/*
Delete()
Elimina della lista il valore relativo alla coppia sezione/chiave.
Non elimina fisicamente l'elemento ma si limita a marcarlo in modo tale che quando la lista
viene salvata sul registro si possano individuare le chiavi da eliminare fisicamente.
LPCSTR lpcszSectionName nome sezione
LPCSTR lpcszKeyName nome chiave
*/
BOOL CConfig::Delete(LPCSTR lpcszSectionName,LPCSTR lpcszKeyName)
{
BOOL bDeleted = FALSE;
CONFIG* c;
ITERATOR iter;
// scorre la lista cercando l'entrata relativa alla coppia sezione/chiave
if((iter = m_plistConfig->First())!=(ITERATOR)NULL)
{
do
{
c = (CONFIG*)iter->data;
if(c)
if(strcmp(lpcszSectionName,c->GetSection())==0)
{
if(strcmp(lpcszKeyName,c->GetName())==0)
{
// marca l'elemento per l'eliminazione
c->SetType(NULL_TYPE);
SetModified(TRUE);
bDeleted = TRUE;
break;
}
}
iter = m_plistConfig->Next(iter);
} while(iter!=(ITERATOR)NULL);
}
return(bDeleted);
}
int read_config_file(bool init, const char* fname) {
if (!init) {
msg_printf(NULL, MSG_INFO, "Re-reading %s", fname);
config.defaults();
log_flags.init();
}
FILE* f = boinc_fopen(fname, "r");
if (!f) {
msg_printf(NULL, MSG_INFO, "No config file found - using defaults");
return ERR_FOPEN;
}
config.parse_client(f);
fclose(f);
#ifndef SIM
diagnostics_set_max_file_sizes(
config.max_stdout_file_size, config.max_stderr_file_size
);
#endif
if (init) {
coprocs = config.config_coprocs;
config_proxy_info = config.proxy_info;
if (strlen(config.data_dir)) {
#ifdef _WIN32
_chdir(config.data_dir);
#else
chdir(config.data_dir);
#endif
}
}
return 0;
}
void SETTINGS::Load(const std::string & settingsfile, std::ostream & error)
{
CONFIG config;
if (!config.Load(settingsfile))
{
error << "Failed to load " << settingsfile << std::endl;
}
Serialize(false, config);
}
int
parse_config(const char *cf, LEX_ERROR_HANDLER *scan_error, int err_type)
{
int ok;
CONFIG *config = new_config_parser();
config->init(cf, scan_error, err_type, (void *)&res_all, res_all_size,
r_first, r_last, resources, res_head);
ok = config->parse_config();
free(config);
return ok;
}
void SETTINGS::Save(const std::string & settingsfile, std::ostream & error)
{
CONFIG config;
if (!config.Load(settingsfile))
{
error << "Failed to load " << settingsfile << std::endl;
}
Serialize(true, config);
if (!config.Write())
{
error << "Failed to save " << settingsfile << std::endl;
}
}
int read_config_file(bool init) {
FILE* f;
if (!init) {
msg_printf(NULL, MSG_INFO, "Re-reading cc_config.xml");
config.clear();
}
f = boinc_fopen(CONFIG_FILE, "r");
if (!f) return ERR_FOPEN;
config.parse(f);
fclose(f);
return 0;
}
static void save(const tomo::Color3& _c, const tbd::ConfigPath& _path, CONFIG& _config)
{
std::ostringstream _os;
_os << _c.r() << " " << _c.g() << " ";
_os << _c.b() << " ";
_config.put(_path,_os.str());
}
static void Param(
CONFIG & config,
bool write,
CONFIG::iterator & section,
const std::string & name,
T & value)
{
if (write)
{
config.SetParam(section, name, value);
}
else
{
config.GetParam(section, name, value);
}
}
void SETTINGS::Get(std::map<std::string, std::string> & options)
{
CONFIG tempconfig;
Serialize(true, tempconfig);
for (CONFIG::const_iterator ic = tempconfig.begin(); ic != tempconfig.end(); ++ic)
{
std::string section = ic->first;
for (CONFIG::SECTION::const_iterator is = ic->second.begin(); is != ic->second.end(); ++is)
{
if (section.length() > 0)
options[section + "." + is->first] = is->second;
else
options[is->first] = is->second;
}
}
}
/*
Insert()
Inserisce nella lista il valore (numerico) per la sezione/chiave specificati.
LPCSTR lpcszSectionName nome sezione
LPCSTR lpcszKeyName nome chiave
LPCSTR lpcszKeyValue valore chiave (numero)
*/
BOOL CConfig::Insert(LPCSTR lpcszSectionName,LPCSTR lpcszKeyName,DWORD dwKeyValue)
{
BOOL bInserted = FALSE;
if(m_plistConfig)
{
CONFIG* c = (CONFIG*)m_plistConfig->Add();
if(c)
{
c->Init(lpcszSectionName,lpcszKeyName,dwKeyValue);
SetModified(TRUE);
bInserted = TRUE;
}
}
return(bInserted);
}
void SETTINGS::Set(const std::map<std::string, std::string> & options)
{
CONFIG tempconfig;
for (std::map<std::string, std::string>::const_iterator i = options.begin(); i != options.end(); ++i)
{
std::string section;
std::string param = i->first;
size_t n = param.find(".");
if (n < param.length())
{
section = param.substr(0, n);
param.erase(0, n + 1);
}
tempconfig.SetParam(section, param, i->second);
}
Serialize(false, tempconfig);
}
/*
SaveSection()
Salva nel registro i valori presenti nella lista relativi alla sezione.
LPCSTR lpcszRootKey nome della chiave base
LPCSTR lpcszSectionKey nome della sezione
*/
void CConfig::SaveSection(LPCSTR lpcszRootKey,LPCSTR lpcszSectionKey)
{
CONFIG* c;
ITERATOR iter;
LONG lRet;
char szKey[REGKEY_MAX_KEY_VALUE+1];
if(m_pRegistry)
{
m_pRegistry->Attach(HKEY_CURRENT_USER);
// scorre la lista aggiornando la sezione
if((iter = m_plistConfig->First())!=(ITERATOR)NULL)
{
do
{
c = (CONFIG*)iter->data;
if(c)
// non inserisce nel registro le chiavi eliminate
if(c->GetType()!=NULL_TYPE && strcmp(c->GetSection(),lpcszSectionKey)==0)
{
// salva la chiave nel registro
_snprintf(szKey,sizeof(szKey)-1,DEFAULT_REG_KEY"\\%s\\%s",lpcszRootKey,c->GetSection());
if((lRet = m_pRegistry->Open(HKEY_CURRENT_USER,szKey))!=ERROR_SUCCESS)
lRet = m_pRegistry->Create(HKEY_CURRENT_USER,szKey);
if(lRet==ERROR_SUCCESS)
{
if(c->GetType()==LPSTR_TYPE)
m_pRegistry->SetValue(c->GetValue((LPCSTR)NULL),c->GetName());
else if(c->GetType()==DWORD_TYPE)
m_pRegistry->SetValue(c->GetValue((DWORD)0L),c->GetName());
m_pRegistry->Close();
}
}
iter = m_plistConfig->Next(iter);
} while(iter!=(ITERATOR)NULL);
}
m_pRegistry->Detach();
}
}
int algorithms::Planner<IROBOT>::find_next_owner(int cell, const CONFIG& bnd_cfg ) const
{
for (int index : get_cell(cell).get_boundaries()) {
int neighbor = get_boundary(index).otherside(cell);
if(get_cell(neighbor).on_boundary(bnd_cfg.vector(), 1e-15))
return neighbor;
}
return NOT_FOUND;
}
/*
Export()
Esporta la configurazione corrente nel file specificato.
*/
BOOL CConfig::Export(LPCSTR /*lpcszRootKey*/,LPCSTR lpcszFileName)
{
BOOL bSaved = FALSE;
FILE* fp;
if((fp = fopen(lpcszFileName,"w"))!=(FILE*)NULL)
{
CONFIG* c;
ITERATOR iter;
fprintf(fp,"[%s]\n","Configuration File");
// salva nel file le chiavi presenti nella lista
if((iter = m_plistConfig->First())!=(ITERATOR)NULL)
{
do
{
c = (CONFIG*)iter->data;
if(c)
// non inserisce le chiavi eliminate
if(c->GetType()!=NULL_TYPE)
{
if(c->GetType()==LPSTR_TYPE)
fprintf(fp,"%s;%s;%s;%s\n",c->GetSection(),c->GetName(),c->GetValue((LPCSTR)NULL),"SZ");
else if(c->GetType()==DWORD_TYPE)
fprintf(fp,"%s;%s;%ld;%s\n",c->GetSection(),c->GetName(),c->GetValue((DWORD)0L),"DW");
}
iter = m_plistConfig->Next(iter);
} while(iter!=(ITERATOR)NULL);
}
fclose(fp);
bSaved = TRUE;
}
return(bSaved);
}
/*
DeleteAll()
Elimina della lista tutti i valori, rimuovendoli anche dal registro.
*/
BOOL CConfig::DeleteAll(LPCSTR lpcszRootKey)
{
BOOL bDeleted = TRUE;
CONFIG* c;
ITERATOR iter;
char szKey[REGKEY_MAX_KEY_VALUE+1];
if(m_pRegistry)
{
m_pRegistry->Attach(HKEY_CURRENT_USER);
if((iter = m_plistConfig->First())!=(ITERATOR)NULL)
{
do
{
c = (CONFIG*)iter->data;
if(c)
{
_snprintf(szKey,sizeof(szKey)-1,DEFAULT_REG_KEY"\\%s\\%s",lpcszRootKey,c->GetSection());
if(m_pRegistry->Open(HKEY_CURRENT_USER,szKey)==ERROR_SUCCESS)
{
m_pRegistry->DeleteValue(c->GetName());
m_pRegistry->Close();
}
}
iter = m_plistConfig->Next(iter);
} while(iter!=(ITERATOR)NULL);
}
m_pRegistry->Detach();
SetModified(TRUE);
}
m_plistConfig->RemoveAll();
return(bDeleted);
}
unsigned Convolution(CONFIG &config)
{
time_t time1, time2;
time(&time1);
int dim;
cout << "Add " << config.atoms_box << " atoms to the box" << endl;
for(int i = 0; i < config.atoms_box; i++) // check all atoms of this grain
{
for(dim=0; dim < 3; dim++)
{
if (config.atom_box[i].r(dim) > config.shift(dim)) config.atom_box[i].r(dim) -= config.l(dim);
else
if (config.atom_box[i].r(dim) < -config.shift(dim)) config.atom_box[i].r(dim) += config.l(dim);
}
}
time(&time2);
if (config.time) cout << "Done in " << time2-time1 << " s." << endl;
return 0;
}
void GUICONTROL::RegisterActions(
const std::map<std::string, Slot1<const std::string &>*> & vactionmap,
const std::map<std::string, Slot0*> & actionmap,
const std::string & name,
const CONFIG & cfg)
{
CONFIG::const_iterator section;
cfg.GetSection(name, section);
std::string actionstr;
if (cfg.GetParam(section, "onselectx", actionstr))
SetActions(vactionmap, actionstr, onselectx);
if (cfg.GetParam(section, "onselecty", actionstr))
SetActions(vactionmap, actionstr, onselecty);
if (cfg.GetParam(section, "onselect", actionstr))
SetActions(actionmap, actionstr, onselect);
if (cfg.GetParam(section, "onfocus", actionstr))
SetActions(actionmap, actionstr, onfocus);
if (cfg.GetParam(section, "onblur", actionstr))
SetActions(actionmap, actionstr, onblur);
if (cfg.GetParam(section, "onmoveup", actionstr))
SetActions(actionmap, actionstr, onmoveup);
if (cfg.GetParam(section, "onmovedown", actionstr))
SetActions(actionmap, actionstr, onmovedown);
if (cfg.GetParam(section, "onmoveleft", actionstr))
SetActions(actionmap, actionstr, onmoveleft);
if (cfg.GetParam(section, "onmoveright", actionstr))
SetActions(actionmap, actionstr, onmoveright);
}
/*
String()
Restituisce o aggiorna il valore (stringa) associato alla sezione/chiave a seconda del parametro
associato al valore (NULL/-1 recupera, in caso contrario aggiorna).
LPCSTR lpcszSectionName nome sezione
LPCSTR lpcszKeyName nome chiave
LPCSTR lpcszKeyValue valore chiave (stringa)
*/
LPCSTR CConfig::String(LPCSTR lpcszSectionName,LPCSTR lpcszKeyName,LPCSTR lpcszKeyValue/*=NULL*/)
{
static char* p;
CONFIG* c;
ITERATOR iter;
p = "";
// scorre la lista cercando l'entrata relativa alla coppia sezione/chiave
if((iter = m_plistConfig->First())!=(ITERATOR)NULL)
{
do
{
c = (CONFIG*)iter->data;
if(c)
if(strcmp(lpcszSectionName,c->GetSection())==0)
{
if(strcmp(lpcszKeyName,c->GetName())==0)
{
// salta i valori marcati per l'eliminazione (NULL_TYPE)
if(c->GetType()!=NULL_TYPE)
{
if(lpcszKeyValue!=NULL)
{
// aggiorna il valore
c->SetValue(lpcszKeyValue);
p = (char*)c->GetValue(p);
break;
}
else
{
// ricava il valore
p = (char*)c->GetValue(p);
if(!*p)
p = "";
break;
}
}
}
}
iter = m_plistConfig->Next(iter);
} while(iter!=(ITERATOR)NULL);
}
return(p);
}
/*
DeleteSection()
Elimina dal registro (e dalla lista) i valori presenti nella lista relativi alla sezione.
LPCSTR lpcszRootKey nome della chiave base
LPCSTR lpcszSectionKey nome della sezione
BOOL bDeleteFromRegistry flag per eliminazione delle chiavi dal registro
*/
void CConfig::DeleteSection(LPCSTR lpcszRootKey,LPCSTR lpcszSectionKey,BOOL bDeleteFromRegistry/*=FALSE*/)
{
CONFIG* c;
ITERATOR iter;
char szKey[REGKEY_MAX_KEY_VALUE+1];
if(m_pRegistry)
{
m_pRegistry->Attach(HKEY_CURRENT_USER);
// elimina (dalla lista e dal registro) le chiavi relative alla sezione
if((iter = m_plistConfig->First())!=(ITERATOR)NULL)
{
do
{
c = (CONFIG*)iter->data;
if(c)
// chiave da eliminare
if(c->GetType()!=NULL_TYPE && strcmp(c->GetSection(),lpcszSectionKey)==0)
{
// elimina la chiave dal registro
if(bDeleteFromRegistry)
{
_snprintf(szKey,sizeof(szKey)-1,DEFAULT_REG_KEY"\\%s\\%s",lpcszRootKey,c->GetSection());
if(m_pRegistry->Open(HKEY_CURRENT_USER,szKey)==ERROR_SUCCESS)
{
m_pRegistry->DeleteValue(c->GetName());
m_pRegistry->Close();
}
}
// elimina la chiave dalla lista
//m_plistConfig->Remove(iter);
// eliminando l'elemento della lista (iter) e non la chiave (marcandola come cancellata) i salvataggi successivi
// non possono eliminare dal registro le serie di chiavi come Key[0]...Key[n]
//Delete(c->GetSection(),c->GetName());
c->SetType(NULL_TYPE);
SetModified(TRUE);
}
iter = m_plistConfig->Next(iter);
} while(iter!=(ITERATOR)NULL);
}
m_pRegistry->Detach();
SetModified(TRUE);
}
}
void algorithms::Planner<IROBOT>::compute_potential(const IROBOT& robot, const CONFIG& goal)
{
std::clock_t t0 = std::clock();
int goal_cell = NOT_FOUND;
for (int i = 0; i < cells.size(); ++i) {
if( goal_cell == NOT_FOUND && cells[i].contains(goal.vector())) {
goal_cell = i;
break;
}
}
if (goal_cell == NOT_FOUND)
std::cout << "Can't find goal cell\n";
// Build potential field
cells[goal_cell].set_potential(0.0);
std::priority_queue<Potential_node> queue;
for (int index : cells[goal_cell].get_boundaries()) {
int neighbor = all_boundaries[index].otherside(goal_cell);
cells[neighbor].set_potential(0.0);
queue.emplace(neighbor, 0.0);
}
// Dijkstra's algorithm
while( !queue.empty() )
{
Potential_node node = queue.top();
queue.pop();
int current = node.cell;
if (node.priority > cells[current].get_potential())
continue;
Cell<IROBOT>& current_cell = cells[current];
for (int index : current_cell.get_boundaries()) {
Boundary<IROBOT>& boundary = all_boundaries[index];
int neighbor = boundary.otherside(current);
Cell<IROBOT>& neighbor_cell = cells[neighbor];
double tentative_potential = current_cell.get_potential() + boundary.get_weight();
if (tentative_potential < neighbor_cell.get_potential()) {
neighbor_cell.set_potential(tentative_potential);
queue.emplace(neighbor, tentative_potential);
}
}
}
std::clock_t t1 = std::clock();
std::cout << "Time cost for building potential field: \n\t" << (t1 - t0) / (double)(CLOCKS_PER_SEC / 1000) << " ms\n";
}
/*
Number()
Restituisce o aggiorna il valore (numerico) associato alla sezione/nome a seconda del parametro
associato al valore (NULL/-1 recupera, in caso contrario aggiorna).
LPCSTR lpcszSectionName nome sezione
LPCSTR lpcszKeyName nome chiave
LPCSTR lpcszKeyValue valore chiave (numero)
*/
DWORD CConfig::Number(LPCSTR lpcszSectionName,LPCSTR lpcszKeyName,DWORD dwKeyValue/*=(DWORD)-1L*/)
{
DWORD l = (DWORD)-1L;
CONFIG* c;
ITERATOR iter;
// scorre la lista cercando l'entrata relativa alla coppia sezione/chiave
if((iter = m_plistConfig->First())!=(ITERATOR)NULL)
{
do
{
c = (CONFIG*)iter->data;
if(c)
if(strcmp(lpcszSectionName,c->GetSection())==0)
{
if(strcmp(lpcszKeyName,c->GetName())==0)
{
// salta i valori marcati per l'eliminazione (NULL_TYPE)
if(c->GetType()!=NULL_TYPE)
{
if(dwKeyValue!=(DWORD)-1L)
{
// aggiorna il valore
c->SetValue(dwKeyValue);
l = c->GetValue(l);
break;
}
else
{
// ricava il valore
l = c->GetValue(l);
break;
}
}
}
}
iter = m_plistConfig->Next(iter);
} while(iter!=(ITERATOR)NULL);
}
return(l);
}
unsigned IniGrainCenters(CONFIG& config)
{
Vector3d a;
Vector3d rotv;
Vector3d rtmp;
double angle;
time_t time1, time2;
time(&time1);
cout << "Initialize grain centers ";
for (int ig=0; ig<config.grains; ig++)
{
for (int dim=0; dim<3; dim++)
{
config.grain[ig].r(dim) = config.shift(dim) * (rand()%2000000/1000000. - 1);
}
for (unsigned j=0; j<3; j++)
{
config.grain[ig].angle(j) = 2.0 * M_PI * (rand()%1000000/1000000.);
}
a = config.grain[ig].angle;
rotv << 1/cos(a(0))*sin(a(1)), 1/sin(a(0))*sin(a(1)), 1/cos(a(1));
angle = -a(2);
rtmp = -config.grain[ig].r;
config.grain[ig].rotvT = rtmp * cos(angle) + rotv.cross(rtmp) * sin(angle) + (1 - cos(angle)) * rotv *(rotv.dot(rtmp)) + config.grain[ig].r; // Rodrigue's rotation formula
cout << ".";
}
time(&time2);
if (config.time) cout << endl << "Done in " << time2-time1 << " s.";
cout << endl;
return 0;
}
/*
Import()
Importa la configurazione corrente dal file specificato.
*/
BOOL CConfig::Import(LPCSTR lpcszRootKey,LPCSTR lpcszFileName)
{
BOOL bLoaded = FALSE;
FILE* fp;
if((fp = fopen(lpcszFileName,"r"))!=(FILE*)NULL)
{
char* p;
char szBuffer[REGKEY_MAX_SECTION_NAME+REGKEY_MAX_KEY_NAME+REGKEY_MAX_KEY_VALUE+16];
char szSection[REGKEY_MAX_SECTION_NAME+1];
char szName[REGKEY_MAX_KEY_NAME+1];
char szValue[REGKEY_MAX_KEY_VALUE+1];
char szType[5];
// legge la prima linea controllando se si tratta di un file di configurazione
fgets(szBuffer,sizeof(szBuffer)-1,fp);
if((p = strchr(szBuffer,'\r'))==NULL)
p = strchr(szBuffer,'\n');
if(p)
*p = '\0';
if(strcmp(szBuffer,"[Configuration File]")!=0)
{
fclose(fp);
return(bLoaded);
}
// legge il file di configurazione per linee
while(fgets(szBuffer,sizeof(szBuffer)-1,fp))
{
if((p = strchr(szBuffer,'\r'))==NULL)
p = strchr(szBuffer,'\n');
if(p)
*p = '\0';
// estrae i valori dalla linea (sezione, chiave, valore, tipo)
memset(szSection,'\0',sizeof(szSection));
memset(szName,'\0',sizeof(szName));
memset(szValue,'\0',sizeof(szValue));
memset(szType,'\0',sizeof(szType));
p = strrchr(szBuffer,';');
if(p)
{
strcpyn(szType,p+1,sizeof(szType));
*p = '\0';
}
p = strrchr(szBuffer,';');
if(p)
{
strcpyn(szValue,p+1,sizeof(szValue));
*p = '\0';
}
p = strrchr(szBuffer,';');
if(p)
{
strcpyn(szName,p+1,sizeof(szName));
*p = '\0';
}
p = szBuffer;
if(p)
strcpyn(szSection,p,sizeof(szSection));
if(szSection[0]!='\0' && szName[0]!='\0' && szValue[0]!='\0' && szType[0]!='\0')
{
if(strcmp(szType,"SZ")==0)
{
if(strcmp(UpdateString(szSection,szName,szValue),"")==0)
{
CONFIG* c = (CONFIG*)m_plistConfig->Add();
if(c)
c->Init(szSection,szName,szValue);
}
}
else if(strcmp(szType,"DW")==0)
{
if(UpdateNumber(szSection,szName,strtoul(szValue,NULL,0))==(DWORD)-1)
{
CONFIG* c = (CONFIG*)m_plistConfig->Add();
if(c)
c->Init(szSection,szName,strtoul(szValue,NULL,0));
}
}
}
}
fclose(fp);
Save(lpcszRootKey);
bLoaded = TRUE;
}
return(bLoaded);
}
void SETTINGS::Serialize(bool write, CONFIG & config)
{
CONFIG::iterator section;
config.GetSection("game", section);
Param(config, write, section, "vehicle_damage", vehicle_damage);
Param(config, write, section, "ai_difficulty", ai_difficulty);
Param(config, write, section, "track", track);
Param(config, write, section, "antilock", abs);
Param(config, write, section, "traction_control", tcs);
Param(config, write, section, "record", recordreplay);
Param(config, write, section, "selected_replay", selected_replay);
Param(config, write, section, "player", player);
Param(config, write, section, "player_paint", player_paint);
Param(config, write, section, "player_color", player_color);
Param(config, write, section, "opponent", opponent);
Param(config, write, section, "opponent_paint", opponent_paint);
Param(config, write, section, "opponent_color", opponent_color);
Param(config, write, section, "reverse", trackreverse);
Param(config, write, section, "track_dynamic", trackdynamic);
Param(config, write, section, "batch_geometry", batch_geometry);
Param(config, write, section, "number_of_laps", number_of_laps);
Param(config, write, section, "camera_mode", camera_mode);
config.GetSection("display", section);
if (!res_override)
{
Param(config, write, section, "width", resolution_x);
Param(config, write, section, "height", resolution_y);
}
Param(config, write, section, "depth", bpp);
Param(config, write, section, "zdepth", depthbpp);
Param(config, write, section, "fullscreen", fullscreen);
Param(config, write, section, "shaders", shaders);
Param(config, write, section, "skin", skin);
Param(config, write, section, "language", language);
Param(config, write, section, "show_fps", show_fps);
Param(config, write, section, "anisotropic", anisotropic);
Param(config, write, section, "antialiasing", antialiasing);
Param(config, write, section, "trackmap", trackmap);
Param(config, write, section, "show_hud", show_hud);
Param(config, write, section, "FOV", FOV);
Param(config, write, section, "mph", mph);
Param(config, write, section, "view_distance", view_distance);
Param(config, write, section, "racingline", racingline);
Param(config, write, section, "texture_size", texturesize);
Param(config, write, section, "shadows", shadows);
Param(config, write, section, "shadow_distance", shadow_distance);
Param(config, write, section, "shadow_quality", shadow_quality);
Param(config, write, section, "reflections", reflections);
Param(config, write, section, "input_graph", input_graph);
Param(config, write, section, "lighting", lighting);
Param(config, write, section, "bloom", bloom);
Param(config, write, section, "normalmaps", normalmaps);
Param(config, write, section, "camerabounce", camerabounce);
Param(config, write, section, "contrast", contrast);
config.GetSection("sound", section);
Param(config, write, section, "volume", mastervolume);
config.GetSection("joystick", section);
Param(config, write, section, "type", joytype);
Param(config, write, section, "two_hundred", joy200);
joy200 = false;
Param(config, write, section, "calibrated", joystick_calibrated);
Param(config, write, section, "ff_device", ff_device);
Param(config, write, section, "ff_gain", ff_gain);
Param(config, write, section, "ff_invert", ff_invert);
Param(config, write, section, "hgateshifter", hgateshifter);
config.GetSection("control", section);
Param(config, write, section, "speed_sens_steering", speed_sensitivity);
Param(config, write, section, "autoclutch", autoclutch);
Param(config, write, section, "autotrans", autoshift);
Param(config, write, section, "mousegrab", mousegrab);
Param(config, write, section, "button_ramp", button_ramp);
}
void CARCONTROLMAP_LOCAL::Save(CONFIG & controls_config)
{
int id = 0;
for (size_t n = 0; n < controls.size(); ++n)
{
std::string ctrl_name = GetStringFromInput(CARINPUT::CARINPUT(n));
if (ctrl_name.empty())
continue;
for (size_t i = 0; i < controls[n].size(); ++i)
{
std::stringstream ss;
ss << "control mapping " << std::setfill('0') << std::setw(2) << id;
CONFIG::iterator section;
controls_config.GetSection(ss.str(), section);
controls_config.SetParam(section, "name", ctrl_name);
CONTROL & curctrl = controls[n][i];
if (curctrl.type == CONTROL::JOY)
{
controls_config.SetParam(section, "type", "joy");
controls_config.SetParam(section, "joy_index", curctrl.joynum);
if (curctrl.joytype == CONTROL::JOYAXIS)
{
controls_config.SetParam(section, "joy_type", "axis");
controls_config.SetParam(section, "joy_axis", curctrl.joyaxis );
switch (curctrl.joyaxistype) {
case CONTROL::POSITIVE:
controls_config.SetParam(section, "joy_axis_type", "positive");
break;
case CONTROL::NEGATIVE:
controls_config.SetParam(section, "joy_axis_type", "negative");
break;
}
controls_config.SetParam(section, "deadzone", curctrl.deadzone);
controls_config.SetParam(section, "exponent", curctrl.exponent);
controls_config.SetParam(section, "gain", curctrl.gain);
}
else if (curctrl.joytype == CONTROL::JOYBUTTON)
{
controls_config.SetParam(section, "joy_type", "button");
controls_config.SetParam(section, "joy_button", curctrl.keycode);
controls_config.SetParam(section, "once", curctrl.onetime);
controls_config.SetParam(section, "down", curctrl.pushdown);
}
}
else if (curctrl.type == CONTROL::KEY)
{
controls_config.SetParam(section, "type", "key");
std::string keyname = GetStringFromKeycode(curctrl.keycode);
controls_config.SetParam(section, "key", keyname);
controls_config.SetParam(section, "keycode", curctrl.keycode);
controls_config.SetParam(section, "once", curctrl.onetime);
controls_config.SetParam(section, "down", curctrl.pushdown);
}
else if (curctrl.type == CONTROL::MOUSE)
{
controls_config.SetParam(section, "type", "mouse");
if (curctrl.mousetype == CONTROL::MOUSEBUTTON)
{
controls_config.SetParam(section, "mouse_type", "button");
controls_config.SetParam(section, "mouse_button", curctrl.keycode );
controls_config.SetParam(section, "once", curctrl.onetime );
controls_config.SetParam(section, "down", curctrl.pushdown );
}
else if (curctrl.mousetype == CONTROL::MOUSEMOTION)
{
std::string direction = "invalid";
CONTROL::MOUSEDIRECTION mdir = curctrl.mdir;
if ( mdir == CONTROL::UP )
{
direction = "up";
}
else if ( mdir == CONTROL::DOWN )
{
direction = "down";
}
else if ( mdir == CONTROL::LEFT )
{
direction = "left";
}
else if ( mdir == CONTROL::RIGHT )
{
direction = "right";
}
controls_config.SetParam(section, "mouse_type", "motion");
controls_config.SetParam(section, "mouse_motion", direction);
controls_config.SetParam(section, "deadzone", curctrl.deadzone);
controls_config.SetParam(section, "exponent", curctrl.exponent);
controls_config.SetParam(section, "gain", curctrl.gain);
}
}
id++;
}
}
}
void CARCONTROLMAP_LOCAL::Save(CONFIG & controls_config, std::ostream & info_output, std::ostream & error_output)
{
int id = 0;
for (std::map <CARINPUT::CARINPUT, std::vector <CONTROL> >::iterator n = controls.begin(); n != controls.end(); ++n)
{
for (std::vector <CONTROL>::iterator i = n->second.begin(); i != n->second.end(); ++i)
{
std::string ctrl_name = "INVALID";
CARINPUT::CARINPUT inputid = n->first;
for (std::map <std::string, CARINPUT::CARINPUT>::const_iterator s = carinput_stringmap.begin(); s != carinput_stringmap.end(); ++s)
{
if (s->second == inputid) ctrl_name = s->first;
}
std::stringstream ss;
ss << "control mapping " << std::setfill('0') << std::setw(2) << id;
CONFIG::iterator section;
controls_config.GetSection(ss.str(), section);
controls_config.SetParam(section, "name", ctrl_name);
CONTROL & curctrl = *i;
if (curctrl.type == CONTROL::JOY)
{
controls_config.SetParam(section, "type", "joy");
controls_config.SetParam(section, "joy_index", curctrl.joynum);
if (curctrl.joytype == CONTROL::JOYAXIS)
{
controls_config.SetParam(section, "joy_type", "axis");
controls_config.SetParam(section, "joy_axis", curctrl.joyaxis );
switch (curctrl.joyaxistype) {
case CONTROL::POSITIVE:
controls_config.SetParam(section, "joy_axis_type", "positive");
break;
case CONTROL::NEGATIVE:
controls_config.SetParam(section, "joy_axis_type", "negative");
break;
case CONTROL::BOTH:
controls_config.SetParam(section, "joy_axis_type", "both");
break;
}
controls_config.SetParam(section, "deadzone", curctrl.deadzone);
controls_config.SetParam(section, "exponent", curctrl.exponent);
controls_config.SetParam(section, "gain", curctrl.gain);
}
else if (curctrl.joytype == CONTROL::JOYBUTTON)
{
controls_config.SetParam(section, "joy_type", "button");
controls_config.SetParam(section, "joy_button", curctrl.joybutton);
controls_config.SetParam(section, "once", curctrl.onetime);
controls_config.SetParam(section, "down", curctrl.joypushdown);
}
}
else if (curctrl.type == CONTROL::KEY)
{
controls_config.SetParam(section, "type", "key");
std::string keyname = "UNKNOWN";
for (std::map <std::string, int>::iterator k = legacy_keycodes.begin(); k != legacy_keycodes.end(); k++)
if (k->second == curctrl.keycode)
keyname = k->first;
controls_config.SetParam(section, "key", keyname);
controls_config.SetParam(section, "keycode", curctrl.keycode);
controls_config.SetParam(section, "once", curctrl.onetime);
controls_config.SetParam(section, "down", curctrl.keypushdown);
}
else if (curctrl.type == CONTROL::MOUSE)
{
controls_config.SetParam(section, "type", "mouse");
if (curctrl.mousetype == CONTROL::MOUSEBUTTON)
{
controls_config.SetParam(section, "mouse_type", "button");
controls_config.SetParam(section, "mouse_button", curctrl.mbutton );
controls_config.SetParam(section, "once", curctrl.onetime );
controls_config.SetParam(section, "down", curctrl.mouse_push_down );
}
else if (curctrl.mousetype == CONTROL::MOUSEMOTION)
{
std::string direction = "invalid";
CONTROL::MOUSEDIRECTION mdir = curctrl.mdir;
if ( mdir == CONTROL::UP )
{
direction = "up";
}
else if ( mdir == CONTROL::DOWN )
{
direction = "down";
}
else if ( mdir == CONTROL::LEFT )
{
direction = "left";
}
else if ( mdir == CONTROL::RIGHT )
{
direction = "right";
}
controls_config.SetParam(section, "mouse_type", "motion");
controls_config.SetParam(section, "mouse_motion", direction);
controls_config.SetParam(section, "deadzone", curctrl.deadzone);
controls_config.SetParam(section, "exponent", curctrl.exponent);
controls_config.SetParam(section, "gain", curctrl.gain);
}
}
id++;
}
}
}
/*
Save()
Salva nel registro i valori presenti nella lista.
LPCSTR lpcszRootKey nome della chiave base
*/
void CConfig::Save(LPCSTR lpcszRootKey)
{
CONFIG* c;
ITERATOR iter;
LONG lRet;
char szKey[REGKEY_MAX_KEY_VALUE+1];
memset(szKey,'\0',sizeof(szKey));
if(m_pRegistry)
{
m_pRegistry->Attach(HKEY_CURRENT_USER);
// elimina (dalla lista e dal registro) le chiavi marcate per la cancellazione
if((iter = m_plistConfig->First())!=(ITERATOR)NULL)
{
do
{
c = (CONFIG*)iter->data;
if(c)
// chiave da eliminare
if(c->GetType()==NULL_TYPE)
{
// elimina la chiave dal registro
_snprintf(szKey,sizeof(szKey)-1,DEFAULT_REG_KEY"\\%s\\%s",lpcszRootKey,c->GetSection());
if(m_pRegistry->Open(HKEY_CURRENT_USER,szKey)==ERROR_SUCCESS)
{
m_pRegistry->DeleteValue(c->GetName());
m_pRegistry->Close();
}
// elimina la chiave dalla lista
m_plistConfig->Remove(iter);
}
iter = m_plistConfig->Next(iter);
} while(iter!=(ITERATOR)NULL);
}
// salva nel registro le chiavi presenti nella lista
if((iter = m_plistConfig->First())!=(ITERATOR)NULL)
{
do
{
c = (CONFIG*)iter->data;
if(c)
// non inserisce nel registro le chiavi eliminate
if(c->GetType()!=NULL_TYPE)
{
_snprintf(szKey,sizeof(szKey)-1,DEFAULT_REG_KEY"\\%s\\%s",lpcszRootKey,c->GetSection());
if((lRet = m_pRegistry->Open(HKEY_CURRENT_USER,szKey))!=ERROR_SUCCESS)
lRet = m_pRegistry->Create(HKEY_CURRENT_USER,szKey);
if(lRet==ERROR_SUCCESS)
{
if(c->GetType()==LPSTR_TYPE)
m_pRegistry->SetValue(c->GetValue((LPCSTR)NULL),c->GetName());
else if(c->GetType()==DWORD_TYPE)
m_pRegistry->SetValue(c->GetValue((DWORD)0L),c->GetName());
m_pRegistry->Close();
}
}
iter = m_plistConfig->Next(iter);
} while(iter!=(ITERATOR)NULL);
}
m_pRegistry->Detach();
SetModified(FALSE);
}
}
std::vector<typename IROBOT::CONFIG> algorithms::Planner<IROBOT>::AStar(const IROBOT& robot, const CONFIG& start, const CONFIG& goal)
{
double smallest_radius = get_smallest_radius();
// Find the cells containing the start and the goal
int start_cell = NOT_FOUND, goal_cell = NOT_FOUND;
for (int i = 0; i < cells.size(); ++i) {
if( cells[i].contains(goal.vector()))
goal_cell = i;
if (cells[i].contains(start.vector())) {
start_cell = i;
std::cout << "Start cell potential : " << cells[i].get_potential() << '\n';
}
}
for (Boundary<IROBOT>& boundary : all_boundaries)
boundary.reset();
if( start_cell == NOT_FOUND)
throw "start config is not in any cell!";
else if (goal_cell == NOT_FOUND )
throw "goal config is not in any cell!";
// Initialize for the nodes
nodes.clear();
nodes.reserve(1000000);
int start_node = get_new_info(start);
get_info(start_node).came_from = -1;
int goal_node = get_new_info(goal);
get_info(goal_node).cell = goal_cell;
int metric_query = 0;
std::cout << "Initialize the queue of AStar\n";
// Initialize for the queue
std::priority_queue<AStar_node> openset;
{
double g_score_start = 0.0;
int current_cell_index = start_cell;
double interval = (std::log(cells[current_cell_index].radius() / smallest_radius) + 1) * smallest_radius;
for (int boundary_index : cells[current_cell_index].get_boundaries()) {
int begin, end;
get_boundary(boundary_index).get_boundary_configs(*this, interval, begin, end);
for (int vertex = begin; vertex < end; ++vertex) {
double tentative_g_score = g_score_start + IROBOT::metric(robot, start, nodes[vertex].cfg);
nodes[vertex].came_from = start_node;
nodes[vertex].g_score = tentative_g_score;
nodes[vertex].f_score = tentative_g_score + cells[current_cell_index].get_potential();
nodes[vertex].heuristic = cells[current_cell_index].get_potential();
nodes[vertex].cell = start_cell;
nodes[vertex].set_open();
openset.emplace(vertex, nodes[vertex].f_score);
++metric_query;
}
}
}
std::cout << "Start AStar\n";
// Starting A*
while (!openset.empty()) {
int current_node = openset.top().info_index;
openset.pop();
if (nodes[current_node].is_closed())
continue;
get_info(current_node).set_closed();
if (current_node == goal_node) {
std::cout << "Find Goal by expolring " << nodes.size() << " nodes with " << metric_query << " queries\n";
return this->trace_back(nodes[current_node], start, goal);
}
int prev_cell;
int current_cell;
// Special case for start's neighbor
if (nodes[current_node].came_from == start_node) {
prev_cell = nodes[current_node].cell;
current_cell = prev_cell;
} else {
prev_cell = nodes[nodes[current_node].came_from].cell;
current_cell = find_next_owner(prev_cell, nodes[nodes[current_node].came_from].cfg); // search the neighbors of prev cell to see which cell contians current_cfg, that is the current_cell. ( there is only one such cell )
}
get_info(current_node).cell = current_cell;
// time to check if the path has common cells.
int neighbor_cell_index = find_next_owner(current_cell, nodes[current_node].cfg); // get the cell that also contains current config
if( neighbor_cell_index == NOT_FOUND ) {
continue;
}
cells[current_cell].set_visited();
cells[neighbor_cell_index].set_visited();
// Special case for goal's neighbor
if (cells[neighbor_cell_index].contains(goal.vector())) {
if( !nodes[goal_node].is_open() ) {
nodes[goal_node].set_open();
nodes[goal_node].g_score = get_info(current_node).g_score + IROBOT::metric(robot, nodes[current_node].cfg, goal);
nodes[goal_node].came_from = current_node;
openset.emplace(goal_node, nodes[goal_node].g_score);
++metric_query;
} else {
double distance_to_goal = IROBOT::metric(robot, nodes[current_node].cfg, goal);
++metric_query;
if (get_info(current_node).g_score + distance_to_goal < nodes[goal_node].g_score) {
// 1. remove the neighbor_cfg from openset
// 2. re-add neighbor_cfg to openset with new priority.
nodes[goal_node].g_score = get_info(current_node).g_score + distance_to_goal;
nodes[goal_node].came_from = current_node;
openset.emplace(goal_node, nodes[goal_node].g_score);
}
}
continue;
}
int neighbor_count = 0;
// Compute successors
for (int boundary_index : cells[neighbor_cell_index].get_boundaries()) {
double interval = (std::log(cells[neighbor_cell_index].radius() / smallest_radius) + 1) * smallest_radius;
int begin, end;
get_boundary(boundary_index).get_boundary_configs(*this, interval, begin, end);
for (int neighbor = begin; neighbor < end; ++neighbor) {
if (nodes[neighbor].is_closed()) // already in closed set
continue;
if (nodes[neighbor].is_open() && nodes[neighbor].g_score <= nodes[current_node].g_score)
continue;
++neighbor_count;
double tentative_g_score = get_info(current_node).g_score + IROBOT::metric(robot, nodes[current_node].cfg, nodes[neighbor].cfg);
++metric_query;
if (!nodes[neighbor].is_open() || tentative_g_score < nodes[neighbor].g_score)
{
nodes[neighbor].came_from = current_node;
nodes[neighbor].g_score = tentative_g_score;
nodes[neighbor].f_score = nodes[neighbor].g_score + cells[neighbor_cell_index].get_potential();
nodes[neighbor].heuristic = cells[neighbor_cell_index].get_potential();
if( !nodes[neighbor].is_open() ) {
//get_info(neighbor).f_score = get_info(neighbor).g_score + metric(robot, get_info(neighbor).cfg, goal);
nodes[neighbor].set_open();
openset.emplace(neighbor, nodes[neighbor].f_score);
} else{
//get_info(neighbor).f_score = get_info(neighbor).g_score + get_info(neighbor).heuristic;
// 1. remove the neighbor_cfg from openset
// 2. re-add neighbor_cfg to openset with new priority.
openset.emplace(neighbor, nodes[neighbor].f_score); // (two steps are done inside)
}
}
}
}
//std::cout << neighbor_count << '\n';
}
throw "The path doesn't exist";
}