if(parent->relocation_type_of(rel) == RT_IMMEDIATE)
{
cell offset = parent->relocation_offset_of(rel) + (cell)(compiled + 1);
- array *literals =
parent->untag<array>(compiled->literals);
+ array *literals = untag<array>(compiled->literals);
fixnum absolute_value = array_nth(literals,index);
parent->store_address_in_code_block(parent->relocation_class_of(rel),offset,absolute_value);
}
cell used, total_free, max_free;
code->allocator->usage(&used,&total_free,&max_free);
- print_string("Code heap stats:\n");
- print_string("Used: "); print_cell(used); nl();
- print_string("Total free space: "); print_cell(total_free); nl();
- print_string("Largest free block: "); print_cell(max_free); nl();
+ std::cout << "Code heap stats:\n";
+ std::cout << "Used: " << used << "\n";
+ std::cout << "Total free space: " << total_free << "\n";
+ std::cout << "Largest free block: " << max_free << "\n";
fatal_error("Out of memory in add-compiled-block",0);
}
}
if(immediate_p(pointer)) return;
- object *untagged = parent->untag<object>(pointer);
+ object *untagged = untag<object>(pointer);
if(!policy.should_copy_p(untagged))
{
policy.visited_object(untagged);
}
/* Size of the object pointed to by an untagged pointer */
-cell object::size()
+cell object::size() const
{
if(free_p()) return ((free_heap_block *)this)->size();
namespace factor
{
-void factor_vm::print_chars(string* str)
+std::ostream &operator<<(std::ostream &out, const string *str)
{
- cell i;
- for(i = 0; i < string_capacity(str); i++)
- putchar(string_nth(str,i));
+ for(cell i = 0; i < string_capacity(str); i++)
+ out << (char)str->nth(i);
+ return out;
}
void factor_vm::print_word(word* word, cell nesting)
{
if(tagged<object>(word->vocabulary).type_p(STRING_TYPE))
- {
- print_chars(untag<string>(word->vocabulary));
- print_string(":");
- }
+ std::cout << untag<string>(word->vocabulary) << ":";
if(tagged<object>(word->name).type_p(STRING_TYPE))
- print_chars(untag<string>(word->name));
+ std::cout << untag<string>(word->name);
else
{
- print_string("#<not a string: ");
+ std::cout << "#<not a string: ";
print_nested_obj(word->name,nesting);
- print_string(">");
+ std::cout << ">";
}
}
-void factor_vm::print_factor_string(string* str)
+void factor_vm::print_factor_string(string *str)
{
- putchar('"');
- print_chars(str);
- putchar('"');
+ std::cout << '"' << str << '"';
}
void factor_vm::print_array(array* array, cell nesting)
for(i = 0; i < length; i++)
{
- print_string(" ");
+ std::cout << " ";
print_nested_obj(array_nth(array,i),nesting);
}
if(trimmed)
- print_string("...");
+ std::cout << "...";
}
void factor_vm::print_tuple(tuple *tuple, cell nesting)
tuple_layout *layout = untag<tuple_layout>(tuple->layout);
cell length = to_fixnum(layout->size);
- print_string(" ");
+ std::cout << " ";
print_nested_obj(layout->klass,nesting);
- cell i;
bool trimmed;
-
if(length > 10 && !full_output)
{
trimmed = true;
else
trimmed = false;
- for(i = 0; i < length; i++)
+ for(cell i = 0; i < length; i++)
{
- print_string(" ");
+ std::cout << " ";
print_nested_obj(tuple->data()[i],nesting);
}
if(trimmed)
- print_string("...");
+ std::cout << "...";
}
void factor_vm::print_nested_obj(cell obj, fixnum nesting)
{
if(nesting <= 0 && !full_output)
{
- print_string(" ... ");
+ std::cout << " ... ";
return;
}
switch(tagged<object>(obj).type())
{
case FIXNUM_TYPE:
- print_fixnum(untag_fixnum(obj));
+ std::cout << untag_fixnum(obj);
break;
case WORD_TYPE:
print_word(untag<word>(obj),nesting - 1);
print_factor_string(untag<string>(obj));
break;
case F_TYPE:
- print_string("f");
+ std::cout << "f";
break;
case TUPLE_TYPE:
- print_string("T{");
+ std::cout << "T{";
print_tuple(untag<tuple>(obj),nesting - 1);
- print_string(" }");
+ std::cout << " }";
break;
case ARRAY_TYPE:
- print_string("{");
+ std::cout << "{";
print_array(untag<array>(obj),nesting - 1);
- print_string(" }");
+ std::cout << " }";
break;
case QUOTATION_TYPE:
- print_string("[");
+ std::cout << "[";
quot = untag<quotation>(obj);
print_array(untag<array>(quot->array),nesting - 1);
- print_string(" ]");
+ std::cout << " ]";
break;
default:
- print_string("#<type ");
- print_cell(tagged<object>(obj).type());
- print_string(" @ ");
- print_cell_hex(obj);
- print_string(">");
+ std::cout << "#<type " << tagged<object>(obj).type() << " @ ";
+ std::cout << std::hex << obj << std::dec << ">";
break;
}
}
for(; start <= end; start++)
{
print_obj(*start);
- nl();
+ std::cout << std::endl;
}
}
void factor_vm::print_datastack()
{
- print_string("==== DATA STACK:\n");
+ std::cout << "==== DATA STACK:\n";
print_objects((cell *)ds_bot,(cell *)ds);
}
void factor_vm::print_retainstack()
{
- print_string("==== RETAIN STACK:\n");
+ std::cout << "==== RETAIN STACK:\n";
print_objects((cell *)rs_bot,(cell *)rs);
}
void operator()(stack_frame *frame)
{
parent->print_obj(parent->frame_executing(frame));
- print_string("\n");
+ std::cout << std::endl;
parent->print_obj(parent->frame_scan(frame));
- print_string("\n");
- print_string("word/quot addr: ");
- print_cell_hex((cell)parent->frame_executing(frame));
- print_string("\n");
- print_string("word/quot xt: ");
- print_cell_hex((cell)frame->xt);
- print_string("\n");
- print_string("return address: ");
- print_cell_hex((cell)FRAME_RETURN_ADDRESS(frame,parent));
- print_string("\n");
+ std::cout << std::endl;
+ std::cout << "word/quot addr: ";
+ std::cout << std::hex << (cell)parent->frame_executing(frame) << std::dec;
+ std::cout << std::endl;
+ std::cout << "word/quot xt: ";
+ std::cout << std::hex << (cell)frame->xt << std::dec;
+ std::cout << std::endl;
+ std::cout << "return address: ";
+ std::cout << std::hex << (cell)FRAME_RETURN_ADDRESS(frame,parent) << std::dec;
+ std::cout << std::endl;
}
};
void factor_vm::print_callstack()
{
- print_string("==== CALL STACK:\n");
+ std::cout << "==== CALL STACK:\n";
stack_frame_printer printer(this);
iterate_callstack(ctx,printer);
}
+struct padded_address {
+ cell value;
+
+ explicit padded_address(cell value_) : value(value_) {}
+};
+
+std::ostream &operator<<(std::ostream &out, const padded_address &value)
+{
+ char prev = out.fill('0');
+ out.width(sizeof(cell) * 2);
+ out << std::hex << value.value << std::dec;
+ out.fill(prev);
+ return out;
+}
+
void factor_vm::dump_cell(cell x)
{
- print_cell_hex_pad(x); print_string(": ");
+ std::cout << padded_address(x) << ": ";
x = *(cell *)x;
- print_cell_hex_pad(x); print_string(" tag "); print_cell(TAG(x));
- nl();
+ std::cout << padded_address(x) << " tag " << TAG(x) << std::endl;
}
void factor_vm::dump_memory(cell from, cell to)
template<typename Generation>
void factor_vm::dump_generation(const char *name, Generation *gen)
{
- print_string(name); print_string(": ");
- print_string("Start="); print_cell(gen->start);
- print_string(", size="); print_cell(gen->size);
- print_string(", end="); print_cell(gen->end);
- nl();
+ std::cout << name << ": ";
+ std::cout << "Start=" << gen->start;
+ std::cout << ", size=" << gen->size;
+ std::cout << ", end=" << gen->end;
+ std::cout << std::endl;
}
void factor_vm::dump_generations()
dump_generation("Aging",data->aging);
dump_generation("Tenured",data->tenured);
- print_string("Cards: base=");
- print_cell((cell)data->cards);
- print_string(", size=");
- print_cell((cell)(data->cards_end - data->cards));
- nl();
+ std::cout << "Cards:";
+ std::cout << "base=" << (cell)data->cards << ", ";
+ std::cout << "size=" << (cell)(data->cards_end - data->cards) << std::endl;
}
void factor_vm::dump_objects(cell type)
{
if(type == TYPE_COUNT || tagged<object>(obj).type_p(type))
{
- print_cell_hex_pad(obj);
- print_string(" ");
+ std::cout << padded_address(obj) << " ";
print_nested_obj(obj,2);
- nl();
+ std::cout << std::endl;
}
}
{
if(look_for == *scan)
{
- print_cell_hex_pad(obj);
- print_string(" ");
+ std::cout << padded_address(obj) << " ";
parent->print_nested_obj(obj,2);
- nl();
+ std::cout << std::endl;
}
}
};
status = "allocated";
}
- print_cell_hex((cell)scan); print_string(" ");
- print_cell_hex(size); print_string(" ");
- print_string(status); print_string("\n");
+ std::cout << std::hex << (cell)scan << std::dec << " ";
+ std::cout << std::hex << size << std::dec << " ";
+ std::cout << status << std::endl;
}
};
{
code_block_printer printer(this);
code->allocator->iterate(printer);
- print_cell(printer.reloc_size); print_string(" bytes of relocation data\n");
- print_cell(printer.literal_size); print_string(" bytes of literal data\n");
+ std::cout << printer.reloc_size << " bytes of relocation data\n";
+ std::cout << printer.literal_size << " bytes of literal data\n";
}
void factor_vm::factorbug()
{
if(fep_disabled)
{
- print_string("Low level debugger disabled\n");
+ std::cout << "Low level debugger disabled\n";
exit(1);
}
/* open_console(); */
- print_string("Starting low level debugger...\n");
- print_string(" Basic commands:\n");
- print_string("q -- continue executing Factor - NOT SAFE\n");
- print_string("im -- save image to fep.image\n");
- print_string("x -- exit Factor\n");
- print_string(" Advanced commands:\n");
- print_string("d <addr> <count> -- dump memory\n");
- print_string("u <addr> -- dump object at tagged <addr>\n");
- print_string(". <addr> -- print object at tagged <addr>\n");
- print_string("t -- toggle output trimming\n");
- print_string("s r -- dump data, retain stacks\n");
- print_string(".s .r .c -- print data, retain, call stacks\n");
- print_string("e -- dump environment\n");
- print_string("g -- dump generations\n");
- print_string("data -- data heap dump\n");
- print_string("words -- words dump\n");
- print_string("tuples -- tuples dump\n");
- print_string("refs <addr> -- find data heap references to object\n");
- print_string("push <addr> -- push object on data stack - NOT SAFE\n");
- print_string("code -- code heap dump\n");
+ std::cout << "Starting low level debugger...\n";
+ std::cout << " Basic commands:\n";
+ std::cout << "q -- continue executing Factor - NOT SAFE\n";
+ std::cout << "im -- save image to fep.image\n";
+ std::cout << "x -- exit Factor\n";
+ std::cout << " Advanced commands:\n";
+ std::cout << "d <addr> <count> -- dump memory\n";
+ std::cout << "u <addr> -- dump object at tagged <addr>\n";
+ std::cout << ". <addr> -- print object at tagged <addr>\n";
+ std::cout << "t -- toggle output trimming\n";
+ std::cout << "s r -- dump data, retain stacks\n";
+ std::cout << ".s .r .c -- print data, retain, call stacks\n";
+ std::cout << "e -- dump environment\n";
+ std::cout << "g -- dump generations\n";
+ std::cout << "data -- data heap dump\n";
+ std::cout << "words -- words dump\n";
+ std::cout << "tuples -- tuples dump\n";
+ std::cout << "refs <addr> -- find data heap references to object\n";
+ std::cout << "push <addr> -- push object on data stack - NOT SAFE\n";
+ std::cout << "code -- code heap dump\n";
bool seen_command = false;
{
char cmd[1024];
- print_string("READY\n");
+ std::cout << "READY\n";
fflush(stdout);
if(scanf("%1000s",cmd) <= 0)
{
cell addr = read_cell_hex();
print_obj(addr);
- print_string("\n");
+ std::cout << std::endl;
}
else if(strcmp(cmd,"t") == 0)
full_output = !full_output;
else if(strcmp(cmd,"refs") == 0)
{
cell addr = read_cell_hex();
- print_string("Data heap references:\n");
+ std::cout << "Data heap references:\n";
find_data_references(addr);
- nl();
+ std::cout << std::endl;
}
else if(strcmp(cmd,"words") == 0)
dump_objects(WORD_TYPE);
else if(strcmp(cmd,"code") == 0)
dump_code_heap();
else
- print_string("unknown command\n");
+ std::cout << "unknown command\n";
}
}
void factor_vm::primitive_die()
{
- print_string("The die word was called by the library. Unless you called it yourself,\n");
- print_string("you have triggered a bug in Factor. Please report.\n");
+ std::cout << "The die word was called by the library. Unless you called it yourself,\n";
+ std::cout << "you have triggered a bug in Factor. Please report.\n";
factorbug();
}
void fatal_error(const char *msg, cell tagged)
{
- print_string("fatal_error: "); print_string(msg);
- print_string(": "); print_cell_hex(tagged); nl();
+ std::cout << "fatal_error: " << msg;
+ std::cout << ": " << std::hex << tagged << std::dec;
+ std::cout << std::endl;
exit(1);
}
void critical_error(const char *msg, cell tagged)
{
- print_string("You have triggered a bug in Factor. Please report.\n");
- print_string("critical_error: "); print_string(msg);
- print_string(": "); print_cell_hex(tagged); nl();
+ std::cout << "You have triggered a bug in Factor. Please report.\n";
+ std::cout << "critical_error: " << msg;
+ std::cout << ": " << std::hex << tagged << std::dec;
+ std::cout << std::endl;
tls_vm()->factorbug();
}
void out_of_memory()
{
- print_string("Out of memory\n\n");
+ std::cout << "Out of memory\n\n";
tls_vm()->dump_generations();
exit(1);
}
crash. */
else
{
- print_string("You have triggered a bug in Factor. Please report.\n");
- print_string("early_error: ");
+ std::cout << "You have triggered a bug in Factor. Please report.\n";
+ std::cout << "early_error: ";
print_obj(error);
- nl();
+ std::cout << std::endl;
factorbug();
}
}
p->max_pic_size = 3;
p->fep = false;
+ p->verbosegc = false;
p->signals = true;
#ifdef WINDOWS
else if(factor_arg(arg,STRING_LITERAL("-callbacks=%d"),&p->callback_size));
else if(STRCMP(arg,STRING_LITERAL("-fep")) == 0) p->fep = true;
else if(STRCMP(arg,STRING_LITERAL("-nosignals")) == 0) p->signals = false;
+ else if(STRCMP(arg,STRING_LITERAL("-verbosegc")) == 0) p->verbosegc = true;
else if(STRNCMP(arg,STRING_LITERAL("-i="),3) == 0) p->image_path = arg + 3;
else if(STRCMP(arg,STRING_LITERAL("-console")) == 0) p->console = true;
}
/* Do some initialization that we do once only */
void factor_vm::do_stage1_init()
{
- print_string("*** Stage 2 early init... ");
+ std::cout << "*** Stage 2 early init... ";
fflush(stdout);
compile_all_words();
userenv[STAGE2_ENV] = true_object;
- print_string("done\n");
- fflush(stdout);
+ std::cout << "done\n";
}
void factor_vm::init_factor(vm_parameters *p)
if(p->signals)
init_signals();
+ verbosegc = p->verbosegc;
+
if(p->console)
open_console();
current_gc = new gc_state(op);
+ if(verbosegc)
+ std::cout << "GC requested, op=" << op << std::endl;
+
/* Keep trying to GC higher and higher generations until we don't run out
of space */
if(setjmp(current_gc->gc_unwind))
critical_error("Bad GC op\n",op);
break;
}
+
+ if(verbosegc)
+ std::cout << "GC rewind, op=" << op << std::endl;
}
switch(current_gc->op)
delete current_gc;
current_gc = NULL;
+
+ if(verbosegc)
+ std::cout << "GC done, op=" << op << std::endl;
}
void factor_vm::primitive_minor_gc()
{
- gc(collect_nursery_op,
+ gc(collect_full_op,
0, /* requested size */
true, /* trace contexts? */
false /* compact code heap? */);
if((cell)bytes_read != h->data_size)
{
- print_string("truncated image: ");
- print_fixnum(bytes_read);
- print_string(" bytes read, ");
- print_cell(h->data_size);
- print_string(" bytes expected\n");
+ std::cout << "truncated image: " << bytes_read << " bytes read, ";
+ std::cout << h->data_size << " bytes expected\n";
fatal_error("load_data_heap failed",0);
}
size_t bytes_read = fread(code->allocator->first_block(),1,h->code_size,file);
if(bytes_read != h->code_size)
{
- print_string("truncated image: ");
- print_fixnum(bytes_read);
- print_string(" bytes read, ");
- print_cell(h->code_size);
- print_string(" bytes expected\n");
+ std::cout << "truncated image: " << bytes_read << " bytes read, ";
+ std::cout << h->code_size << " bytes expected\n";
fatal_error("load_code_heap failed",0);
}
}
FILE *file = OPEN_READ(p->image_path);
if(file == NULL)
{
- print_string("Cannot open image file: "); print_native_string(p->image_path); nl();
- print_string(strerror(errno)); nl();
+ std::cout << "Cannot open image file: " << p->image_path << std::endl;
+ std::cout << strerror(errno) << std::endl;
exit(1);
}
file = OPEN_WRITE(filename);
if(file == NULL)
{
- print_string("Cannot open image file: "); print_native_string(filename); nl();
- print_string(strerror(errno)); nl();
+ std::cout << "Cannot open image file: " << filename << std::endl;
+ std::cout << strerror(errno) << std::endl;
return false;
}
if(fclose(file)) ok = false;
if(!ok)
- {
- print_string("save-image failed: "); print_string(strerror(errno)); nl();
- }
+ std::cout << "save-image failed: " << strerror(errno) << std::endl;
return ok;
}
cell young_size, aging_size, tenured_size;
cell code_size;
bool fep;
+ bool verbosegc;
bool console;
bool signals;
cell max_pic_size;
set_call_target(return_address,xt);
#ifdef PIC_DEBUG
- printf("Updated %s call site 0x%lx with 0x%lx\n",
- tail_call_site_p(return_address) ? "tail" : "non-tail",
- return_address,
- (cell)xt);
+ std::cout << "Updated "
+ << (tail_call_site_p(return_address) ? "tail" : "non-tail")
+ << " call site 0x" << std::hex << return_address << std::dec
+ << " with " << std::hex << (cell)xt << std::dec;
#endif
return xt;
void emit_subprimitive(cell word_) {
gc_root<word> word(word_,parent);
gc_root<array> code_pair(word->subprimitive,parent);
- literals.append(
parent->untag<array>(array_nth(code_pair.untagged(),0)));
+ literals.append(untag<array>(array_nth(code_pair.untagged(),0)));
emit(array_nth(code_pair.untagged(),1));
}
explicit header(cell value_) : value(value_ << TAG_BITS) {}
- void check_header()
+ void check_header() const
{
#ifdef FACTOR_DEBUG
assert(TAG(value) == FIXNUM_TYPE && untag_fixnum(value) < TYPE_COUNT);
#endif
}
- cell hi_tag()
+ cell hi_tag() const
{
check_header();
return value >> TAG_BITS;
}
- bool forwarding_pointer_p()
+ bool forwarding_pointer_p() const
{
return TAG(value) == GC_COLLECTED;
}
- object *forwarding_pointer()
+ object *forwarding_pointer() const
{
return (object *)UNTAG(value);
}
NO_TYPE_CHECK;
header h;
- cell size();
+ cell size() const;
- cell *slots() { return (cell *)this; }
+ cell *slots() const { return (cell *)this; }
/* Only valid for objects in tenured space; must fast to free_heap_block
to do anything with it if its free */
- bool free_p()
+ bool free_p() const
{
return h.value & 1 == 1;
}
/* tagged */
cell capacity;
- cell *data() { return (cell *)(this + 1); }
+ cell *data() const { return (cell *)(this + 1); }
};
/* These are really just arrays, but certain elements have special
/* tagged */
cell capacity;
- cell *data() { return (cell *)(this + 1); }
+ cell *data() const { return (cell *)(this + 1); }
};
struct byte_array : public object {
cell padding1;
#endif
- template<typename Scalar> Scalar *data() { return (Scalar *)(this + 1); }
+ template<typename Scalar> Scalar *data() const { return (Scalar *)(this + 1); }
};
/* Assembly code makes assumptions about the layout of this struct */
/* tagged */
cell hashcode;
- u8 *data() { return (u8 *)(this + 1); }
+ u8 *data() const { return (u8 *)(this + 1); }
+
+ cell nth(cell i) const;
};
/* The compiled code heap is structured into blocks. */
{
cell header;
- bool free_p()
+ bool free_p() const
{
return header & 1 == 1;
}
- cell size()
+ cell size() const
{
cell bytes = header >> 3;
#ifdef FACTOR_DEBUG
cell literals; /* tagged pointer to array or f */
cell relocation; /* tagged pointer to byte-array or f */
- void *xt()
+ void *xt() const
{
return (void *)(this + 1);
}
- code_block_type type()
+ code_block_type type() const
{
return (code_block_type)((header >> 1) & 0x3);
}
header = ((header & ~0x7) | (type << 1));
}
- bool pic_p()
+ bool pic_p() const
{
return type() == code_block_pic;
}
- bool optimized_p()
+ bool optimized_p() const
{
return type() == code_block_optimized;
}
/* tagged */
cell length;
- stack_frame *frame_at(cell offset)
+ stack_frame *frame_at(cell offset) const
{
return (stack_frame *)((char *)(this + 1) + offset);
}
- stack_frame *top() { return (stack_frame *)(this + 1); }
- stack_frame *bottom() { return (stack_frame *)((cell)(this + 1) + untag_fixnum(length)); }
+ stack_frame *top() const { return (stack_frame *)(this + 1); }
+ stack_frame *bottom() const { return (stack_frame *)((cell)(this + 1) + untag_fixnum(length)); }
};
struct tuple : public object {
/* tagged layout */
cell layout;
- cell *data() { return (cell *)(this + 1); }
+ cell *data() const { return (cell *)(this + 1); }
};
}
#include <map>
#include <set>
#include <vector>
+#include <iostream>
/* Forward-declare this since it comes up in function prototypes */
namespace factor
#define OPEN_READ(path) _wfopen(path,L"rb")
#define OPEN_WRITE(path) _wfopen(path,L"wb")
-#define print_native_string(string) wprintf(L"%s",string)
-
/* Difference between Jan 1 00:00:00 1601 and Jan 1 00:00:00 1970 */
#define EPOCH_OFFSET 0x019db1ded53e8000LL
switch(tagged<object>(obj).type())
{
case WORD_TYPE:
- if(!parent->to_boolean(parent->untag<word>(obj)->subprimitive))
+ if(!parent->to_boolean(untag<word>(obj)->subprimitive))
return true;
break;
case QUOTATION_TYPE:
{
gc_root<quotation> quot(quot_,parent);
- array *elements =
parent->untag<array>(quot->array);
+ array *elements = untag<array>(quot->array);
/* If the quotation consists of a single word, compile a direct call
to the word. */
namespace factor
{
-cell factor_vm::string_nth(string* str, cell index)
+cell string::nth(cell index) const
{
/* If high bit is set, the most significant 16 bits of the char
come from the aux vector. The least significant bit of the
corresponding aux vector entry is negated, so that we can
XOR the two components together and get the original code point
back. */
- cell lo_bits = str->data()[index];
+ cell lo_bits = data()[index];
if((lo_bits & 0x80) == 0)
return lo_bits;
else
{
- byte_array *aux = untag<byte_array>(str->aux);
+ byte_array *aux = untag<byte_array>(this->aux);
cell hi_bits = aux->data<u16>()[index];
return (hi_bits << 7) ^ lo_bits;
}
{
string *str = untag<string>(dpop());
cell index = untag_fixnum(dpop());
- dpush(tag_fixnum(string_nth(str,index)));
+ dpush(tag_fixnum(str->nth(index)));
}
void factor_vm::primitive_set_string_nth_fast()
namespace factor
{
-inline static cell string_capacity(string *str)
+inline static cell string_capacity(const string *str)
{
return untag_fixnum(str->length);
}
return tagged<Type>(value).untag_check(this);
}
-template<typename Type> Type *factor_vm::untag(cell value)
+template<typename Type> Type *untag(cell value)
{
return tagged<Type>(value).untagged();
}
return ptr;
}
-/* We don't use printf directly, because format directives are not portable.
-Instead we define the common cases here. */
-void nl()
-{
- fputs("\n",stdout);
-}
-
-void print_string(const char *str)
-{
- fputs(str,stdout);
-}
-
-void print_cell(cell x)
-{
- printf(CELL_FORMAT,x);
-}
-
-void print_cell_hex(cell x)
-{
- printf(CELL_HEX_FORMAT,x);
-}
-
-void print_cell_hex_pad(cell x)
-{
- printf(CELL_HEX_PAD_FORMAT,x);
-}
-
-void print_fixnum(fixnum x)
-{
- printf(FIXNUM_FORMAT,x);
-}
-
cell read_cell_hex()
{
cell cell;
namespace factor
{
vm_char *safe_strdup(const vm_char *str);
- void print_string(const char *str);
- void nl();
- void print_cell(cell x);
- void print_cell_hex(cell x);
void print_cell_hex_pad(cell x);
- void print_fixnum(fixnum x);
cell read_cell_hex();
}
/* GC is off during heap walking */
bool gc_off;
+ /* GC logging */
+ bool verbosegc;
+
/* Data heap */
data_heap *data;
inline void set_array_nth(array *array, cell slot, cell value);
//strings
- cell string_nth(string* str, cell index);
+ cell string_nth(const string *str, cell index);
void set_string_nth_fast(string *str, cell index, cell ch);
void set_string_nth_slow(string *str_, cell index, cell ch);
void set_string_nth(string *str, cell index, cell ch);
inline double untag_float_check(cell tagged);
inline fixnum float_to_fixnum(cell tagged);
inline double fixnum_to_float(cell tagged);
+
+ // tagged
template<typename Type> Type *untag_check(cell value);
- template<typename Type> Type *untag(cell value);
//io
void init_c_io();
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