bool ReadRoadBridge(const vector<string>& tokens, void * ref)
{
BridgeInfo info;
if (TokenizeLine(tokens, " efffffffififfffffffi",
&info.rep_type,
&info.min_length, &info.max_length,
&info.min_seg_length, &info.max_seg_length,
&info.min_seg_count, &info.max_seg_count,
&info.curve_limit,
&info.split_count, &info.split_length, &info.split_arch,
&info.min_start_agl, &info.max_start_agl,
&info.search_dist, &info.pref_start_agl,
&info.min_center_agl, &info.max_center_agl,
&info.height_ratio, &info.road_slope,
&info.export_type) != 21) return false;
// Special case these - otherwise we get inexact values from deg-rad conversion.
if (info.curve_limit == 90.0) info.curve_limit = 0.0;
else if (info.curve_limit ==180.0) info.curve_limit =-1.0;
else if (info.curve_limit == 0.0) info.curve_limit = 1.0;
else info.curve_limit = cos(info.curve_limit * DEG_TO_RAD);
gBridgeInfo.push_back(info);
return true;
}
static void DoOptions( char *buf )
/********************************/
// process options in a string, if present
{
char opt[LINE_BUF_SIZE];
char *cmd;
for( cmd = buf; *cmd != '\0'; ++cmd ) {
if( *cmd == '/' ) {
break;
}
}
/* See if option separator was found. */
if( *cmd == '/' ) {
*cmd = '\0';
strcpy( opt, cmd + 1 );
/* Strip trailing spaces from text preceding the option. */
--cmd;
while( cmd > buf && *cmd == ' ' ) {
*cmd-- = '\0';
}
/* Strip trailing junk from the option. */
//@TODO!
/* Now handle the option(s). */
TokenizeLine( opt, '/', DoOneOption );
}
}
bool ReadRoadPromoteZoning(const vector<string>& tokens, void * ref)
{
gPromotedZoningSet.clear();
if(TokenizeLine(tokens," S",&gPromotedZoningSet) != 2)
return false;
return true;
}
bool ReadLevelCrossing(const vector<string>& tokens, void * ref)
{
int t1, t2;
if(TokenizeLine(tokens," ee", &t1, &t2) != 3)
return false;
gLevelCrossings[t1] = t2;
return true;
}
bool ReadRoadPromote(const vector<string>& tokens, void * ref)
{
int rt;
ZoningPromote p;
if(TokenizeLine(tokens," eeee",&rt,&p.promote_left, &p.promote_right,&p.promote_both) != 5) return false;
if(gZonePromote.count(rt) != 0)
fprintf(stderr,"WARNING: promotion info for road %s included twice.\n", FetchTokenString(rt));
gZonePromote[rt] = p;
return true;
}
bool ReadChangeRule(const vector<string>& tokens, void * ref)
{
ChangeRule r;
if(TokenizeLine(tokens," eeee",
&r.prev,
&r.next,
&r.new_mid) != 4)
return false;
gChangeRules.push_back(r);
return true;
}
bool RoadGeneralProps(const vector<string>& tokens, void * ref)
{
int feature_type;
NetFeatureInfo info;
if (TokenizeLine(tokens, " efie", &feature_type,
&info.density_factor, &info.is_oneway, &info.oneway_feature) != 5) return false;
if (gNetFeatures.count(feature_type) > 0)
printf("WARNING: duplicate token %s\n", tokens[1].c_str());
gNetFeatures[feature_type] = info;
return true;
}
bool ReadTwinRule(const vector<string>& tokens, void * ref)
{
int type_1, type_2;
if(TokenizeLine(tokens, " ee",&type_1,&type_2) != 3) return false;
if(gTwinRules.count(type_1) ||
gTwinRules.count(type_2))
{
printf("ERROR: duplicate twin rule.\n");
return false;
}
gTwinRules[type_1] = type_2;
gTwinRules[type_2] = type_1;
return true;
}
bool ReadForkRule(const vector<string>& tokens, void * ref)
{
ForkRule r;
if(TokenizeLine(tokens," eeeeee",
&r.trunk,
&r.left,
&r.right,
&r.new_trunk,
&r.new_left,
&r.new_right) != 7)
return false;
gForkRules.push_back(r);
return true;
}
bool ReadRoadPick(const vector<string>& tokens, void * ref)
{
Feature2RepInfo info;
int feature_type;
if (TokenizeLine(tokens, " effffffffe", &info.feature,
&info.min_density,&info.max_density,
&info.min_rail, &info.max_rail,
&info.rain_min,
&info.rain_max,
&info.temp_min,
&info.temp_max,
&info.rep_type) != 11) return false;
gFeature2Rep.push_back(info);
return true;
}
bool ReadRoadSpecificProps(const vector<string>& tokens, void * ref)
{
int rep_type;
NetRepInfo info;
info.export_type_draped = NO_VALUE; // hack for mesh tool - allow draped param to not be attached!
float crease, max_rad;
if (TokenizeLine(tokens, " effffeiifff",&rep_type,
&info.semi_l, &info.semi_r, &info.pad, &info.building_percent, &info.use_mode, &info.is_oneway, &info.export_type_draped, &crease, &max_rad, &info.max_err) != 12)
{
return false;
}
info.crease_angle_cos=cos(crease * DEG_TO_RAD);
info.min_defl_deg_mtr = max_rad > 0.0 ? (360.0 / (2 * PI * max_rad)) : 0.0f;
if (gNetReps.count(rep_type) > 0)
printf("WARNING: duplicate token %s\n", FetchTokenString(rep_type));
gNetReps[rep_type] = info;
return true;
}
void SourceEdit::OnConvertPaste(NMHDR* hdr, LRESULT* res)
{
SCNXConvertPaste* cp = (SCNXConvertPaste*)hdr;
*res = 0;
// Get the source of the data
COleDataObject data;
if (cp->source)
data.Attach((LPDATAOBJECT)(cp->source),FALSE);
else
data.AttachClipboard();
// Try to interpret tables and leading white space
if (data.IsDataAvailable(CF_UNICODETEXT))
{
CStringW theText(cp->utext,cp->ulen);
CStringW newText, line;
newText.Preallocate(theText.GetLength());
bool foundTable = false;
bool inTable = false;
int charPos = 0, lineCount = 0;
while (GetNextLine(theText,line,charPos))
{
if (inTable)
{
CArray<CStringW> tokens;
TokenizeLine(line,tokens);
// Separate multiple tokens with tabs: if less than two tokens,
// we're at the end of the table
if (tokens.GetSize() > 1)
{
line.Empty();
for (int j = 0; j < tokens.GetSize(); j++)
{
if (j > 0)
line.AppendChar(L'\t');
line.Append(tokens.GetAt(j));
}
}
else
inTable = false;
}
else
{
// Look for the start of a table
if (line.Left(6).CompareNoCase(L"table ") == 0)
{
inTable = true;
foundTable = true;
}
// Replace any leading blocks of 4 spaces
int i = 0;
while (i >= 0)
{
if (line.Mid(i,4).Compare(L" ") == 0)
{
line.Delete(i,3);
line.SetAt(i,L'\t');
i++;
}
else
i = -1;
}
}
if (lineCount > 0)
newText.AppendChar(L'\n');
newText.Append(line);
lineCount++;
}
CString newTextUtf = TextFormat::UnicodeToUTF8(newText);
cp->text = new char[newTextUtf.GetLength() + 1];
strcpy(cp->text,newTextUtf);
*res = 1;
}
}
extern void ParseMicrosoft( void )
/********************************/
// read in Microsoft linker commands
{
char cmd[LINE_BUF_SIZE];
char *end;
size_t len;
bool first;
bool more_objs;
bool more_libs;
/* Start with object files. */
mask_spc_chr = 0x1f; /* Replace spaces with another character. */
more_cmdline = !!*CmdFile->current;
first = more_cmdline;
is_new_line = true;
do {
more_objs = false; /* No more unless we discover otherwise. */
if( first )
len = GetLine( cmd, sizeof( cmd ), OPTION_SLOT );
else
len = GetLine( cmd, sizeof( cmd ), OBJECT_SLOT );
if( !len )
break;
end = LastStringChar( cmd );
if( *end == mask_spc_chr ) {
more_objs = true;
*end = '\0';
}
TokenizeLine( cmd, mask_spc_chr, DoOneObject );
first = false;
} while( more_objs );
/* Check for possible error conditions. */
if( OverlayLevel )
Error( "unmatched left parenthesis" );
FindObjectName(); /* This will report an error if no objects. */
mask_spc_chr = 0; /* Remove spaces in input. */
/* Get executable and map file name. */
GetNextInput( cmd, sizeof( cmd ), RUN_SLOT );
GetNextInput( cmd, sizeof( cmd ), MAP_SLOT );
mask_spc_chr = 0x1f; /* Replace spaces with another character. */
/* Get library file names. */
if( !is_term ) {
do {
GetLine( cmd, sizeof( cmd ), LIBRARY_SLOT );
more_libs = false;
if( is_term || *cmd == '\0' )
break;
end = LastStringChar( cmd );
if( *end == mask_spc_chr ) {
more_libs = true;
*end = '\0';
}
TokenizeLine( cmd, mask_spc_chr, DoOneLib );
} while( more_libs );
}
mask_spc_chr = 0; /* Remove spaces in input again. */
/* Get def file name and process it. */
GetNextInput( cmd, sizeof( cmd ), DEF_SLOT );
ProcessDefFile();
}