void generate_entry( FILE *file, struct function *f, char *entry )
{
fprintf(file,"extern \"C\" %s %s( %s )\n{\n",type_string(f->type),entry,param_string(f->params));
fprintf(file,"\t%s (*fptr)(%s);\n",type_string(f->type),param_string(f->params));
if(!is_void(f->type)) {
fprintf(file,"\t%s result;\n",type_string(f->type));
}
write_vararg_decls( file, f->params );
fprintf(file,"\tbypass_layer_init();\n");
// PZK 8/7/07: changed int to intptr_t for 64-bit compatibility
fprintf(file,"\tfptr = (%s(*)(%s)) layer_lookup( \"bypass_agent_action_%s\", \"%s\", (intptr_t) %s );\n",type_string(f->type),param_string(f->params),f->name->text,entry,entry);
fprintf(file,"\tif(!fptr) fptr = %s;\n",entry);
fprintf(file,"\tlayer_descend();\n");
if(!is_void(f->type)) {
fprintf(file,"\tresult = ");
} else {
fprintf(file,"\t");
}
fprintf(file,"(*fptr) ( %s );\n",arg_string(f->params));
fprintf(file,"\tlayer_ascend();\n");
if(!is_void(f->type)) {
fprintf(file,"\treturn result;\n");
}
/* special case: a switch for _exit() or exit() must fall back on a fatal message */
if(!strcmp(f->name->text,"exit") || !strcmp(f->name->text,"_exit") ) {
fprintf(file,"\tbypass_fatal(\"exit() returned without exiting!\");\n");
}
fprintf(file,"}\n\n");
}
void printTreeNode(TreeNode* treeNode){
char *name = getNodeKindString(treeNode->nodekind);
int isTerm = isTerminal(treeNode->nodekind);
if (isTerm)
printf("<%s>[%s]{%d}(%s)\n", name, treeNode->tokenString, treeNode->lineno, type_string(treeNode->type));
else
printf("%s(%s)\n", name,type_string(treeNode->type));
}
ostream& single_star::print_star_story(ostream& s,
int short_output) // default = 0
{
put_story_header(s, STAR_ID);
if (short_output) {
// If we were to handle short output in the Star part of
// the output stream, this is where it should be done.
// However, for now it is simpler to handle all stellar
// quantities in the Dyn output (in hdyn_io).
#if 0
put_string(s, " S = ", type_short_string(get_element_type()));
put_real_number(s, " T = ", temperature());
put_real_number(s, " L = ", get_luminosity());
#endif
} else {
put_string(s, " Type = ", type_string(get_element_type()));
if (get_spec_type(Accreting)==Accreting)
put_string(s, " Class = ",
type_string(get_spec_type(Accreting)));
put_real_number(s, " T_cur = ", get_current_time());
if (get_current_time()!=get_relative_age())
put_real_number(s, " T_rel = ", get_relative_age());
put_real_number(s, " M_rel = ", get_relative_mass());
put_real_number(s, " M_env = ", get_envelope_mass());
put_real_number(s, " M_core = ", get_core_mass());
put_real_number(s, " T_eff = ", temperature());
put_real_number(s, " L_eff = ", get_luminosity());
// Extra output for stars with CO cores
if (star_with_COcore()) {
put_real_number(s, " M_COcore = ", get_COcore_mass());
}
// Extra output for radio- and X-ray pulsars.
if (get_element_type()==Xray_Pulsar ||
get_element_type()==Radio_Pulsar ||
get_element_type()==Neutron_Star) {
put_real_number(s, " P_rot = ", get_rotation_period());
put_real_number(s, " B_fld = ", get_magnetic_field());
}
if (star_story)
put_story_contents(s, *star_story);
}
put_story_footer(s, STAR_ID);
return s;
}
void single_star::first_roche_lobe_contact_story(stellar_type accretor)
{
char info_line[MAX_STORY_LINE_LENGTH];
real time = get_current_time();
sprintf(info_line,
"%s_%s_%s_RLOF_to_%s_at_time = %6.2f",
type_string(get_element_type()),
type_string(get_spectral_class(temperature())),
type_string(get_luminosity_class(temperature(), luminosity)),
type_string(accretor), time);
add_story_line(get_node()->get_log_story(), info_line);
}
void report_fds(aClient *cptr)
{
int i;
char *name, *blocking;
for(i = 0; i < MAXCONNECTIONS; i++)
{
if(fd_list[i].type == FDT_NONE)
continue;
if(fd_list[i].type == FDT_CLIENT ||
fd_list[i].type == FDT_AUTH)
{
aClient *cptr = (aClient *) fd_list[i].value;
int hide = (IsConnecting(cptr) || IsHandshake(cptr) || IsServer(cptr)) ? HIDEME : 0;
name = get_client_name(cptr, hide);
blocking = (cptr->flags & FLAGS_BLOCKED) ?
"BLOCKED" : "_";
}
else
{
name = "-";
blocking = "-";
}
sendto_one(&me, cptr, ":%s %d %s :%d - %s [%s] %s %s",
me.name, RPL_STATSDEBUG, cptr->name,
i, type_string(fd_list[i].type),
flags_string(fd_list[i].flags),
name, blocking);
}
}
/*-
-- net:dump()
Write summary of protocol blocks to stdout.
*/
static int lnet_dump(lua_State* L)
{
libnet_t* ud = checkudata(L);
libnet_pblock_t* p = ud->protocol_blocks;
int strings = 0;
while(p) {
/* h_len is header length for checksumming? "chksum length"? */
char str[1024];
sprintf(str, "tag %d flags %d type %s/%#x buf %p b_len %2u h_len %2u copied %u prev %d next %d\n",
p->ptag, p->flags, type_string(p->type), p->type,
p->buf, p->b_len, p->h_len, p->copied,
p->prev ? p->prev->ptag : -1,
p->next ? p->next->ptag : -1
);
lua_pushstring(L, str);
p = p->next;
strings++;
}
lua_pushfstring(L, "link_offset %d aligner %d total_size %d nblocks %d\n",
ud->link_offset, ud->aligner, ud->total_size, ud->n_pblocks);
strings++;
lua_concat(L, strings);
return 1;
}
void SuperFamicomCartridge::write_hash(netnode & node) const
{
node.hashset("rom_size", rom_size);
node.hashset("ram_size", ram_size);
node.hashset("firmware_appended", firmware_appended ? 1 : 0);
node.hashset("header_offset", header_offset);
node.hashset("type", type_string());
node.hashset("region", region_string());
node.hashset("mapper", mapper_string());
node.hashset("dsp1_mapper", dsp1_mapper_string());
node.hashset("has_bsx_slot", has_bsx_slot ? 1 : 0);
node.hashset("has_superfx", has_superfx ? 1 : 0);
node.hashset("has_sa1", has_sa1 ? 1 : 0);
node.hashset("has_sharprtc", has_sharprtc ? 1 : 0);
node.hashset("has_epsonrtc", has_epsonrtc ? 1 : 0);
node.hashset("has_sdd1", has_sdd1 ? 1 : 0);
node.hashset("has_spc7110", has_spc7110 ? 1 : 0);
node.hashset("has_cx4", has_cx4 ? 1 : 0);
node.hashset("has_dsp1", has_dsp1 ? 1 : 0);
node.hashset("has_dsp2", has_dsp2 ? 1 : 0);
node.hashset("has_dsp3", has_dsp3 ? 1 : 0);
node.hashset("has_dsp4", has_dsp4 ? 1 : 0);
node.hashset("has_obc1", has_obc1 ? 1 : 0);
node.hashset("has_st010", has_st010 ? 1 : 0);
node.hashset("has_st011", has_st011 ? 1 : 0);
node.hashset("has_st018", has_st018 ? 1 : 0);
}
static int lnet_dump(lua_State* L)
{
libnet_t** ud = luaL_checkudata(L, 1, L_NET_REGID);
luaL_argcheck(L, *ud, 1, "net has been destroyed");
libnet_pblock_t* p = (*ud)->protocol_blocks;
int strings = 0;
while(p) {
/* h_len is header length for checksumming? "chksum length"? */
char str[1024];
sprintf(str, "tag %d flags %d type %s/%#x buf %p b_len %2u h_len %2u ip_offset %2u, copied %u\n",
p->ptag, p->flags, type_string(p->type), p->type,
p->buf, p->b_len, p->h_len, p->ip_offset, p->copied);
lua_pushstring(L, str);
p = p->next;
strings++;
}
lua_pushfstring(L, "link_offset %d aligner %d total_size %d nblocks %d\n",
(*ud)->link_offset, (*ud)->aligner, (*ud)->total_size, (*ud)->n_pblocks);
strings++;
lua_concat(L, strings);
return 1;
}
TypeErrorException(NativeAccessor& accessor, StringData object_type,
Property const& prop, ValueType value)
: std::invalid_argument(util::format("%1.%2 must be of type '%3', got '%4' (%5)",
object_type, prop.name, type_string(prop),
accessor.typeof(value),
accessor.print(value)))
{}
real hyper_giant::add_mass_to_accretor(const real mdot) {
if (mdot<0) {
cerr << "hyper_giant::add_mass_to_accretor(mdot="
<< mdot << ")"<<endl;
cerr << "mdot (" << mdot << ") smaller than zero!" << endl;
return 0;
}
adjust_accretor_age(mdot);
if (relative_mass<get_total_mass() + mdot)
relative_mass = get_total_mass() + mdot;
envelope_mass += mdot;
// Wind mass loss for massive stars (SPZ:July 1998)
if (relative_mass >= cnsts.parameters(massive_star_mass_limit)) {
cerr << type_string(get_element_type())
<< " wind treatment for stars with M >="
<< cnsts.parameters(massive_star_mass_limit)
<< " for " << identity << endl
<< " M = " << get_total_mass() << " [Msun] "
<< " Mdot = " << wind_constant
<< " [Msun/Myr] "
<< endl;
}
set_spec_type(Accreting);
return mdot;
}
char * ftype_string( struct function *f )
{
char *buffer = malloc(STRING_BUFFER_SIZE*10);
sprintf(buffer,"%s (*)(%s)",
type_string(f->type),
param_string(f->params));
return buffer;
}
void Dbck_options::
print(FILE *f) const
{
fprintf(f,"%s <\n",type_string());
fprintf(f,"\nDirectories:\n");
dbdirectories()->print(_tt_string_print,f);
fprintf(f,"\n");
if (_sel_filename_p) {
fprintf(f,catgets(_ttcatd, 6, 7, "Select by filename: %s\n"),
(char *)_sel_filename);
}
if (_sel_objid_p) {
fprintf(f, "%s", catgets(_ttcatd, 6, 8, "Select by objid key:"));
_sel_objid_key->print(f);
fprintf(f,"\n");
}
if (_sel_type_p) {
fprintf(f,catgets(_ttcatd, 6, 9, "Select by type: %s\n"),
(char *)_sel_type);
}
if (_diag_badform_p) {
fprintf(f, "%s", catgets(_ttcatd, 6, 10,
"Diagnose badly formed entities\n"));
}
if (_diag_exist_p) {
fprintf(f, "%s", catgets(_ttcatd, 6, 11, "Diagnose references to "
"non-existent entities\n"));
}
if (_disp_id_p) {
fprintf(f, "%s", catgets(_ttcatd, 6, 12, "Display ids\n"));
}
if (_disp_mand_p) {
fprintf(f, "%s", catgets(_ttcatd, 6, 13, "Display mandatory data\n"));
}
if (_disp_prop_p) {
fprintf(f, "%s", catgets(_ttcatd, 6, 14,
"Display properties and values data\n"));
}
if (_repair_netisam_p) {
fprintf(f, "%s", catgets(_ttcatd, 6, 15,
"Invoke NetISAM isrepair() function before "
"inspecting\n"));
}
if (_repair_type_p) {
fprintf(f,catgets(_ttcatd, 6, 16,
"Repair by setting to type: %s\n"),
(char *)_repair_type);
}
if (_repair_delete_p) {
fprintf(f, "%s", catgets(_ttcatd, 6, 17, "Repair by deleting\n"));
}
fprintf(f,catgets(_ttcatd, 6, 18, "Debugging printout level %d\n"),
_debug_level);
}
void write_static_call( FILE *file, struct function *f )
{
fprintf(file,"\t\t\textern %s %s (%s);\n",type_string(f->type),upper_string(pattern_complete(f->options->local_name->text,f->name->text)),param_string(f->params));
if(!is_void(f->type)) {
fprintf(file,"\t\t\tresult = ");
} else {
fprintf(file,"\t\t\t");
}
fprintf(file,"%s( %s );\n",upper_string(pattern_complete(f->options->local_name->text,f->name->text)),arg_string(f->params));
}
void single_star::star_transformation_story(stellar_type new_type)
{
char info_line[MAX_STORY_LINE_LENGTH];
stellar_type old_type = get_element_type();
real time = get_current_time();
sprintf(info_line,
"%s_to_%s_at_time = %6.2f",
type_string(old_type), type_string(new_type), time);
add_story_line(get_node()->get_log_story(), info_line);
// cerr output for debugging!
cerr << endl << get_node()->format_label() << " " << info_line
<< " Myr (old mass = " << get_total_mass() << ")" << endl;
if(is_binary_component()) {
#if 0 // This should be fixed some time SPZ:26/02/03
if(get_binary()->obtain_binary_type() == Merged) {
cerr << "binary is merged." << endl;
}
else if(get_binary()->obtain_binary_type() == Disrupted) {
cerr << "binary is disrupted, other component: " << endl
<< type_string(get_companion()->get_element_type()) << endl;
}
else {
cerr << "binary companion: "
<< type_string(get_companion()->get_element_type()) << endl;
}
#endif
cerr << "binary companion: "
<< type_string(get_companion()->get_element_type()) << endl;
cerr << "parent: " << get_node()->get_parent()->format_label()
<< endl;
}
}
int Trick::DataRecordGroup::write_header() {
unsigned int jj ;
std::string header_name ;
std::fstream out_stream ;
/*! create the header file used by the GUIs */
header_name = output_dir + "/log_" + group_name + ".header" ;
out_stream.open(header_name.c_str(), std::fstream::out ) ;
if ( ! out_stream || ! out_stream.good() ) {
#ifndef _DMTCP
message_publish(MSG_ERROR, "Can't open Data Record file %s.\n", header_name.c_str()) ;
#endif
return -1;
}
/* Header file first line is created in format specific header */
out_stream << "log_" << group_name ;
format_specific_header(out_stream) ;
/* Output the file name, variable size, units, and variable name
* to the rest of recorded data header file.
* (e.g. file_name C_type units sim_name)
* Note: "sys.exec.out.time" should be the first variable in the buffer.
*/
for (jj = 0; jj < rec_buffer.size() ; jj++) {
/*! recording single data item */
out_stream << "log_" << group_name << "\t"
<< type_string(rec_buffer[jj]->ref->attr->type,
rec_buffer[jj]->ref->attr->size) << "\t"
<< std::setw(6) ;
if ( rec_buffer[jj]->ref->attr->mods & TRICK_MODS_UNITSDASHDASH ) {
out_stream << "--" ;
} else {
out_stream << rec_buffer[jj]->ref->attr->units ;
}
out_stream << "\t" << rec_buffer[jj]->ref->reference << std::endl ;
}
// Send all unwritten characters in the buffer to its output/file.
out_stream.flush() ;
out_stream.close() ;
return(0) ;
}
void write_vararg_decls( FILE *file, struct param *p )
{
struct param *q=0;
/* Skip to the first vararg (if any) */
while(1) {
if(!p) return;
if(p->is_vararg) break;
q=p;
p = p->next;
}
/* Now, q is null or points to the param previous to p. */
if(!q) {
fprintf(stderr,"*** At least one regular parameter must precede any variable parameters.\n");
return;
}
/* Begin the vararg traversal */
fprintf(file,"\tva_list bypass_arglist;\n");
fprintf(file,"\tva_start(bypass_arglist,%s);\n",q->name->text);
/* For each remaining parameter, declare storage and extract it */
for( ; p; p=p->next ) {
fprintf(file,"\t%s\t%s;\n",type_string(p->type),p->name->text);
fprintf(file,"\t%s = va_arg(bypass_arglist,%s);\n",p->name->text,type_string(p->type));
}
/* Done with the traversal */
fprintf(file,"\tva_end(bypass_arglist);\n");
}
static int list_op(const char *input_dir)
{
AVIODirEntry *entry = NULL;
AVIODirContext *ctx = NULL;
int cnt, ret;
char filemode[4], uid_and_gid[20];
if ((ret = avio_open_dir(&ctx, input_dir, NULL)) < 0) {
av_log(NULL, AV_LOG_ERROR, "Cannot open directory: %s.\n", av_err2str(ret));
goto fail;
}
cnt = 0;
for (;;) {
if ((ret = avio_read_dir(ctx, &entry)) < 0) {
av_log(NULL, AV_LOG_ERROR, "Cannot list directory: %s.\n", av_err2str(ret));
goto fail;
}
if (!entry)
break;
if (entry->filemode == -1) {
snprintf(filemode, 4, "???");
}
else {
snprintf(filemode, 4, "%3"PRIo64, entry->filemode);
}
snprintf(uid_and_gid, 20, "%"PRId64"(%"PRId64")", entry->user_id, entry->group_id);
if (cnt == 0)
av_log(NULL, AV_LOG_INFO, "%-9s %12s %30s %10s %s %16s %16s %16s\n",
"TYPE", "SIZE", "NAME", "UID(GID)", "UGO", "MODIFIED",
"ACCESSED", "STATUS_CHANGED");
av_log(NULL, AV_LOG_INFO, "%-9s %12"PRId64" %30s %10s %s %16"PRId64" %16"PRId64" %16"PRId64"\n",
type_string(entry->type),
entry->size,
entry->name,
uid_and_gid,
filemode,
entry->modification_timestamp,
entry->access_timestamp,
entry->status_change_timestamp);
avio_free_directory_entry(&entry);
cnt++;
};
fail:
avio_close_dir(&ctx);
return ret;
}
void Event::print(std::ostream& os) const {
std::string type_string("Invalid event");
switch (type_) {
case START:
type_string = "Start event";
break;
case END:
type_string = "End event";
break;
case INTERSECTION:
type_string = "Intersection event";
break;
default: break;
}
os << type_string << " at " << position_ ;
}
void generate_shadow_action( FILE *file, struct function *f )
{
fprintf(file,"static %s bypass_shadow_action_%s( %s )\n{\n",type_string(f->type),f->name->text,param_string_noconst(f->params));
write_vararg_decls(file,f->params);
if(f->shadow_action) {
fprintf(file,"%s\n",f->shadow_action->text );
} else {
if(!is_void(f->type)) {
fprintf(file,"\treturn ");
}
fprintf(file,"%s( %s );\n",f->name->text,arg_string_noconst(f->params));
}
fprintf(file,"\n}\n\n");
}
real hyper_giant::add_mass_to_accretor(real mdot, const real dt) {
real m_tot = get_total_mass();
if (mdot<0) {
/*
error << "hyper_giant::add_mass_to_accretor(mdot="
<< mdot << ")"<<endl;
error << "mdot (" << mdot << ") smaller than zero!" << endl;
error << "Action: proceed!" << endl;
*/
}
mdot = accretion_limit(mdot, dt);
adjust_accretor_age(mdot);
if (relative_mass<get_total_mass() + mdot)
relative_mass = get_total_mass() + mdot;
envelope_mass += mdot;
// Wind mass loss for massive stars (SPZ:July 1998)
if (relative_mass >= cnsts.parameters(massive_star_mass_limit)) {
// Mass loss constant in time.
wind_constant = envelope_mass/(next_update_age-relative_age);
wind_constant = max(wind_constant, 0.);
cerr << type_string(get_element_type())
<< " wind treatment for stars with M >="
<< cnsts.parameters(massive_star_mass_limit)
<< " for " << identity << endl
<< " M = " << get_total_mass() << " [Msun] "
<< " Mdot = " << wind_constant
<< " [Msun/Myr] "
<< endl;
}
set_spec_type(Accreting);
return mdot;
}
bool BrowserWrapper::IsHtmlPage(IHTMLDocument2* doc) {
CComBSTR type;
if (!SUCCEEDED(doc->get_mimeType(&type))) {
return false;
}
std::wstring document_type_key_name(L"");
if (this->factory_.GetRegistryValue(HKEY_CURRENT_USER, L"Software\\Microsoft\\Windows\\Shell\\Associations\\UrlAssociations\\http\\UserChoice", L"Progid", &document_type_key_name)) {
// Look for the user-customization under Vista/Windows 7 first. If it's
// IE, set the document friendly name lookup key to 'htmlfile'. If not,
// set it to blank so that we can look up the proper HTML type.
if (document_type_key_name == L"IE.HTTP") {
document_type_key_name = L"htmlfile";
} else {
document_type_key_name = L"";
}
}
if (document_type_key_name == L"") {
// To be technically correct, we should look up the extension specified
// for the text/html MIME type first (located in the "Extension" value
// of HKEY_CLASSES_ROOT\MIME\Database\Content Type\text/html), but that
// should always resolve to ".htm" anyway. From the extension, we can
// find the browser-specific subkey of HKEY_CLASSES_ROOT, the default
// value of which should contain the browser-specific friendly name of
// the MIME type for HTML documents, which is what
// IHTMLDocument2::get_mimeType() returns.
if (!this->factory_.GetRegistryValue(HKEY_CLASSES_ROOT, L".htm", L"", &document_type_key_name)) {
return false;
}
}
std::wstring mime_type_name;
if (!this->factory_.GetRegistryValue(HKEY_CLASSES_ROOT, document_type_key_name, L"", &mime_type_name)) {
return false;
}
std::wstring type_string((BSTR)type);
return type_string == mime_type_name;
}
int main (int argc, char **argv)
{
/* int i;*/
progname = *argv;
for (;;) {
switch (getopt (argc, argv, "vd")) {
case EOF:
break;
case 'v':
++verbose;
continue;
case 'd':
++debug;
continue;
default:
usage ();
}
break;
}
argc -= optind;
argv += optind;
if (argc > 0)
usage ();
audio_init_input ();
pause ();
#if 0
/* Play args. */
for (i=0; i<argc; ++i) {
space_seen = 1;
type_string (argv[i]);
type_char (' ');
}
#endif
return (0);
}
void generate_agent_action( FILE *file, struct function *f )
{
fprintf(file,"extern \"C\" %s bypass_agent_action_%s( %s )\n{\n",type_string(f->type),f->name->text,param_string(f->params));
write_vararg_decls(file,f->params);
if(f->agent_action) {
fprintf(file,"\t%s\n",f->agent_action->text );
} else {
if(!is_void(f->type)) {
fprintf(file,"\treturn ");
}
fprintf(file,"bypass_shadow_%s( %s );\n",pattern_complete(f->options->remote_name->text,f->name->text),arg_string_noconst(f->params));
}
fprintf(file,"\n}\n\n");
if( f->options->instead ) {
generate_agent_action( file, f->options->instead );
}
}
void write_dynamic_call( FILE *file, struct function *f )
{
/* Declare a library handle, open it if needed */
fprintf(file,"\t\t\tstatic void *handle = 0;\n");
fprintf(file,"\t\t\tif(!handle) handle = bypass_library_open(\"%s.so\");\n",f->options->library->text);
fprintf(file,"\t\t\tif(!handle) handle = bypass_library_open(\"%s.sl\");\n",f->options->library->text);
fprintf(file,"\t\t\tif(!handle) handle = bypass_library_open(\"%s.so.6\");\n",f->options->library->text);
fprintf(file,"\t\t\tif(!handle) bypass_call_error(BYPASS_CALL_%s,\"can't find library\");\n\n",f->name->text);
/* Declare a function pointer, look it up if needed */
fprintf(file,"\t\t\tstatic %s (*fptr)( %s ) = 0;\n",type_string(f->type),param_string(f->params));
fprintf(file,"\t\t\tif(!fptr) fptr = (%s(*)(%s)) bypass_library_lookup(handle,\"%s\");\n",type_string(f->type),param_string(f->params),pattern_complete(f->options->local_name->text,f->name->text));
fprintf(file,"\t\t\tif(!fptr) bypass_call_error(BYPASS_CALL_%s,\"can't find procedure in library\");\n",f->name->text);
/* Otherwise, invoke the function */
if(!is_void(f->type)) {
fprintf(file,"\t\t\tresult = ");
} else {
fprintf(file,"\t\t\t");
}
fprintf(file,"fptr( %s );\n",arg_string(f->params));
}
char *param_string( struct param *p )
{
char *buffer = malloc(STRING_BUFFER_SIZE*10);
if(!p) {
strcpy(buffer,"void");
return buffer;
}
for( buffer[0]=0; p!=0; p=p->next) {
strcat(buffer,type_string(p->type));
strcat(buffer," ");
strcat(buffer,p->name->text);
if(p->next) {
strcat(buffer,", ");
if(p->next->is_vararg) {
strcat(buffer,"...");
break;
}
}
}
return buffer;
}
std::string generator_opencl::co(const node& n)
{
switch (n.type) {
case node::entry_point:
return "p";
case node::const_var:
return std::to_string(n.aux_var);
case node::const_bool:
return std::to_string(n.aux_bool);
case node::const_str:
throw std::runtime_error("string encountered");
case node::rotate:
return "p_rotate" + pl(n);
case node::rotate3:
return "p_rotate3(" + co(n.input[0]) + ", (double3)(" + co(n.input[1]) + "," + co(n.input[2]) + "," + co(n.input[3]) + "), " + co(n.input[4]) + ")";
case node::scale:
case node::scale3:
return "(" + co(n.input[0]) + "/" + co(n.input[1]) + ")";
case node::shift:
return "(" + co(n.input[0]) + "+(double2)(" + co(n.input[1]) + ","
+ co(n.input[2]) + "))";
case node::shift3:
return "(" + co(n.input[0]) + "+(double3)(" + co(n.input[1]) + ","
+ co(n.input[2]) + "," + co(n.input[3]) + "))";
case node::swap:
return "p_swap" + pl(n);
case node::map: {
std::string func_name{std::string("ip_map") + std::to_string(count_++)};
std::stringstream func_body;
func_body << "inline double2 " << func_name
<< " (const double2 p) { return (double2)(" << co(n.input[1])
<< ", " << co(n.input[2]) << "); }" << std::endl;
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + ")";
}
case node::map3: {
std::string func_name{"ip_map3" + std::to_string(count_++)};
std::stringstream func_body;
func_body << "inline double3 " << func_name
<< " (const double3 p) { return (double3)(" << co(n.input[1])
<< ", " << co(n.input[2]) << ", " << co(n.input[3]) << "); }"
<< std::endl;
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + ")";
}
case node::turbulence: {
std::string func_name("ip_turb" + std::to_string(count_++));
std::stringstream func_body;
func_body << "inline double2 " << func_name
<< " (const double2 p) { return (double2)("
<< "p.x+(" << co(n.input[1]) << "), "
<< "p.y+(" << co(n.input[2]) << ")); }" << std::endl;
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + ")";
}
case node::turbulence3: {
std::string func_name("ip_turb3" + std::to_string(count_++));
std::stringstream func_body;
func_body << "inline double3 " << func_name
<< " (const double3 p) { return (double3)("
<< "p.x+(" << co(n.input[1]) << "), "
<< "p.y+(" << co(n.input[2]) << "), "
<< "p.z+(" << co(n.input[3]) << ")); }" << std::endl;
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + ")";
}
case node::worley: {
std::string func_name("ip_worley" + std::to_string(count_++));
std::stringstream func_body;
func_body << "inline double " << func_name
<< " (const double2 q, uint seed) { "
<< " double2 p = p_worley(q, seed);"
<< " return " << co(n.input[1]) << "; }" << std::endl;
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + "," + co(n.input[2]) + ")";
}
case node::worley3: {
std::string func_name("ip_worley3" + std::to_string(count_++));
std::stringstream func_body;
func_body << "inline double " << func_name
<< " (const double3 q, uint seed) { "
<< " double3 p = p_worley3(q, seed);"
<< " return " << co(n.input[1]) << "; }" << std::endl;
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + "," + co(n.input[2]) + ")";
}
case node::voronoi: {
std::string func_name("ip_voronoi" + std::to_string(count_++));
std::stringstream func_body;
func_body << "inline double " << func_name
<< " (const double2 q, uint seed) { "
<< " double2 p = p_voronoi(q, seed);"
<< " return " << co(n.input[1]) << "; }" << std::endl;
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + "," + co(n.input[2]) + ")";
}
case node::angle:
return "p_angle" + pl(n);
case node::chebyshev:
return "p_chebyshev" + pl(n);
case node::chebyshev3:
return "p_chebyshev3" + pl(n);
case node::checkerboard:
return "p_checkerboard" + pl(n);
case node::checkerboard3:
return "p_checkerboard3" + pl(n);
case node::distance:
case node::distance3:
return "length" + pl(n);
case node::manhattan:
return "p_manhattan" + pl(n);
case node::manhattan3:
return "p_manhattan3" + pl(n);
case node::perlin:
return "p_perlin" + pl(n);
case node::perlin3:
return "p_perlin3" + pl(n);
case node::simplex:
return "p_simplex" + pl(n);
case node::simplex3:
return "p_simplex3" + pl(n);
case node::opensimplex:
return "p_opensimplex" + pl(n);
case node::opensimplex3:
return "p_opensimplex3" + pl(n);
case node::x:
return co(n.input[0]) + ".x";
case node::y:
return co(n.input[0]) + ".y";
case node::z:
return co(n.input[0]) + ".z";
case node::xy:
return co(n.input[0]) + ".xy";
case node::zplane:
return "(double3)(" + co(n.input[0]) + "," + co(n.input[1]) + ")";
case node::add:
return "(" + co(n.input[0]) + "+" + co(n.input[1]) + ")";
case node::sub:
return "(" + co(n.input[0]) + "-" + co(n.input[1]) + ")";
case node::mul:
return "(" + co(n.input[0]) + "*" + co(n.input[1]) + ")";
case node::div:
return "(" + co(n.input[0]) + "/" + co(n.input[1]) + ")";
case node::abs:
return "fabs" + pl(n);
case node::blend:
return "p_blend" + pl(n);
case node::cos:
return "cospi" + pl(n);
case node::min:
return "fmin" + pl(n);
case node::max:
return "fmax" + pl(n);
case node::neg:
return "-" + co(n.input[0]);
case node::pow: {
if (n.input[1].is_const) {
double exp(std::floor(n.input[1].aux_var));
if (std::abs(exp - n.input[1].aux_var) < 1e-9)
return "pown(" + co(n.input[0]) + ","
+ std::to_string((int)exp) + ")";
}
return "pow" + pl(n);
}
case node::round:
return "round" + pl(n);
case node::saw:
return "p_saw" + pl(n);
case node::sin:
return "sinpi" + pl(n);
case node::sqrt:
return "sqrt" + pl(n);
case node::tan:
return "tanpi" + pl(n);
case node::band:
return co(n.input[0]) + "&&" + co(n.input[1]);
case node::bor:
return co(n.input[0]) + "||" + co(n.input[1]);
case node::bxor:
return "((" + co(n.input[0]) + ")!=(" + co(n.input[1]) + "))";
case node::bnot:
return "!" + co(n.input[0]);
case node::is_equal:
return co(n.input[0]) + "==" + co(n.input[1]);
case node::is_greaterthan:
return co(n.input[0]) + ">" + co(n.input[1]);
case node::is_gte:
return co(n.input[0]) + ">=" + co(n.input[1]);
case node::is_lessthan:
return co(n.input[0]) + "<" + co(n.input[1]);
case node::is_lte:
return co(n.input[0]) + "<=" + co(n.input[1]);
case node::is_in_circle:
return "p_is_in_circle" + pl(n);
case node::is_in_rectangle:
return "p_is_in_rectangle" + pl(n);
case node::then_else:
return "(" + co(n.input[0]) + ")?(" + co(n.input[1]) + "):("
+ co(n.input[2]) + ")";
case node::fractal: {
assert(n.input.size() == 5);
if (!n.input[2].is_const)
throw std::runtime_error(
"fractal octave count must be a constexpr");
int octaves(std::min<int>(n.input[2].aux_var, OPENCL_OCTAVES_LIMIT));
std::string func_name("ip_fractal_" + std::to_string(count_++));
std::stringstream func_body;
func_body
<< "double " << func_name
<< " (double2 p, const double lac, const double per) {"
<< "double result = 0.0; double div = 0.0; double step = 1.0;"
<< "for(int i = 0; i < " << octaves << "; ++i)"
<< "{"
<< " result += " << co(n.input[1]) << " * step;"
<< " div += step;"
<< " step *= per;"
<< " p *= lac;"
<< " p.x += 12345.0;"
<< "}"
<< "return result / div;"
<< "}";
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + "," + co(n.input[3]) + ","
+ co(n.input[4]) + ")";
}
case node::fractal3: {
assert(n.input.size() == 5);
if (!n.input[2].is_const)
throw std::runtime_error(
"fractal octave count must be a constexpr");
int octaves = std::min<int>(n.input[2].aux_var, OPENCL_OCTAVES_LIMIT);
std::string func_name{"ip_fractal3_" + std::to_string(count_++)};
std::stringstream func_body;
func_body
<< "double " << func_name
<< " (double3 p, const double lac, const double per) {"
<< "double result = 0.0; double div = 0.0; double step = 1.0;"
<< "for(int i = 0; i < " << octaves << "; ++i)"
<< "{"
<< " result += " << co(n.input[1]) << " * step;"
<< " div += step;"
<< " step *= per;"
<< " p *= lac;"
<< " p.x += 12345.0;"
<< "}"
<< "return result / div;"
<< "}";
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + "," + co(n.input[3]) + ","
+ co(n.input[4]) + ")";
}
case node::lambda_: {
assert(n.input.size() == 2);
std::string func_name{"ip_lambda_" + std::to_string(count_++)};
std::string type{type_string(n.input[0])};
std::stringstream func_body;
func_body << "double " << func_name << " (" << type << " p) {"
<< "return " << co(n.input[1]) << ";}" << std::endl;
functions_.emplace_back(func_body.str());
return func_name + "(" + co(n.input[0]) + ")";
}
case node::external_:
throw std::runtime_error("OpenCL @external not implemented yet");
case node::curve_linear:
throw std::runtime_error("OpenCL curve_linear not implemented yet");
case node::curve_spline:
throw std::runtime_error("OpenCL curve_spline not implemented yet");
case node::png_lookup:
throw std::runtime_error("OpenCL png_lookup not implemented yet");
default:
throw std::runtime_error("function not implemented in OpenCL yet");
}
return std::string();
}
// ------------------------------------------------------------------
// ciMetadata::print
//
// Print debugging output about this ciMetadata.
//
// Implementation note: dispatch to the virtual print_impl behavior
// for this ciObject.
void ciMetadata::print(outputStream* st) {
st->print("<%s", type_string());
GUARDED_VM_ENTRY(print_impl(st);)
void generate_sender_prototype( FILE *file, struct function *f )
{
fprintf(file,"extern \"C\" %s bypass_shadow_%s( %s );\n",type_string(f->type),f->name->text,param_string_noconst(f->params));
}
int test()
{
int retval = EXIT_SUCCESS;
std::cout << std::endl;
std::cout << "-----------------------------------------------" << std::endl;
std::cout << std::endl;
std::cout << "Conversion test from " << type_string(FromNumericT()) << " to " << type_string(ToNumericT()) << std::endl;
std::cout << std::endl;
std::size_t full_size1 = 578;
std::size_t small_size1 = full_size1 / 4;
std::size_t full_size2 = 687;
std::size_t small_size2 = full_size2 / 4;
//
// Set up STL objects
//
std::vector<FromNumericT> std_src(full_size1 * full_size2);
std::vector<std::vector<FromNumericT> > std_src2(full_size1, std::vector<FromNumericT>(full_size2));
std::vector<std::vector<FromNumericT> > std_src_small(small_size1, std::vector<FromNumericT>(small_size2));
std::vector<ToNumericT> std_dest(std_src.size());
for (std::size_t i=0; i<full_size1; ++i)
for (std::size_t j=0; j<full_size2; ++j)
{
std_src[i * full_size2 + j] = FromNumericT(1.0) + FromNumericT(i) + FromNumericT(j);
std_src2[i][j] = FromNumericT(1.0) + FromNumericT(i) + FromNumericT(j);
if (i < small_size1 && j < small_size2)
std_src_small[i][j] = FromNumericT(1.0) + FromNumericT(i) + FromNumericT(j);
}
//
// Set up ViennaCL objects
//
viennacl::matrix<FromNumericT, LayoutT> vcl_src(full_size1, full_size2);
viennacl::matrix<ToNumericT, LayoutT> vcl_dest(full_size1, full_size2);
viennacl::copy(std_src2, vcl_src);
viennacl::matrix<FromNumericT, LayoutT> vcl_src_small(small_size1, small_size2);
viennacl::copy(std_src_small, vcl_src_small);
viennacl::matrix<ToNumericT, LayoutT> vcl_dest_small(small_size1, small_size2);
std::size_t r11_start = 1 + full_size1 / 4;
std::size_t r11_stop = r11_start + small_size1;
viennacl::range vcl_r11(r11_start, r11_stop);
std::size_t r12_start = 2 * full_size1 / 4;
std::size_t r12_stop = r12_start + small_size1;
viennacl::range vcl_r12(r12_start, r12_stop);
std::size_t r21_start = 2 * full_size2 / 4;
std::size_t r21_stop = r21_start + small_size2;
viennacl::range vcl_r21(r21_start, r21_stop);
std::size_t r22_start = 1 + full_size2 / 4;
std::size_t r22_stop = r22_start + small_size2;
viennacl::range vcl_r22(r22_start, r22_stop);
viennacl::matrix_range< viennacl::matrix<FromNumericT, LayoutT> > vcl_range_src(vcl_src, vcl_r11, vcl_r21);
viennacl::matrix_range< viennacl::matrix<ToNumericT, LayoutT> > vcl_range_dest(vcl_dest, vcl_r12, vcl_r22);
std::size_t s11_start = 1 + full_size1 / 5;
std::size_t s11_inc = 3;
std::size_t s11_size = small_size1;
viennacl::slice vcl_s11(s11_start, s11_inc, s11_size);
std::size_t s12_start = 2 * full_size1 / 5;
std::size_t s12_inc = 2;
std::size_t s12_size = small_size1;
viennacl::slice vcl_s12(s12_start, s12_inc, s12_size);
std::size_t s21_start = 1 + full_size2 / 5;
std::size_t s21_inc = 3;
std::size_t s21_size = small_size2;
viennacl::slice vcl_s21(s21_start, s21_inc, s21_size);
std::size_t s22_start = 2 * full_size2 / 5;
std::size_t s22_inc = 2;
std::size_t s22_size = small_size2;
viennacl::slice vcl_s22(s22_start, s22_inc, s22_size);
viennacl::matrix_slice< viennacl::matrix<FromNumericT, LayoutT> > vcl_slice_src(vcl_src, vcl_s11, vcl_s21);
viennacl::matrix_slice< viennacl::matrix<ToNumericT, LayoutT> > vcl_slice_dest(vcl_dest, vcl_s12, vcl_s22);
//
// Now start running tests for vectors, ranges and slices:
//
std::cout << " ** vcl_src = matrix, vcl_dest = matrix **" << std::endl;
retval = test(std_src, 0, 1, full_size1, 0, 1, full_size2, full_size2,
std_dest, 0, 1, full_size1, 0, 1, full_size2, full_size2,
vcl_src, vcl_dest);
if (retval != EXIT_SUCCESS)
return EXIT_FAILURE;
std::cout << " ** vcl_src = matrix, vcl_dest = range **" << std::endl;
retval = test(std_src, 0, 1, small_size1, 0, 1, small_size2, full_size2,
std_dest, r12_start, 1, r12_stop - r12_start, r22_start, 1, r22_stop - r22_start, full_size2,
vcl_src_small, vcl_range_dest);
if (retval != EXIT_SUCCESS)
return EXIT_FAILURE;
std::cout << " ** vcl_src = matrix, vcl_dest = slice **" << std::endl;
retval = test(std_src, 0, 1, small_size1, 0, 1, small_size2, full_size2,
std_dest, s12_start, s12_inc, s12_size, s22_start, s22_inc, s22_size, full_size2,
vcl_src_small, vcl_slice_dest);
if (retval != EXIT_SUCCESS)
return EXIT_FAILURE;
///////
std::cout << " ** vcl_src = range, vcl_dest = matrix **" << std::endl;
retval = test(std_src, r11_start, 1, r11_stop - r11_start, r21_start, 1, r21_stop - r21_start, full_size2,
std_dest, 0, 1, small_size1, 0, 1, small_size2, full_size2,
vcl_range_src, vcl_dest_small);
if (retval != EXIT_SUCCESS)
return EXIT_FAILURE;
std::cout << " ** vcl_src = range, vcl_dest = range **" << std::endl;
retval = test(std_src, r11_start, 1, r11_stop - r11_start, r21_start, 1, r21_stop - r21_start, full_size2,
std_dest, r12_start, 1, r12_stop - r12_start, r22_start, 1, r22_stop - r22_start, full_size2,
vcl_range_src, vcl_range_dest);
if (retval != EXIT_SUCCESS)
return EXIT_FAILURE;
std::cout << " ** vcl_src = range, vcl_dest = slice **" << std::endl;
retval = test(std_src, r11_start, 1, r11_stop - r11_start, r21_start, 1, r21_stop - r21_start, full_size2,
std_dest, s12_start, s12_inc, s12_size, s22_start, s22_inc, s22_size, full_size2,
vcl_range_src, vcl_slice_dest);
if (retval != EXIT_SUCCESS)
return EXIT_FAILURE;
///////
std::cout << " ** vcl_src = slice, vcl_dest = matrix **" << std::endl;
retval = test(std_src, s11_start, s11_inc, s11_size, s21_start, s21_inc, s21_size, full_size2,
std_dest, 0, 1, small_size1, 0, 1, small_size2, full_size2,
vcl_slice_src, vcl_dest_small);
if (retval != EXIT_SUCCESS)
return EXIT_FAILURE;
std::cout << " ** vcl_src = slice, vcl_dest = range **" << std::endl;
retval = test(std_src, s11_start, s11_inc, s11_size, s21_start, s21_inc, s21_size, full_size2,
std_dest, r12_start, 1, r12_stop - r12_start, r22_start, 1, r22_stop - r22_start, full_size2,
vcl_slice_src, vcl_range_dest);
if (retval != EXIT_SUCCESS)
return EXIT_FAILURE;
std::cout << " ** vcl_src = slice, vcl_dest = slice **" << std::endl;
retval = test(std_src, s11_start, s11_inc, s11_size, s21_start, s21_inc, s21_size, full_size2,
std_dest, s12_start, s12_inc, s12_size, s22_start, s22_inc, s22_size, full_size2,
vcl_slice_src, vcl_slice_dest);
if (retval != EXIT_SUCCESS)
return EXIT_FAILURE;
return EXIT_SUCCESS;
}
void generate_switch_prototype( FILE *file, struct function *f )
{
fprintf(file,"extern \"C\" %s %s( %s );\n",type_string(f->type),f->name->text,param_string(f->params));
}
