CIFStreeconnect(Session *s, char *cname, char *tree, Share *sp)
{
int len;
char *resp, *path;
char zeros[24];
Pkt *p;
resp = Sess->auth->resp[0];
len = Sess->auth->len[0];
if((s->secmode & SECMODE_USER) != SECMODE_USER){
memset(zeros, 0, sizeof zeros);
resp = zeros;
len = sizeof zeros;
}
p = cifshdr(s, nil, SMB_COM_TREE_CONNECT_ANDX);
p8(p, 0xFF); /* Secondary command */
p8(p, 0); /* Reserved */
pl16(p, 0); /* Offset to next Word Count */
pl16(p, 0); /* Flags */
if((s->secmode & SECMODE_PW_ENCRYPT) == 0){
pl16(p, len+1); /* password len, including null */
pbytes(p);
pascii(p, resp);
}else{
pl16(p, len);
pbytes(p);
pmem(p, resp, len);
}
path = smprint("//%s/%s", cname, tree);
ppath(p, path); /* path */
free(path);
pascii(p, "?????"); /* service type any (so we can do RAP calls) */
if(cifsrpc(p) == -1){
free(p);
return -1;
}
g8(p); /* Secondary command */
g8(p); /* Reserved */
gl16(p); /* Offset to next command */
sp->options = g8(p); /* options supported */
sp->tid = p->tid; /* get received TID from packet header */
free(p);
return 0;
}
int
main (void)
{
struct s g6_s = { 106 };
start (1, 0);
g1 (tmp);
start (2, 0);
g2 (&tmp);
start (3, 0);
g3 (&tmp);
start (4, 0);
g4 (&tmp);
start (5, 0);
g5 (tmp);
start (6, &g6_s);
g6 (tmp);
start (7, 0);
g7 (tmp);
start (8, 0);
g8 (&tmp);
start (9, 0);
g9 (&tmp);
return 0;
}
inline uint32_t rgba() const
{
return ((a8() << 24) |
(b8() << 16) |
(g8() << 8) |
(r8() << 0));
}
bool sanity()
{
GameState g0(5, 7, 7); // Not a valid game state
GameState g1(1, 2, 254); // Finish in 1 round
GameState g2(2, 3, 254); // ... in 2 rounds
GameState g3(3, 4, 254); // ... in 3 rounds
GameState g4(4, 5, 254); //
GameState g5(4, 9, 254); // These come from a (slower) python implementation
GameState g6(8, 11, 254);
GameState g7(12, 19, 254);
GameState g8(8, 35, 254);
GameState g9(1, 4, 6); // From webpage, known to finish in 15 minutes = at round 2
if (explore_game(g0)!=0) return false; // Verify that we get the expected number
if (explore_game(g1)!=1) return false; // of rounds for given input states
if (explore_game(g2)!=2) return false; //
if (explore_game(g3)!=3) return false; // report an error if not
if (explore_game(g4)!=4) return false;
if (explore_game(g5)!=5) return false;
if (explore_game(g6)!=6) return false;
if (explore_game(g7)!=7) return false;
if (explore_game(g8)!=8) return false;
if (explore_game(g9)!=2) return false;
return true;
}
qreal MyWidget::g(qreal x, qreal y, qreal z)
{
switch (variant)
{
case 5: return g5(x, y, z);
case 8: return g8(x, y, z);
}
return 0;
}
int main1(void)
{
int i;
/* Check vec_extract with a non constant element numbering */
for(i=0;i<10;i++)
{
if (f(a, i) != (i&0x3))
abort ();
}
/* Check vec_extract with a constant element numbering */
if (f0(a) != 0)
abort ();
if (f1(a) != 1)
abort ();
if (f2(a) != 2)
abort ();
if (f3(a) != 3)
abort ();
/* Check that vec_extract works with a constant element higher than
the number of elements. */
if (f4(a) != 0)
abort ();
/* Check vec_extract with a non constant element numbering */
for(i=0;i<10;i++)
{
if (g(b, i) != (i&0x7))
abort ();
}
/* Check vec_extract with a constant element numbering */
if (g0(b) != 0)
abort ();
if (g1(b) != 1)
abort ();
if (g2(b) != 2)
abort ();
if (g3(b) != 3)
abort ();
if (g4(b) != 4)
abort ();
if (g5(b) != 5)
abort ();
if (g6(b) != 6)
abort ();
if (g7(b) != 7)
abort ();
/* Check that vec_extract works with a constant element higher than
the number of elements. */
if (g8(b) != 0)
abort ();
return 0;
}
int
CIFSsession(Session *s)
{
char os[64], *q;
Rune r;
Pkt *p;
enum {
mycaps = CAP_UNICODE | CAP_LARGE_FILES | CAP_NT_SMBS |
CAP_NT_FIND | CAP_STATUS32,
};
s->seqrun = 1; /* activate the sequence number generation/checking */
p = cifshdr(s, nil, SMB_COM_SESSION_SETUP_ANDX);
p8(p, 0xFF); /* No secondary command */
p8(p, 0); /* Reserved (must be zero) */
pl16(p, 0); /* Offset to next command */
pl16(p, MTU); /* my max buffer size */
pl16(p, 1); /* my max multiplexed pending requests */
pl16(p, 0); /* Virtual connection # */
pl32(p, 0); /* Session key (if vc != 0) */
if((s->secmode & SECMODE_PW_ENCRYPT) == 0) {
pl16(p, utflen(Sess->auth->resp[0])*2 + 2); /* passwd size */
pl16(p, utflen(Sess->auth->resp[0])*2 + 2); /* passwd size (UPPER CASE) */
pl32(p, 0); /* Reserved */
pl32(p, mycaps);
pbytes(p);
for(q = Sess->auth->resp[0]; *q; ){
q += chartorune(&r, q);
pl16(p, toupperrune(r));
}
pl16(p, 0);
for(q = Sess->auth->resp[0]; *q; ){
q += chartorune(&r, q);
pl16(p, r);
}
pl16(p, 0);
}else{
pl16(p, Sess->auth->len[0]); /* LM passwd size */
pl16(p, Sess->auth->len[1]); /* NTLM passwd size */
pl32(p, 0); /* Reserved */
pl32(p, mycaps);
pbytes(p);
pmem(p, Sess->auth->resp[0], Sess->auth->len[0]);
pmem(p, Sess->auth->resp[1], Sess->auth->len[1]);
}
pstr(p, Sess->auth->user); /* Account name */
pstr(p, Sess->auth->windom); /* Primary domain */
pstr(p, "plan9"); /* Client OS */
pstr(p, argv0); /* Client LAN Manager type */
if(cifsrpc(p) == -1){
free(p);
return -1;
}
g8(p); /* Reserved (0) */
gl16(p); /* Offset to next command wordcount */
Sess->isguest = gl16(p) & 1; /* logged in as guest */
gl16(p);
gl16(p);
/* no security blob here - we don't understand extended security anyway */
gstr(p, os, sizeof os);
s->remos = estrdup9p(os);
free(p);
return 0;
}
/*
* Some older servers (old samba) prefer to talk older
* dialects but if given no choice they will talk the
* more modern ones, so we don't give them the choice.
*/
int
CIFSnegotiate(Session *s, long *svrtime, char *domain, int domlen, char *cname,
int cnamlen)
{
int d, i;
char *ispeak = "NT LM 0.12";
static char *dialects[] = {
// { "PC NETWORK PROGRAM 1.0"},
// { "MICROSOFT NETWORKS 1.03"},
// { "MICROSOFT NETWORKS 3.0"},
// { "LANMAN1.0"},
// { "LM1.2X002"},
// { "NT LANMAN 1.0"},
{ "NT LM 0.12" },
};
Pkt *p;
/*
* This should not be necessary, however the XP seems to use
* Unicode strings in its Negoiate response, but not set the
* Flags2 UNICODE flag.
*
* It does however echo back the FL_UNICODE flag we set in the
* flags2 negoiate request.
*
* The bodge is to force FL_UNICODE for this single request,
* clearing it after. Later we set FL2_UNICODE if the server
* agrees to CAP_UNICODE as it "should" be done.
*/
s->flags2 |= FL2_UNICODE;
p = cifshdr(s, nil, SMB_COM_NEGOTIATE);
s->flags2 &= ~FL2_UNICODE;
pbytes(p);
for(i = 0; i < nelem(dialects); i++){
p8(p, STR_DIALECT);
pascii(p, dialects[i]);
}
if(cifsrpc(p) == -1){
free(p);
return -1;
}
d = gl16(p);
if(d < 0 || d > nelem(dialects)){
werrstr("no CIFS dialect in common");
free(p);
return -1;
}
if(strcmp(dialects[d], ispeak) != 0){
werrstr("%s dialect unsupported", dialects[d]);
free(p);
return -1;
}
s->secmode = g8(p); /* Security mode */
gl16(p); /* Max outstanding requests */
gl16(p); /* Max VCs */
s->mtu = gl32(p); /* Max buffer size */
gl32(p); /* Max raw buffer size (depricated) */
gl32(p); /* Session key */
s->caps = gl32(p); /* Server capabilities */
*svrtime = gvtime(p); /* fileserver time */
s->tz = (short)gl16(p) * 60; /* TZ in mins, is signed (SNIA doc is wrong) */
s->challen = g8(p); /* Encryption key length */
gl16(p);
gmem(p, s->chal, s->challen); /* Get the challenge */
gstr(p, domain, domlen); /* source domain */
{ /* NetApp Filer seem not to report its called name */
char *cn = emalloc9p(cnamlen);
gstr(p, cn, cnamlen); /* their name */
if(strlen(cn) > 0)
memcpy(cname, cn, cnamlen);
free(cn);
}
if(s->caps & CAP_UNICODE)
s->flags2 |= FL2_UNICODE;
free(p);
return 0;
}
int
cifsrpc(Pkt *p)
{
int reply, got, err;
uint tid, uid, seq;
uchar *pos;
char m[nelem(magic)];
pos = p->pos;
if(p->bytebase){
p->pos = p->bytebase;
pl16(p, pos - (p->bytebase + 2)); /* 2 = sizeof bytecount */
}
p->pos = pos;
if(p->s->secmode & SECMODE_SIGN_ENABLED)
macsign(p, p->seq);
qlock(&p->s->rpclock);
got = nbtrpc(p);
qunlock(&p->s->rpclock);
if(got < 32+NBHDRLEN){
werrstr("cifs packet too small (%d < %d)\n", got, 32+NBHDRLEN);
return -1;
}
gmem(p, m, nelem(magic));
if(memcmp(m, magic, nelem(magic)) != 0){
werrstr("cifsrpc: bad magic number in packet 0x%02ux%02ux%02ux%02ux",
m[0], m[1], m[2], m[3]);
return -1;
}
reply = g8(p); /* cmd */
err = gl32(p); /* errcode */
g8(p); /* flags */
p->flags2 = gl16(p); /* flags2 */
gl16(p); /* PID MS bits */
seq = gl32(p); /* reserved */
gl32(p); /* MAC (if in use) */
gl16(p); /* Padding */
tid = gl16(p); /* TID */
gl16(p); /* PID lsbs */
uid = gl16(p); /* UID */
gl16(p); /* mid */
g8(p); /* word count */
if(reply != p->request){
fprint(2, "unexpected reply (cmd=%x/%x seq=%d/%d)\n",
reply, p->request, seq, p->seq);
return -1;
}
if(p->s->secmode & SECMODE_SIGN_ENABLED){
if(macsign(p, p->seq+1) != 0 && p->s->seqrun){
werrstr("cifsrpc: invalid packet signature");
print("MAC signature bad\n");
// FIXME: for debug only return -1;
}
}else{
/*
* We allow the sequence number of zero as some old samba
* servers seem to fall back to this unexpectedly
* after reporting sequence numbers correctly for a while.
*
* Some other samba servers seem to always report a sequence
* number of zero if MAC signing is disabled, so we have to
* catch that too.
*/
if(p->s->seqrun && seq != p->seq && seq != 0){
werrstr("bad sequence number (%d != %d)\n", p->seq, seq);
return -1;
}
}
p->tid = tid;
if(p->s->uid == NO_UID)
p->s->uid = uid;
if(p->flags2 & FL2_NT_ERRCODES){
/* is it a real error rather than info/warning/chatter? */
if((err & 0xF0000000) == 0xC0000000){
werrstr("%s", nterrstr(err));
return -1;
}
}else{
if(err){
werrstr("%s", doserrstr(err));
return -1;
}
}
return got;
}
void
skipjack_forwards(u_int8_t *plain, u_int8_t *cipher, u_int8_t **key_tables)
{
u_int8_t wh1 = plain[0]; u_int8_t wl1 = plain[1];
u_int8_t wh2 = plain[2]; u_int8_t wl2 = plain[3];
u_int8_t wh3 = plain[4]; u_int8_t wl3 = plain[5];
u_int8_t wh4 = plain[6]; u_int8_t wl4 = plain[7];
u_int8_t * k0 = key_tables [0];
u_int8_t * k1 = key_tables [1];
u_int8_t * k2 = key_tables [2];
u_int8_t * k3 = key_tables [3];
u_int8_t * k4 = key_tables [4];
u_int8_t * k5 = key_tables [5];
u_int8_t * k6 = key_tables [6];
u_int8_t * k7 = key_tables [7];
u_int8_t * k8 = key_tables [8];
u_int8_t * k9 = key_tables [9];
/* first 8 rounds */
g0 (wh1,wl1, wh1,wl1); wl4 ^= wl1 ^ 1; wh4 ^= wh1;
g4 (wh4,wl4, wh4,wl4); wl3 ^= wl4 ^ 2; wh3 ^= wh4;
g8 (wh3,wl3, wh3,wl3); wl2 ^= wl3 ^ 3; wh2 ^= wh3;
g2 (wh2,wl2, wh2,wl2); wl1 ^= wl2 ^ 4; wh1 ^= wh2;
g6 (wh1,wl1, wh1,wl1); wl4 ^= wl1 ^ 5; wh4 ^= wh1;
g0 (wh4,wl4, wh4,wl4); wl3 ^= wl4 ^ 6; wh3 ^= wh4;
g4 (wh3,wl3, wh3,wl3); wl2 ^= wl3 ^ 7; wh2 ^= wh3;
g8 (wh2,wl2, wh2,wl2); wl1 ^= wl2 ^ 8; wh1 ^= wh2;
/* second 8 rounds */
wh2 ^= wh1; wl2 ^= wl1 ^ 9 ; g2 (wh1,wl1, wh1,wl1);
wh1 ^= wh4; wl1 ^= wl4 ^ 10; g6 (wh4,wl4, wh4,wl4);
wh4 ^= wh3; wl4 ^= wl3 ^ 11; g0 (wh3,wl3, wh3,wl3);
wh3 ^= wh2; wl3 ^= wl2 ^ 12; g4 (wh2,wl2, wh2,wl2);
wh2 ^= wh1; wl2 ^= wl1 ^ 13; g8 (wh1,wl1, wh1,wl1);
wh1 ^= wh4; wl1 ^= wl4 ^ 14; g2 (wh4,wl4, wh4,wl4);
wh4 ^= wh3; wl4 ^= wl3 ^ 15; g6 (wh3,wl3, wh3,wl3);
wh3 ^= wh2; wl3 ^= wl2 ^ 16; g0 (wh2,wl2, wh2,wl2);
/* third 8 rounds */
g4 (wh1,wl1, wh1,wl1); wl4 ^= wl1 ^ 17; wh4 ^= wh1;
g8 (wh4,wl4, wh4,wl4); wl3 ^= wl4 ^ 18; wh3 ^= wh4;
g2 (wh3,wl3, wh3,wl3); wl2 ^= wl3 ^ 19; wh2 ^= wh3;
g6 (wh2,wl2, wh2,wl2); wl1 ^= wl2 ^ 20; wh1 ^= wh2;
g0 (wh1,wl1, wh1,wl1); wl4 ^= wl1 ^ 21; wh4 ^= wh1;
g4 (wh4,wl4, wh4,wl4); wl3 ^= wl4 ^ 22; wh3 ^= wh4;
g8 (wh3,wl3, wh3,wl3); wl2 ^= wl3 ^ 23; wh2 ^= wh3;
g2 (wh2,wl2, wh2,wl2); wl1 ^= wl2 ^ 24; wh1 ^= wh2;
/* last 8 rounds */
wh2 ^= wh1; wl2 ^= wl1 ^ 25; g6 (wh1,wl1, wh1,wl1);
wh1 ^= wh4; wl1 ^= wl4 ^ 26; g0 (wh4,wl4, wh4,wl4);
wh4 ^= wh3; wl4 ^= wl3 ^ 27; g4 (wh3,wl3, wh3,wl3);
wh3 ^= wh2; wl3 ^= wl2 ^ 28; g8 (wh2,wl2, wh2,wl2);
wh2 ^= wh1; wl2 ^= wl1 ^ 29; g2 (wh1,wl1, wh1,wl1);
wh1 ^= wh4; wl1 ^= wl4 ^ 30; g6 (wh4,wl4, wh4,wl4);
wh4 ^= wh3; wl4 ^= wl3 ^ 31; g0 (wh3,wl3, wh3,wl3);
wh3 ^= wh2; wl3 ^= wl2 ^ 32; g4 (wh2,wl2, wh2,wl2);
/* pack into byte vector */
cipher [0] = wh1; cipher [1] = wl1;
cipher [2] = wh2; cipher [3] = wl2;
cipher [4] = wh3; cipher [5] = wl3;
cipher [6] = wh4; cipher [7] = wl4;
}
void Encrypt( Skipjack_CTX *ctx, u8 *in, u8 *out )
{
u8 wh1 = in[0]; u8 wl1 = in[1];
u8 wh2 = in[2]; u8 wl2 = in[3];
u8 wh3 = in[4]; u8 wl3 = in[5];
u8 wh4 = in[6]; u8 wl4 = in[7];
u8 * k0 = ctx->key_tables [0];
u8 * k1 = ctx->key_tables [1];
u8 * k2 = ctx->key_tables [2];
u8 * k3 = ctx->key_tables [3];
u8 * k4 = ctx->key_tables [4];
u8 * k5 = ctx->key_tables [5];
u8 * k6 = ctx->key_tables [6];
u8 * k7 = ctx->key_tables [7];
u8 * k8 = ctx->key_tables [8];
u8 * k9 = ctx->key_tables [9];
/* first 8 rounds */
g0 (wh1,wl1, wh1,wl1); wl4 ^= wl1 ^ 1; wh4 ^= wh1;
g4 (wh4,wl4, wh4,wl4); wl3 ^= wl4 ^ 2; wh3 ^= wh4;
g8 (wh3,wl3, wh3,wl3); wl2 ^= wl3 ^ 3; wh2 ^= wh3;
g2 (wh2,wl2, wh2,wl2); wl1 ^= wl2 ^ 4; wh1 ^= wh2;
g6 (wh1,wl1, wh1,wl1); wl4 ^= wl1 ^ 5; wh4 ^= wh1;
g0 (wh4,wl4, wh4,wl4); wl3 ^= wl4 ^ 6; wh3 ^= wh4;
g4 (wh3,wl3, wh3,wl3); wl2 ^= wl3 ^ 7; wh2 ^= wh3;
g8 (wh2,wl2, wh2,wl2); wl1 ^= wl2 ^ 8; wh1 ^= wh2;
/* second 8 rounds */
wh2 ^= wh1; wl2 ^= wl1 ^ 9 ; g2 (wh1,wl1, wh1,wl1);
wh1 ^= wh4; wl1 ^= wl4 ^ 10; g6 (wh4,wl4, wh4,wl4);
wh4 ^= wh3; wl4 ^= wl3 ^ 11; g0 (wh3,wl3, wh3,wl3);
wh3 ^= wh2; wl3 ^= wl2 ^ 12; g4 (wh2,wl2, wh2,wl2);
wh2 ^= wh1; wl2 ^= wl1 ^ 13; g8 (wh1,wl1, wh1,wl1);
wh1 ^= wh4; wl1 ^= wl4 ^ 14; g2 (wh4,wl4, wh4,wl4);
wh4 ^= wh3; wl4 ^= wl3 ^ 15; g6 (wh3,wl3, wh3,wl3);
wh3 ^= wh2; wl3 ^= wl2 ^ 16; g0 (wh2,wl2, wh2,wl2);
/* third 8 rounds */
g4 (wh1,wl1, wh1,wl1); wl4 ^= wl1 ^ 17; wh4 ^= wh1;
g8 (wh4,wl4, wh4,wl4); wl3 ^= wl4 ^ 18; wh3 ^= wh4;
g2 (wh3,wl3, wh3,wl3); wl2 ^= wl3 ^ 19; wh2 ^= wh3;
g6 (wh2,wl2, wh2,wl2); wl1 ^= wl2 ^ 20; wh1 ^= wh2;
g0 (wh1,wl1, wh1,wl1); wl4 ^= wl1 ^ 21; wh4 ^= wh1;
g4 (wh4,wl4, wh4,wl4); wl3 ^= wl4 ^ 22; wh3 ^= wh4;
g8 (wh3,wl3, wh3,wl3); wl2 ^= wl3 ^ 23; wh2 ^= wh3;
g2 (wh2,wl2, wh2,wl2); wl1 ^= wl2 ^ 24; wh1 ^= wh2;
/* last 8 rounds */
wh2 ^= wh1; wl2 ^= wl1 ^ 25; g6 (wh1,wl1, wh1,wl1);
wh1 ^= wh4; wl1 ^= wl4 ^ 26; g0 (wh4,wl4, wh4,wl4);
wh4 ^= wh3; wl4 ^= wl3 ^ 27; g4 (wh3,wl3, wh3,wl3);
wh3 ^= wh2; wl3 ^= wl2 ^ 28; g8 (wh2,wl2, wh2,wl2);
wh2 ^= wh1; wl2 ^= wl1 ^ 29; g2 (wh1,wl1, wh1,wl1);
wh1 ^= wh4; wl1 ^= wl4 ^ 30; g6 (wh4,wl4, wh4,wl4);
wh4 ^= wh3; wl4 ^= wl3 ^ 31; g0 (wh3,wl3, wh3,wl3);
wh3 ^= wh2; wl3 ^= wl2 ^ 32; g4 (wh2,wl2, wh2,wl2);
/* pack into byte vector */
out [0] = wh1; out [1] = wl1;
out [2] = wh2; out [3] = wl2;
out [4] = wh3; out [5] = wl3;
out [6] = wh4; out [7] = wl4;
}
SDL_Color to_sdl_color() const
{
return { r8(), g8(), b8(), a8() };
}
int main()
{
tQ4 a4( 1.1 );
tQ4 b4( 1 );
tQ12 a12( 3.3 );
tQ12 b12( 3 );
tQ18 a18;
double ad;
double bd;
tQ8 a8( -2.3 );
tQ8 b8( 2 );
tQ8 c8( Q8CONST( -2,3 ) );
tQ8 d8( a8 );
tQ8 e8( a4 );
// tQ8 f8( a12 ); // Warning: left shift count is negative
tQ8 g8( a12.roundedTo< tQ8 >() );
tQ8 h8( a12.roundedTo< 8 >() );
// a8 = a4.roundedTo( h8 ); //Warning: left/right shift is negative
a8 = 1;
a8 = -2;
a8 = 3;
a8 = Q8CONST( 3,001 );
a8 = tQ8( 3.001 );
a8 = tQ8::truncated( 3.001 );
a8 = tQ8::rounded( 3.001 );
a8.setTruncated( 3.2 );
a8.setRounded( 3.3 );
a8 = tQ8( 123, 8 );
a8 = tQ8::create( 123 << 8 );
a8 = a4;
a8 = a8;
// a8 = a12; // Warning: left shift count is negative
a8 = a12.roundedTo< tQ8 >();
a8 = a12.roundedTo( a8 );
a8.setRounded( a12 );
a8 = -a4;
a8 = -a8;
a8 += 3;
a8 += 4u;
a8 += 5l;
a8 += 6lu;
a8 += tQ8( 3.2 );
a8 += truncatedTo( a8, 3.3 );
a8 += roundedTo( a8, 3.4 );
a8 += a4;
// a8 += a12; // Warning: left shift count is negative
a8 += a12.roundedTo< tQ8 >();
a8 += a12.roundedTo( a8 );
a8 = a8 + 2;
a8 = 3 + a8;
a8 = a8 + a4;
// a8 = a4 + a8; // Warning: left shift count is negative
a8 -= 3;
a8 -= 4u;
a8 -= 5l;
a8 -= 6lu;
a8 -= roundedTo< tQ8::cQBits >( 3.2 );
a8 -= roundedTo( a8, 3.3 );
a8 -= a4;
// a8 -= a12; // Warning: left shift count is negative
a8 -= a12.roundedTo< tQ8 >();
a8 -= a12.roundedTo( a8 );
a8 = a8 - 2;
a8 = 3 - a8;
a8 = a8 - a4;
// a8 = a4 - a8; // Warning: left shift count is negative
a8 *= 3;
a8 *= 4u;
a8 *= 5l;
a8 *= 6lu;
// a8 *= 3.2; // Warning: converting to int from double
a8 *= a4;
a8 *= a12;
a8 = a8 * 2;
a8 = 3 * a8;
a12 = a8 * a4;
a12 = a4 * a8;
a8 /= 3;
a8 /= 4u;
a8 /= 5l;
a8 /= 6lu;
// a8 /= 3.2; // Warning: converting to int from double
a8 /= a4; // Note: possible overflow due to pre-shifting "(a8 << 4) / a4"
// a8 /= a12; // Warning: left shift count is negative
a8 = a8.increasedBy( a12 ) / a12;
a8 = a8 / 2;
// a8 = 3 / a8; // Error: no match for 'operator/'
a8 = tQ16( 3 ) / a8;
a12 = a8 / a4;
a12 = a4 / a8;
a8 == 3;
a8 == 4u;
a8 == 5l;
a8 == 6lu;
a8 == tQ8( 3.2 );
a8 == truncatedTo( a8, 3.3 );
a8 == roundedTo( a8, 3.4 );
a8 == a4;
// a8 == a12; // Warning: left shift count is negative
a8 == a12.roundedTo< tQ8 >();
a8 == a12.roundedTo( a8 );
3 == a8;
int(4u) == a8;
int(5l) == a8;
int(6lu) == a8;
a8 < 3;
a8 < 4u;
a8 < 5l;
a8 < 6lu;
a8 < tQ8( 3.2 );
a8 < a4;
// a8 < a12; // Warning: left shift count is negative
3 < a8;
int(4u) < a8;
int(5l) < a8;
int(6lu) < a8;
a8 > 3;
a8 > 4u;
a8 > 5l;
a8 > 6lu;
a8 > tQ8( 3.2 );
a8 > a4;
// a8 > a12; // Warning: left shift count is negative
3 > a8;
int(4u) > a8;
int(5l) > a8;
int(6lu) > a8;
!a8;
int intPart = a8.intPart();
int fracPart = a8.fracPart();
int fracPlaces = a8.fracPlaces( 3 );
unsigned abs = a8.absolute();
ad = a8.toDouble();
a8 = ad;
// a8.set( ad ); // Warning: conversion from int to double, possible loss of data
a8.setRounded( ad );
a8 = truncatedTo( a8, ad );
a8 = truncatedTo<8>( ad );
a8 = truncatedTo<tQ8>( ad );
// tBigQ36 aB36( 123567890 ); // Error: ambiguous
tBigQ36 aB36( 123567890ll );
tBigQ36 bB36( a8 );
aB36 = tBigQ18( a18 ) * a18;
}
