eitd: remove code under DO_NOT_INCLUDE_STUFF_NOT_NEEDED_FOR_SECTIONSD ifdef

This commit is contained in:
[CST] Focus
2012-02-01 17:27:28 +04:00
parent 1b4e149bd1
commit f41acb304a
6 changed files with 1 additions and 715 deletions

View File

@@ -14,7 +14,7 @@ if BOXTYPE_TRIPLE
INCLUDES += -I$(top_srcdir)/lib/libtriple
endif
AM_CPPFLAGS = -D DO_NOT_INCLUDE_STUFF_NOT_NEEDED_FOR_SECTIONSD
AM_CPPFLAGS =
noinst_LIBRARIES = libsectionsd.a
libsectionsd_a_SOURCES = sectionsd.cpp dmxapi.cpp debug.cpp dmx.cpp SIsections.cpp SIevents.cpp SIutils.cpp SIlanguage.cpp edvbstring.cpp

View File

@@ -358,236 +358,3 @@ void SIevent::dumpSmall(void) const
for_each(ratings.begin(), ratings.end(), printSIparentalRating());
for_each(linkage_descs.begin(), linkage_descs.end(), printSIlinkage());
}
/*
// Liest n Bytes aus einem Socket per read
inline int readNbytes(int fd, char *buf, int n)
{
int j;
for(j=0; j<n;) {
int r=read (fd, buf, n-j);
if(r<=0) {
perror ("read");
return -1;
}
j+=r;
buf+=r;
}
return j;
}
*/
#ifndef DO_NOT_INCLUDE_STUFF_NOT_NEEDED_FOR_SECTIONSD
// Liest n Bytes aus einem Socket per read
// Liefert 0 bei timeout
// und -1 bei Fehler
// ansonsten die Anzahl gelesener Bytes
inline int readNbytes(int fd, char *buf, int n, unsigned timeoutInSeconds)
{
int j;
for(j=0; j<n;) {
struct pollfd ufds;
// memset(&ufds, 0, sizeof(ufds));
ufds.fd=fd;
ufds.events=POLLIN|POLLPRI;
ufds.revents=0;
int rc=poll(&ufds, 1, timeoutInSeconds*1000);
if(!rc)
return 0; // timeout
else if(rc<0) {
perror ("poll");
return -1;
}
int r=read (fd, buf, n-j);
if(r<=0) {
perror ("read");
return -1;
}
j+=r;
buf+=r;
}
return j;
}
SIevent SIevent::readActualEvent(t_service_id serviceID, unsigned timeoutInSeconds)
{
int fd;
SIevent evt; // Std-Event das bei Fehler zurueckgeliefert wird
struct SI_section_header header;
char *buf;
unsigned short section_length;
if ((fd = open(DEMUX_DEVICE, O_RDWR)) == -1) {
perror(DEMUX_DEVICE);
return evt;
}
if (!setfilter(fd, 0x12, 0x4e, 0xff, DMX_IMMEDIATE_START | DMX_CHECK_CRC)) {
close(fd);
return evt;
}
time_t szeit = time(NULL);
// Segment mit Event fuer sid suchen
do {
int rc = readNbytes(fd, (char *)&header, sizeof(header), timeoutInSeconds);
if(!rc)
break; // timeout
else if(rc<0) {
close(fd);
perror ("read header");
return evt;
}
section_length = (header.section_length_hi << 8) | header.section_length_lo;
buf = new char[sizeof(header) + section_length - 5];
if (!buf) {
close(fd);
printf("Not enough memory!\n");
return evt;
}
// Den Header kopieren
memmove(buf, &header, sizeof(header));
rc = readNbytes(fd, &buf[sizeof(header)], section_length - 5, timeoutInSeconds);
if(!rc) {
delete[] buf;
break; // timeout
}
if (rc < 0) {
close(fd);
delete[] buf;
perror ("read section");
return evt;
}
if (header.current_next_indicator) {
// Wir wollen nur aktuelle sections
SIsectionEIT e(SIsection(sizeof(header) + section_length - 5, buf));
time_t zeit = time(NULL);
for (SIevents::iterator k = e.events().begin(); k != e.events().end(); ++k)
if (k->service_id == serviceID)
for (SItimes::iterator t = k->times.begin(); t != k->times.end(); ++t)
if ((t->startzeit <= zeit) && (zeit <= (long)(t->startzeit+t->dauer))) {
close(fd);
return SIevent(*k);
}
}
else {
delete[] buf;
}
} while (time(NULL) < szeit + (long)timeoutInSeconds);
close(fd);
return evt;
}
void SIevents::removeOldEvents(long seconds)
{
time_t current_time = time(NULL);
for(SIevents::iterator it = begin(); it != end(); )
{
// "it->times.erase(kt);":
// passing `const SItimes' as `this' argument of `void set<SItime,less<SItime>,allocator<SItime> >::erase(_Rb_tree_iterator<SItime,const SItime &,const SItime *>)' discards qualifiers
// hence we have to modify a copy
SIevent copy_of_event(*it);
bool copy_has_changed = false;
for (SItimes::iterator jt = copy_of_event.times.begin(); jt != copy_of_event.times.end(); )
{
if ((jt->startzeit) + (int)(jt->dauer) < current_time - seconds)
{
copy_of_event.times.erase(jt++);
copy_has_changed = true;
}
else
++jt;
}
if (copy_has_changed)
{
erase(it++);
// Set has the important property that inserting a new element into a set does not
// invalidate iterators that point to existing elements.
if (copy_of_event.times.size() != 0)
#ifdef DEBUG
assert((++insert(it, copy_of_event)) == it);
#else
insert(it, copy_of_event); // it is the hint where to insert (I hope that doesn't invalidate it)
// insert(copy_of_event); // alternative method without hint
#endif
}
else
++it;
}
}
// Entfernt anhand der Services alle time shifted events (ohne Text,
// mit service-id welcher im nvod steht)
// und sortiert deren Zeiten in die Events mit dem Text ein.
void SIevents::mergeAndRemoveTimeShiftedEvents(const SIservices &services)
{
// Wir gehen alle services durch, suchen uns die services mit nvods raus
// und fuegen dann die Zeiten der Events mit der service-id eines nvods
// in das entsprechende Event mit der service-id das die nvods hat ein.
// die 'nvod-events' werden auch geloescht
// SIevents eventsToDelete; // Hier rein kommen Events die geloescht werden sollen
for(SIservices::iterator k=services.begin(); k!=services.end(); ++k)
if(k->nvods.size()) {
// NVOD-Referenzen gefunden
// Zuerst mal das Event mit dem Text holen
iterator e;
for(e=begin(); e!=end(); ++e)
if(e->service_id == k->service_id)
break;
if(e!=end()) {
// *e == event mit dem Text
SIevent newEvent(*e); // Kopie des Events
// Jetzt die nvods druchgehen und deren Uhrzeiten in obiges Event einfuegen
for(SInvodReferences::iterator n=k->nvods.begin(); n!=k->nvods.end(); ++n) {
// Alle druchgehen und deren Events suchen
for(iterator en=begin(); en!=end(); en++) {
if(en->service_id==n->getServiceID()) {
newEvent.times.insert(en->times.begin(), en->times.end());
// newEvent.times.insert(SItime(en->startzeit, en->dauer));
// eventsToDelete.insert(SIevent(*en));
}
}
}
erase(e); // Altes Event loeschen -> iterator (e) ung<6E>ltig
insert(newEvent); // und das erweiterte Event wieder einfuegen
}
}
//
// delete all events with serviceID that have a service type 0
//
for (iterator it = begin(); it != end(); )
{
SIservices::iterator s = services.find(SIservice(it->service_id, it->original_network_id, it->transport_stream_id));
if ((s != services.end()) && (s->serviceTyp == 0))
{
// Set is a Sorted Associative Container
// Erasing an element from a set also does not invalidate any iterators,
// except, of course, for iterators that actually point to the element
// that is being erased.
erase(it++);
}
else
++it;
}
}
#endif

View File

@@ -407,11 +407,6 @@ public:
int saveXML(FILE *file, const char *serviceName) const; // saves the event
void dump(void) const; // dumps the event to stdout
void dumpSmall(void) const; // dumps the event to stdout (not all information)
#ifndef DO_NOT_INCLUDE_STUFF_NOT_NEEDED_FOR_SECTIONSD
// Liefert das aktuelle EPG des senders mit der uebergebenen serviceID,
// bei Fehler ist die serviceID des zurueckgelieferten Events 0
static SIevent readActualEvent(t_service_id serviceID, unsigned timeoutInSeconds=2);
#endif
char getFSK() const;
protected:
int saveXML0(FILE *f) const;

View File

@@ -1316,321 +1316,3 @@ void SIsectionNIT::parse(void)
parsed = 1;
}
#endif
#ifndef DO_NOT_INCLUDE_STUFF_NOT_NEEDED_FOR_SECTIONSD
// Liest n Bytes aus einem Socket per read
// Liefert 0 bei timeout
// und -1 bei Fehler
// ansonsten die Anzahl gelesener Bytes
inline int readNbytes(int fd, char *buf, int n, unsigned timeoutInSeconds)
{
int j;
for(j=0; j<n;) {
struct pollfd ufds;
// memset(&ufds, 0, sizeof(ufds));
ufds.fd=fd;
ufds.events=POLLIN|POLLPRI;
ufds.revents=0;
int rc=poll(&ufds, 1, timeoutInSeconds*1000);
if(!rc)
return 0; // timeout
else if(rc<0) {
perror ("poll");
return -1;
}
int r=read (fd, buf, n-j);
if(r<=0) {
perror ("read");
return -1;
}
j+=r;
buf+=r;
}
return j;
}
//
// Beachtung der Stuffing tables (ST) fehlt noch
//
int SIsections :: readSections(const unsigned short pid, const unsigned char filter, const unsigned char mask, int readNext, unsigned timeoutInSeconds)
{
int fd;
struct SI_section_header header;
uint64_t firstKey=(uint64_t)-1;
SIsections missingSections;
char *buf;
unsigned short section_length;
if ((fd = open(DEMUX_DEVICE, O_RDWR)) == -1) {
perror(DEMUX_DEVICE);
return 1;
}
if (!setfilter(fd, pid, filter, mask, DMX_IMMEDIATE_START | DMX_CHECK_CRC)) {
close(fd);
return 2;
}
time_t szeit = time(NULL);
// Erstes Segment lesen
do {
if (time(NULL) > szeit + (long)timeoutInSeconds) {
close(fd);
return 0; // timeout -> kein EPG
}
int rc = readNbytes(fd, (char *)&header, sizeof(header), timeoutInSeconds);
if(!rc) {
close(fd);
return 0; // timeout -> kein EPG
}
else if(rc<0) {
close(fd);
//perror ("read header");
return 3;
}
section_length = (header.section_length_hi << 8) | header.section_length_lo;
buf = new char[sizeof(header) + section_length - 5];
if (!buf) {
close(fd);
fprintf(stderr, "Not enough memory!\n");
return 4;
}
// Den Header kopieren
memmove(buf, &header, sizeof(header));
rc = readNbytes(fd, &buf[sizeof(header)], section_length - 5, timeoutInSeconds);
if (!rc) {
close(fd);
delete[] buf;
return 0; // timeout -> kein EPG
}
else if (rc<0) {
close(fd);
//perror ("read section");
delete[] buf;
return 5;
}
if ((readNext) || (header.current_next_indicator)) {
// Wir wollen nur aktuelle sections
insert(SIsection(sizeof(header) + section_length - 5, buf));
firstKey = SIsection::key(&header);
// Sonderfall: Nur eine Section
// d.h. wir sind fertig
if ((!header.section_number) && (!header.last_section_number)) {
close(fd);
return 0;
}
}
else {
delete[] buf;
}
} while (firstKey == (uint64_t) -1);
// Die restlichen Segmente lesen
szeit = time(NULL);
for (;;) {
if (time(NULL) > szeit + (long)timeoutInSeconds)
break; // timeout
int rc = readNbytes(fd, (char *)&header, sizeof(header), timeoutInSeconds);
if(!rc)
break; // timeout
else if(rc<0) {
close(fd);
//perror ("read header");
return 6;
}
if (firstKey==SIsection::key(&header))
// Wir haben die 1. section wieder gefunden
break;
section_length = (header.section_length_hi << 8) | header.section_length_lo;
buf = new char[sizeof(header) + section_length - 5];
if (!buf) {
close(fd);
fprintf(stderr, "Not enough memory!\n");
return 7;
}
// Den Header kopieren (evtl. malloc und realloc nehmen)
memmove(buf, &header, sizeof(header));
// den Rest der Section einlesen
rc = readNbytes(fd, &buf[sizeof(header)], section_length - 5, timeoutInSeconds);
if (!rc) {
delete[] buf;
break; // timeout
}
else if (rc < 0) {
close(fd);
delete[] buf;
//perror ("read section");
return 8;
}
if ((readNext) || (header.current_next_indicator))
insert(SIsection(sizeof(header) + section_length - 5, buf));
else
delete[] buf;
}
close(fd);
#ifdef DEBUG
// Die Sections ausgeben
printf("----------------Found sections-----------------------\n");
// for_each(begin(), end(), printSIsection());
for_each(begin(), end(), printSIsectionEIT());
printf("-----------------------------------------------------\n");
#endif // DEBUG
// Jetzt erstellen wir eine Liste der fehlenden Sections
unsigned short actualTableIDextension = (unsigned short) -1;
unsigned char actualTableID = (unsigned char) -1;
unsigned char maxNr = 0;
unsigned char lastNr = 0;
for (SIsections::iterator k = begin(); k != end(); k++) {
if ((k->tableIDextension() != actualTableIDextension) || (k->tableID() != actualTableID)) {
// Neue Table-ID-Extension
maxNr = k->lastSectionNumber();
actualTableIDextension = k->tableIDextension();
actualTableID = k->tableID();
}
else if (k->sectionNumber() != (unsigned char)(lastNr + 1)) {
// Es fehlen Sections
for (unsigned l = lastNr + 1; l < k->sectionNumber(); l++) {
//printf("Debug: t: 0x%02x s: %u nr: %u last: %u max: %u l: %u\n", actualTableID, actualTableIDextension, k->sectionNumber(), lastNr, maxNr, l);
struct SI_section_header h;
memmove(&h, k->header(), sizeof(struct SI_section_header));
h.section_number = l;
missingSections.insert(SIsection(&h));
}
}
lastNr = k->sectionNumber();
}
#ifdef DEBUG
printf("Sections read: %d\n\n", size());
#endif // DEBUG
if (!missingSections.size())
return 0;
#ifdef DEBUG
printf("----------------Missing sections---------------------\n");
for_each(missingSections.begin(), missingSections.end(), printSmallSIsectionHeader());
printf("-----------------------------------------------------\n");
printf("Sections read: %d\n\n", size());
printf("Sections misssing: %d\n", missingSections.size());
printf("Searching missing sections\n");
#endif // DEBUG
szeit = time(NULL);
if ((fd = open(DEMUX_DEVICE, O_RDWR)) == -1) {
perror(DEMUX_DEVICE);
return 9;
}
if (!setfilter(fd, pid, filter, mask, DMX_IMMEDIATE_START | DMX_CHECK_CRC)) {
close(fd);
return 10;
}
// Jetzt lesen wir die fehlenden Sections ein
for(;;) {
if (time(NULL) > szeit + (long)timeoutInSeconds)
break; // Timeout
int rc = readNbytes(fd, (char *)&header, sizeof(header), timeoutInSeconds);
if(!rc)
break; // timeout
else if (rc < 0) {
close(fd);
//perror ("read header");
return 11;
}
section_length = (header.section_length_hi << 8) | header.section_length_lo;
buf = new char[sizeof(header) + section_length - 5];
if (!buf) {
close(fd);
fprintf(stderr, "Not enough memory!\n");
return 12;
}
// Den Header kopieren (evtl. malloc und realloc nehmen)
memmove(buf, &header, sizeof(header));
// den Rest der Section einlesen
rc = readNbytes(fd, &buf[sizeof(header)], section_length - 5, timeoutInSeconds);
if (!rc) {
delete[] buf;
break; // timeout
}
else if (rc < 0) {
close(fd);
delete[] buf;
//perror ("read section");
return 13;
}
if (missingSections.find(SIsection(&header)) != missingSections.end()) {
#ifdef DEBUG
printf("Find missing section:");
SIsection::dumpSmallSectionHeader(&header);
#endif // DEBUG
// War bisher vermisst
// In die Menge einfuegen
insert(SIsection(sizeof(header) + section_length - 5, buf));
// Und aus der vermissten Menge entfernen
missingSections.erase(SIsection(&header));
#ifdef DEBUG
printf("Sections misssing: %d\n", missingSections.size());
#endif // DEBUG
}
else {
// Puffer wieder loeschen
delete[] buf;
}
}
close(fd);
return 0;
}
#endif

View File

@@ -651,78 +651,6 @@ protected:
};
#endif
#ifndef DO_NOT_INCLUDE_STUFF_NOT_NEEDED_FOR_SECTIONSD
// Fuer for_each
struct printSIsectionEIT : public std::unary_function<SIsectionEIT, void>
{
void operator() (const SIsectionEIT &s) { s.dump();}
};
#ifdef ENABLE_PPT
// Fuer for_each
struct printSIsectionPPT : public std::unary_function<SIsectionPPT, void>
{
void operator() (const SIsectionPPT &s) { s.dump();}
};
#endif
/*
// Fuer for_each
struct parseSIsectionEIT : public std::unary_function<SIsectionEIT, void>
{
void operator() (const SIsectionEIT &s) { s.parse();}
};
*/
// Menge aller present/following EITs (actual TS)
class SIsectionsEIT : public std::set <SIsectionEIT, std::less<SIsectionEIT> >
{
public:
int readSections(void) {
SIsections sections;
int rc=sections.readSections(0x12, 0x4e, 0xff);
for (SIsections::iterator k=sections.begin(); k!=sections.end(); k++)
insert(*k);
return rc;
}
};
#ifdef ENABLE_PPT
// Menge aller present/following PPTs (actual TS)
class SIsectionsPPT : public std::set <SIsectionPPT, std::less<SIsectionPPT> >
{
public:
int readSections(int pid) {
// int readSections(void) {
SIsections sections;
int rc=sections.readSections(pid, 0xa1, 0xfe);
for (SIsections::iterator k=sections.begin(); k!=sections.end(); k++)
insert(*k);
return rc;
}
};
#endif
// Menge aller schedule EITs (actual TS)
class SIsectionsEITschedule : public std::set <SIsectionEIT, std::less<SIsectionEIT> >
{
public:
int readSections(void) {
SIsections sections;
int rc=sections.readSections(0x12, 0x50, 0xf0);
for (SIsections::iterator k=sections.begin(); k!=sections.end(); k++)
insert(*k);
return rc;
}
};
#endif
class SIsectionSDT : public SIsection
{
public:
@@ -916,69 +844,5 @@ protected:
void copyDeliveryDescriptor(const char *buf, SInetwork &s);
};
#endif
#ifndef DO_NOT_INCLUDE_STUFF_NOT_NEEDED_FOR_SECTIONSD
// Fuer for_each
struct printSIsectionSDT : public std::unary_function<SIsectionSDT, void>
{
void operator() (const SIsectionSDT &s) { s.dump();}
};
// Menge aller SDTs (actual TS)
class SIsectionsSDT : public std::set <SIsectionSDT, std::less<SIsectionSDT> >
{
public:
int readSections(void) {
SIsections sections;
int rc=sections.readSections(0x11, 0x42, 0xff);
for (SIsections::iterator k=sections.begin(); k!=sections.end(); k++)
insert(*k);
return rc;
}
};
// Fuer for_each
struct printSIsectionBAT : public std::unary_function<SIsectionBAT, void>
{
void operator() (const SIsectionBAT &s) { s.dump();}
};
// Menge aller BATs
class SIsectionsBAT : public std::set <SIsectionBAT, std::less<SIsectionBAT> >
{
public:
int readSections(void) {
SIsections sections;
int rc=sections.readSections(0x11, 0x4a, 0xff);
for (SIsections::iterator k=sections.begin(); k!=sections.end(); k++)
insert(*k);
return rc;
}
};
// Fuer for_each
struct printSIsectionNIT : public std::unary_function<SIsectionNIT, void>
{
void operator() (const SIsectionNIT &s) { s.dump();}
};
// Menge aller NITs (actual network)
class SIsectionsNIT : public std::set <SIsectionNIT, std::less<SIsectionNIT> >
{
public:
int readSections(void) {
SIsections sections;
int rc=sections.readSections(0x10, 0x40, 0xff);
for (SIsections::iterator k=sections.begin(); k!=sections.end(); k++)
insert(*k);
return rc;
}
};
#endif
#endif // SISECTIONS_HPP

View File

@@ -41,28 +41,6 @@
#include "SIutils.hpp"
#include "debug.h"
#ifndef DO_NOT_INCLUDE_STUFF_NOT_NEEDED_FOR_SECTIONSD
bool setfilter(const int fd, const uint16_t pid, const uint8_t filter, const uint8_t mask, const uint32_t flags)
{
struct dmx_sct_filter_params flt;
memset(&flt, 0, sizeof(struct dmx_sct_filter_params));
flt.pid = pid;
flt.filter.filter[0] = filter;
flt.filter.mask [0] = mask;
flt.timeout = 0;
flt.flags = flags;
if (::ioctl(fd, DMX_SET_FILTER, &flt) == -1)
{
perror("[sectionsd] DMX: DMX_SET_FILTER");
return false;
}
return true;
}
#endif
struct SI_section_TOT_header
{
unsigned char table_id : 8;