Commit 754de8d4 authored by Russ Cox's avatar Russ Cox

[dev.cc] all: merge dev.power64 (f57928630b36) into dev.cc

This will be the last dev.power64 merge; we'll finish on dev.cc.

TBR=austin
CC=golang-codereviews
https://golang.org/cl/175420043
parents ab4578ad 7904e951
......@@ -626,6 +626,11 @@ extern char* anames9[];
extern char* cnames5[];
extern char* cnames9[];
extern char* dnames5[];
extern char* dnames6[];
extern char* dnames8[];
extern char* dnames9[];
extern LinkArch link386;
extern LinkArch linkamd64;
extern LinkArch linkamd64p32;
......
......@@ -75,12 +75,18 @@ struct Reg
{
Flow f;
Bits set; // variables written by this instruction.
Bits use1; // variables read by prog->from.
Bits use2; // variables read by prog->to.
Bits set; // regopt variables written by this instruction.
Bits use1; // regopt variables read by prog->from.
Bits use2; // regopt variables read by prog->to.
// refahead/refbehind are the regopt variables whose current
// value may be used in the following/preceding instructions
// up to a CALL (or the value is clobbered).
Bits refbehind;
Bits refahead;
// calahead/calbehind are similar, but for variables in
// instructions that are reachable after hitting at least one
// CALL.
Bits calbehind;
Bits calahead;
Bits regdiff;
......@@ -93,6 +99,16 @@ struct Reg
#define NRGN 600
/*c2go enum { NRGN = 600 }; */
// A Rgn represents a single regopt variable over a region of code
// where a register could potentially be dedicated to that variable.
// The code encompassed by a Rgn is defined by the flow graph,
// starting at enter, flood-filling forward while varno is refahead
// and backward while varno is refbehind, and following branches. A
// single variable may be represented by multiple disjoint Rgns and
// each Rgn may choose a different register for that variable.
// Registers are allocated to regions greedily in order of descending
// cost.
struct Rgn
{
Reg* enter;
......@@ -144,7 +160,7 @@ void prop(Reg*, Bits, Bits);
void synch(Reg*, Bits);
uint32 allreg(uint32, Rgn*);
void paint1(Reg*, int);
uint32 paint2(Reg*, int);
uint32 paint2(Reg*, int, int);
void paint3(Reg*, int, uint32, int);
void addreg(Adr*, int);
void dumpit(char *str, Flow *r0, int);
......@@ -187,16 +203,16 @@ enum
SizeF = 1<<7, // float aka float32
SizeD = 1<<8, // double aka float64
// Left side: address taken, read, write.
// Left side (Prog.from): address taken, read, write.
LeftAddr = 1<<9,
LeftRead = 1<<10,
LeftWrite = 1<<11,
// Register in middle; never written.
// Register in middle (Prog.reg); only ever read.
RegRead = 1<<12,
CanRegRead = 1<<13,
// Right side: address taken, read, write.
// Right side (Prog.to): address taken, read, write.
RightAddr = 1<<14,
RightRead = 1<<15,
RightWrite = 1<<16,
......
......@@ -454,9 +454,13 @@ brk:
* replace code (paint3)
*/
rgp = region;
if(debug['R'] && debug['v'])
print("\nregisterizing\n");
for(i=0; i<nregion; i++) {
if(debug['R'] && debug['v'])
print("region %d: cost %d varno %d enter %d\n", i, rgp->cost, rgp->varno, rgp->enter->f.prog->pc);
bit = blsh(rgp->varno);
vreg = paint2(rgp->enter, rgp->varno);
vreg = paint2(rgp->enter, rgp->varno, 0);
vreg = allreg(vreg, rgp);
if(debug['R']) {
if(rgp->regno >= NREG)
......@@ -477,9 +481,6 @@ brk:
rgp++;
}
if(debug['R'] && debug['v'])
dumpit("pass6", &firstr->f, 1);
/*
* free aux structures. peep allocates new ones.
*/
......@@ -488,6 +489,15 @@ brk:
flowend(g);
firstr = R;
if(debug['R'] && debug['v']) {
// Rebuild flow graph, since we inserted instructions
g = flowstart(firstp, sizeof(Reg));
firstr = (Reg*)g->start;
dumpit("pass6", &firstr->f, 1);
flowend(g);
firstr = R;
}
/*
* pass 7
* peep-hole on basic block
......@@ -1189,7 +1199,7 @@ paint1(Reg *r, int bn)
}
uint32
paint2(Reg *r, int bn)
paint2(Reg *r, int bn, int depth)
{
Reg *r1;
int z;
......@@ -1213,6 +1223,9 @@ paint2(Reg *r, int bn)
r = r1;
}
for(;;) {
if(debug['R'] && debug['v'])
print(" paint2 %d %P\n", depth, r->f.prog);
r->act.b[z] &= ~bb;
vreg |= r->regu;
......@@ -1220,14 +1233,14 @@ paint2(Reg *r, int bn)
if(r->refbehind.b[z] & bb)
for(r1 = (Reg*)r->f.p2; r1 != R; r1 = (Reg*)r1->f.p2link)
if(r1->refahead.b[z] & bb)
vreg |= paint2(r1, bn);
vreg |= paint2(r1, bn, depth+1);
if(!(r->refahead.b[z] & bb))
break;
r1 = (Reg*)r->f.s2;
if(r1 != R)
if(r1->refbehind.b[z] & bb)
vreg |= paint2(r1, bn);
vreg |= paint2(r1, bn, depth+1);
r = (Reg*)r->f.s1;
if(r == R)
break;
......@@ -1344,6 +1357,8 @@ RtoB(int r)
int
BtoR(uint32 b)
{
// TODO Allow R0 and R1, but be careful with a 0 return
// TODO Allow R9. Only R10 is reserved now (just g, not m).
b &= 0x11fcL; // excluded R9 and R10 for m and g, but not R12
if(b == 0)
return 0;
......@@ -1442,12 +1457,14 @@ dumpit(char *str, Flow *r0, int isreg)
print(" (only)");
print("\n");
}
// r1 = r->s1;
// if(r1 != nil) {
// print(" succ:");
// for(; r1 != R; r1 = r1->s1)
// print(" %.4ud", (int)r1->prog->pc);
// print("\n");
// }
// Print successors if it's not just the next one
if(r->s1 != r->link || r->s2 != nil) {
print(" succ:");
if(r->s1 != nil)
print(" %.4ud", (int)r->s1->prog->pc);
if(r->s2 != nil)
print(" %.4ud", (int)r->s2->prog->pc);
print("\n");
}
}
}
......@@ -338,6 +338,8 @@ enum
D_STATIC = (D_NONE+4),
D_AUTO = (D_NONE+5),
D_PARAM = (D_NONE+6),
D_LAST = (D_NONE+26),
};
/*
......
......@@ -75,12 +75,18 @@ struct Reg
{
Flow f;
Bits set; // variables written by this instruction.
Bits use1; // variables read by prog->from.
Bits use2; // variables read by prog->to.
Bits set; // regopt variables written by this instruction.
Bits use1; // regopt variables read by prog->from.
Bits use2; // regopt variables read by prog->to.
// refahead/refbehind are the regopt variables whose current
// value may be used in the following/preceding instructions
// up to a CALL (or the value is clobbered).
Bits refbehind;
Bits refahead;
// calahead/calbehind are similar, but for variables in
// instructions that are reachable after hitting at least one
// CALL.
Bits calbehind;
Bits calahead;
Bits regdiff;
......@@ -93,6 +99,16 @@ struct Reg
#define NRGN 600
/*c2go enum { NRGN = 600 }; */
// A Rgn represents a single regopt variable over a region of code
// where a register could potentially be dedicated to that variable.
// The code encompassed by a Rgn is defined by the flow graph,
// starting at enter, flood-filling forward while varno is refahead
// and backward while varno is refbehind, and following branches. A
// single variable may be represented by multiple disjoint Rgns and
// each Rgn may choose a different register for that variable.
// Registers are allocated to regions greedily in order of descending
// cost.
struct Rgn
{
Reg* enter;
......@@ -140,7 +156,7 @@ void prop(Reg*, Bits, Bits);
void synch(Reg*, Bits);
uint32 allreg(uint32, Rgn*);
void paint1(Reg*, int);
uint32 paint2(Reg*, int);
uint32 paint2(Reg*, int, int);
void paint3(Reg*, int, uint32, int);
void addreg(Adr*, int);
void dumpone(Flow*, int);
......@@ -165,8 +181,8 @@ typedef struct ProgInfo ProgInfo;
struct ProgInfo
{
uint32 flags; // the bits below
uint32 reguse; // required registers used by this instruction
uint32 regset; // required registers set by this instruction
uint32 reguse; // registers implicitly used by this instruction
uint32 regset; // registers implicitly set by this instruction
uint32 regindex; // registers used by addressing mode
};
......@@ -187,12 +203,12 @@ enum
SizeF = 1<<7, // float aka float32
SizeD = 1<<8, // double aka float64
// Left side: address taken, read, write.
// Left side (Prog.from): address taken, read, write.
LeftAddr = 1<<9,
LeftRead = 1<<10,
LeftWrite = 1<<11,
// Right side: address taken, read, write.
// Right side (Prog.to): address taken, read, write.
RightAddr = 1<<12,
RightRead = 1<<13,
RightWrite = 1<<14,
......
......@@ -389,9 +389,13 @@ brk:
* replace code (paint3)
*/
rgp = region;
if(debug['R'] && debug['v'])
print("\nregisterizing\n");
for(i=0; i<nregion; i++) {
if(debug['R'] && debug['v'])
print("region %d: cost %d varno %d enter %d\n", i, rgp->cost, rgp->varno, rgp->enter->f.prog->pc);
bit = blsh(rgp->varno);
vreg = paint2(rgp->enter, rgp->varno);
vreg = paint2(rgp->enter, rgp->varno, 0);
vreg = allreg(vreg, rgp);
if(rgp->regno != 0) {
if(debug['R'] && debug['v']) {
......@@ -406,9 +410,6 @@ brk:
rgp++;
}
if(debug['R'] && debug['v'])
dumpit("pass6", &firstr->f, 1);
/*
* free aux structures. peep allocates new ones.
*/
......@@ -417,6 +418,15 @@ brk:
flowend(g);
firstr = R;
if(debug['R'] && debug['v']) {
// Rebuild flow graph, since we inserted instructions
g = flowstart(firstp, sizeof(Reg));
firstr = (Reg*)g->start;
dumpit("pass6", &firstr->f, 1);
flowend(g);
firstr = R;
}
/*
* pass 7
* peep-hole on basic block
......@@ -1020,7 +1030,7 @@ paint1(Reg *r, int bn)
}
uint32
paint2(Reg *r, int bn)
paint2(Reg *r, int bn, int depth)
{
Reg *r1;
int z;
......@@ -1044,6 +1054,9 @@ paint2(Reg *r, int bn)
r = r1;
}
for(;;) {
if(debug['R'] && debug['v'])
print(" paint2 %d %P\n", depth, r->f.prog);
r->act.b[z] &= ~bb;
vreg |= r->regu;
......@@ -1051,14 +1064,14 @@ paint2(Reg *r, int bn)
if(r->refbehind.b[z] & bb)
for(r1 = (Reg*)r->f.p2; r1 != R; r1 = (Reg*)r1->f.p2link)
if(r1->refahead.b[z] & bb)
vreg |= paint2(r1, bn);
vreg |= paint2(r1, bn, depth+1);
if(!(r->refahead.b[z] & bb))
break;
r1 = (Reg*)r->f.s2;
if(r1 != R)
if(r1->refbehind.b[z] & bb)
vreg |= paint2(r1, bn);
vreg |= paint2(r1, bn, depth+1);
r = (Reg*)r->f.s1;
if(r == R)
break;
......@@ -1259,12 +1272,14 @@ dumpit(char *str, Flow *r0, int isreg)
print(" %.4ud", (int)r1->prog->pc);
print("\n");
}
// r1 = r->s1;
// if(r1 != R) {
// print(" succ:");
// for(; r1 != R; r1 = r1->s1)
// print(" %.4ud", (int)r1->prog->pc);
// print("\n");
// }
// Print successors if it's not just the next one
if(r->s1 != r->link || r->s2 != nil) {
print(" succ:");
if(r->s1 != nil)
print(" %.4ud", (int)r->s1->prog->pc);
if(r->s2 != nil)
print(" %.4ud", (int)r->s2->prog->pc);
print("\n");
}
}
}
......@@ -865,6 +865,8 @@ enum
D_INDIR, /* additive */
D_LAST,
T_TYPE = 1<<0,
T_INDEX = 1<<1,
T_OFFSET = 1<<2,
......
......@@ -75,12 +75,18 @@ struct Reg
{
Flow f;
Bits set; // variables written by this instruction.
Bits use1; // variables read by prog->from.
Bits use2; // variables read by prog->to.
Bits set; // regopt variables written by this instruction.
Bits use1; // regopt variables read by prog->from.
Bits use2; // regopt variables read by prog->to.
// refahead/refbehind are the regopt variables whose current
// value may be used in the following/preceding instructions
// up to a CALL (or the value is clobbered).
Bits refbehind;
Bits refahead;
// calahead/calbehind are similar, but for variables in
// instructions that are reachable after hitting at least one
// CALL.
Bits calbehind;
Bits calahead;
Bits regdiff;
......@@ -106,6 +112,16 @@ struct Reg
#define NRGN 600
/*c2go enum { NRGN = 600 }; */
// A Rgn represents a single regopt variable over a region of code
// where a register could potentially be dedicated to that variable.
// The code encompassed by a Rgn is defined by the flow graph,
// starting at enter, flood-filling forward while varno is refahead
// and backward while varno is refbehind, and following branches. A
// single variable may be represented by multiple disjoint Rgns and
// each Rgn may choose a different register for that variable.
// Registers are allocated to regions greedily in order of descending
// cost.
struct Rgn
{
Reg* enter;
......@@ -158,7 +174,7 @@ void loopit(Reg*, int32);
void synch(Reg*, Bits);
uint32 allreg(uint32, Rgn*);
void paint1(Reg*, int);
uint32 paint2(Reg*, int);
uint32 paint2(Reg*, int, int);
void paint3(Reg*, int, uint32, int);
void addreg(Adr*, int);
void dumpone(Flow*, int);
......@@ -183,8 +199,8 @@ typedef struct ProgInfo ProgInfo;
struct ProgInfo
{
uint32 flags; // the bits below
uint32 reguse; // required registers used by this instruction
uint32 regset; // required registers set by this instruction
uint32 reguse; // registers implicitly used by this instruction
uint32 regset; // registers implicitly set by this instruction
uint32 regindex; // registers used by addressing mode
};
......@@ -205,12 +221,12 @@ enum
SizeF = 1<<7, // float aka float32
SizeD = 1<<8, // double aka float64
// Left side: address taken, read, write.
// Left side (Prog.from): address taken, read, write.
LeftAddr = 1<<9,
LeftRead = 1<<10,
LeftWrite = 1<<11,
// Right side: address taken, read, write.
// Right side (Prog.to): address taken, read, write.
RightAddr = 1<<12,
RightRead = 1<<13,
RightWrite = 1<<14,
......
......@@ -358,18 +358,19 @@ brk:
* replace code (paint3)
*/
rgp = region;
if(debug['R'] && debug['v'])
print("\nregisterizing\n");
for(i=0; i<nregion; i++) {
if(debug['R'] && debug['v'])
print("region %d: cost %d varno %d enter %d\n", i, rgp->cost, rgp->varno, rgp->enter->f.prog->pc);
bit = blsh(rgp->varno);
vreg = paint2(rgp->enter, rgp->varno);
vreg = paint2(rgp->enter, rgp->varno, 0);
vreg = allreg(vreg, rgp);
if(rgp->regno != 0)
paint3(rgp->enter, rgp->varno, vreg, rgp->regno);
rgp++;
}
if(debug['R'] && debug['v'])
dumpit("pass6", &firstr->f, 1);
/*
* free aux structures. peep allocates new ones.
*/
......@@ -378,6 +379,15 @@ brk:
flowend(g);
firstr = R;
if(debug['R'] && debug['v']) {
// Rebuild flow graph, since we inserted instructions
g = flowstart(firstp, sizeof(Reg));
firstr = (Reg*)g->start;
dumpit("pass6", &firstr->f, 1);
flowend(g);
firstr = R;
}
/*
* pass 7
* peep-hole on basic block
......@@ -997,7 +1007,7 @@ paint1(Reg *r, int bn)
}
uint32
paint2(Reg *r, int bn)
paint2(Reg *r, int bn, int depth)
{
Reg *r1;
int z;
......@@ -1021,6 +1031,9 @@ paint2(Reg *r, int bn)
r = r1;
}
for(;;) {
if(debug['R'] && debug['v'])
print(" paint2 %d %P\n", depth, r->f.prog);
r->act.b[z] &= ~bb;
vreg |= r->regu;
......@@ -1028,14 +1041,14 @@ paint2(Reg *r, int bn)
if(r->refbehind.b[z] & bb)
for(r1 = (Reg*)r->f.p2; r1 != R; r1 = (Reg*)r1->f.p2link)
if(r1->refahead.b[z] & bb)
vreg |= paint2(r1, bn);
vreg |= paint2(r1, bn, depth+1);
if(!(r->refahead.b[z] & bb))
break;
r1 = (Reg*)r->f.s2;
if(r1 != R)
if(r1->refbehind.b[z] & bb)
vreg |= paint2(r1, bn);
vreg |= paint2(r1, bn, depth+1);
r = (Reg*)r->f.s1;
if(r == R)
break;
......@@ -1229,12 +1242,14 @@ dumpit(char *str, Flow *r0, int isreg)
print(" %.4ud", (int)r1->prog->pc);
print("\n");
}
// r1 = r->s1;
// if(r1 != nil) {
// print(" succ:");
// for(; r1 != R; r1 = r1->s1)
// print(" %.4ud", (int)r1->prog->pc);
// print("\n");
// }
// Print successors if it's not just the next one
if(r->s1 != r->link || r->s2 != nil) {
print(" succ:");
if(r->s1 != nil)
print(" %.4ud", (int)r->s1->prog->pc);
if(r->s2 != nil)
print(" %.4ud", (int)r->s2->prog->pc);
print("\n");
}
}
}
......@@ -654,6 +654,8 @@ enum
D_CONST2 = D_INDIR+D_INDIR,
D_LAST,
T_TYPE = 1<<0,
T_INDEX = 1<<1,
T_OFFSET = 1<<2,
......
......@@ -1322,7 +1322,6 @@ void
dumpit(char *str, Flow *r0, int isreg)
{
Flow *r, *r1;
int s1v, s2v;
print("\n%s\n", str);
for(r = r0; r != nil; r = r->link) {
......@@ -1334,10 +1333,8 @@ dumpit(char *str, Flow *r0, int isreg)
print(" %.4ud", (int)r1->prog->pc);
print("\n");
}
// If at least one successor is "interesting", print both
s1v = (r->s1 != nil) && (r->s1->prog != r->prog->link);
s2v = (r->s2 != nil) && (r->s2->prog != r->prog->link);
if(s1v || s2v) {
// Print successors if it's not just the next one
if(r->s1 != r->link || r->s2 != nil) {
print(" succ:");
if(r->s1 != nil)
print(" %.4ud", (int)r->s1->prog->pc);
......
......@@ -497,6 +497,8 @@ enum
D_DCONST,
D_ADDR, // not used, use D_CONST with non-empty sym.
D_LAST,
/* reg names for 9g OREGISTER */
D_R0 = 0, // type is D_REG
D_F0 = D_R0+NREG, // type is D_FREG
......
......@@ -63,22 +63,36 @@ gcopnames(char *dir, char *file)
vfree(&fields);
}
static int
xatoi(char *s, char **end)
{
int val = 0;
for(; *s && *s >= '0' && *s <= '9'; ++s)
val = val * 10 + (*s - '0');
*end = s;
return val;
}
// mkanames reads [5689].out.h and writes anames[5689].c
// The format is much the same as the Go opcodes above.
// it also writes out cnames array for C_* constants.
// It also writes out cnames array for C_* constants and the dnames
// array for D_* constants.
void
mkanames(char *dir, char *file)
{
int i, j, ch;
int i, j, ch, n, unknown;
Buf in, b, out, out2;
Vec lines;
char *p;
char *p, *p2;
Vec dnames[128];
binit(&b);
binit(&in);
binit(&out);
binit(&out2);
vinit(&lines);
for(i=0; i<nelem(dnames); i++)
vinit(&dnames[i]);
ch = file[xstrlen(file)-3];
bprintf(&b, "%s/../cmd/%cl/%c.out.h", dir, ch, ch);
......@@ -87,10 +101,12 @@ mkanames(char *dir, char *file)
// Include link.h so that the extern declaration there is
// checked against the non-extern declaration we are generating.
bwritestr(&out, bprintf(&b, "// auto generated by go tool dist\n"));
bwritestr(&out, bprintf(&b, "#include <u.h>\n"));
bwritestr(&out, bprintf(&b, "#include <libc.h>\n"));
bwritestr(&out, bprintf(&b, "#include <bio.h>\n"));
bwritestr(&out, bprintf(&b, "#include <link.h>\n"));
bwritestr(&out, bprintf(&b, "#include \"../cmd/%cl/%c.out.h\"\n", ch, ch));
bwritestr(&out, bprintf(&b, "\n"));
bwritestr(&out, bprintf(&b, "char* anames%c[] = {\n", ch));
......@@ -127,6 +143,69 @@ mkanames(char *dir, char *file)
if(j>0)
bwriteb(&out, &out2);
j=unknown=0;
n=-1;
for(i=0; i<lines.len; i++) {
if(hasprefix(lines.p[i], "\tD_")) {
p = xstrstr(lines.p[i], ",");
if(p)
*p = '\0';
p = xstrstr(lines.p[i], "\n");
if(p)
*p = '\0';
// Parse explicit value, if any
p = xstrstr(lines.p[i], "=");
if(p) {
// Skip space after '='
p2 = p + 1;
while(*p2 == ' ' || *p2 == '\t')
p2++;
n = xatoi(p2, &p2);
// We can't do anything about
// non-numeric values or anything that
// follows
while(*p2 == ' ' || *p2 == '\t')
p2++;
if(*p2 != 0) {
unknown = 1;
continue;
}
// Truncate space before '='
while(*(p-1) == ' ' || *(p-1) == '\t')
p--;
*p = '\0';
unknown = 0;
} else {
n++;
}
if(unknown || n >= nelem(dnames))
continue;
p = lines.p[i] + 3;
if(xstrcmp(p, "LAST") == 0)
continue;
vadd(&dnames[n], p);
j++;
}
}
if(j>0){
bwritestr(&out, bprintf(&b, "char* dnames%c[D_LAST] = {\n", ch));
for(i=0; i<nelem(dnames); i++) {
if(dnames[i].len == 0)
continue;
bwritestr(&out, bprintf(&b, "\t[D_%s] = \"", dnames[i].p[0]));
for(j=0; j<dnames[i].len; j++) {
if(j != 0)
bwritestr(&out, "/");
bwritestr(&out, dnames[i].p[j]);
}
bwritestr(&out, "\",\n");
}
bwritestr(&out, "};\n");
}
writefile(&out, file, 0);
bfree(&b);
......@@ -134,4 +213,6 @@ mkanames(char *dir, char *file)
bfree(&out);
bfree(&out2);
vfree(&lines);
for(i=0; i<nelem(dnames); i++)
vfree(&dnames[i]);
}
......@@ -82,6 +82,19 @@ Pconv(Fmt *fp)
p = va_arg(fp->args, Prog*);
bigP = p;
if(fp->flags & FmtSharp) {
char *s = str;
s += sprint(s, "%.5lld (%L) %A", p->pc, p->lineno, p->as);
if(p->from.type != D_NONE)
s += sprint(s, " from={%#D}", &p->from);
if(p->reg)
s += sprint(s, " reg=%d", p->reg);
if(p->to.type != D_NONE)
s += sprint(s, " to={%#D}", &p->to);
return fmtstrcpy(fp, str);
}
switch(p->as) {
case ADATA:
sprint(str, "%.5lld (%L) %A %D/%d,%D",
......@@ -126,6 +139,31 @@ Dconv(Fmt *fp)
a = va_arg(fp->args, Addr*);
i = a->type;
if(fp->flags & FmtSharp) {
char *s = str;
s += sprint(s, "type=");
if(i == D_NONE) {
sprint(s, "NONE");
goto brk;
}
if(i >= D_INDIR) {
i -= D_INDIR;
s += sprint(s, "INDIR+");
}
if(i >= 0 && i < D_LAST && dnames6[i] != nil)
s += sprint(s, "%s ", dnames6[i]);
else
s += sprint(s, "%d ", i);
s += sprint(s, "offset=%ld etype=%E width=%d", a->offset, a->etype, a->width);
if(a->class != 0)
s += sprint(s, " class=%s", cnames9[(int)a->class]);
if(a->sym != nil)
s += sprint(s, " sym=%s", a->sym->name);
if(a->type == D_BRANCH && a->u.branch != nil)
s += sprint(s, " branch=%.5lld", a->u.branch->pc);
goto brk;
}
if(fp->flags & FmtLong) {
if(i == D_CONST)
sprint(str, "$%lld-%lld", a->offset&0xffffffffLL, a->offset>>32);
......
......@@ -91,6 +91,21 @@ Pconv(Fmt *fp)
p = va_arg(fp->args, Prog*);
bigP = p;
a = p->as;
if(fp->flags & FmtSharp) {
s = str;
s += sprint(s, "%.5lld (%L) %A", p->pc, p->lineno, a);
if(p->from.type != D_NONE)
s += sprint(s, " from={%#D}", &p->from);
if(p->reg)
s += sprint(s, " reg=%d", p->reg);
if(p->from3.type != D_NONE)
s += sprint(s, " from3={%#D}", &p->from3);
if(p->to.type != D_NONE)
s += sprint(s, " to={%#D}", &p->to);
return fmtstrcpy(fp, str);
}
if(a == ADATA || a == AINIT || a == ADYNT)
sprint(str, "%.5lld (%L) %A %D/%d,%D", p->pc, p->lineno, a, &p->from, p->reg, &p->to);
else if(a == ATEXT) {
......@@ -153,6 +168,32 @@ Dconv(Fmt *fp)
a = va_arg(fp->args, Addr*);
if(fp->flags & FmtSharp) {
char *s = str;
if(a->type == D_NONE) {
sprint(s, "type=NONE");
goto ret;
}
if(a->type >= 0 && a->type < D_LAST && dnames9[a->type] != nil)
s += sprint(s, "type=%s ", dnames9[a->type]);
else
s += sprint(s, "type=%d ", a->type);
if(a->name >= 0 && a->name < D_LAST && dnames9[a->name] != nil)
s += sprint(s, "name=%s ", dnames9[a->name]);
else
s += sprint(s, "name=%d ", a->name);
s += sprint(s, "offset=%ld etype=%E width=%d", a->offset, a->etype, a->width);
if(a->class != 0)
s += sprint(s, " class=%s", cnames9[a->class]);
if(a->reg != NREG)
s += sprint(s, " reg=%d", a->reg);
if(a->sym != nil)
s += sprint(s, " sym=%s", a->sym->name);
if(a->type == D_BRANCH && a->u.branch != nil)
s += sprint(s, " branch=%.5lld", a->u.branch->pc);
goto ret;
}
if(fp->flags & FmtLong) {
if(a->type == D_CONST)
sprint(str, "$%d-%d", (int32)a->offset, (int32)(a->offset>>32));
......
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