int ConvertReadInt(int fp,int32 *val) {
unsigned char tmp[4];
int s=0,o=0,l=4;
while (o<4) {
s=read(fp,tmp+o,l);
o=o+s;
l=l-s;
if (s==0) return -1;
if (s==-1) return -1;
}
ConvertToInt(tmp,val);
return 0;
}
int main(int ac, char **av)
{
int c;
std::string tn("");
std::string ip = "127.0.0.1";
std::string port("");
while ((c = getopt(ac, av, "n:p:h:")) != -1 && c != EOF)
{
switch (c)
{
case 'n':
tn = optarg;
break;
case 'p':
port = optarg;
break;
case 'h':
ip = optarg;
break;
}
}
if (tn == "" || port == "")
{
std::cout << "Usage : -n TeamName -p Port -h Hostname" << std::endl;
return (0);
}
std::cout << tn;
std::cout << std::endl << port << std::endl << ip << std::endl;
try
{
Client * cl = new Client(ip, ConvertToInt(port), tn);
try
{
Drone dr(cl);
dr.launch();
}
catch (std::exception exept_read)
{
std::cout << "Game End" << std::endl;
delete cl;
}
}
catch (std::exception exept_connect)
{
std::cerr << "Erreur de connection" << std::endl;
return (0);
}
return (0);
}
int fit_read_inx(struct fitfp *ptr,int32 *buffer,int recno) {
int i,status=0;
if (ptr->inxfp !=-1) {
if (recno !=-1) /* jump to this record */
lseek(ptr->inxfp,(recno+1)*ptr->inx_recl,SEEK_SET);
for (i=0;(i<4) && (status==0);i++)
status=ConvertReadInt(ptr->inxfp,&buffer[i]);
return status;
} else if (ptr->ibuf !=NULL) {
if (recno !=-1) ptr->iptr=(recno+1)*ptr->inx_recl;
if ((ptr->istat.st_size-ptr->iptr)<(4*sizeof(int32))) return -1;
for (i=0;i<4;i++)
ConvertToInt(ptr->ibuf+ptr->iptr+sizeof(int32)*i,&buffer[i]);
ptr->iptr+=sizeof(int32)*4;
return 0;
}
return -1;
}
//============================================================================//
//============================================================================//
void ReadArgs(int argc, char **argv, char *&silo_path, char *&probe_path,
int &cycle, float &phi_rot) {
// Count the initial command line arguments:
if(!(argc == (1+4))) {
char message[1001];
sprintf(message," %s\n %s",
"An improper number of command line arguments was found.",
stopmsg);
StopExecution(message);
}
// Distribute the command line arguments
silo_path = argv[1];
probe_path = argv[2];
VerifyPath(silo_path,stopmsg);
VerifyPath(probe_path,stopmsg);
ConvertToInt(argv[3],cycle,stopmsg);
ConvertToFloat(argv[4],phi_rot,stopmsg);
}
void TCTFHandler::Init( const char* commandLine )
{
std::string parameter = commandLine;
double timelimitparameter = ConvertToInt(parameter);
if (timelimitparameter > 0)
tctf.timeLimit = timelimitparameter * 60;
Register(bz_eCaptureEvent);
Register(bz_ePlayerJoinEvent);
Register(bz_ePlayerUpdateEvent);
Register(bz_eTickEvent);
bz_registerCustomSlashCommand("tctfstatus",&tctfcommands);
bz_registerCustomSlashCommand("tctftime",&tctfcommands);
bz_registerCustomSlashCommand("tctfon",&tctfcommands);
bz_registerCustomSlashCommand("tctfoff",&tctfcommands);
bz_registerCustomSlashCommand("fairctfon",&tctfcommands);
bz_registerCustomSlashCommand("fairctfoff",&tctfcommands);
bz_registerCustomSlashCommand("tctfsoundon",&tctfcommands);
bz_registerCustomSlashCommand("tctfsoundoff",&tctfcommands);
}
BZF_PLUGIN_CALL int bz_Load(const char *commandLine)
{
std::string parameter = commandLine;
double timelimitparameter = ConvertToInt(parameter);
if (timelimitparameter > 0)
tctf.timeLimit = timelimitparameter * 60;
bz_debugMessage(4, "timedctf plugin loaded");
bz_registerEvent(bz_eCaptureEvent, &tctfflagcapped);
bz_registerEvent(bz_ePlayerJoinEvent, &tctfplayerjoined);
bz_registerEvent(bz_ePlayerUpdateEvent, &tctfplayerupdates);
bz_registerEvent(bz_eTickEvent, &tctftickevents);
bz_registerCustomSlashCommand("tctfstatus", &tctfcommands);
bz_registerCustomSlashCommand("tctftime", &tctfcommands);
bz_registerCustomSlashCommand("tctfon", &tctfcommands);
bz_registerCustomSlashCommand("tctfoff", &tctfcommands);
bz_registerCustomSlashCommand("fairctfon", &tctfcommands);
bz_registerCustomSlashCommand("fairctfoff", &tctfcommands);
bz_registerCustomSlashCommand("tctfsoundon", &tctfcommands);
bz_registerCustomSlashCommand("tctfsoundoff", &tctfcommands);
return 0;
}
BOOL ImageRecordingPage::GetJPEG2KQuality( unsigned int* quality )
{
CString qualityTxt;
m_edit_jpg2kCompressionLevel.GetWindowText(qualityTxt);
return (!(qualityTxt.IsEmpty()) && ConvertToInt(&qualityTxt, quality));
}
struct DataMap *DataMapDecodeBuffer(char *buf,int size) {
int c,x,n,i,e;
int32 sn,an;
int32 code,sze;
char *name;
char *tmp;
char type;
unsigned int off=0;
int32 tsze;
struct DataMap *ptr;
struct DataMapScalar *s;
struct DataMapArray *a;
ptr=DataMapMake();
if (ptr==NULL) return NULL;
ConvertToInt(buf+off,&code);
off+=sizeof(int32);
ConvertToInt(buf+off,&sze);
off+=sizeof(int32);
ConvertToInt(buf+off,&sn);
off+=sizeof(int32);
ConvertToInt(buf+off,&an);
off+=sizeof(int32);
if (sn>0) {
ptr->snum=sn;
ptr->scl=malloc(sizeof(struct DataMapScalar *)*sn);
if (ptr->scl==NULL) {
DataMapFree(ptr);
return NULL;
}
for (c=0;c<sn;c++) ptr->scl[c]=NULL;
}
if (an>0) {
ptr->anum=an;
ptr->arr=malloc(sizeof(struct DataMapArray *)*an);
if (ptr->arr==NULL) {
DataMapFree(ptr);
return NULL;
}
for (c=0;c<an;c++) ptr->arr[c]=NULL;
}
for (c=0;c<sn;c++) {
e=0;
n=0;
while ((buf[off+n] !=0) && (off+n<size)) n++;
if (off+n>=size) break;
name=malloc(n+1);
if (name==NULL) break;
memcpy(name,buf+off,n+1);
off+=n+1;
type=buf[off];
off++;
s=malloc(sizeof(struct DataMapScalar));
if (s==NULL) {
free(name);
break;
}
s->name=name;
s->mode=6;
s->type=type;
ptr->scl[c]=s;
switch (s->type) {
case DATACHAR:
s->data.vptr=malloc(sizeof(char));
if (s->data.vptr==NULL) {
e=1;
break;
}
s->data.cptr[0]=buf[off];
off++;
break;
case DATASHORT:
s->data.vptr=malloc(sizeof(int16));
if (s->data.vptr==NULL) {
e=1;
break;
}
ConvertToShort(buf+off,s->data.sptr);
off+=sizeof(int16);
break;
case DATAINT:
s->data.vptr=malloc(sizeof(int32));
if (s->data.vptr==NULL) {
e=1;
break;
}
ConvertToInt(buf+off,s->data.iptr);
off+=sizeof(int32);
break;
case DATALONG:
s->data.vptr=malloc(sizeof(int64));
if (s->data.vptr==NULL) {
e=1;
break;
}
ConvertToLong(buf+off,s->data.lptr);
off+=sizeof(int64);
break;
case DATAUCHAR:
s->data.vptr=malloc(sizeof(unsigned char));
if (s->data.vptr==NULL) {
e=1;
break;
}
s->data.ucptr[0]=buf[off];
off++;
break;
case DATAUSHORT:
s->data.vptr=malloc(sizeof(uint16));
if (s->data.vptr==NULL) {
e=1;
break;
}
ConvertToUShort(buf+off,s->data.usptr);
off+=sizeof(uint16);
break;
case DATAUINT:
s->data.vptr=malloc(sizeof(uint32));
if (s->data.vptr==NULL) {
e=1;
break;
}
ConvertToUInt(buf+off,s->data.uiptr);
off+=sizeof(uint32);
break;
case DATAULONG:
s->data.vptr=malloc(sizeof(uint64));
if (s->data.vptr==NULL) {
e=1;
break;
}
ConvertToULong(buf+off,s->data.ulptr);
off+=sizeof(uint64);
break;
case DATAFLOAT:
s->data.vptr=malloc(sizeof(float));
if (s->data.vptr==NULL) {
e=1;
break;
}
ConvertToFloat(buf+off,s->data.fptr);
off+=sizeof(float);
break;
case DATADOUBLE:
s->data.vptr=malloc(sizeof(double));
if (s->data.vptr==NULL) {
e=1;
break;
}
ConvertToDouble(buf+off,s->data.dptr);
off+=sizeof(double);
break;
case DATASTRING:
n=0;
while ((buf[off+n] !=0) && (off+n<size)) n++;
if (off+n>=size) {
e=1;
break;
}
s->data.vptr=malloc(sizeof(char *));
if (s->data.vptr==NULL) {
e=1;
break;
}
if (n !=0) {
tmp=malloc(n+1);
if (tmp==NULL) {
e=1;
break;
}
memcpy(tmp,buf+off,n+1);
off+=n+1;
*( (char **) s->data.vptr)=tmp;
} else {
*( (char **) s->data.vptr)=NULL;
off++;
}
break;
default:
s->data.vptr=malloc(sizeof(struct DataMap *));
if (s->data.vptr==NULL) {
e=1;
break;
}
ConvertToInt(buf+off,&tsze);
off+=sizeof(int32);
if (tsze !=0) {
*s->data.mptr=DataMapDecodeBuffer(buf+off,tsze);
off+=tsze;
} else *s->data.mptr=NULL;
}
if (e==1) break;
}
if (c !=sn) {
DataMapFree(ptr);
return NULL;
}
for (c=0;c<an;c++) {
e=0;
n=0;
while ((buf[off+n] !=0) && (off+n<size)) n++;
if (off+n>=size) break;
name=malloc(n+1);
if (name==NULL) break;
memcpy(name,buf+off,n+1);
off+=n+1;
type=buf[off];
off++;
a=malloc(sizeof(struct DataMapArray));
if (a==NULL) {
free(name);
break;
}
a->name=name;
a->mode=7;
a->type=type;
ptr->arr[c]=a;
ConvertToInt(buf+off,(int32 *) &(a->dim));
off+=sizeof(int32);
a->rng=malloc(a->dim*sizeof(int32));
if (a->rng==NULL) break;
for (x=0;x<a->dim;x++) {
ConvertToInt(buf+off,&a->rng[x]);
off+=sizeof(int32);
}
if (x!=a->dim) break;
n=1;
for (x=0;x<a->dim;x++) n=a->rng[x]*n;
switch (a->type) {
case DATACHAR:
a->data.vptr=malloc(sizeof(char)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
memcpy(a->data.cptr,buf+off,sizeof(char)*n);
off+=sizeof(char)*n;
break;
case DATASHORT:
a->data.vptr=malloc(sizeof(int16)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
for (x=0;x<n;x++) {
ConvertToShort(buf+off,&a->data.sptr[x]);
off+=sizeof(int16);
}
break;
case DATAINT:
a->data.vptr=malloc(sizeof(int32)*n);
if (a->data.vptr==NULL) {
break;
e=1;
}
for (x=0;x<n;x++) {
ConvertToInt(buf+off,&a->data.iptr[x]);
off+=sizeof(int32);
}
break;
case DATALONG:
a->data.vptr=malloc(sizeof(int64)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
for (x=0;x<n;x++) {
ConvertToLong(buf+off,&a->data.lptr[x]);
off+=sizeof(int64);
}
break;
case DATAUCHAR:
a->data.vptr=malloc(sizeof(unsigned char)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
memcpy(a->data.cptr,buf+off,sizeof(unsigned char)*n);
off+=sizeof(unsigned char)*n;
break;
case DATAUSHORT:
a->data.vptr=malloc(sizeof(uint16)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
for (x=0;x<n;x++) {
ConvertToUShort(buf+off,&a->data.usptr[x]);
off+=sizeof(uint16);
}
break;
case DATAUINT:
a->data.vptr=malloc(sizeof(uint32)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
for (x=0;x<n;x++) {
ConvertToUInt(buf+off,&a->data.uiptr[x]);
off+=sizeof(uint32);
}
break;
case DATAULONG:
a->data.vptr=malloc(sizeof(uint64)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
for (x=0;x<n;x++) {
ConvertToULong(buf+off,&a->data.ulptr[x]);
off+=sizeof(uint64);
}
break;
case DATAFLOAT:
a->data.vptr=malloc(sizeof(float)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
for (x=0;x<n;x++) {
ConvertToFloat(buf+off,&a->data.fptr[x]);
off+=sizeof(float);
}
break;
case DATADOUBLE:
a->data.vptr=malloc(sizeof(double)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
for (x=0;x<n;x++) {
ConvertToDouble(buf+off,&a->data.dptr[x]);
off+=sizeof(double);
}
break;
case DATASTRING:
a->data.vptr=malloc(sizeof(char *)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
for (x=0;x<n;x++) {
i=0;
while ((buf[off+i] !=0) && (off+i<size)) i++;
if (off+i>=size) break;
if (i !=0) {
tmp=malloc(i+1);
if (tmp==NULL) break;
memcpy(tmp,buf+off,i+1);
((char **) a->data.vptr)[x]=tmp;
} else ((char **) a->data.vptr)[x]=NULL;
off+=i+1;
}
if (x !=n) e=1;
break;
default:
a->data.mptr=malloc(sizeof(struct DataMap *)*n);
if (a->data.vptr==NULL) {
e=1;
break;
}
for (x=0;x<n;x++) {
ConvertToInt(buf+off,&tsze);
off+=sizeof(int32);
if (tsze !=0) {
a->data.mptr[x]=DataMapDecodeBuffer(buf+off,tsze);
off+=tsze;
} else a->data.mptr[x]=0;
}
}
if (e==1) break;
}
if (c !=an) {
DataMapFree(ptr);
return NULL;
}
return ptr;
}
struct DataMap *DataMapDecodeBuffer(unsigned char *buf,int size) {
int c,x,n,i;
int32 sn,an;
int32 code,sze;
char *name;
unsigned char *tmp;
char type;
unsigned int off=0;
struct DataMap *ptr;
struct DataMapScalar *s;
struct DataMapArray *a;
ptr=DataMapMake();
if (ptr==NULL) return NULL;
ConvertToInt(buf+off,&code);
off+=sizeof(int32);
ConvertToInt(buf+off,&sze);
off+=sizeof(int32);
ConvertToInt(buf+off,&sn);
off+=sizeof(int32);
ConvertToInt(buf+off,&an);
off+=sizeof(int32);
if (sn>0) {
ptr->snum=sn;
ptr->scl=malloc(sizeof(struct DataMapScalar *)*sn);
if (ptr->scl==NULL) {
DataMapFree(ptr);
return NULL;
}
for (c=0;c<sn;c++) ptr->scl[c]=NULL;
}
if (an>0) {
ptr->anum=an;
ptr->arr=malloc(sizeof(struct DataMapArray *)*an);
if (ptr->arr==NULL) {
DataMapFree(ptr);
return NULL;
}
for (c=0;c<an;c++) ptr->arr[c]=NULL;
}
for (c=0;c<sn;c++) {
n=0;
while ((buf[off+n] !=0) && (off+n<size)) n++;
if (off+n>=size) break;
name=malloc(n+1);
if (name==NULL) break;
memcpy(name,buf+off,n+1);
off+=n+1;
type=buf[off];
off++;
s=malloc(sizeof(struct DataMapScalar));
if (s==NULL) {
free(name);
break;
}
s->name=name;
s->mode=1;
s->type=type;
ptr->scl[c]=s;
switch (s->type) {
case DATACHAR:
s->data.vptr=malloc(sizeof(char));
if (s->data.vptr==NULL) break;
s->data.cptr[0]=buf[off];
off++;
break;
case DATASHORT:
s->data.vptr=malloc(sizeof(int16));
if (s->data.vptr==NULL) break;
ConvertToShort(buf+off,s->data.sptr);
off+=sizeof(int16);
break;
case DATAINT:
s->data.vptr=malloc(sizeof(int32));
if (s->data.vptr==NULL) break;
ConvertToInt(buf+off,s->data.iptr);
off+=sizeof(int32);
break;
case DATAFLOAT:
s->data.vptr=malloc(sizeof(float));
if (s->data.vptr==NULL) break;
ConvertToFloat(buf+off,s->data.fptr);
off+=sizeof(float);
break;
case DATADOUBLE:
s->data.vptr=malloc(sizeof(double));
if (s->data.vptr==NULL) break;
ConvertToDouble(buf+off,s->data.dptr);
off+=sizeof(double);
break;
default:
n=0;
while ((buf[off+n] !=0) && (off+n<size)) n++;
if (off+n>=size) break;
s->data.vptr=malloc(sizeof(char *));
if (s->data.vptr==NULL) break;
tmp=realloc(ptr->buf,ptr->sze+n+1);
if (tmp==NULL) break;
ptr->buf=tmp;
memcpy(ptr->buf+ptr->sze,buf+off,n+1);
off+=n+1;
*(s->data.optr)=ptr->sze;
ptr->sze+=n+1;
break;
}
}
if (c !=sn) {
DataMapFree(ptr);
return NULL;
}
for (c=0;c<an;c++) {
n=0;
while ((buf[off+n] !=0) && (off+n<size)) n++;
if (off+n>=size) break;
name=malloc(n+1);
if (name==NULL) break;
memcpy(name,buf+off,n+1);
off+=n+1;
type=buf[off];
off++;
a=malloc(sizeof(struct DataMapArray));
if (a==NULL) {
free(name);
break;
}
a->name=name;
a->mode=3;
a->type=type;
ptr->arr[c]=a;
ConvertToInt(buf+off,(int32 *) &(a->dim));
off+=sizeof(int32);
a->rng=malloc(a->dim*sizeof(int32));
if (a->rng==NULL) break;
for (x=0;x<a->dim;x++) {
ConvertToInt(buf+off,&a->rng[x]);
off+=sizeof(int32);
}
if (x!=a->dim) break;
n=1;
for (x=0;x<a->dim;x++) n=a->rng[x]*n;
switch (a->type) {
case DATACHAR:
a->data.vptr=malloc(sizeof(char)*n);
if (a->data.vptr==NULL) break;
memcpy(a->data.cptr,buf+off,sizeof(char)*n);
off+=sizeof(char)*n;
break;
case DATASHORT:
a->data.vptr=malloc(sizeof(int16)*n);
if (a->data.vptr==NULL) break;
for (x=0;x<n;x++) {
ConvertToShort(buf+off,&a->data.sptr[x]);
off+=sizeof(int16);
}
break;
case DATAINT:
a->data.vptr=malloc(sizeof(int32)*n);
if (a->data.vptr==NULL) break;
for (x=0;x<n;x++) {
ConvertToInt(buf+off,&a->data.iptr[x]);
off+=sizeof(int32);
}
break;
case DATAFLOAT:
a->data.vptr=malloc(sizeof(float)*n);
if (a->data.vptr==NULL) break;
for (x=0;x<n;x++) {
ConvertToFloat(buf+off,&a->data.fptr[x]);
off+=sizeof(float);
}
break;
case DATADOUBLE:
a->data.vptr=malloc(sizeof(double)*n);
if (a->data.vptr==NULL) break;
for (x=0;x<n;x++) {
ConvertToDouble(buf+off,&a->data.dptr[x]);
off+=sizeof(double);
}
break;
default:
a->data.vptr=malloc(sizeof(char *)*n);
if (a->data.vptr==NULL) break;
for (x=0;x<n;x++) {
i=0;
while ((buf[off+i] !=0) && (off+i<size)) i++;
if (off+i>=size) break;
tmp=realloc(ptr->buf,ptr->sze+i+1);
if (tmp==NULL) break;
ptr->buf=tmp;
memcpy(ptr->buf+ptr->sze,buf+off,i+1);
a->data.optr[x]=ptr->sze;
ptr->sze+=i+1;
off+=i+1;
}
if (x !=n) break;
}
}
if (c !=an) {
DataMapFree(ptr);
return NULL;
}
for (c=0;c<ptr->snum;c++) {
if (ptr->scl[c]==NULL) continue;
s=ptr->scl[c];
if (s->type==DATASTRING)
*((char **) s->data.vptr)=(char *) (ptr->buf+*(s->data.optr));
}
for (c=0;c<ptr->anum;c++) {
if (ptr->arr[c]==NULL) continue;
a=ptr->arr[c];
if (a->type==DATASTRING) {
n=1;
for (x=0;x<a->dim;x++) n=a->rng[x]*n;
for (x=0;x<n;x++)
( (char **) a->data.vptr)[x]=(char *) (ptr->buf+a->data.optr[x]);
}
}
return ptr;
}
//----------------------------------------------------------------------------
// CCenRepAttributesNonMasked::UpdateContextL
//----------------------------------------------------------------------------
//
void CCenRepAttributesNonMasked::UpdateContextL( const TInt aKeyValue )
{
FUNC_LOG;
TInt valueValue = 0;
TPtrC value( KNullDesC );
TPtrC key( KNullDesC );
TPtrC conTypePtr ( KNullDesC );
TPtrC conSourcePtr ( KNullDesC );
TPtrC conValuePtr ( KNullDesC );
for( TInt i = 0; i < iParamCount; i++ )
{
TBool publishOk( ETrue );
const RKeyValueArray& paramAttr = iParamArray[i]->Attributes();
TInt paramAttrCount = paramAttr.Count();
for( TInt j = 0; j < paramAttrCount; j++ )
{
key.Set( paramAttr[j]->Key() );
value.Set( paramAttr[j]->Value() );
if ( value.Length() <= 0 )
{
publishOk = EFalse;
}
// Check Value
if ( key.CompareF( KValue ) == KErrNone )
{
TInt err = ConvertToInt( value, valueValue );
}
// Check ContextSource
else if ( key.CompareF( KContextSource ) == KErrNone )
{
conSourcePtr.Set( value );
}
// Check ContextType
else if ( key.CompareF( KContextType ) == KErrNone )
{
conTypePtr.Set( value);
}
// Check ContextValue
else if ( key.CompareF( KContextValue ) == KErrNone )
{
conValuePtr.Set( value );
}
}
if ( aKeyValue == valueValue )
{
iContext->SetSourceL( conSourcePtr );
iContext->SetTypeL( conTypePtr );
iContext->SetValueL( conValuePtr );
if ( publishOk )
{
PublishContext();
}
}
}
}
int raw_read_current(struct rawfp *fp,struct rawdata *raw_data) {
/* read raw data block from file */
int radar_parms_pat[]={1,2,2,17,4,2,2,14,4,4,2,4,0,0};
int i;
int16 range;
int j;
int16 prev_range;
int xcf_data;
unsigned int stat;
int16 num_byte;
int32 rec_num=0;
unsigned char *inbuf;
unsigned char *inbuf_ptr;
xcf_data = 0;
prev_range = -1;
inbuf=malloc(sizeof(struct rawdata));
/* zero out the raw data buffer */
memset(raw_data,0,sizeof(struct rawdata));
fp->rlen=0;
do {
if (ConvertReadShort(fp->rawfp,&num_byte) !=0) {
free(inbuf);
return -1;
}
fp->rlen+=num_byte;
fp->ptr+=num_byte;
num_byte = num_byte - 2;
stat = read(fp->rawfp,inbuf,num_byte);
if(stat != num_byte) {
free(inbuf);
return -1;
}
inbuf_ptr=inbuf;
ConvertToInt(inbuf_ptr,&rec_num);
} while (rec_num==0);
inbuf_ptr = inbuf_ptr + 12; /* skip rec_num + rawwrite */
num_byte = num_byte - 12;
/* zero out the raw data buffer */
/* copy radar_parms */
ConvertBlock(inbuf_ptr,radar_parms_pat);
memcpy((void *) &(raw_data->PARMS),inbuf_ptr,sizeof(struct radar_parms));
inbuf_ptr = inbuf_ptr + sizeof(struct radar_parms);
num_byte = num_byte - sizeof(struct radar_parms);
/* copy the pulse pattern */
for (i=0;i<raw_data->PARMS.MPPUL;i++) {
ConvertToShort(inbuf_ptr,&raw_data->PULSE_PATTERN[i]);
inbuf_ptr+=sizeof(int16);
num_byte-=sizeof(int16);
}
/* copy the lag table */
for(j=0;j < 2; ++j)
for(i=0; i < raw_data->PARMS.MPLGS; ++i) {
ConvertToShort(inbuf_ptr,&raw_data->LAG_TABLE[j][i]);
inbuf_ptr = inbuf_ptr + sizeof(int16);
num_byte = num_byte - sizeof(int16);
}
/* copy comment buffer */
memcpy(raw_data->COMBF,inbuf_ptr,ORIG_COMBF_SIZE);
inbuf_ptr = inbuf_ptr + ORIG_COMBF_SIZE;
num_byte = num_byte - ORIG_COMBF_SIZE;
/* decompress and copy the lag-0 powers */
for(i=0 ; i < raw_data->PARMS.NRANG ; ++i) {
raw_data->pwr0[i] = dcmpr(inbuf_ptr);
inbuf_ptr = inbuf_ptr + sizeof(int16);
num_byte = num_byte - sizeof(int16);
}
/* decompress and copy acfs */
while ( num_byte > 0 ) {
ConvertToShort(inbuf_ptr,&range);
--range;
inbuf_ptr = inbuf_ptr + sizeof(int16);
num_byte = num_byte - sizeof(int16);
if((range <= prev_range) && (raw_data->PARMS.XCF))
xcf_data = 1;
for(i = 0; i < raw_data->PARMS.MPLGS ; ++i) {
for(j=0 ; j < 2; ++j) {
if (xcf_data) raw_data->xcfd[range][i][j] = dcmpr(inbuf_ptr);
else raw_data->acfd[range][i][j] = dcmpr(inbuf_ptr);
inbuf_ptr = inbuf_ptr + sizeof(int16);
num_byte = num_byte - sizeof(int16);
}
}
prev_range = range;
}
fp->ctime=TimeYMDHMSToEpoch(raw_data->PARMS.YEAR,
raw_data->PARMS.MONTH,
raw_data->PARMS.DAY,
raw_data->PARMS.HOUR,
raw_data->PARMS.MINUT,
raw_data->PARMS.SEC);
free(inbuf);
return 0;
}
enum Enum {
Enum_value, // expected-warning {{commas at the end of enumerator lists are incompatible with C++98}}
};
template<typename T> struct InstantiationAfterSpecialization {};
template<> struct InstantiationAfterSpecialization<int> {}; // expected-note {{here}}
template struct InstantiationAfterSpecialization<int>; // expected-warning {{explicit instantiation of 'InstantiationAfterSpecialization<int>' that occurs after an explicit specialization is incompatible with C++98}}
void *dlsym();
void (*FnPtr)() = (void(*)())dlsym(); // expected-warning {{cast between pointer-to-function and pointer-to-object is incompatible with C++98}}
void *FnVoidPtr = (void*)&dlsym; // expected-warning {{cast between pointer-to-function and pointer-to-object is incompatible with C++98}}
struct ConvertToInt {
operator int();
};
int *ArraySizeConversion = new int[ConvertToInt()]; // expected-warning {{implicit conversion from array size expression of type 'ConvertToInt' to integral type 'int' is incompatible with C++98}}
template<typename T> class ExternTemplate {};
extern template class ExternTemplate<int>; // expected-warning {{extern templates are incompatible with C++98}}
long long ll1 = // expected-warning {{'long long' is incompatible with C++98}}
-42LL; // expected-warning {{'long long' is incompatible with C++98}}
unsigned long long ull1 = // expected-warning {{'long long' is incompatible with C++98}}
42ULL; // expected-warning {{'long long' is incompatible with C++98}}
int k = 0b1001;
#ifdef CXX1Y
// expected-warning@-2 {{binary integer literals are incompatible with C++ standards before C++1y}}
#endif
void f(int n) { int a[n]; }
struct OldRawFp *OldRawOpenFd(int rawfd,int inxfd) {
int radar_parms_pat[]={1,2,2,17,4,2,2,14,4,4,2,4,0,0};
unsigned char *inbuf=NULL;
int16 num_byte;
int32 rec_num;
int stat;
struct radar_parms *prm;
struct OldRawFp *ptr=NULL;
int status=0;
int j;
inbuf=malloc(sizeof(struct rawdata));
if (inbuf==NULL) return NULL;
ptr=malloc(sizeof(struct OldRawFp));
if (ptr==NULL) return NULL;
ptr->rawfp=rawfd;
ptr->stime=-1;
ptr->ctime=-1;
ptr->frec=0;
ptr->rlen=0;
ptr->ptr=0;
fstat(ptr->rawfp,&ptr->rstat);
if (ConvertReadShort(ptr->rawfp,&num_byte) !=0) {
close(ptr->rawfp);
free(ptr);
free(inbuf);
return NULL;
}
num_byte = num_byte - 2;
stat = read(ptr->rawfp,inbuf,num_byte);
if (stat != num_byte) {
close(ptr->rawfp);
free(ptr);
free(inbuf);
return NULL;
}
ConvertToInt(inbuf,&rec_num);
ptr->frec=num_byte+2;
ptr->rlen=num_byte+2;
ptr->ptr=num_byte+2;
if (rec_num==0) { /* decode header to get the threshold */
char tmp[256];
char *str;
strcpy(tmp,(char *) (inbuf+sizeof(struct rawrechdr)-sizeof(int16)+1));
ptr->thr=3;
str=strtok(tmp," ");
if (str==NULL) status=-1;
if ((status==0) && (strcmp(str,"version") !=0)) status=-1;
if (status==0) str=strtok(NULL," ");
if (str==NULL) status=-1;
for (j=0;str[j] !=0;j++) if (str[j]=='.') break;
if (str[j]==0) {
ptr->major_rev=atoi(str);
} else {
str[j]=0;
ptr->major_rev=atoi(str);
ptr->minor_rev=atoi(str+j+1);
}
if (status==0) str=strtok(NULL," ");
if (str==NULL) status=-1;
if ((status==0) && (strcmp(str,"threshold") !=0)) status=-1;
if (status==0) str=strtok(NULL," ");
if (str==NULL) status=-1;
if (status==0) ptr->thr=atoi(str);
}
if (rec_num !=0) { /* not the header so rewind the file */
lseek(ptr->rawfp,0L,SEEK_SET);
ptr->rlen=0;
}
/* read the first record so that we can determine the start time of
the file */
if (ConvertReadShort(ptr->rawfp,&num_byte) !=0) {
close(ptr->rawfp);
free(ptr);
free(inbuf);
return NULL;
}
num_byte = num_byte - 2;
stat = read(ptr->rawfp,inbuf,num_byte);
if (stat != num_byte) {
close(ptr->rawfp);
free(ptr);
free(inbuf);
return NULL;
}
ConvertToInt(inbuf,&rec_num);
/* now decode the parameter block */
ConvertBlock(inbuf+12,radar_parms_pat);
prm=(struct radar_parms *) (inbuf+12);
ptr->stime=TimeYMDHMSToEpoch(prm->YEAR,prm->MONTH,prm->DAY,
prm->HOUR,prm->MINUT,prm->SEC);
ptr->ctime=ptr->stime;
/* rewind to the first record */
lseek(ptr->rawfp,ptr->frec,SEEK_SET);
ptr->rawread=OldRawReadCurrent;
free(inbuf);
return ptr;
}
struct rawfp *raw_open(char *rawfile,char *inxfile) {
int radar_parms_pat[]= {1,2,2,17,4,2,2,14,4,4,2,4,0,0};
unsigned char *inbuf=NULL;
int16 num_byte;
int32 rec_num;
int stat;
struct radar_parms *prm;
struct rawfp *ptr=NULL;
inbuf=malloc(sizeof(struct rawdata));
if (inbuf==NULL) return NULL;
ptr=malloc(sizeof(struct rawfp));
if (ptr==NULL) return NULL;
ptr->rawfp=open(rawfile,O_RDONLY);
ptr->stime=-1;
ptr->ctime=-1;
ptr->frec=0;
ptr->rlen=0;
ptr->ptr=0;
if (ptr->rawfp==-1) {
free(ptr);
free(inbuf);
return NULL;
}
fstat(ptr->rawfp,&ptr->rstat);
if (ConvertReadShort(ptr->rawfp,&num_byte) !=0) {
close(ptr->rawfp);
free(ptr);
free(inbuf);
return NULL;
}
num_byte = num_byte - 2;
stat = read(ptr->rawfp,inbuf,num_byte);
if (stat != num_byte) {
close(ptr->rawfp);
free(ptr);
free(inbuf);
return NULL;
}
ConvertToInt(inbuf,&rec_num);
ptr->frec=num_byte+2;
ptr->rlen=num_byte+2;
ptr->ptr=num_byte+2;
if (rec_num !=0) { /* not the header so rewind the file */
lseek(ptr->rawfp,0L,SEEK_SET);
ptr->rlen=0;
}
/* read the first record so that we can determine the start time of
the file */
if (ConvertReadShort(ptr->rawfp,&num_byte) !=0) {
close(ptr->rawfp);
free(ptr);
free(inbuf);
return NULL;
}
num_byte = num_byte - 2;
stat = read(ptr->rawfp,inbuf,num_byte);
if (stat != num_byte) {
close(ptr->rawfp);
free(ptr);
free(inbuf);
return NULL;
}
ConvertToInt(inbuf,&rec_num);
/* now decode the parameter block */
ConvertBlock(inbuf+12,radar_parms_pat);
prm=(struct radar_parms *) (inbuf+12);
ptr->stime=TimeYMDHMSToEpoch(prm->YEAR,prm->MONTH,prm->DAY,
prm->HOUR,prm->MINUT,prm->SEC);
/* rewind to the first record */
lseek(ptr->rawfp,ptr->frec,SEEK_SET);
ptr->rawread=raw_read_current;
free(inbuf);
return ptr;
}
int CFitRead(struct CFitfp *fptr,struct CFitdata *ptr) {
float val;
int i;
if (fptr->fp !=-1) {
if (ConvertReadDouble(fptr->fp,&ptr->time) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->stid) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->scan) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->cp) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->bmnum) !=0) return -1;
if (ConvertReadFloat(fptr->fp,&ptr->bmazm) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->channel) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->intt.sc) !=0) return -1;
if (ConvertReadInt(fptr->fp,&ptr->intt.us) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->frang) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->rsep) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->rxrise) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->tfreq) !=0) return -1;
if (ConvertReadInt(fptr->fp,&ptr->noise) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->atten) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->nave) !=0) return -1;
if (ConvertReadShort(fptr->fp,&ptr->nrang) !=0) return -1;
} else {
if ((fptr->fptr+sizeof(double)+7*sizeof(int16)+
sizeof(int32)+sizeof(float))>fptr->fsze) return -1;
ConvertToDouble(&fptr->fbuf[fptr->fptr],&ptr->time);
fptr->fptr+=sizeof(double);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->stid);
fptr->fptr+=sizeof(int16);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->scan);
fptr->fptr+=sizeof(int16);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->cp);
fptr->fptr+=sizeof(int16);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->bmnum);
fptr->fptr+=sizeof(int16);
ConvertToFloat(fptr->fbuf+fptr->fptr,&ptr->bmazm);
fptr->fptr+=sizeof(float);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->channel);
fptr->fptr+=sizeof(int16);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->intt.sc);
fptr->fptr+=sizeof(int16);
ConvertToInt(fptr->fbuf+fptr->fptr,&ptr->intt.us);
fptr->fptr+=sizeof(int32);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->frang);
fptr->fptr+=sizeof(int16);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->rsep);
fptr->fptr+=sizeof(int16);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->rxrise);
fptr->fptr+=sizeof(int16);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->tfreq);
fptr->fptr+=sizeof(int16);
ConvertToInt(fptr->fbuf+fptr->fptr,&ptr->noise);
fptr->fptr+=sizeof(int32);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->atten);
fptr->fptr+=sizeof(int16);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->nave);
fptr->fptr+=sizeof(int16);
ConvertToShort(fptr->fbuf+fptr->fptr,&ptr->nrang);
fptr->fptr+=sizeof(int16);
}
fptr->ctime=ptr->time;
if (fptr->fp !=-1) {
if (read(fptr->fp,&ptr->num,1) !=1) return -1;
if (read(fptr->fp,ptr->rng,ptr->num) !=ptr->num) return -1;
} else {
if (fptr->fptr>=fptr->fsze) return -1;
ptr->num=fptr->fbuf[fptr->fptr];
fptr->fptr+=1;
if ((fptr->fptr+ptr->num)>=fptr->fsze) return -1;
memcpy(ptr->rng,&fptr->fbuf[fptr->fptr],ptr->num);
fptr->fptr+=ptr->num;
}
for (i=0;i<ptr->num;i++) {
if (fptr->fp !=-1) {
if (read(fptr->fp,&ptr->data[i].gsct,1) !=1) return -1;
if (ptr->data[i].gsct==EOF) return -1;
if (ConvertReadFloat(fptr->fp,&val) !=0) return -1;
ptr->data[i].p_0=val;
if (ConvertReadFloat(fptr->fp,&val) !=0) return -1;
ptr->data[i].p_0_e=val;
if (ConvertReadFloat(fptr->fp,&val) !=0) return -1;
ptr->data[i].v=val;
if (ConvertReadFloat(fptr->fp,&val) !=0) return -1;
ptr->data[i].p_l=val;
if (ConvertReadFloat(fptr->fp,&val) !=0) return -1;
ptr->data[i].w_l=val;
if (ConvertReadFloat(fptr->fp,&val) !=0) return -1;
ptr->data[i].v_e=val;
if (ConvertReadFloat(fptr->fp,&val) !=0) return -1;
ptr->data[i].p_l_e=val;
if (ConvertReadFloat(fptr->fp,&val) !=0) return -1;
ptr->data[i].w_l_e=val;
} else {
if ((fptr->fptr+1+sizeof(float)*6)>=fptr->fsze) return -1;
ptr->data[i].gsct=fptr->fbuf[fptr->fptr];
fptr->fptr+=1;
ConvertToFloat(fptr->fbuf+fptr->fptr,&val);
fptr->fptr+=sizeof(float);
ptr->data[i].p_0=val;
ConvertToFloat(fptr->fbuf+fptr->fptr,&val);
fptr->fptr+=sizeof(float);
ptr->data[i].p_0_e=val;
ConvertToFloat(fptr->fbuf+fptr->fptr,&val);
fptr->fptr+=sizeof(float);
ptr->data[i].v=val;
ConvertToFloat(fptr->fbuf+fptr->fptr,&val);
fptr->fptr+=sizeof(float);
ptr->data[i].p_l=val;
ConvertToFloat(fptr->fbuf+fptr->fptr,&val);
fptr->fptr+=sizeof(float);
ptr->data[i].w_l=val;
ConvertToFloat(fptr->fbuf+fptr->fptr,&val);
fptr->fptr+=sizeof(float);
ptr->data[i].v_e=val;
ConvertToFloat(fptr->fbuf+fptr->fptr,&val);
fptr->fptr+=sizeof(float);
ptr->data[i].p_l_e=val;
ConvertToFloat(fptr->fbuf+fptr->fptr,&val);
fptr->fptr+=sizeof(float);
ptr->data[i].w_l_e=val;
}
}
return 0;
}
bool TCTFCommands::handle(int playerID, bz_ApiString _command, bz_ApiString _message, bz_APIStringList * /*_param*/ )
{
std::string command = _command.c_str();
std::string message = _message.c_str();
bz_BasePlayerRecord *fromPlayer = bz_getPlayerByIndex(playerID);
if (fromPlayer) {
if (!fromPlayer->admin) {
bz_sendTextMessage(BZ_SERVER, playerID,
"You must be admin to use the ctfcaptime commands.");
bz_freePlayerRecord(fromPlayer);
return true;
}
bz_freePlayerRecord(fromPlayer);
}
if (command == "tctfon") {
tctf.enabled = true;
if (!tctf.timerRunning)
ResetTeamData();
bz_sendTextMessagef(BZ_SERVER, BZ_ALLUSERS, "Timed CTF is enabled.");
return true;
}
if (command == "tctfoff") {
tctf.enabled = false;
tctf.timerRunning = false;
bz_sendTextMessagef(BZ_SERVER, BZ_ALLUSERS, "Timed CTF is disabled.");
return true;
}
if (command == "fairctfon") {
tctf.fairCTFEnabled = true;
bz_sendTextMessagef(BZ_SERVER, BZ_ALLUSERS, "Fair CTF is enabled.");
return true;
}
if (command == "fairctfoff") {
tctf.fairCTFEnabled = false;
bz_sendTextMessagef(BZ_SERVER, BZ_ALLUSERS, "Fair CTF is disabled.");
if (!tctf.timerRunning)
ResetTeamData();
return true;
}
if (command == "tctfsoundon") {
tctf.soundEnabled = true;
bz_sendTextMessagef(BZ_SERVER, BZ_ALLUSERS, "Timed CTF sound is enabled.");
return true;
}
if (command == "tctfsoundoff") {
tctf.soundEnabled = false;
bz_sendTextMessagef(BZ_SERVER, BZ_ALLUSERS, "Timed CTF sound is disabled.");
return true;
}
if (command == "tctfstatus") {
if (tctf.enabled && !tctf.timerRunning)
bz_sendTextMessagef(BZ_SERVER, playerID, "Timed CTF is currently enabled, but not running.");
if (tctf.enabled && tctf.timerRunning)
bz_sendTextMessagef(BZ_SERVER, playerID, "Timed CTF is currently enabled, and running");
if (!tctf.enabled)
bz_sendTextMessagef(BZ_SERVER, playerID, "Timed CTF is currently disabled.");
if (!tctf.fairCTFEnabled)
bz_sendTextMessagef(BZ_SERVER, playerID, "Fair CTF is currently disabled");
if (tctf.fairCTFEnabled)
bz_sendTextMessagef(BZ_SERVER, playerID, "Fair CTF is currently enabled");
if (!tctf.soundEnabled)
bz_sendTextMessagef(BZ_SERVER, playerID, "Timed CTF sounds are currently disabled");
if (tctf.soundEnabled)
bz_sendTextMessagef(BZ_SERVER, playerID, "Timed CTF sounds are currently enabled");
tctf.adjTime = (int) (tctf.timeLimit / 60 + 0.5);
bz_sendTextMessagef(BZ_SERVER, playerID, "CTF capture time is currently set to: %i minutes", tctf.adjTime);
return true;
}
// explicit time command handler:
if (command == "tctftime") {
double inputvalue = ConvertToInt(message);
if (inputvalue > 0) {
tctf.timeLimit = inputvalue * 60;
tctf.adjTime = (int) (tctf.timeLimit / 60 + 0.5);
bz_sendTextMessagef(BZ_SERVER, BZ_ALLUSERS, "CTF capture time has been set to %i minutes.", tctf.adjTime);
if (!tctf.enabled)
bz_sendTextMessagef(BZ_SERVER, BZ_ALLUSERS, "(Timed CTF is still disabled)");
ResetTeamData();
return true;
} else {
bz_sendTextMessagef(BZ_SERVER, playerID, "CTF capture time invalid: must be between 1 and 120 minutes.");
return true;
}
return true;
}
return false;
}
VA_MACRO(,x) // expected-warning {{empty macro arguments are incompatible with C++98}}
; // expected-warning {{extra ';' outside of a function is incompatible with C++98}}
enum Enum {
Enum_value, // expected-warning {{commas at the end of enumerator lists are incompatible with C++98}}
};
void *dlsym();
void (*FnPtr)() = (void(*)())dlsym(); // expected-warning {{cast between pointer-to-function and pointer-to-object is incompatible with C++98}}
void *FnVoidPtr = (void*)&dlsym; // expected-warning {{cast between pointer-to-function and pointer-to-object is incompatible with C++98}}
struct ConvertToInt {
operator int();
};
int *ArraySizeConversion = new int[ConvertToInt()];
#ifdef CXX1Y2
// expected-warning@-2 {{implicit conversion from array size expression of type 'ConvertToInt' to integral type 'size_t' is incompatible with C++98}}
#else
// expected-warning@-4 {{implicit conversion from array size expression of type 'ConvertToInt' to integral type 'int' is incompatible with C++98}}
#endif
template<typename T> class ExternTemplate {};
extern template class ExternTemplate<int>; // expected-warning {{extern templates are incompatible with C++98}}
long long ll1 = // expected-warning {{'long long' is incompatible with C++98}}
-42LL; // expected-warning {{'long long' is incompatible with C++98}}
unsigned long long ull1 = // expected-warning {{'long long' is incompatible with C++98}}
42ULL; // expected-warning {{'long long' is incompatible with C++98}}
int k = 0b1001;