// Look up each key binding in the config file and set the mappings for
// all key combinations that trigger it.
static void LoadConfigBindings()
{
std::map<CStr, CConfigValueSet> bindings = g_ConfigDB.GetValuesWithPrefix( CFG_COMMAND, "hotkey." );
CParser multikeyParser;
multikeyParser.InputTaskType( "multikey", "<[~$arg(_negate)]$value_+_>_[~$arg(_negate)]$value" );
for( std::map<CStr, CConfigValueSet>::iterator bindingsIt = bindings.begin(); bindingsIt != bindings.end(); ++bindingsIt )
{
std::string hotkeyName = bindingsIt->first.substr(7); // strip the "hotkey." prefix
for( CConfigValueSet::iterator it = bindingsIt->second.begin(); it != bindingsIt->second.end(); ++it )
{
std::string hotkey;
if( it->GetString( hotkey ) )
{
std::vector<SKey> keyCombination;
CParserLine multikeyIdentifier;
multikeyIdentifier.ParseString( multikeyParser, hotkey );
// Iterate through multiple-key bindings (e.g. Ctrl+I)
bool negateNext = false;
for( size_t t = 0; t < multikeyIdentifier.GetArgCount(); t++ )
{
if( multikeyIdentifier.GetArgString( (int)t, hotkey ) )
{
if( hotkey == "_negate" )
{
negateNext = true;
continue;
}
// Attempt decode as key name
int mapping = FindKeyCode( hotkey );
// Attempt to decode as a negation of a keyname
// Yes, it's going a bit far, perhaps.
// Too powerful for most uses, probably.
// However, it got some hardcoding out of the engine.
// Thus it makes me happy.
if( !mapping )
{
LOGWARNING(L"Hotkey mapping used invalid key '%hs'", hotkey.c_str() );
continue;
}
SKey key = { (SDLKEY)mapping, negateNext };
keyCombination.push_back(key);
negateNext = false;
}
}
std::vector<SKey>::iterator itKey, itKey2;
for( itKey = keyCombination.begin(); itKey != keyCombination.end(); ++itKey )
{
SHotkeyMapping bindCode;
bindCode.name = hotkeyName;
bindCode.negated = itKey->negated;
for( itKey2 = keyCombination.begin(); itKey2 != keyCombination.end(); ++itKey2 )
{
// Push any auxiliary keys.
if( itKey != itKey2 )
bindCode.requires.push_back( *itKey2 );
}
g_HotkeyMap[itKey->code].push_back( bindCode );
}
}
}
}
}
void CGUIString::SetValue(const CStrW& str)
{
m_OriginalString = str;
// clear
m_TextChunks.clear();
m_Words.clear();
m_RawString = CStrW();
// Setup parser
// TODO Gee: (2004-08-16) Create and store this parser object somewhere to save loading time.
// TODO PT: Extended CParserCache so that the above is possible (since it currently only
// likes one-task parsers)
CParser Parser;
// I've added the option of an additional parameter. Only used for icons when writing this.
Parser.InputTaskType("start", "$ident[_=_$value_[$ident_=_$value_]]");
Parser.InputTaskType("end", "/$ident");
long position = 0;
long from=0; // the position in the raw std::string where the last tag ended
long from_nonraw=0; // like from only in position of the REAL std::string, with tags.
long curpos = 0;
// Current Text Chunk
CGUIString::TextChunk CurrentTextChunk;
for (;;position = curpos+1)
{
// Find next TagStart character
curpos = str.Find(position, TagStart);
if (curpos == -1)
{
m_RawString += str.substr(position);
if (from != (long)m_RawString.length())
{
CurrentTextChunk.m_From = from;
CurrentTextChunk.m_To = (int)m_RawString.length();
m_TextChunks.push_back(CurrentTextChunk);
}
break;
}
else
{
// First check if there is another TagStart before a TagEnd,
// in that case it's just a regular TagStart and we can continue.
long pos_left = str.Find(curpos+1, TagStart);
long pos_right = str.Find(curpos+1, TagEnd);
if (pos_right == -1)
{
m_RawString += str.substr(position, curpos-position+1);
continue;
}
else
if (pos_left != -1 && pos_left < pos_right)
{
m_RawString += str.substr(position, pos_left-position);
continue;
}
else
{
m_RawString += str.substr(position, curpos-position);
// Okay we've found a TagStart and TagEnd, positioned
// at pos and pos_right. Now let's extract the
// interior and try parsing.
CStrW tagstr (str.substr(curpos+1, pos_right-curpos-1));
CParserLine Line;
Line.ParseString(Parser, tagstr.ToUTF8());
// Set to true if the tag is just text.
bool justtext = false;
if (Line.m_ParseOK)
{
if (Line.m_TaskTypeName == "start")
{
// The tag
TextChunk::Tag tag;
std::string Str_TagType;
Line.GetArgString(0, Str_TagType);
if (!tag.SetTagType(Str_TagType))
{
justtext = true;
}
else
{
// Check for possible value-std::strings
if (Line.GetArgCount() >= 2)
Line.GetArgString(1, tag.m_TagValue);
//Handle arbitrary number of additional parameters
size_t argn;
for(argn = 2; argn < Line.GetArgCount(); argn += 2)
{
TextChunk::Tag::TagAttribute a;
Line.GetArgString(argn, a.attrib);
Line.GetArgString(argn+1, a.value);
tag.m_TagAttributes.push_back(a);
}
// Finalize last
if (curpos != from_nonraw)
{
CurrentTextChunk.m_From = from;
CurrentTextChunk.m_To = from + curpos - from_nonraw;
m_TextChunks.push_back(CurrentTextChunk);
from = CurrentTextChunk.m_To;
}
from_nonraw = pos_right+1;
// Some tags does not have a closure, and should be
// stored without text. Like a <tag /> in XML.
if (tag.m_TagType == TextChunk::Tag::TAG_IMGLEFT ||
tag.m_TagType == TextChunk::Tag::TAG_IMGRIGHT ||
tag.m_TagType == TextChunk::Tag::TAG_ICON)
{
// We need to use a fresh text chunk
// because 'tag' should be the *only* tag.
TextChunk FreshTextChunk;
// They does not work with the text system.
FreshTextChunk.m_From = from + pos_right+1 - from_nonraw;
FreshTextChunk.m_To = from + pos_right+1 - from_nonraw;
FreshTextChunk.m_Tags.push_back(tag);
m_TextChunks.push_back(FreshTextChunk);
}
else
{
// Add that tag, but first, erase previous occurences of the
// same tag.
std::vector<TextChunk::Tag>::iterator it;
for (it = CurrentTextChunk.m_Tags.begin(); it != CurrentTextChunk.m_Tags.end(); ++it)
{
if (it->m_TagType == tag.m_TagType)
{
CurrentTextChunk.m_Tags.erase(it);
break;
}
}
// Add!
CurrentTextChunk.m_Tags.push_back(tag);
}
}
}
else
if (Line.m_TaskTypeName == "end")
{
// The tag
TextChunk::Tag tag;
std::string Str_TagType;
Line.GetArgString(0, Str_TagType);
if (!tag.SetTagType(Str_TagType))
{
justtext = true;
}
else
{
// Finalize the previous chunk
if (curpos != from_nonraw)
{
CurrentTextChunk.m_From = from;
CurrentTextChunk.m_To = from + curpos - from_nonraw;
m_TextChunks.push_back(CurrentTextChunk);
from = CurrentTextChunk.m_To;
}
from_nonraw = pos_right+1;
// Search for the tag, if it's not added, then
// pass it as plain text.
std::vector<TextChunk::Tag>::iterator it;
for (it = CurrentTextChunk.m_Tags.begin(); it != CurrentTextChunk.m_Tags.end(); ++it)
{
if (it->m_TagType == tag.m_TagType)
{
CurrentTextChunk.m_Tags.erase(it);
break;
}
}
}
}
}
else justtext = true;
if (justtext)
{
// What was within the tags could not be interpreted
// so we'll assume it's just text.
m_RawString += str.substr(curpos, pos_right-curpos+1);
}
curpos = pos_right;
continue;
}
}
}
// Add a delimiter at start and at end, it helps when
// processing later, because we don't have make exceptions for
// those cases.
// We'll sort later.
m_Words.push_back(0);
m_Words.push_back((int)m_RawString.length());
// Space: ' '
for (position=0, curpos=0;;position = curpos+1)
{
// Find the next word-delimiter.
long dl = m_RawString.Find(position, ' ');
if (dl == -1)
break;
curpos = dl;
m_Words.push_back((int)dl+1);
}
// Dash: '-'
for (position=0, curpos=0;;position = curpos+1)
{
// Find the next word-delimiter.
long dl = m_RawString.Find(position, '-');
if (dl == -1)
break;
curpos = dl;
m_Words.push_back((int)dl+1);
}
// New Line: '\n'
for (position=0, curpos=0;;position = curpos+1)
{
// Find the next word-delimiter.
long dl = m_RawString.Find(position, '\n');
if (dl == -1)
break;
curpos = dl;
// Add before and
m_Words.push_back((int)dl);
m_Words.push_back((int)dl+1);
}
sort(m_Words.begin(), m_Words.end());
// Remove duplicates (only if larger than 2)
if (m_Words.size() > 2)
{
std::vector<int>::iterator it;
int last_word = -1;
for (it = m_Words.begin(); it != m_Words.end(); )
{
if (last_word == *it)
{
it = m_Words.erase(it);
}
else
{
last_word = *it;
++it;
}
}
}
#if 0
for (int i=0; i<(int)m_Words.size(); ++i)
{
LOGMESSAGE(L"m_Words[%d] = %d", i, m_Words[i]);
}
for (int i=0; i<(int)m_TextChunks.size(); ++i)
{
LOGMESSAGE(L"m_TextChunk[%d] = [%d,%d]", i, m_TextChunks[i].m_From, m_TextChunks[i].m_To);
for (int j=0; j<(int)m_TextChunks[i].m_Tags.size(); ++j)
{
LOGMESSAGE(L"--Tag: %d \"%hs\"", (int)m_TextChunks[i].m_Tags[j].m_TagType, m_TextChunks[i].m_Tags[j].m_TagValue.c_str());
}
}
#endif
}
bool CConfigDB::Reload(EConfigNamespace ns)
{
if (ns < 0 || ns >= CFG_LAST)
{
debug_warn(L"CConfigDB: Invalid ns value");
return false;
}
// Set up CParser
CParser parser;
CParserLine parserLine;
parser.InputTaskType("Assignment", "_$ident_=<_[-$arg(_minus)]_$value_,>_[-$arg(_minus)]_$value[[;]$rest]");
parser.InputTaskType("CommentOrBlank", "_[;[$rest]]");
// Open file with VFS
shared_ptr<u8> buffer; size_t buflen;
{
// Handle missing files quietly
if (g_VFS->GetFileInfo(m_ConfigFile[ns], NULL) < 0)
{
LOGMESSAGE(L"Cannot find config file \"%ls\" - ignoring", m_ConfigFile[ns].string().c_str());
return false;
}
else
{
LOGMESSAGE(L"Loading config file \"%ls\"", m_ConfigFile[ns].string().c_str());
Status ret = g_VFS->LoadFile(m_ConfigFile[ns], buffer, buflen);
if (ret != INFO::OK)
{
LOGERROR(L"CConfigDB::Reload(): vfs_load for \"%ls\" failed: return was %lld", m_ConfigFile[ns].string().c_str(), (long long)ret);
return false;
}
}
}
TConfigMap newMap;
char *filebuf=(char *)buffer.get();
char *filebufend=filebuf+buflen;
// Read file line by line
char *next=filebuf-1;
do
{
char *pos=next+1;
next=(char *)memchr(pos, '\n', filebufend-pos);
if (!next) next=filebufend;
char *lend=next;
if (lend > filebuf && *(lend-1) == '\r') lend--;
// Send line to parser
bool parseOk=parserLine.ParseString(parser, std::string(pos, lend));
// Get name and value from parser
std::string name;
std::string value;
if (parseOk &&
parserLine.GetArgCount()>=2 &&
parserLine.GetArgString(0, name) &&
parserLine.GetArgString(1, value))
{
// Add name and value to the map
size_t argCount = parserLine.GetArgCount();
newMap[name].clear();
for( size_t t = 0; t < argCount; t++ )
{
if( !parserLine.GetArgString( (int)t + 1, value ) )
continue;
CConfigValue argument;
argument.m_String = value;
newMap[name].push_back( argument );
LOGMESSAGE(L"Loaded config string \"%hs\" = \"%hs\"", name.c_str(), value.c_str());
}
}
}
while (next < filebufend);
m_Map[ns].swap(newMap);
return true;
}
void CTerrainProperties::LoadXml(XMBElement node, CXeromyces *pFile, const VfsPath& UNUSED(pathname))
{
#define ELMT(x) int elmt_##x = pFile->GetElementID(#x)
#define ATTR(x) int attr_##x = pFile->GetAttributeID(#x)
// Terrain Attribs
ATTR(mmap);
ATTR(groups);
ATTR(movementclass);
ATTR(angle);
ATTR(size);
#undef ELMT
#undef ATTR
XERO_ITER_ATTR(node, attr)
{
if (attr.Name == attr_groups)
{
// Parse a comma-separated list of groups, add the new entry to
// each of them
CParser parser;
CParserLine parserLine;
parser.InputTaskType("GroupList", "<_$value_,>_$value_");
if (!parserLine.ParseString(parser, attr.Value))
continue;
m_Groups.clear();
for (size_t i=0;i<parserLine.GetArgCount();i++)
{
std::string value;
if (!parserLine.GetArgString(i, value))
continue;
CTerrainGroup *pType = g_TexMan.FindGroup(value);
m_Groups.push_back(pType);
}
}
else if (attr.Name == attr_mmap)
{
CColor col;
if (!col.ParseString(attr.Value, 255))
continue;
// m_BaseColor is BGRA
u8 *baseColor = (u8*)&m_BaseColor;
baseColor[0] = (u8)(col.b*255);
baseColor[1] = (u8)(col.g*255);
baseColor[2] = (u8)(col.r*255);
baseColor[3] = (u8)(col.a*255);
m_HasBaseColor = true;
}
else if (attr.Name == attr_angle)
{
m_TextureAngle = DEGTORAD(attr.Value.ToFloat());
}
else if (attr.Name == attr_size)
{
m_TextureSize = attr.Value.ToFloat();
}
else if (attr.Name == attr_movementclass)
{
m_MovementClass = attr.Value;
}
}
}