define TST(expr1,expr2,n1,n2,n3,cc) \
expr1_val = (expr1); /* Avoid duplicate evaluation of expr1 */ \
s2 = dFabs(expr1_val) - (expr2); \
if (s2 > 0) return 0; \
l = dSqrt ((n1)*(n1) + (n2)*(n2) + (n3)*(n3)); \
if (l > 0) { \
s2 /= l; \
if (s2*fudge_factor > s) { \
s = s2; \
normalR = 0; \
normalC[0] = (n1)/l; normalC[1] = (n2)/l; normalC[2] = (n3)/l; \
invert_normal = ((expr1_val) < 0); \
code = (cc); \
if (flags & CONTACTS_UNIMPORTANT) break; \
} \
}
// We only need to check 3 edges per box
// since parallel edges are equivalent.
// separating axis = u1 x (v1,v2,v3)
TST(pp[2]*R21-pp[1]*R31,(A[1]*Q31+A[2]*Q21+B[1]*Q13+B[2]*Q12),0,-R31,R21,7);
TST(pp[2]*R22-pp[1]*R32,(A[1]*Q32+A[2]*Q22+B[0]*Q13+B[2]*Q11),0,-R32,R22,8);
TST(pp[2]*R23-pp[1]*R33,(A[1]*Q33+A[2]*Q23+B[0]*Q12+B[1]*Q11),0,-R33,R23,9);
// separating axis = u2 x (v1,v2,v3)
TST(pp[0]*R31-pp[2]*R11,(A[0]*Q31+A[2]*Q11+B[1]*Q23+B[2]*Q22),R31,0,-R11,10);
TST(pp[0]*R32-pp[2]*R12,(A[0]*Q32+A[2]*Q12+B[0]*Q23+B[2]*Q21),R32,0,-R12,11);
TST(pp[0]*R33-pp[2]*R13,(A[0]*Q33+A[2]*Q13+B[0]*Q22+B[1]*Q21),R33,0,-R13,12);
// separating axis = u3 x (v1,v2,v3)
TST(pp[1]*R11-pp[0]*R21,(A[0]*Q21+A[1]*Q11+B[1]*Q33+B[2]*Q32),-R21,R11,0,13);
TST(pp[1]*R12-pp[0]*R22,(A[0]*Q22+A[1]*Q12+B[0]*Q33+B[2]*Q31),-R22,R12,0,14);
TST(pp[1]*R13-pp[0]*R23,(A[0]*Q23+A[1]*Q13+B[0]*Q32+B[1]*Q31),-R23,R13,0,15);
#undef TST
} while (0);
if (!code) return 0;
// if we get to this point, the boxes interpenetrate. compute the normal
// in global coordinates.
if (normalR) {
normal[0] = normalR[0];
normal[1] = normalR[4];
normal[2] = normalR[8];
}
else {
dMultiply0_331 (normal,R1,normalC);
}
if (invert_normal) {
normal[0] = -normal[0];
normal[1] = -normal[1];
normal[2] = -normal[2];
}
*depth = -s;
// compute contact point(s)
if (code > 6) {
// An edge from box 1 touches an edge from box 2.
// find a point pa on the intersecting edge of box 1
dVector3 pa;
dReal sign;
// Copy p1 into pa
for (i=0; i<3; i++) pa[i] = p1[i]; // why no memcpy?
// Get world position of p2 into pa
for (j=0; j<3; j++) {
sign = (dCalcVectorDot3_14(normal,R1+j) > 0) ? REAL(1.0) : REAL(-1.0);
for (i=0; i<3; i++) pa[i] += sign * A[j] * R1[i*4+j];
}
// find a point pb on the intersecting edge of box 2
dVector3 pb;
// Copy p2 into pb
for (i=0; i<3; i++) pb[i] = p2[i]; // why no memcpy?
// Get world position of p2 into pb
for (j=0; j<3; j++) {
sign = (dCalcVectorDot3_14(normal,R2+j) > 0) ? REAL(-1.0) : REAL(1.0);
for (i=0; i<3; i++) pb[i] += sign * B[j] * R2[i*4+j];
}
dReal alpha,beta;
dVector3 ua,ub;
// Get direction of first edge
for (i=0; i<3; i++) ua[i] = R1[((code)-7)/3 + i*4];
// Get direction of second edge
for (i=0; i<3; i++) ub[i] = R2[((code)-7)%3 + i*4];
// Get closest points between edges (one at each)
dLineClosestApproach (pa,ua,pb,ub,&alpha,&beta);
for (i=0; i<3; i++) pa[i] += ua[i]*alpha;
for (i=0; i<3; i++) pb[i] += ub[i]*beta;
// Set the contact point as halfway between the 2 closest points
for (i=0; i<3; i++) contact[0].pos[i] = REAL(0.5)*(pa[i]+pb[i]);
contact[0].depth = *depth;
*return_code = code;
return 1;
}
// okay, we have a face-something intersection (because the separating
// axis is perpendicular to a face). define face 'a' to be the reference
// face (i.e. the normal vector is perpendicular to this) and face 'b' to be
// the incident face (the closest face of the other box).
// Note: Unmodified parameter values are being used here
const dReal *Ra,*Rb,*pa,*pb,*Sa,*Sb;
if (code <= 3) { // One of the faces of box 1 is the reference face
Ra = R1; // Rotation of 'a'
Rb = R2; // Rotation of 'b'
pa = p1; // Center (location) of 'a'
pb = p2; // Center (location) of 'b'
Sa = A; // Side Lenght of 'a'
Sb = B; // Side Lenght of 'b'
}
else { // One of the faces of box 2 is the reference face
Ra = R2; // Rotation of 'a'
Rb = R1; // Rotation of 'b'
pa = p2; // Center (location) of 'a'
pb = p1; // Center (location) of 'b'
Sa = B; // Side Lenght of 'a'
Sb = A; // Side Lenght of 'b'
}
// nr = normal vector of reference face dotted with axes of incident box.
// anr = absolute values of nr.
/*
The normal is flipped if necessary so it always points outward from box 'a',
box 'b' is thus always the incident box
*/
dVector3 normal2,nr,anr;
if (code <= 3) {
normal2[0] = normal[0];
normal2[1] = normal[1];
normal2[2] = normal[2];
}
else {
normal2[0] = -normal[0];
normal2[1] = -normal[1];
normal2[2] = -normal[2];
}
// Rotate normal2 in incident box opposite direction
dMultiply1_331 (nr,Rb,normal2);
anr[0] = dFabs (nr[0]);
anr[1] = dFabs (nr[1]);
anr[2] = dFabs (nr[2]);
// find the largest compontent of anr: this corresponds to the normal
// for the incident face. the other axis numbers of the incident face
// are stored in a1,a2.
int lanr,a1,a2;
if (anr[1] > anr[0]) {
if (anr[1] > anr[2]) {
a1 = 0;
lanr = 1;
a2 = 2;
}
else {
a1 = 0;
a2 = 1;
lanr = 2;
}
}
else {
if (anr[0] > anr[2]) {
lanr = 0;
a1 = 1;
a2 = 2;
}
else {
a1 = 0;
a2 = 1;
lanr = 2;
}
}
// compute center point of incident face, in reference-face coordinates
dVector3 center;
if (nr[lanr] < 0) {
for (i=0; i<3; i++) center[i] = pb[i] - pa[i] + Sb[lanr] * Rb[i*4+lanr];
}
else {
for (i=0; i<3; i++) center[i] = pb[i] - pa[i] - Sb[lanr] * Rb[i*4+lanr];
}
// find the normal and non-normal axis numbers of the reference box
int codeN,code1,code2;
if (code <= 3) codeN = code-1; else codeN = code-4;
if (codeN==0) {
code1 = 1;
code2 = 2;
}
else if (codeN==1) {
code1 = 0;
code2 = 2;
}
else {
code1 = 0;
code2 = 1;
}
// find the four corners of the incident face, in reference-face coordinates
dReal quad[8]; // 2D coordinate of incident face (x,y pairs)
dReal c1,c2,m11,m12,m21,m22;
c1 = dCalcVectorDot3_14 (center,Ra+code1);
c2 = dCalcVectorDot3_14 (center,Ra+code2);
// optimize this? - we have already computed this data above, but it is not
// stored in an easy-to-index format. for now it's quicker just to recompute
// the four dot products.
m11 = dCalcVectorDot3_44 (Ra+code1,Rb+a1);
m12 = dCalcVectorDot3_44 (Ra+code1,Rb+a2);
m21 = dCalcVectorDot3_44 (Ra+code2,Rb+a1);
m22 = dCalcVectorDot3_44 (Ra+code2,Rb+a2);
{
dReal k1 = m11*Sb[a1];
dReal k2 = m21*Sb[a1];
dReal k3 = m12*Sb[a2];
dReal k4 = m22*Sb[a2];
quad[0] = c1 - k1 - k3;
quad[1] = c2 - k2 - k4;
quad[2] = c1 - k1 + k3;
quad[3] = c2 - k2 + k4;
quad[4] = c1 + k1 + k3;
quad[5] = c2 + k2 + k4;
quad[6] = c1 + k1 - k3;
quad[7] = c2 + k2 - k4;
}
// find the size of the reference face
dReal rect[2];
rect[0] = Sa[code1];
rect[1] = Sa[code2];
// intersect the incident and reference faces
dReal ret[16];
int n = intersectRectQuad (rect,quad,ret);
if (n < 1) return 0; // this should never happen
// convert the intersection points into reference-face coordinates,
// and compute the contact position and depth for each point. only keep
// those points that have a positive (penetrating) depth. delete points in
// the 'ret' array as necessary so that 'point' and 'ret' correspond.
dReal point[3*8]; // penetrating contact points
dReal dep[8]; // depths for those points
dReal det1 = dRecip(m11*m22 - m12*m21);
m11 *= det1;
m12 *= det1;
m21 *= det1;
m22 *= det1;
int cnum = 0; // number of penetrating contact points found
for (j=0; j < n; j++) {
dReal k1 = m22*(ret[j*2]-c1) - m12*(ret[j*2+1]-c2);
dReal k2 = -m21*(ret[j*2]-c1) + m11*(ret[j*2+1]-c2);
for (i=0; i<3; i++) point[cnum*3+i] =
center[i] + k1*Rb[i*4+a1] + k2*Rb[i*4+a2];
dep[cnum] = Sa[codeN] - dCalcVectorDot3(normal2,point+cnum*3);
if (dep[cnum] >= 0) {
ret[cnum*2] = ret[j*2];
ret[cnum*2+1] = ret[j*2+1];
cnum++;
if ((cnum | CONTACTS_UNIMPORTANT) == (flags & (NUMC_MASK | CONTACTS_UNIMPORTANT))) {
break;
}
}
}
if (cnum < 1) {
return 0; // this should not happen, yet does at times (demo_plane2d single precision).
}
// we can't generate more contacts than we actually have
int maxc = flags & NUMC_MASK;
if (maxc > cnum) maxc = cnum;
if (maxc < 1) maxc = 1; // Even though max count must not be zero this check is kept for backward compatibility as this is a public function
if (cnum <= maxc) {
// we have less contacts than we need, so we use them all
for (j=0; j < cnum; j++) {
dContactGeom *con = CONTACT(contact,skip*j);
for (i=0; i<3; i++) con->pos[i] = point[j*3+i] + pa[i];
con->depth = dep[j];
}
}
else {
dIASSERT(!(flags & CONTACTS_UNIMPORTANT)); // cnum should be generated not greater than maxc so that "then" clause is executed
// we have more contacts than are wanted, some of them must be culled.
// find the deepest point, it is always the first contact.
int i1 = 0;
dReal maxdepth = dep[0];
for (i=1; i<cnum; i++) {
if (dep[i] > maxdepth) {
maxdepth = dep[i];
i1 = i;
}
}
int iret[8];
cullPoints (cnum,ret,maxc,i1,iret);
for (j=0; j < maxc; j++) {
dContactGeom *con = CONTACT(contact,skip*j);
for (i=0; i<3; i++) con->pos[i] = point[iret[j]*3+i] + pa[i];
con->depth = dep[iret[j]];
}
cnum = maxc;
}
*return_code = code;
return cnum;
}
static void zop_ED_0x14(void) { /* 0xED 0x14 : TST D */
TST(D);
T_WAIT_UNTIL(TST_OP_T_STATES);
}
int gather_statistics(__u8 *icmph, int icmplen,
int cc, __u16 seq, int hops,
int csfailed, struct timeval *tv, char *from,
void (*pr_reply)(__u8 *icmph, int cc))
{
int dupflag = 0;
long triptime = 0;
__u8 *ptr = icmph + icmplen;
++nreceived;
if (!csfailed)
acknowledge(seq);
if (timing && cc >= 8+sizeof(struct timeval)) {
struct timeval tmp_tv;
memcpy(&tmp_tv, ptr, sizeof(tmp_tv));
restamp:
tvsub(tv, &tmp_tv);
triptime = tv->tv_sec * 1000000 + tv->tv_usec;
if (triptime < 0) {
fprintf(stderr, "Warning: time of day goes back (%ldus), taking countermeasures.\n", triptime);
triptime = 0;
if (!(options & F_LATENCY)) {
gettimeofday(tv, NULL);
options |= F_LATENCY;
goto restamp;
}
}
if (!csfailed) {
tsum += triptime;
tsum2 += (long long)triptime * (long long)triptime;
if (triptime < tmin)
tmin = triptime;
if (triptime > tmax)
tmax = triptime;
if (!rtt)
rtt = triptime*8;
else
rtt += triptime-rtt/8;
if (options&F_ADAPTIVE)
update_interval();
}
}
if (csfailed) {
++nchecksum;
--nreceived;
} else if (TST(seq % mx_dup_ck)) {
++nrepeats;
--nreceived;
dupflag = 1;
} else {
SET(seq % mx_dup_ck);
dupflag = 0;
}
confirm = confirm_flag;
if (options & F_QUIET)
return 1;
if (options & F_FLOOD) {
if (!csfailed)
write(STDOUT_FILENO, "\b \b", 3);
else
write(STDOUT_FILENO, "\bC", 1);
} else {
int i;
__u8 *cp, *dp;
print_timestamp();
printf("%d bytes from %s:", cc, from);
if (pr_reply)
pr_reply(icmph, cc);
if (hops >= 0)
printf(" ttl=%d", hops);
if (cc < datalen+8) {
printf(" (truncated)\n");
return 1;
}
if (timing) {
if (triptime >= 100000)
printf(" time=%ld ms", triptime/1000);
else if (triptime >= 10000)
printf(" time=%ld.%01ld ms", triptime/1000,
(triptime%1000)/100);
else if (triptime >= 1000)
printf(" time=%ld.%02ld ms", triptime/1000,
(triptime%1000)/10);
else
printf(" time=%ld.%03ld ms", triptime/1000,
triptime%1000);
}
if (dupflag)
printf(" (DUP!)");
if (csfailed)
printf(" (BAD CHECKSUM!)");
/* check the data */
cp = ((u_char*)ptr) + sizeof(struct timeval);
dp = &outpack[8 + sizeof(struct timeval)];
for (i = sizeof(struct timeval); i < datalen; ++i, ++cp, ++dp) {
if (*cp != *dp) {
printf("\nwrong data byte #%d should be 0x%x but was 0x%x",
i, *dp, *cp);
cp = (u_char*)ptr + sizeof(struct timeval);
for (i = sizeof(struct timeval); i < datalen; ++i, ++cp) {
if ((i % 32) == sizeof(struct timeval))
printf("\n#%d\t", i);
printf("%x ", *cp);
}
break;
}
}
}
return 0;
}
void JitArm::lXX(UGeckoInstruction inst)
{
INSTRUCTION_START
JITDISABLE(bJITLoadStoreOff);
u32 a = inst.RA, b = inst.RB, d = inst.RD;
s32 offset = inst.SIMM_16;
u32 accessSize = 0;
s32 offsetReg = -1;
bool update = false;
bool signExtend = false;
bool reverse = false;
bool fastmem = false;
switch (inst.OPCD)
{
case 31:
switch (inst.SUBOP10)
{
case 55: // lwzux
update = true;
case 23: // lwzx
fastmem = true;
accessSize = 32;
offsetReg = b;
break;
case 119: //lbzux
update = true;
case 87: // lbzx
fastmem = true;
accessSize = 8;
offsetReg = b;
break;
case 311: // lhzux
update = true;
case 279: // lhzx
fastmem = true;
accessSize = 16;
offsetReg = b;
break;
case 375: // lhaux
update = true;
case 343: // lhax
accessSize = 16;
signExtend = true;
offsetReg = b;
break;
case 534: // lwbrx
accessSize = 32;
reverse = true;
break;
case 790: // lhbrx
accessSize = 16;
reverse = true;
break;
}
break;
case 33: // lwzu
update = true;
case 32: // lwz
fastmem = true;
accessSize = 32;
break;
case 35: // lbzu
update = true;
case 34: // lbz
fastmem = true;
accessSize = 8;
break;
case 41: // lhzu
update = true;
case 40: // lhz
fastmem = true;
accessSize = 16;
break;
case 43: // lhau
update = true;
case 42: // lha
signExtend = true;
accessSize = 16;
break;
}
// Check for exception before loading
ARMReg rA = gpr.GetReg(false);
LDR(rA, R9, PPCSTATE_OFF(Exceptions));
TST(rA, EXCEPTION_DSI);
FixupBranch DoNotLoad = B_CC(CC_NEQ);
SafeLoadToReg(fastmem, d, update ? a : (a ? a : -1), offsetReg, accessSize, offset, signExtend, reverse);
if (update)
{
ARMReg RA = gpr.R(a);
if (offsetReg == -1)
{
rA = gpr.GetReg(false);
MOVI2R(rA, offset);
ADD(RA, RA, rA);
}
else
{
ADD(RA, RA, gpr.R(offsetReg));
}
}
SetJumpTarget(DoNotLoad);
// LWZ idle skipping
if (SConfig::GetInstance().m_LocalCoreStartupParameter.bSkipIdle &&
inst.OPCD == 32 &&
(inst.hex & 0xFFFF0000) == 0x800D0000 &&
(Memory::ReadUnchecked_U32(js.compilerPC + 4) == 0x28000000 ||
(SConfig::GetInstance().m_LocalCoreStartupParameter.bWii && Memory::ReadUnchecked_U32(js.compilerPC + 4) == 0x2C000000)) &&
Memory::ReadUnchecked_U32(js.compilerPC + 8) == 0x4182fff8)
{
ARMReg RD = gpr.R(d);
// if it's still 0, we can wait until the next event
TST(RD, RD);
FixupBranch noIdle = B_CC(CC_NEQ);
gpr.Flush(FLUSH_MAINTAIN_STATE);
fpr.Flush(FLUSH_MAINTAIN_STATE);
rA = gpr.GetReg();
MOVI2R(rA, (u32)&PowerPC::OnIdle);
MOVI2R(R0, PowerPC::ppcState.gpr[a] + (s32)(s16)inst.SIMM_16);
BL(rA);
gpr.Unlock(rA);
WriteExceptionExit();
SetJumpTarget(noIdle);
//js.compilerPC += 8;
return;
}
}
void JitArm::stX(UGeckoInstruction inst)
{
INSTRUCTION_START
JITDISABLE(bJITLoadStoreOff);
u32 a = inst.RA, b = inst.RB, s = inst.RS;
s32 offset = inst.SIMM_16;
u32 accessSize = 0;
s32 regOffset = -1;
bool update = false;
bool fastmem = false;
switch (inst.OPCD)
{
case 45: // sthu
update = true;
case 44: // sth
accessSize = 16;
break;
case 31:
switch (inst.SUBOP10)
{
case 183: // stwux
update = true;
case 151: // stwx
fastmem = true;
accessSize = 32;
regOffset = b;
break;
case 247: // stbux
update = true;
case 215: // stbx
accessSize = 8;
regOffset = b;
break;
case 439: // sthux
update = true;
case 407: // sthx
accessSize = 16;
regOffset = b;
break;
}
break;
case 37: // stwu
update = true;
case 36: // stw
fastmem = true;
accessSize = 32;
break;
case 39: // stbu
update = true;
case 38: // stb
accessSize = 8;
break;
}
SafeStoreFromReg(fastmem, update ? a : (a ? a : -1), s, regOffset, accessSize, offset);
if (update)
{
ARMReg rA = gpr.GetReg();
ARMReg RB;
ARMReg RA = gpr.R(a);
if (regOffset != -1)
RB = gpr.R(regOffset);
// Check for DSI exception prior to writing back address
LDR(rA, R9, PPCSTATE_OFF(Exceptions));
TST(rA, EXCEPTION_DSI);
FixupBranch DoNotWrite = B_CC(CC_NEQ);
if (a)
{
if (regOffset == -1)
{
MOVI2R(rA, offset);
ADD(RA, RA, rA);
}
else
{
ADD(RA, RA, RB);
}
}
else
{
if (regOffset == -1)
MOVI2R(RA, (u32)offset);
else
MOV(RA, RB);
}
SetJumpTarget(DoNotWrite);
gpr.Unlock(rA);
}
}
static void zop_ED_0x34(void) { /* 0xED 0x34 : TST (HL) */
READ_MEM(temp_byte, (HL), 4);
TST(temp_byte);
T_WAIT_UNTIL(7);
}
static void unpack(char *packet, int sz, struct sockaddr_in6 *from, int hoplimit)
{
struct icmp6_hdr *icmppkt;
struct timeval tv, *tp;
int dupflag;
unsigned long triptime;
char buf[INET6_ADDRSTRLEN];
gettimeofday(&tv, NULL);
/* discard if too short */
if (sz < (datalen + sizeof(struct icmp6_hdr)))
return;
icmppkt = (struct icmp6_hdr *) packet;
if (icmppkt->icmp6_id != myid)
return; /* not our ping */
if (icmppkt->icmp6_type == ICMP6_ECHO_REPLY) {
++nreceived;
tp = (struct timeval *) &icmppkt->icmp6_data8[4];
if ((tv.tv_usec -= tp->tv_usec) < 0) {
--tv.tv_sec;
tv.tv_usec += 1000000;
}
tv.tv_sec -= tp->tv_sec;
triptime = tv.tv_sec * 10000 + (tv.tv_usec / 100);
tsum += triptime;
if (triptime < tmin)
tmin = triptime;
if (triptime > tmax)
tmax = triptime;
if (TST(icmppkt->icmp6_seq % MAX_DUP_CHK)) {
++nrepeats;
--nreceived;
dupflag = 1;
} else {
SET(icmppkt->icmp6_seq % MAX_DUP_CHK);
dupflag = 0;
}
if (options & O_QUIET)
return;
printf("%d bytes from %s: icmp6_seq=%u", sz,
inet_ntop(AF_INET6, (struct in_addr6 *) &pingaddr.sin6_addr,
buf, sizeof(buf)),
icmppkt->icmp6_seq);
printf(" ttl=%d time=%lu.%lu ms", hoplimit,
triptime / 10, triptime % 10);
if (dupflag)
printf(" (DUP!)");
printf("\n");
} else
if (icmppkt->icmp6_type != ICMP6_ECHO_REQUEST)
bb_error_msg("Warning: Got ICMP %d (%s)",
icmppkt->icmp6_type, icmp6_type_name (icmppkt->icmp6_type));
}
static void zop_ED_0x3C(void) { /* 0xED 0x3C : TST A */
TST(A);
T_WAIT_UNTIL(TST_OP_T_STATES);
}
int main(int argc, char *argv[])
{
int status;
unsigned char *p;
int k;
TSTTITLE("TESTING WRITE MIDIFILE");
TSTSECTION("Buffer write function");
TSTGROUP("Buffer sizing");
status = chk_evt_buf(16);
TST("Room allocated", (status == 0 && (evt_buf_sz - evt_buf_wm) >= 1024));
TSTGROUP("Buffer writing");
p=evt_buf;
b_write8(0xAB);
b_write7(0xCD);
#if 0
b_write16(0xFEDA); /* 1111 1110 1101 1010*/
b_write14(0xFEDA);
b_write32(0xFEEDBAC0);
#endif
TST("Write 8 bits",(p[0] == 0xAB));
TST("Write 7 bits",(p[1] == (0xCD & 0x7F)));
#if 0
TST("Write 16 bits",(p[2] == 0xFE && p[3] == 0xDA)); /*1111 1110 1101 1010*/
TST("Write 14 bits",(p[4] == 0x7D && p[5] == 0x5A)); /*0111 1101 0101 1010*/
TSTONFAIL("Bytes written: %02x %02x",p[4],p[5]);
#endif
TSTGROUP("Raw write track");
h_writetrack = (t_writetrack) mywritetrack1;
h_error = (t_error) mf_null_handler;
status = write_track(1);
TST("write_track() returned unsuccessfully",(status == 309));
TSTONFAIL("return code: %d\n",status);
midi_file = fopen("test_file.mid","wb");
status = write_track(1);
TST("write_track() returned successfully",(status == 0));
fclose(midi_file);
midi_file = fopen("test_file.mid","rb");
TST("File reopened for read",(midi_file != NULL));
if (midi_file) {
/* Now, if everything went well the file should contain:
* MTrk 00 00 00 0C 00 90 3C 64 60 3E 64 83 60 FF 2F 00
*/
TSTWRITE("#");
p = "MTrk\0\0\0\x0C\0\x90\x3C\x64\x60\x3E\x64\x83\x60\xFF\x2F\0";
for (k=0; k<20; k++) {
if (p[k] != fgetc(midi_file)) break;
TSTWRITE(" %02X",p[k]);
}
TSTWRITE("\n");
TST("File written correctly",(k == 20));
fclose(midi_file);
midi_file = NULL;
}
h_writetrack = (t_writetrack) mywritetrack2;
status = mf_write("test_file.mid",0,1,96);
TST("mf_write succeeded",(status == 0));
TSTDONE();
if (midi_file) fclose(midi_file);
return (0);
}
static void zop_ED_0x0C(void) { /* 0xED 0x0C : TST C */
TST(C);
T_WAIT_UNTIL(TST_OP_T_STATES);
}
int dBoxBox2 (const btVector3 p1, const dMatrix3 R1,
const btVector3 side1, const btVector3 p2,
const dMatrix3 R2, const btVector3 side2,
BoxBoxResults *results)
{
const btScalar fudge_factor = 1.05;
btVector3 p,pp,normalC;
normalC[0] = 0.f;
normalC[1] = 0.f;
normalC[2] = 0.f;
const btScalar *normalR = 0;
btScalar A[3],B[3],R11,R12,R13,R21,R22,R23,R31,R32,R33,
Q11,Q12,Q13,Q21,Q22,Q23,Q31,Q32,Q33,s,s2,l,normal[3],depth;
int i,j,invert_normal,code;
// get vector from centers of box 1 to box 2, relative to box 1
p[0] = p2[0] - p1[0];
p[1] = p2[1] - p1[1];
p[2] = p2[2] - p1[2];
dMULTIPLY1_331 (pp,R1,p); // get pp = p relative to body 1
// get side lengths (already specified as half lengths)
A[0] = side1[0];
A[1] = side1[1];
A[2] = side1[2];
B[0] = side2[0];
B[1] = side2[1];
B[2] = side2[2];
// Rij is R1'*R2, i.e. the relative rotation between R1 and R2
R11 = dDOT44(R1+0,R2+0); R12 = dDOT44(R1+0,R2+1); R13 = dDOT44(R1+0,R2+2);
R21 = dDOT44(R1+1,R2+0); R22 = dDOT44(R1+1,R2+1); R23 = dDOT44(R1+1,R2+2);
R31 = dDOT44(R1+2,R2+0); R32 = dDOT44(R1+2,R2+1); R33 = dDOT44(R1+2,R2+2);
Q11 = btFabs(R11); Q12 = btFabs(R12); Q13 = btFabs(R13);
Q21 = btFabs(R21); Q22 = btFabs(R22); Q23 = btFabs(R23);
Q31 = btFabs(R31); Q32 = btFabs(R32); Q33 = btFabs(R33);
// for all 15 possible separating axes:
// * see if the axis separates the boxes. if so, return 0.
// * find the depth of the penetration along the separating axis (s2)
// * if this is the largest depth so far, record it.
// the normal vector will be set to the separating axis with the smallest
// depth. note: normalR is set to point to a column of R1 or R2 if that is
// the smallest depth normal so far. otherwise normalR is 0 and normalC is
// set to a vector relative to body 1. invert_normal is 1 if the sign of
// the normal should be flipped.
#define TST(expr1,expr2,norm,cc) \
s2 = btFabs(expr1) - (expr2); \
if (s2 > 0) return 0; \
if (s2 > s) { \
s = s2; \
normalR = norm; \
invert_normal = ((expr1) < 0); \
code = (cc); \
}
s = -dInfinity;
invert_normal = 0;
code = 0;
// separating axis = u1,u2,u3
TST (pp[0],(A[0] + B[0]*Q11 + B[1]*Q12 + B[2]*Q13),R1+0,1);
TST (pp[1],(A[1] + B[0]*Q21 + B[1]*Q22 + B[2]*Q23),R1+1,2);
TST (pp[2],(A[2] + B[0]*Q31 + B[1]*Q32 + B[2]*Q33),R1+2,3);
// separating axis = v1,v2,v3
TST (dDOT41(R2+0,p),(A[0]*Q11 + A[1]*Q21 + A[2]*Q31 + B[0]),R2+0,4);
TST (dDOT41(R2+1,p),(A[0]*Q12 + A[1]*Q22 + A[2]*Q32 + B[1]),R2+1,5);
TST (dDOT41(R2+2,p),(A[0]*Q13 + A[1]*Q23 + A[2]*Q33 + B[2]),R2+2,6);
// note: cross product axes need to be scaled when s is computed.
// normal (n1,n2,n3) is relative to box 1.
#undef TST
#define TST(expr1,expr2,n1,n2,n3,cc) \
s2 = btFabs(expr1) - (expr2); \
if (s2 > SIMD_EPSILON) return 0; \
l = btSqrt((n1)*(n1) + (n2)*(n2) + (n3)*(n3)); \
if (l > SIMD_EPSILON) { \
s2 /= l; \
if (s2*fudge_factor > s) { \
s = s2; \
normalR = 0; \
normalC[0] = (n1)/l; normalC[1] = (n2)/l; normalC[2] = (n3)/l; \
invert_normal = ((expr1) < 0); \
code = (cc); \
} \
}
btScalar fudge2 = 1.0e-5f;
Q11 += fudge2;
Q12 += fudge2;
Q13 += fudge2;
Q21 += fudge2;
Q22 += fudge2;
Q23 += fudge2;
Q31 += fudge2;
Q32 += fudge2;
Q33 += fudge2;
// separating axis = u1 x (v1,v2,v3)
TST(pp[2]*R21-pp[1]*R31,(A[1]*Q31+A[2]*Q21+B[1]*Q13+B[2]*Q12),0,-R31,R21,7);
TST(pp[2]*R22-pp[1]*R32,(A[1]*Q32+A[2]*Q22+B[0]*Q13+B[2]*Q11),0,-R32,R22,8);
TST(pp[2]*R23-pp[1]*R33,(A[1]*Q33+A[2]*Q23+B[0]*Q12+B[1]*Q11),0,-R33,R23,9);
// separating axis = u2 x (v1,v2,v3)
TST(pp[0]*R31-pp[2]*R11,(A[0]*Q31+A[2]*Q11+B[1]*Q23+B[2]*Q22),R31,0,-R11,10);
TST(pp[0]*R32-pp[2]*R12,(A[0]*Q32+A[2]*Q12+B[0]*Q23+B[2]*Q21),R32,0,-R12,11);
TST(pp[0]*R33-pp[2]*R13,(A[0]*Q33+A[2]*Q13+B[0]*Q22+B[1]*Q21),R33,0,-R13,12);
// separating axis = u3 x (v1,v2,v3)
TST(pp[1]*R11-pp[0]*R21,(A[0]*Q21+A[1]*Q11+B[1]*Q33+B[2]*Q32),-R21,R11,0,13);
TST(pp[1]*R12-pp[0]*R22,(A[0]*Q22+A[1]*Q12+B[0]*Q33+B[2]*Q31),-R22,R12,0,14);
TST(pp[1]*R13-pp[0]*R23,(A[0]*Q23+A[1]*Q13+B[0]*Q32+B[1]*Q31),-R23,R13,0,15);
#undef TST
if (!code) return 0;
results->code = code;
// if we get to this point, the boxes interpenetrate. compute the normal
// in global coordinates.
if (normalR) {
normal[0] = normalR[0];
normal[1] = normalR[4];
normal[2] = normalR[8];
}
else {
dMULTIPLY0_331 (normal,R1,normalC);
}
if (invert_normal) {
normal[0] = -normal[0];
normal[1] = -normal[1];
normal[2] = -normal[2];
}
depth = -s;
// compute contact point(s)
if (code > 6) {
// an edge from box 1 touches an edge from box 2.
// find a point pa on the intersecting edge of box 1
btVector3 pa;
btScalar sign;
for (i=0; i<3; i++) pa[i] = p1[i];
for (j=0; j<3; j++) {
sign = (dDOT14(normal,R1+j) > 0) ? 1.0 : -1.0;
for (i=0; i<3; i++) pa[i] += sign * A[j] * R1[i*4+j];
}
// find a point pb on the intersecting edge of box 2
btVector3 pb;
for (i=0; i<3; i++) pb[i] = p2[i];
for (j=0; j<3; j++) {
sign = (dDOT14(normal,R2+j) > 0) ? -1.0 : 1.0;
for (i=0; i<3; i++) pb[i] += sign * B[j] * R2[i*4+j];
}
btScalar alpha,beta;
btVector3 ua,ub;
for (i=0; i<3; i++) ua[i] = R1[((code)-7)/3 + i*4];
for (i=0; i<3; i++) ub[i] = R2[((code)-7)%3 + i*4];
dLineClosestApproach (pa,ua,pb,ub,&alpha,&beta);
for (i=0; i<3; i++) pa[i] += ua[i]*alpha;
for (i=0; i<3; i++) pb[i] += ub[i]*beta;
{
btVector3 pointInWorld;
addContactPoint(results,normal,pb,depth);
}
return 1;
}
// okay, we have a face-something intersection (because the separating
// axis is perpendicular to a face). define face 'a' to be the reference
// face (i.e. the normal vector is perpendicular to this) and face 'b' to be
// the incident face (the closest face of the other box).
const btScalar *Ra,*Rb,*pa,*pb,*Sa,*Sb;
if (code <= 3) {
Ra = R1;
Rb = R2;
pa = p1;
pb = p2;
Sa = A;
Sb = B;
}
else {
Ra = R2;
Rb = R1;
pa = p2;
pb = p1;
Sa = B;
Sb = A;
}
// nr = normal vector of reference face dotted with axes of incident box.
// anr = absolute values of nr.
btVector3 normal2,nr,anr;
if (code <= 3) {
normal2[0] = normal[0];
normal2[1] = normal[1];
normal2[2] = normal[2];
}
else {
normal2[0] = -normal[0];
normal2[1] = -normal[1];
normal2[2] = -normal[2];
}
dMULTIPLY1_331 (nr,Rb,normal2);
anr[0] = btFabs (nr[0]);
anr[1] = btFabs (nr[1]);
anr[2] = btFabs (nr[2]);
// find the largest compontent of anr: this corresponds to the normal
// for the indident face. the other axis numbers of the indicent face
// are stored in a1,a2.
int lanr,a1,a2;
if (anr[1] > anr[0]) {
if (anr[1] > anr[2]) {
a1 = 0;
lanr = 1;
a2 = 2;
}
else {
a1 = 0;
a2 = 1;
lanr = 2;
}
}
else {
if (anr[0] > anr[2]) {
lanr = 0;
a1 = 1;
a2 = 2;
}
else {
a1 = 0;
a2 = 1;
lanr = 2;
}
}
// compute center point of incident face, in reference-face coordinates
btVector3 center;
if (nr[lanr] < 0) {
for (i=0; i<3; i++) center[i] = pb[i] - pa[i] + Sb[lanr] * Rb[i*4+lanr];
}
else {
for (i=0; i<3; i++) center[i] = pb[i] - pa[i] - Sb[lanr] * Rb[i*4+lanr];
}
// find the normal and non-normal axis numbers of the reference box
int codeN,code1,code2;
if (code <= 3) codeN = code-1; else codeN = code-4;
if (codeN==0) {
code1 = 1;
code2 = 2;
}
else if (codeN==1) {
code1 = 0;
code2 = 2;
}
else {
code1 = 0;
code2 = 1;
}
// find the four corners of the incident face, in reference-face coordinates
btScalar quad[8]; // 2D coordinate of incident face (x,y pairs)
btScalar c1,c2,m11,m12,m21,m22;
c1 = dDOT14 (center,Ra+code1);
c2 = dDOT14 (center,Ra+code2);
// optimize this? - we have already computed this data above, but it is not
// stored in an easy-to-index format. for now it's quicker just to recompute
// the four dot products.
m11 = dDOT44 (Ra+code1,Rb+a1);
m12 = dDOT44 (Ra+code1,Rb+a2);
m21 = dDOT44 (Ra+code2,Rb+a1);
m22 = dDOT44 (Ra+code2,Rb+a2);
{
btScalar k1 = m11*Sb[a1];
btScalar k2 = m21*Sb[a1];
btScalar k3 = m12*Sb[a2];
btScalar k4 = m22*Sb[a2];
quad[0] = c1 - k1 - k3;
quad[1] = c2 - k2 - k4;
quad[2] = c1 - k1 + k3;
quad[3] = c2 - k2 + k4;
quad[4] = c1 + k1 + k3;
quad[5] = c2 + k2 + k4;
quad[6] = c1 + k1 - k3;
quad[7] = c2 + k2 - k4;
}
// find the size of the reference face
btScalar rect[2];
rect[0] = Sa[code1];
rect[1] = Sa[code2];
// intersect the incident and reference faces
btScalar ret[16];
int n = intersectRectQuad2 (rect,quad,ret);
if (n < 1) return 0; // this should never happen
// convert the intersection points into reference-face coordinates,
// and compute the contact position and depth for each point. only keep
// those points that have a positive (penetrating) depth. delete points in
// the 'ret' array as necessary so that 'point' and 'ret' correspond.
btScalar point[3*8]; // penetrating contact points
btScalar dep[8]; // depths for those points
btScalar det1 = 1.f/(m11*m22 - m12*m21);
m11 *= det1;
m12 *= det1;
m21 *= det1;
m22 *= det1;
int cnum = 0; // number of penetrating contact points found
for (j=0; j < n; j++) {
btScalar k1 = m22*(ret[j*2]-c1) - m12*(ret[j*2+1]-c2);
btScalar k2 = -m21*(ret[j*2]-c1) + m11*(ret[j*2+1]-c2);
for (i=0; i<3; i++) point[cnum*3+i] =
center[i] + k1*Rb[i*4+a1] + k2*Rb[i*4+a2];
dep[cnum] = Sa[codeN] - dDOT(normal2,point+cnum*3);
if (dep[cnum] >= 0) {
ret[cnum*2] = ret[j*2];
ret[cnum*2+1] = ret[j*2+1];
cnum++;
}
}
if (cnum < 1) return 0; // this should never happen
// we can't generate more contacts than we actually have
int maxc = 4;
if (maxc > cnum) maxc = cnum;
if (maxc < 1) maxc = 1;
if (cnum <= maxc)
{
if (code<4)
{
// we have less contacts than we need, so we use them all
for (j=0; j < cnum; j++)
{
btVector3 pointInWorld;
for (i=0; i<3; i++)
pointInWorld[i] = point[j*3+i] + pa[i];
addContactPoint(results,normal,pointInWorld,dep[j]);
}
}
else
{
// we have less contacts than we need, so we use them all
for (j=0; j < cnum; j++)
{
btVector3 pointInWorld;
for (i=0; i<3; i++)
pointInWorld[i] = point[j*3+i] + pa[i]-normal[i]*dep[j];
addContactPoint(results,normal,pointInWorld,dep[j]);
}
}
}
else {
// we have more contacts than are wanted, some of them must be culled.
// find the deepest point, it is always the first contact.
int i1 = 0;
btScalar maxdepth = dep[0];
for (i=1; i<cnum; i++)
{
if (dep[i] > maxdepth)
{
maxdepth = dep[i];
i1 = i;
}
}
int iret[8];
cullPoints2 (cnum,ret,maxc,i1,iret);
for (j=0; j < maxc; j++)
{
btVector3 posInWorld;
for (i=0; i<3; i++)
posInWorld[i] = point[iret[j]*3+i] + pa[i];
if (code<4)
{
addContactPoint(results, normal,posInWorld,dep[iret[j]]);
}
else
{
posInWorld[0] -= normal[0]*dep[iret[j]];
posInWorld[1] -= normal[1]*dep[iret[j]];
posInWorld[2] -= normal[2]*dep[iret[j]];
addContactPoint(results, normal,posInWorld,dep[iret[j]]);
}
}
cnum = maxc;
}
return cnum;
}
int main()
{
int op;
uint32_t registro[16]={0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0};
char banderas[4];
do{
system("cls");
printf("seleccione la opcion 1 para mostrar los valores de los registros\n");
printf("seleccione la opcion 2 para sumar registros \n");
printf("seleccione la opcion 3 para multiplicacion logica (AND) de registros \n");
printf("seleccione la opcion 4 para Eor a nivel de bits \n");
printf("seleccione la opcion 5 para desplazar de un registro a otro \n");
printf("seleccione la opcion 6 para suma logica (OR) de registro\n");
printf("seleccione la opcion 7 para ADN sin almacenar, solo modifica banderas \n");
printf("seleccione la opcion 8 para comparar (SUB sin almacenar), solo modifica banderas\n");
printf("seleccione la opcion 9 Multiplicacion de registros, solo se alacenan 32 bits menos significativos\n");
printf("seleccione la opcion 10 AND sin almacenacmiento, solo modifica banderas\n");
printf("seleccione la opcion 11 para LSL desplazamiento logico a la izquierda \n");
printf("seleccione la opcion 12 para LSR desplazamiento logico a la derecha \n");
printf("seleccione la opcion 13 para ROR rotacion a la derecha \n");
printf("seleccione la opcion 14 para ASR desplazamiento aritmetico a la derecha \n");
printf("seleccione la opcion 15 para BIC Realiza una AND de un registro con otro negado \n");
printf("seleccione la opcion 16 para MUN guarda en un registro la negacion de otro\n");
printf("seleccione la opcion 17 para RSB niega un valor de registro\n");
printf("seleccione la opcion 18 para NOP da un retardo de un ciclo de reloj (no hace nada) \n");
printf("seleccione la opcion 19 para REV toma grupos de 8 bits y los desplaza \n");
printf("seleccione la opcion 20 para REVIG toma grupos de 16 bits y los agrupa en grupos de dos bytes\n");
printf("seleccione la opcion 21 para REVSH extencion con signo\n\n");
scanf("%d",&op);
system("cls");
switch(op){
case 1:
//mostrar_valores(registro);
break;
case 2:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese el valor del segundo registro:\n");
scanf("%d",®istro[2]);
ADD(registro,®istro[0],registro[1],registro[2],&banderas[0]);
printf("%d valor del resultado \n",registro[0]);
printf("%d valor del resultado bandera n \n",banderas[N]);
printf("%d valor del resultado bandera z \n",banderas[Z]);
printf("%d valor del resultado bandera c \n",banderas[C]);
printf("%d valor del resultado bandera v \n",banderas[V]);
break;
case 3:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese el valor del segundo registro:\n");
scanf("%d",®istro[2]);
AND(registro,®istro[0],registro[1],registro[2],&banderas[0]);
printf("%d valor del resultado \n",registro[0]);
printf("%d valor del resultado bandera n \n",banderas[N]);
printf("%d valor del resultado bandera z \n",banderas[Z]);
printf("%d valor del resultado bandera c \n",banderas[C]);
printf("%d valor del resultado bandera v \n",banderas[V]);
break;
case 4:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese el valor del segundo registro:\n");
scanf("%d",®istro[2]);
EOR(registro,®istro[0],registro[1],registro[2],&banderas[0]);
printf("%d valor del resultado \n",registro[0]);
printf("%d valor del resultado bandera n \n",banderas[N]);
printf("%d valor del resultado bandera z \n",banderas[Z]);
printf("%d valor del resultado bandera c \n",banderas[C]);
printf("%d valor del resultado bandera v \n",banderas[V]);
break;
case 5:
printf("ingrese el valor del registro origen:\n");
scanf("%d",®istro[1]);
MOV(registro,®istro[0],registro[1],banderas);
printf("%d valor del resultado \n",registro[0]);
break;
case 7:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese el valor del segundo registro:\n");
scanf("%d",®istro[2]);
CMN(registro,registro[1],registro[2],&banderas[0]);
printf("%d valor del resultado \n",registro[0]);
printf("%d valor del resultado bandera n \n",banderas[N]);
printf("%d valor del resultado bandera z \n",banderas[Z]);
printf("%d valor del resultado bandera c \n",banderas[C]);
printf("%d valor del resultado bandera v \n",banderas[V]);
break;
case 8:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese el valor del segundo registro:\n");
scanf("%d",®istro[2]);
CMP(registro,registro[1],registro[2],&banderas[0]);
printf("%d valor del resultado \n",registro[0]);
printf("%d valor del resultado bandera n \n",banderas[N]);
printf("%d valor del resultado bandera z \n",banderas[Z]);
printf("%d valor del resultado bandera c \n",banderas[C]);
printf("%d valor del resultado bandera v \n",banderas[V]);
break;
case 9:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese el valor del segundo registro:\n");
scanf("%d",®istro[2]);
MUL(registro,®istro[0],registro[1],registro[2],&banderas[0]);
printf("%d valor del resultado \n",registro[0]);
printf("%d valor del resultado bandera n \n",banderas[N]);
printf("%d valor del resultado bandera z \n",banderas[Z]);
printf("%d valor del resultado bandera c \n",banderas[C]);
printf("%d valor del resultado bandera v \n",banderas[V]);
break;
case 10:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese el valor del segundo registro:\n");
scanf("%d",®istro[2]);
TST(registro,registro[1],registro[2],&banderas[0]);
printf("%d valor del resultado \n",registro[0]);
printf("%d valor del resultado bandera n \n",banderas[N]);
printf("%d valor del resultado bandera z \n",banderas[Z]);
printf("%d valor del resultado bandera c \n",banderas[C]);
printf("%d valor del resultado bandera v \n",banderas[V]);
break;
case 11:
printf("ingrese el valor del registro:\n");
scanf("%d",®istro[1]);
printf("ingrese el numero de desplazamientos:\n");
scanf("%d",®istro[2]);
LSL(registro,®istro[0],registro[1],registro[2],banderas);
printf("%d valor del resultado \n",registro[0]);
break;
case 12:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese elnumero de desplazamientos:\n");
scanf("%d",®istro[2]);
LSR(registro,®istro[0],registro[1],registro[2],banderas);
printf("%d valor del resultado \n",registro[0]);
break;
case 13:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese elnumero de desplazamientos:\n");
scanf("%d",®istro[2]);
ROR(registro,®istro[0],registro[1],registro[2],banderas);
printf("%d valor del resultado \n",registro[0]);
break;
case 14:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[1]);
printf("ingrese elnumero de desplazamientos:\n");
scanf("%d",®istro[2]);
ASR(registro,®istro[0],registro[1],registro[2],banderas);
printf("%d valor del resultado \n",registro[0]);
break;
case 15:
printf("ingrese el valor del primer registro:\n");
scanf("%d",®istro[0]);
printf("ingrese el valor del segundo registro:\n");
scanf("%d",®istro[1]);
BIC(registro,®istro[0],registro[1],banderas);
printf("%d valor del resultado \n",registro[0]);
break;
case 16:
printf("ingrese un valor del registro origen\n");
scanf("%d",®istro[1]);
MVN(registro,®istro[0],registro[1],banderas);
printf("%d valor del resultado \n",registro[0]);
break;
case 17:
printf("ingrese un valor de registro\n");
scanf("%d",®istro[1]);
RSB(registro,®istro[0],registro[1],0,banderas);
printf("%d valor del resultado \n",registro[0]);
break;
case 18:
NOP(registro);
break;
case 19:
printf("ingrese un valor de registro \n");
scanf("%d",®istro[0]);
REV(registro,®istro[0]);
printf("%d valor del resultado \n",registro[0]);
break;
case 20:
printf("ingrese un valor de registro \n");
scanf("%d",®istro[0]);
REVIG(registro,®istro[0]);
printf("%d valor del resultado \n",registro[0]);
break;
case 21:
printf("ingrese un valor de registro \n");
scanf("%d",®istro[0]);
REVSH(registro,®istro[0]);
printf("%d valor del resultado \n",registro[0]);
break;
default:
printf("Opcion invalida\n\n");
break;
}
printf("\nDesea realizar otra operacion?\n<1>-si\n<0>-no\n");
scanf("%d",&op);
system("cls");
}while(op);
return 0;
}
int main(int argc, char ** argv) {
memory::initialize(0);
bool do_display_usage = false;
parse_cmd_line_args(argc, argv, do_display_usage);
TST_ARGV(grobner);
TST(random);
TST(vector);
TST(symbol_table);
TST(region);
TST(symbol);
TST(heap);
TST(hashtable);
TST_ARGV(smtparser);
TST(rational);
TST(inf_rational);
TST(ast);
TST(optional);
TST(bit_vector);
TST(ast_pp);
TST(ast_smt_pp);
TST_ARGV(expr_delta);
TST(string_buffer);
TST(map);
TST(diff_logic);
TST(uint_set);
TST_ARGV(expr_rand);
TST(expr_context_simplifier);
TST(ini_file);
TST(expr_pattern_match);
TST(list);
TST(small_object_allocator);
TST(timeout);
TST(splay_tree);
TST(fvi);
TST(proof_checker);
TST(simplifier);
TST(bv_simplifier_plugin);
TST(bit_blaster);
TST(var_subst);
TST(simple_parser);
TST(symmetry);
TST_ARGV(symmetry_parse);
TST_ARGV(symmetry_prove);
TST(api);
TST(old_interval);
TST(interval_skip_list);
TST(no_overflow);
TST(memory);
TST(parallel);
TST(get_implied_equalities);
TST(arith_simplifier_plugin);
TST(quant_elim);
TST(matcher);
TST(datalog_parser);
TST(dl_rule_set);
TST_ARGV(datalog_parser_file);
TST(object_allocator);
TST(mpz);
TST(mpq);
TST(mpf);
TST(total_order);
TST(dl_table);
TST(dl_context);
TST(dl_smt_relation);
TST(dl_query);
TST(dl_util);
TST(dl_product_relation);
TST(dl_relation);
TST(imdd);
TST(array_property_expander);
TST(parray);
TST(stack);
TST(escaped);
TST(buffer);
TST(chashtable);
TST(ex);
TST(nlarith_util);
TST(api_bug);
TST(arith_rewriter);
TST(check_assumptions);
TST(smt_context);
TST(theory_dl);
TST(model_retrieval);
TST(factor_rewriter);
TST(smt2print_parse);
TST(substitution);
TST(polynomial);
TST(upolynomial);
TST(algebraic);
TST(polynomial_factorization);
TST(prime_generator);
TST(permutation);
TST(nlsat);
TST(qe_defs);
TST(ext_numeral);
TST(interval);
TST(quant_solve);
TST(f2n);
TST(hwf);
TST(trigo);
TST(bits);
TST(mpbq);
TST(mpfx);
TST(mpff);
TST(horn_subsume_model_converter);
TST(model2expr);
}