BIF_RETTYPE loaded_0(BIF_ALIST_0)
{
ErtsCodeIndex code_ix = erts_active_code_ix();
Module* modp;
Eterm previous = NIL;
Eterm* hp;
int i;
int j = 0;
for (i = 0; i < module_code_size(code_ix); i++) {
if ((modp = module_code(i, code_ix)) != NULL &&
((modp->curr.code_length != 0) ||
(modp->old.code_length != 0))) {
j++;
}
}
if (j > 0) {
hp = HAlloc(BIF_P, j*2);
for (i = 0; i < module_code_size(code_ix); i++) {
if ((modp=module_code(i,code_ix)) != NULL &&
((modp->curr.code_length != 0) ||
(modp->old.code_length != 0))) {
previous = CONS(hp, make_atom(modp->module), previous);
hp += 2;
}
}
}
BIF_RET(previous);
}
static int set_break(Eterm mfa[3], int specified,
Binary *match_spec, Eterm break_op,
enum erts_break_op count_op, Eterm tracer_pid)
{
Module *modp;
int num_processed = 0;
if (!specified) {
/* Find and process all modules in the system... */
int current;
int last = module_code_size();
for (current = 0; current < last; current++) {
modp = module_code(current);
ASSERT(modp != NULL);
num_processed +=
set_module_break(modp, mfa, specified,
match_spec, break_op, count_op,
tracer_pid);
}
} else {
/* Process a single module */
if ((modp = erts_get_module(mfa[0])) != NULL) {
num_processed +=
set_module_break(modp, mfa, specified,
match_spec, break_op, count_op,
tracer_pid);
}
}
return num_processed;
}
BIF_RETTYPE loaded_0(BIF_ALIST_0)
{
Eterm previous = NIL;
Eterm* hp;
int i;
int j = 0;
for (i = 0; i < module_code_size(); i++) {
if (module_code(i) != NULL &&
((module_code(i)->code_length != 0) ||
(module_code(i)->old_code_length != 0))) {
j++;
}
}
if (j > 0) {
hp = HAlloc(BIF_P, j*2);
for (i = 0; i < module_code_size(); i++) {
if (module_code(i) != NULL &&
((module_code(i)->code_length != 0) ||
(module_code(i)->old_code_length != 0))) {
previous = CONS(hp, make_atom(module_code(i)->module),
previous);
hp += 2;
}
}
}
BIF_RET(previous);
}
static int clear_break(Eterm mfa[3], int specified, Uint break_op)
{
int num_processed = 0;
Module *modp;
if (!specified) {
/* Iterate over all modules */
int current;
int last = module_code_size();
for (current = 0; current < last; current++) {
modp = module_code(current);
ASSERT(modp != NULL);
num_processed += clear_module_break(modp, mfa, specified, break_op);
}
} else {
/* Process a single module */
if ((modp = erts_get_module(mfa[0])) != NULL) {
num_processed +=
clear_module_break(modp, mfa, specified, break_op);
}
}
return num_processed;
}
void
erts_bp_match_functions(BpFunctions* f, Eterm mfa[3], int specified)
{
ErtsCodeIndex code_ix = erts_active_code_ix();
Uint max_funcs = 0;
int current;
int max_modules = module_code_size(code_ix);
int num_modules = 0;
Module* modp;
Module** module;
Uint i;
module = (Module **) Alloc(max_modules*sizeof(Module *));
num_modules = 0;
for (current = 0; current < max_modules; current++) {
modp = module_code(current, code_ix);
if (modp->curr.code_hdr) {
max_funcs += modp->curr.code_hdr->num_functions;
module[num_modules++] = modp;
}
}
f->matching = (BpFunction *) Alloc(max_funcs*sizeof(BpFunction));
i = 0;
for (current = 0; current < num_modules; current++) {
BeamCodeHeader* code_hdr = module[current]->curr.code_hdr;
BeamInstr* code;
Uint num_functions = (Uint)(UWord) code_hdr->num_functions;
Uint fi;
if (specified > 0) {
if (mfa[0] != make_atom(module[current]->module)) {
/* Wrong module name */
continue;
}
}
for (fi = 0; fi < num_functions; fi++) {
BeamInstr* pc;
int wi;
code = code_hdr->functions[fi];
ASSERT(code[0] == (BeamInstr) BeamOp(op_i_func_info_IaaI));
pc = code+5;
if (erts_is_native_break(pc)) {
continue;
}
if (is_nil(code[3])) { /* Ignore BIF stub */
continue;
}
for (wi = 0;
wi < specified && (Eterm) code[2+wi] == mfa[wi];
wi++) {
/* Empty loop body */
}
if (wi == specified) {
/* Store match */
f->matching[i].pc = pc;
f->matching[i].mod = module[current];
i++;
}
}
}
f->matched = i;
Free(module);
}
void
loaded(int to, void *to_arg)
{
int i;
int old = 0;
int cur = 0;
BeamInstr* code;
Module* modp;
ErtsCodeIndex code_ix;
code_ix = erts_active_code_ix();
erts_rlock_old_code(code_ix);
/*
* Calculate and print totals.
*/
for (i = 0; i < module_code_size(code_ix); i++) {
if ((modp = module_code(i, code_ix)) != NULL &&
((modp->curr.code_length != 0) ||
(modp->old.code_length != 0))) {
cur += modp->curr.code_length;
if (modp->old.code_length != 0) {
old += modp->old.code_length;
}
}
}
erts_print(to, to_arg, "Current code: %d\n", cur);
erts_print(to, to_arg, "Old code: %d\n", old);
/*
* Print one line per module.
*/
for (i = 0; i < module_code_size(code_ix); i++) {
modp = module_code(i, code_ix);
if (!ERTS_IS_CRASH_DUMPING) {
/*
* Interactive dump; keep it brief.
*/
if (modp != NULL &&
((modp->curr.code_length != 0) ||
(modp->old.code_length != 0))) {
erts_print(to, to_arg, "%T", make_atom(modp->module));
cur += modp->curr.code_length;
erts_print(to, to_arg, " %d", modp->curr.code_length );
if (modp->old.code_length != 0) {
erts_print(to, to_arg, " (%d old)",
modp->old.code_length );
old += modp->old.code_length;
}
erts_print(to, to_arg, "\n");
}
} else {
/*
* To crash dump; make it parseable.
*/
if (modp != NULL &&
((modp->curr.code_length != 0) ||
(modp->old.code_length != 0))) {
erts_print(to, to_arg, "=mod:");
erts_print(to, to_arg, "%T", make_atom(modp->module));
erts_print(to, to_arg, "\n");
erts_print(to, to_arg, "Current size: %d\n",
modp->curr.code_length);
code = modp->curr.code;
if (code != NULL && code[MI_ATTR_PTR]) {
erts_print(to, to_arg, "Current attributes: ");
dump_attributes(to, to_arg, (byte *) code[MI_ATTR_PTR],
code[MI_ATTR_SIZE]);
}
if (code != NULL && code[MI_COMPILE_PTR]) {
erts_print(to, to_arg, "Current compilation info: ");
dump_attributes(to, to_arg, (byte *) code[MI_COMPILE_PTR],
code[MI_COMPILE_SIZE]);
}
if (modp->old.code_length != 0) {
erts_print(to, to_arg, "Old size: %d\n", modp->old.code_length);
code = modp->old.code;
if (code[MI_ATTR_PTR]) {
erts_print(to, to_arg, "Old attributes: ");
dump_attributes(to, to_arg, (byte *) code[MI_ATTR_PTR],
code[MI_ATTR_SIZE]);
}
if (code[MI_COMPILE_PTR]) {
erts_print(to, to_arg, "Old compilation info: ");
dump_attributes(to, to_arg, (byte *) code[MI_COMPILE_PTR],
code[MI_COMPILE_SIZE]);
}
}
}
}
}
erts_runlock_old_code(code_ix);
}
void
erts_bp_match_functions(BpFunctions* f, ErtsCodeMFA *mfa, int specified)
{
ErtsCodeIndex code_ix = erts_active_code_ix();
Uint max_funcs = 0;
int current;
int max_modules = module_code_size(code_ix);
int num_modules = 0;
Module* modp;
Module** module;
Uint i;
module = (Module **) Alloc(max_modules*sizeof(Module *));
num_modules = 0;
for (current = 0; current < max_modules; current++) {
modp = module_code(current, code_ix);
if (modp->curr.code_hdr) {
max_funcs += modp->curr.code_hdr->num_functions;
module[num_modules++] = modp;
}
}
f->matching = (BpFunction *) Alloc(max_funcs*sizeof(BpFunction));
i = 0;
for (current = 0; current < num_modules; current++) {
BeamCodeHeader* code_hdr = module[current]->curr.code_hdr;
ErtsCodeInfo* ci;
Uint num_functions = (Uint)(UWord) code_hdr->num_functions;
Uint fi;
if (specified > 0) {
if (mfa->module != make_atom(module[current]->module)) {
/* Wrong module name */
continue;
}
}
for (fi = 0; fi < num_functions; fi++) {
ci = code_hdr->functions[fi];
ASSERT(ci->op == (BeamInstr) BeamOp(op_i_func_info_IaaI));
if (erts_is_function_native(ci)) {
continue;
}
if (is_nil(ci->mfa.module)) { /* Ignore BIF stub */
continue;
}
switch (specified) {
case 3:
if (ci->mfa.arity != mfa->arity)
continue;
case 2:
if (ci->mfa.function != mfa->function)
continue;
case 1:
if (ci->mfa.module != mfa->module)
continue;
case 0:
break;
}
/* Store match */
f->matching[i].ci = ci;
f->matching[i].mod = module[current];
i++;
}
}
f->matched = i;
Free(module);
}