vdr/libsi/descriptor.c
Klaus Schmidinger a26aae3ce8 Version 2.3.1
VDR developer version 2.3.1 is now available at

       ftp://ftp.tvdr.de/vdr/Developer/vdr-2.3.1.tar.bz2

A 'diff' against the previous version is available at

       ftp://ftp.tvdr.de/vdr/Developer/vdr-2.2.0-2.3.1.diff

MD5 checksums:

391c2ed60e2f7d24563fe3ed5854bc4f  vdr-2.3.1.tar.bz2
983fd4bad7d19cd98301d54173107129  vdr-2.2.0-2.3.1.diff

WARNING:
========

This is a *developer* version. Even though *I* use it in my productive
environment, I strongly recommend that you only use it under controlled
conditions and for testing and debugging.

*** PLEASE BE VERY CAREFUL WHEN USING THIS DEVELOPER VERSION, ESPECIALLY
*** IF YOU ENABLE THE NEW SVDRP PEERING! KEEP BACKUPS OF ALL YOUR TIMERS
*** AND OBSERVE VERY CLOSELY WHETHER EVERYTHING WORKS AS EXPECTED. THIS
*** VERSION INTRODUCES SOME MAJOR CHANGES IN HANDLING GLOBAL LISTS AND
*** LOCKING, SO ANYTHING CAN HAPPEN! YOU HAVE BEEN WARNED!

The main focus of this developer version is on the new locking mechanism
for global lists, and the ability to handle remote timers.
Any plugins that access the global lists of timers, channels, schedules
or recordings, will need to be adjusted (see below for details). Please
do initial tests with plain vanilla VDR and just the output plugin you
need.

Known bugs/problems:

- After deleting the last recording in a sub folder, the cursor may not
   be positioned correctly.
- Instant recordings and pausing live video don't (yet) use the default
   SVDRP host for recording.

From the HISTORY file:
 - The new function cOsd::MaxPixmapSize() can be called to determine the maximum size
  a cPixmap may have on the current OSD. The 'osddemo' example has been modified
  accordingly. Plugin authors may want to use this function in case they use pixmaps
  that are larger than the full OSD size. The default implementation sets this limit
  to 2048x2048 pixel.
- The Setup/CAM menu now displays which device an individual CAM is currently
  assigned to (suggested by Frank Neumann).
- Added detection of 24fps (thanks to Thomas Reufer).
- Added a note about the VDR User Counter and VDR's facebook page to the README file.
- The dvbhddevice plugin is no longer part of the VDR source archive.
  You can get the latest version of this plugin from the author's repository at
  https://bitbucket.org/powARman/dvbhddevice.
- The dvbsddevice and rcu plugins are no longer part of the VDR source archive.
  You can get the latest versions of these plugins from ftp://ftp.tvdr.de/vdr/Plugins.
- Added a section about Output Devices to the INSTALL file.
- Fixed setting the source value of newly created channels, in case the NIT is
  received from a different, but very close satellite position (reported by Daniel
  Ribeiro). The code for handling different NITs has been removed from nit.c, because
  according to the DVB standard table id 0x40 carries only the NIT of the actual
  network.
- Added some comment to cPixmap about the relation between OSD, ViewPort and DrawPort
  (suggested by Thomas Reufer).
- Improved syncing on sections when parsing the NIT and SDT.
- Fixed scaling subtitles (their areas could sometimes extend outside the actual OSD).
- Reduced the priority of the "video directory scanner" thread (suggested by Thomas
  Reufer) and checking cIoThrottle::Engaged() when it is running.
- The script that gets called for recordings is now also called right before a
  recording is edited, with the first parameter being "editing" (suggested by
  Dieter Ferdinand).
- The new setup option "OSD/Default sort mode for recordings" can be used to define
  how recordings shall be sorted by default (either by time or by name, with "by time"
  being the default). If a particular sort mode has been selected for a folder by
  pressing '0', the default no longer applies to that folder. Repeating timers no
  longer write a ".sort" file into a recordings folder to have the recordings sorted
  by time.
- The command line option -D now accepts the value '-' (as in -D-), which prevents
  VDR from using any DVB devices (suggested by Dietmar Spingler).
- The -V and -h options now list the plugins in alphabetical order (suggested by
  Dietmar Spingler).
- Fixed a compiler warning in font.c.
- Commented out the line
  #define DEPRECATED_VIDEOSYSTEM
  in device.h. If a plugin doesn't compile with this version of VDR, you can uncomment
  this line as a quick workaround. In the long run the plugin will need to be adapted.
- The function cOsd::GetBitmap() is now 'protected'. If a plugin doesn't compile with
  this version of VDR, you can uncomment the line
  //#define DEPRECATED_GETBITMAP
  in osd.h as a quick workaround. In the long run the plugin will need to be adapted.
- The -u option now also accepts a numerical user id (suggested by Derek Kelly).
- The SVDRP port now accepts multiple concurrent connections. You can now keep an
  SVDRP connection open as long as you wish, without preventing others from
  connecting. Note, though, that SVDRP connections still get closed automatically
  if there has been no activity for 300 seconds (configurable via
  "Setup/Miscellaneous/SVDRP timeout (s)").
- The SVDRP log messages have been unified and now always contain the IP and port
  number of the remote host.
- SVDRP connections are now handled in a separate "SVDRP server handler" thread,
  which makes them more responsive. Note that there is only one thread that handles
  all concurrent SVDRP connections. That way each SVDRP command is guaranteed to be
  processed separately, without interfering with any other SVDRP commands that might
  be issued at the same time. Plugins that implement SVDRP commands may need to take
  care of proper locking if the commands access global data.
- VDR now sends out a broadcast to port 6419/udp, which was assigned to 'svdrp-disc'
  by the IANA. VDRs listening on that port will automatically initiate an SVDRP
  connection to the broadcasting VDR, and in turn send out a broadcast to make
  other VDRs connect to them. That way all VDRs within the local network will
  have permanent "peer-to-peer" SVDRP connections between each other. The
  configuration in the svdrphosts.conf file is taken into account when considering
  whether or not to respond to an SVDRP discover broadcast.
- The new SVDRP command PING is used by automatically established peer-to-peer
  connections to keep them alive.
- The new function GetSVDRPServerNames() can be used to get a list of all VDRs
  this VDR is connected to via SVDRP.
- The new function ExecSVDRPCommand() can be used to execute an SVDRP command on
  one of the servers this VDR is connected to, and retrieve the result.
  The helper functions SVDRPCode() and SVDRPValue() can be used to easily access
  the codes and values returned by ExecSVDRPCommand().
- The cTimer class now has a new member named 'remote', which holds the name of the
  remote server this timer will record on. If this is NULL, it is a local timer.
- Timers from other VDRs that are connected to this VDR via SVDRP are now
  automatically fetched and stored in the global Timers list. In order for this
  to work, all of the channels used by timers on the remote VDR must also be
  defined on the local VDR (however, not necessarily in the same sequence).
  Automatic channel syncing will be implemented later.
- The main menu of the LCARS skin now displays a small rectangle on the left side
  of a timer if this is a remote timer. The color of that rectangle changes if
  the timer is currently recording on the remote VDR.
- Accessing the global Timers list now has to be protected by proper locking,
  because SVDRP commands are now executed in a separate thread.
  The introduction of this locking mechanism required the following changes:
  + The new classes cStateLock and cStateKey are used to implement locking
    with quick detection of state changes.
  + cConfig::cConfig() now has a parameter that indicates whether this list
    requires locking.
  + The global lists of Timers, Channels, Schedules and Recordings are no longer
    static variables. They are now pointers that need to be retrieved through
    a call to cTimers::GetTimersRead/Write(), cChannels::GetChannelsRead/Write(),
    cSchedules::GetSchedulesRead/Write() and cRecordings::GetRecordingsRead/Write(),
    respectively.
  + References from/to link channels are now removed in cChannels::Del() rather
    than cChannel::~cChannel(), to make sure the caller holds a proper lock.
  + cChannel::HasTimer() has been removed. This information is now retrieved
    via cSchedule::HasTimer().
  + Several member functions of cChannel, cTimer, cMarks and cRecording have
    been made 'const', and some of them are now available as both 'const' and
    'non-const' versions.
  + The cChannel::Set...() functions are now 'bool' and return true if they have
    actually changed any of the channels's members.
  + cChannels::SetModified() has been renamed to cChannels::SetModifiedByUser().
  + cChannels::Modified() has been renamed to cChannels::ModifiedByUser(), and
    now has a 'State' parameter that allows the caller to see whether a channel
    has been modified since the last call to this function with the same State
    variable.
  + The macros CHANNELSMOD_NONE/_AUTO/_USER have been removed.
  + cMarks now requires locking via cStateKey.
  + cSortedTimers now requires a pointer to the list of timers.
  + cEvent::HasTimer() no longer scans the list of timers to check whether an event
    is referenced by a timer, but rather keeps score of how many timers reference
    it. This was necessary in order to avoid having to lock the list of timers from
    within a cEvent.
  + The new class cListGarbageCollector is used to temporary store any objects deleted
    from cLists that require locking. This allows pointers to such objects to be
    dereferenced even if the objects are no longer part of the list.
  + cListBase::Contains() can be used to check whether a particular object is still
    contained in that list.
  + Outdated events are no longer "phased out", but rather deleted right away and thus
    taken care of by the new "garbage collector" of the list.
  + Deleted cRecording objects are no longer kept in a list of "vanished" recordings,
    but are rather taken care of by the new "garbage collector" of the list.
  + cSchedules::ClearAll() has been removed. The functionality is now implemented
    directly in cSVDRPServer::CmdCLRE().
  + tEventID has been changed to u_int16_t in order to make room for the new member
    numTimers in cEvent.
  + cSchedule now has a member Modified(), which can be used with a State variable
    to quickly determine whether this schedule has been modified since the last call
    to this function with the same State variable.
  + cSchedulesLock has been removed. Locking the list of schedules is now done via
    the cList's new locking mechanism.
  + The 'OnlyRunningStatus' parameters in cEpgHandler::BeginSegmentTransfer() and
    cEpgHandler::EndSegmentTransfer() are now obsolete. They are still present in
    the interface for backward compatibility, but may be removed in a future version.
    Their value is always 'false'.
  + The constant tcMod is no longer used in cStatus::TimerChange(). The definition is
    still there for backward compatibility.
  Plugins that access the global lists of Timers, Channels, Recordings or Schedules
  will need to be adapted as follows:
  + Instead of directly accessing the global variables Timers, Channels or Recordings,
    they need to set up a cStateKey variable and call the proper getter function,
    as in
      cStateKey StateKey;
      if (const cTimers *Timers = cTimers::GetTimersRead(StateKey)) {
         // access the timers
         StateKey.Remove();
         }
    and
      cStateKey StateKey;
      if (cTimers *Timers = cTimers::GetTimersWrite(StateKey)) {
         // access the timers
         StateKey.Remove();
         }
    See timers.h, thread.h and tools.h for details on this new locking mechanism.
  + There are convenience macros for easily accessing these lists without having
    to explicitly set up a cStateKey and calling its Remove() function. These macros
    have the form LOCK_*_READ/WRITE (with '*' being TIMERS, CHANNELS, SCHEDULES or
    RECORDINGS). Simply put such a macro before the point where you need to access
    the respective list, and there will be a pointer named Timers, Channels, Schedules
    or Recordings, respectively, which is valid until the end of the current block.
  + If a plugin needs to access several of the global lists in parallel, locking must
    always be done in the sequence Timers, Channels, Recordings, Schedules. This is
    necessary to make sure that different threads that need to lock several lists at
    the same time don't end up in a deadlock.
  + Some pointer variables may need to be made 'const'. The compiler will tell you
    about these.
- cSectionSyncer has been improved to better handle missed sections.
- Added a missing initialization of 'seen' in cChannel's copy constructor.
- Background modifications of channels, timers and events are now displayed immediately
  in the corresponding menus.
- cEIT now checks the version of the tables before doing any processing, which saves
  a lot of locking and processing.
- If a timer is newly created with the Red button in the Schedule menu, and the timer
  is presented to the user in the "Edit timer" menu because it will start immediately,
  it now *must* be confirmed with "Ok" to set the timer. Otherwise the timer will not
  be created.
- Recordings and deleted recordings are now scanned in a single thread.
- The new SVDRP command POLL is used by automatically established peer-to-peer
  connections to trigger fetching remote timers.
- You can now set DumpSVDRPDataTransfer in svdrp.c to true to have all SVDRP
  communication printed to the console for debugging.
- Added a missing 'const' to cReceiver::Receive(), to protect the given Data from
  being modified.
- The SVDRP commands that deal with timers (DELT, LSTT, MODT, NEWT, NEXT and UPDT)
  as well as any log messages that refer to timers, now use a unique id for each
  timer, which remains valid as long as this instance of VDR is running. This means
  that timers are no longer continuously numbered from 1 to N in LSTT. There may be
  gaps in the sequence, in case timers have been deleted.
- The Timers menu now displays the name of the remote VDR in front of the timer's
  file name, if this is a remote timer.
- The new options "Setup/Miscellaneous/SVDRP peering", ".../SVDRP host name" and
  ".../SVDRP default host" can be used to configure automatic peering between VDRs
  in the same network. Peering is disabled by default and can be enabled by setting
  "SVDRP peering" to "yes".
- The function cTimer::ToText() no longer returns a newline character at the end of
  the string. The newline is now added by the caller as necessary. This was changed
  because cTimer::ToText() is now also needed in a context where the terminating
  newline can't be used. Consequently, cChannel::ToText() and cMark::ToText() have
  been modified accordingly.
- All timer related response strings from SVDRP commands now use the channel ID
  instead of channel numbers.
- The "Edit timer" menu now has a new parameter "Record on", which can be used to
  select the VDR on which this timer shall record. Timers can be freely moved
  between connected VDRs by simply selecting the desired machine in this field.
- The SVDRP command DELT no longer checks whether the timer that shall be deleted
  is currently recording.
- The character 0x0D is now stripped from EPG texts (reported by Janne Pänkälä).
- The EPG scanner no longer moves the dish if there is a positioner.
- The 'newplugin' script now creates the 'po' subdirectory for translations (thanks
  to Thomas Reufer).
- Skins can now implement cSkinDisplayMenu::MenuOrientation() to display horizontal
  menus (thanks to Stefan Braun).
- Fixed a possible stack overflow in cListBase::Sort() (thanks to Oliver Endriss).
- Changed the description of the --chartab option in the INSTALL file to refer to
  "DVB SI table strings" instead of "EPG data".
- The width and height of the OSD are now limited to the actual maximum dimensions
  of the output device, taking into account the top and left offset.
- The new setup option "Recording/Record key handling" can be used to define
  what happens if the Record key on the remote control is pressed during
  live tv (suggested by Dietmar Spingler).
- Empty adaptation field TS packets are now skipped when recording (thanks to
  Christopher Reimer, based on the "AFFcleaner" by Stefan Pöschel).
2015-09-18 00:04:12 +02:00

1246 lines
38 KiB
C

/***************************************************************************
* Copyright (c) 2003 by Marcel Wiesweg *
* *
* This program is free software; you can redistribute it and/or modify *
* it under the terms of the GNU General Public License as published by *
* the Free Software Foundation; either version 2 of the License, or *
* (at your option) any later version. *
* *
* $Id: descriptor.c 4.0 2013/10/30 10:16:18 kls Exp $
* *
***************************************************************************/
#include <string.h>
#include "descriptor.h"
namespace SI {
void ShortEventDescriptor::Parse() {
int offset=0;
const descr_short_event *s;
data.setPointerAndOffset<const descr_short_event>(s, offset);
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
name.setDataAndOffset(data+offset, s->event_name_length, offset);
const descr_short_event_mid *mid;
data.setPointerAndOffset<const descr_short_event_mid>(mid, offset);
text.setData(data+offset, mid->text_length);
}
int ExtendedEventDescriptor::getDescriptorNumber() {
return s->descriptor_number;
}
int ExtendedEventDescriptor::getLastDescriptorNumber() {
return s->last_descriptor_number;
}
void ExtendedEventDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_extended_event>(s, offset);
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
itemLoop.setDataAndOffset(data+offset, s->length_of_items, offset);
const descr_extended_event_mid *mid;
data.setPointerAndOffset<const descr_extended_event_mid>(mid, offset);
text.setData(data+offset, mid->text_length);
}
void ExtendedEventDescriptor::Item::Parse() {
int offset=0;
const item_extended_event *first;
data.setPointerAndOffset<const item_extended_event>(first, offset);
itemDescription.setDataAndOffset(data+offset, first->item_description_length, offset);
const item_extended_event_mid *mid;
data.setPointerAndOffset<const item_extended_event_mid>(mid, offset);
item.setData(data+offset, mid->item_length);
}
/*int ExtendedEventDescriptors::getTextLength() {
int ret=0;
for (int i=0;i<length;i++) {
ExtendedEventDescriptor *d=(ExtendedEventDescriptor *)array[i];
if (!d)
continue;
ret+=d->text.getLength();
ExtendedEventDescriptor::Item item;
for (Loop::Iterator it; d->itemLoop.hasNext(it); ) {
item=d->itemLoop.getNext(it);
ret+=item.item.getLength();
ret+=item.itemDescription.getLength();
ret+=2; //the blanks
}
}
return ret;
}*/
int ExtendedEventDescriptors::getMaximumTextLength(const char *separation1, const char *separation2) {
//add length of plain text, of itemized text with separators, and for one separator between the two fields.
return getMaximumTextPlainLength()+getMaximumTextItemizedLength(separation1, separation2)+strlen(separation2);
}
char *ExtendedEventDescriptors::getText(const char *separation1, const char *separation2) {
int size = getMaximumTextLength(separation1, separation2);
char *text=new char[size];
return getText(text, size, separation1, separation2);
}
char *ExtendedEventDescriptors::getText(char *buffer, int size, const char *separation1, const char *separation2) {
int index=0, len;
for (int i=0;i<length;i++) {
ExtendedEventDescriptor *d=(ExtendedEventDescriptor *)array[i];
if (!d)
continue;
d->text.getText(buffer+index, size);
len = strlen(buffer+index);
index += len;
size -= len;
}
int sepLen1 = strlen(separation1);
int sepLen2 = strlen(separation2);
bool separated = false;
for (int i=0;i<length;i++) {
ExtendedEventDescriptor *d=(ExtendedEventDescriptor *)array[i];
if (!d)
continue;
ExtendedEventDescriptor::Item item;
for (Loop::Iterator it; d->itemLoop.getNext(item, it); ) {
if (!separated && size > sepLen2) {
strcpy(buffer+index, separation2); // let's have a separator between the long text and the items
index += sepLen2;
size -= sepLen2;
separated = true;
}
item.itemDescription.getText(buffer+index, size);
len = strlen(buffer+index);
index += len;
size -= len;
if (size > sepLen1) {
strcpy(buffer+index, separation1);
index += sepLen1;
size -= sepLen1;
}
item.item.getText(buffer+index, size);
len = strlen(buffer+index);
index += len;
size -= len;
if (size > sepLen2) {
strcpy(buffer+index, separation2);
index += sepLen2;
size -= sepLen2;
}
}
}
buffer[index]='\0';
return buffer;
}
int ExtendedEventDescriptors::getMaximumTextPlainLength() {
int ret=0;
for (int i=0;i<length;i++) {
ExtendedEventDescriptor *d=(ExtendedEventDescriptor *)array[i];
if (!d)
continue;
ret+=d->text.getLength();
}
return ret;
}
char *ExtendedEventDescriptors::getTextPlain() {
int size = getMaximumTextPlainLength();
char *text=new char[size];
return getTextPlain(text, size);
}
char *ExtendedEventDescriptors::getTextPlain(char *buffer, int size) {
int index=0, len;
for (int i=0;i<length;i++) {
ExtendedEventDescriptor *d=(ExtendedEventDescriptor *)array[i];
if (!d)
continue;
d->text.getText(buffer+index, size);
len = strlen(buffer+index);
index += len;
size -= len;
}
buffer[index]='\0';
return buffer;
}
int ExtendedEventDescriptors::getMaximumTextItemizedLength(const char *separation1, const char *separation2) {
int ret=0;
int sepLength=strlen(separation1)+strlen(separation2);
for (int i=0;i<length;i++) {
ExtendedEventDescriptor *d=(ExtendedEventDescriptor *)array[i];
if (!d)
continue;
//The length includes two 8-bit length fields which have already been subtracted from sepLength //XXX kls 2004-06-06: what does this mean???
ret+=d->itemLoop.getLength()+sepLength;
}
return ret;
}
char *ExtendedEventDescriptors::getTextItemized(const char *separation1, const char *separation2) {
int size = getMaximumTextItemizedLength(separation1, separation2);
char *text=new char[size];
return getTextItemized(text, size, separation1, separation2);
}
char *ExtendedEventDescriptors::getTextItemized(char *buffer, int size, const char *separation1, const char *separation2) {
int index=0, len;
int sepLen1 = strlen(separation1);
int sepLen2 = strlen(separation2);
for (int i=0;i<length;i++) {
ExtendedEventDescriptor *d=(ExtendedEventDescriptor *)array[i];
if (!d)
continue;
ExtendedEventDescriptor::Item item;
for (Loop::Iterator it; d->itemLoop.getNext(item, it); ) {
item.itemDescription.getText(buffer+index, size);
len = strlen(buffer+index);
index += len;
size -= len;
if (size > sepLen1) {
strcpy(buffer+index, separation1);
index += sepLen1;
size -= sepLen1;
}
item.item.getText(buffer+index, size);
len = strlen(buffer+index);
index += len;
size -= len;
if (size > sepLen2) {
strcpy(buffer+index, separation2);
index += sepLen2;
size -= sepLen2;
}
}
}
buffer[index]='\0';
return buffer;
}
//returns the itemized text pair by pair. Maximum length for buffers is 256.
//Return value is false if and only if the end of the list is reached.
bool ExtendedEventDescriptors::getTextItemized(Loop::Iterator &it, bool &valid, char *itemDescription, char *itemText, int sizeItemDescription, int sizeItemText) {
//The iterator has to store two values: The descriptor index (4bit)
//and the item loop index (max overall length 256, min item length 16 => max number 128 => 7bit)
valid=false;
int index=(it.i & 0x780) >> 7; // 0x780 == 1111 000 0000
it.i &= 0x7F; //0x7F == 111 1111
for (;index<length;index++) {
ExtendedEventDescriptor *d=(ExtendedEventDescriptor *)array[index];
if (!d)
continue;
ExtendedEventDescriptor::Item item;
if (d->itemLoop.getNext(item, it)) {
item.item.getText(itemDescription, sizeItemDescription);
item.itemDescription.getText(itemText, sizeItemText);
valid=true;
break;
} else {
it.reset();
continue;
}
}
it.i &= 0x7F;
it.i |= (index & 0xF) << 7; //0xF == 1111
return index<length;
}
int TimeShiftedEventDescriptor::getReferenceServiceId() const {
return HILO(s->reference_service_id);
}
int TimeShiftedEventDescriptor::getReferenceEventId() const {
return HILO(s->reference_event_id);
}
void TimeShiftedEventDescriptor::Parse() {
s=data.getData<const descr_time_shifted_event>();
}
void ContentDescriptor::Parse() {
//this descriptor is only a header and a loop
nibbleLoop.setData(data+sizeof(descr_content), getLength()-sizeof(descr_content));
}
int ContentDescriptor::Nibble::getContentNibbleLevel1() const {
return s->content_nibble_level_1;
}
int ContentDescriptor::Nibble::getContentNibbleLevel2() const {
return s->content_nibble_level_2;
}
int ContentDescriptor::Nibble::getUserNibble1() const {
return s->user_nibble_1;
}
int ContentDescriptor::Nibble::getUserNibble2() const {
return s->user_nibble_2;
}
void ContentDescriptor::Nibble::Parse() {
s=data.getData<const nibble_content>();
}
void ParentalRatingDescriptor::Parse() {
//this descriptor is only a header and a loop
ratingLoop.setData(data+sizeof(descr_parental_rating), getLength()-sizeof(descr_parental_rating));
}
int ParentalRatingDescriptor::Rating::getRating() const {
return s->rating;
}
void ParentalRatingDescriptor::Rating::Parse() {
s=data.getData<const parental_rating>();
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
}
void TeletextDescriptor::Parse() {
//this descriptor is only a header and a loop
teletextLoop.setData(data+sizeof(descr_teletext), getLength()-sizeof(descr_teletext));
}
void TeletextDescriptor::Teletext::Parse() {
s=data.getData<const item_teletext>();
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
}
int TeletextDescriptor::Teletext::getTeletextType() const {
return s->type;
}
int TeletextDescriptor::Teletext::getTeletextMagazineNumber() const {
return s->magazine_number;
}
int TeletextDescriptor::Teletext::getTeletextPageNumber() const {
return s->page_number;
}
int CaDescriptor::getCaType() const {
return HILO(s->CA_type);
}
int CaDescriptor::getCaPid() const {
return HILO(s->CA_PID);
}
void CaDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_ca>(s, offset);
if (checkSize(getLength()-offset))
privateData.assign(data.getData(offset), getLength()-offset);
}
int StreamIdentifierDescriptor::getComponentTag() const {
return s->component_tag;
}
void StreamIdentifierDescriptor::Parse() {
s=data.getData<const descr_stream_identifier>();
}
void NetworkNameDescriptor::Parse() {
name.setData(data+sizeof(descr_network_name), getLength()-sizeof(descr_network_name));
}
void CaIdentifierDescriptor::Parse() {
identifiers.setData(data+sizeof(descr_ca_identifier), getLength()-sizeof(descr_ca_identifier));
}
int CarouselIdentifierDescriptor::getCarouselId() const {
return (HILO(s->carousel_id_hi) << 16) | HILO(s->carousel_id_lo);
}
int CarouselIdentifierDescriptor::getFormatId() const {
return s->FormatId;
}
void CarouselIdentifierDescriptor::Parse() {
s=data.getData<const descr_carousel_identifier>();
}
void ServiceListDescriptor::Parse() {
serviceLoop.setData(data+sizeof(descr_service_list), getLength()-sizeof(descr_service_list));
}
int ServiceListDescriptor::Service::getServiceId() const {
return HILO(s->service_id);
}
int ServiceListDescriptor::Service::getServiceType() const {
return s->service_type;
}
void ServiceListDescriptor::Service::Parse() {
s=data.getData<const descr_service_list_loop>();
}
int SatelliteDeliverySystemDescriptor::getFrequency() const {
return (HILO(s->frequency_hi) << 16) | HILO(s->frequency_lo);
}
int SatelliteDeliverySystemDescriptor::getOrbitalPosition() const {
return HILO(s->orbital_position);
}
int SatelliteDeliverySystemDescriptor::getWestEastFlag() const {
return s->west_east_flag;
}
int SatelliteDeliverySystemDescriptor::getPolarization() const {
return s->polarization;
}
int SatelliteDeliverySystemDescriptor::getModulationSystem() const {
return s->modulation_system;
}
int SatelliteDeliverySystemDescriptor::getModulationType() const {
return s->modulation_type;
}
int SatelliteDeliverySystemDescriptor::getRollOff() const {
return s->roll_off;
}
int SatelliteDeliverySystemDescriptor::getSymbolRate() const {
return (HILO(s->symbol_rate_hi) << 12) | (s->symbol_rate_lo_1 << 4) | s->symbol_rate_lo_2;
}
int SatelliteDeliverySystemDescriptor::getFecInner() const {
return s->fec_inner;
}
void SatelliteDeliverySystemDescriptor::Parse() {
s=data.getData<const descr_satellite_delivery_system>();
}
int CableDeliverySystemDescriptor::getFrequency() const {
return (HILO(s->frequency_hi) << 16) | HILO(s->frequency_lo);
}
int CableDeliverySystemDescriptor::getFecOuter() const {
return s->fec_outer;
}
int CableDeliverySystemDescriptor::getModulation() const {
return s->modulation;
}
int CableDeliverySystemDescriptor::getSymbolRate() const {
return (HILO(s->symbol_rate_hi) << 12) | (s->symbol_rate_lo_1 << 4) | s->symbol_rate_lo_2;
}
int CableDeliverySystemDescriptor::getFecInner() const {
return s->fec_inner;
}
void CableDeliverySystemDescriptor::Parse() {
s=data.getData<const descr_cable_delivery_system>();
}
int TerrestrialDeliverySystemDescriptor::getFrequency() const {
return (HILO(s->frequency_hi) << 16) | HILO(s->frequency_lo);
}
int TerrestrialDeliverySystemDescriptor::getPriority() const {
return s->priority;
}
int TerrestrialDeliverySystemDescriptor::getTimeSlicingIndicator() const {
return s->time_slicing_indicator;
}
int TerrestrialDeliverySystemDescriptor::getMpeFecIndicator() const {
return s->mpe_fec_indicator;
}
int TerrestrialDeliverySystemDescriptor::getBandwidth() const {
return s->bandwidth;
}
int TerrestrialDeliverySystemDescriptor::getConstellation() const {
return s->constellation;
}
int TerrestrialDeliverySystemDescriptor::getHierarchy() const {
return s->hierarchy;
}
int TerrestrialDeliverySystemDescriptor::getCodeRateHP() const {
return s->code_rate_HP;
}
int TerrestrialDeliverySystemDescriptor::getCodeRateLP() const {
return s->code_rate_LP;
}
int TerrestrialDeliverySystemDescriptor::getGuardInterval() const {
return s->guard_interval;
}
int TerrestrialDeliverySystemDescriptor::getTransmissionMode() const {
return s->transmission_mode;
}
bool TerrestrialDeliverySystemDescriptor::getOtherFrequency() const {
return s->other_frequency_flag;
}
void TerrestrialDeliverySystemDescriptor::Parse() {
s=data.getData<const descr_terrestrial_delivery>();
}
int ServiceDescriptor::getServiceType() const {
return s->service_type;
}
void ServiceDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_service>(s, offset);
providerName.setDataAndOffset(data+offset, s->provider_name_length, offset);
const descr_service_mid *mid;
data.setPointerAndOffset<const descr_service_mid>(mid, offset);
serviceName.setData(data+offset, mid->service_name_length);
}
void NVODReferenceDescriptor::Parse() {
serviceLoop.setData(data+sizeof(descr_nvod_reference), getLength()-sizeof(descr_nvod_reference));
}
int NVODReferenceDescriptor::Service::getTransportStream() const {
return HILO(s->transport_stream_id);
}
int NVODReferenceDescriptor::Service::getOriginalNetworkId() const {
return HILO(s->original_network_id);
}
int NVODReferenceDescriptor::Service::getServiceId() const {
return HILO(s->service_id);
}
void NVODReferenceDescriptor::Service::Parse() {
s=data.getData<const item_nvod_reference>();
}
int TimeShiftedServiceDescriptor::getReferenceServiceId() const {
return HILO(s->reference_service_id);
}
void TimeShiftedServiceDescriptor::Parse() {
s=data.getData<const descr_time_shifted_service>();
}
int ComponentDescriptor::getStreamContent() const {
return s->stream_content;
}
int ComponentDescriptor::getComponentType() const {
return s->component_type;
}
int ComponentDescriptor::getComponentTag() const {
return s->component_tag;
}
void ComponentDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_component>(s, offset);
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
description.setData(data+offset, getLength()-offset);
}
void PrivateDataSpecifierDescriptor::Parse() {
s=data.getData<const descr_private_data_specifier>();
}
int PrivateDataSpecifierDescriptor::getPrivateDataSpecifier() const {
return (HILO(s->private_data_specifier_hi) << 16) | HILO(s->private_data_specifier_lo);
}
void SubtitlingDescriptor::Parse() {
subtitlingLoop.setData(data+sizeof(descr_subtitling), getLength()-sizeof(descr_subtitling));
}
int SubtitlingDescriptor::Subtitling::getSubtitlingType() const {
return s->subtitling_type;
}
int SubtitlingDescriptor::Subtitling::getCompositionPageId() const {
return HILO(s->composition_page_id);
}
int SubtitlingDescriptor::Subtitling::getAncillaryPageId() const {
return HILO(s->ancillary_page_id);
}
void SubtitlingDescriptor::Subtitling::Parse() {
s=data.getData<const item_subtitling>();
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
}
int ServiceMoveDescriptor::getNewOriginalNetworkId() const {
return HILO(s->new_original_network_id);
}
int ServiceMoveDescriptor::getNewTransportStreamId() const {
return HILO(s->new_transport_stream_id);
}
int ServiceMoveDescriptor::getNewServiceId() const {
return HILO(s->new_service_id);
}
void ServiceMoveDescriptor::Parse() {
s=data.getData<const descr_service_move>();
}
int FrequencyListDescriptor::getCodingType() const {
return s->coding_type;
}
void FrequencyListDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_frequency_list>(s, offset);
frequencies.setData(data+offset, getLength()-offset);
}
void ServiceIdentifierDescriptor::Parse() {
textualServiceIdentifier.setData(data+sizeof(descr_service_identifier), getLength()-sizeof(descr_service_identifier));
}
void ContentIdentifierDescriptor::Parse() {
identifierLoop.setData(data+sizeof(descr_content_identifier), getLength()-sizeof(descr_content_identifier));
}
void ContentIdentifierDescriptor::Identifier::Parse() {
int offset=0;
data.setPointerAndOffset<const content_identifier_entry>(s, offset);
if (s->crid_location == 0) {
identifier.setData(data+(offset-1), s->crid_length);
}
else {
identifier.setData(data+(offset-1), 2);
}
}
int ContentIdentifierDescriptor::Identifier::getCridType() const {
return s->crid_type;
}
int ContentIdentifierDescriptor::Identifier::getCridLocation() const {
return s->crid_location;
}
void DefaultAuthorityDescriptor::Parse() {
DefaultAuthority.setData(data+sizeof(descr_default_authority), getLength()-sizeof(descr_default_authority));
}
void MultilingualNameDescriptor::Parse() {
nameLoop.setData(data+sizeof(descr_multilingual_network_name), getLength()-sizeof(descr_multilingual_network_name));
}
void MultilingualNameDescriptor::Name::Parse() {
int offset=0;
const entry_multilingual_name *s;
data.setPointerAndOffset<const entry_multilingual_name>(s, offset);
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
name.setData(data+offset, s->text_length);
}
int MultilingualComponentDescriptor::getComponentTag() const {
return s->component_tag;
}
void MultilingualComponentDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_multilingual_component>(s, offset);
nameLoop.setData(data+sizeof(descr_multilingual_component), getLength()-sizeof(descr_multilingual_component));
}
void MultilingualServiceNameDescriptor::Parse() {
nameLoop.setData(data+sizeof(descr_multilingual_network_name), getLength()-sizeof(descr_multilingual_network_name));
}
void MultilingualServiceNameDescriptor::Name::Parse() {
int offset=0;
const entry_multilingual_name *s;
data.setPointerAndOffset<const entry_multilingual_name>(s, offset);
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
providerName.setDataAndOffset(data+offset, s->text_length, offset);
const entry_multilingual_service_name_mid *mid;
data.setPointerAndOffset<const entry_multilingual_service_name_mid>(mid, offset);
name.setData(data+offset, mid->service_name_length);
}
void LocalTimeOffsetDescriptor::Parse() {
localTimeOffsetLoop.setData(data+sizeof(descr_local_time_offset), getLength()-sizeof(descr_local_time_offset));
}
int LocalTimeOffsetDescriptor::LocalTimeOffset::getCountryId() const {
return s->country_region_id;
}
int LocalTimeOffsetDescriptor::LocalTimeOffset::getLocalTimeOffsetPolarity() const {
return s->local_time_offset_polarity;
}
int LocalTimeOffsetDescriptor::LocalTimeOffset::getLocalTimeOffset() const {
return (s->local_time_offset_h << 8) | s->local_time_offset_m;
}
time_t LocalTimeOffsetDescriptor::LocalTimeOffset::getTimeOfChange() const {
return DVBTime::getTime(s->time_of_change_mjd_hi, s->time_of_change_mjd_lo, s->time_of_change_time_h, s->time_of_change_time_m, s->time_of_change_time_s);
}
int LocalTimeOffsetDescriptor::LocalTimeOffset::getNextTimeOffset() const {
return (s->next_time_offset_h << 8) | s->next_time_offset_m;
}
void LocalTimeOffsetDescriptor::LocalTimeOffset::Parse() {
s=data.getData<const local_time_offset_entry>();
countryCode[0]=s->country_code1;
countryCode[1]=s->country_code2;
countryCode[2]=s->country_code3;
countryCode[3]=0;
}
void LinkageDescriptor::Parse() {
int offset=0;
s1 = NULL;
data.setPointerAndOffset<const descr_linkage>(s, offset);
if (checkSize(getLength()-offset)) {
if (getLinkageType() == LinkageTypeMobileHandover)
data.setPointerAndOffset<const descr_linkage_8>(s1, offset);
privateData.assign(data.getData(offset), getLength()-offset);
}
}
int LinkageDescriptor::getTransportStreamId() const {
return HILO(s->transport_stream_id);
}
int LinkageDescriptor::getOriginalNetworkId() const {
return HILO(s->original_network_id);
}
int LinkageDescriptor::getServiceId() const {
return HILO(s->service_id);
}
LinkageType LinkageDescriptor::getLinkageType() const {
return (LinkageType)s->linkage_type;
}
int LinkageDescriptor::getHandOverType() const {
return s1 == NULL ? 0 : s1->hand_over_type;
}
int LinkageDescriptor::getOriginType() const {
return s1 == NULL ? 0 : s1->origin_type;
}
int LinkageDescriptor::getId() const {
return s1 == NULL ? 0 : HILO(s1->id);
}
void ISO639LanguageDescriptor::Parse() {
languageLoop.setData(data+sizeof(descr_iso_639_language), getLength()-sizeof(descr_iso_639_language));
//all this is for backwards compatibility only
Loop::Iterator it;
Language first;
if (languageLoop.getNext(first, it)) {
languageCode[0]=first.languageCode[0];
languageCode[1]=first.languageCode[1];
languageCode[2]=first.languageCode[2];
languageCode[3]=0;
} else
languageCode[0]=0;
}
void ISO639LanguageDescriptor::Language::Parse() {
s=data.getData<const descr_iso_639_language_loop>();
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
}
AudioType ISO639LanguageDescriptor::Language::getAudioType() {
return (AudioType)s->audio_type;
}
void PDCDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_pdc>(s, offset);
}
int PDCDescriptor::getDay() const {
return ((s->pil0 & 0x0F) << 1) | ((s->pil1 & 0x80) >> 7);
}
int PDCDescriptor::getMonth() const {
return (s->pil1 >> 3) & 0x0F;
}
int PDCDescriptor::getHour() const {
return ((s->pil1 & 0x07) << 2) | ((s->pil2 & 0xC0) >> 6);
}
int PDCDescriptor::getMinute() const {
return s->pil2 & 0x3F;
}
void AncillaryDataDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_ancillary_data>(s, offset);
}
int AncillaryDataDescriptor::getAncillaryDataIdentifier() const {
return s->ancillary_data_identifier;
}
void S2SatelliteDeliverySystemDescriptor::Parse() {
int offset=0;
input_stream_identifier=0;
data.setPointerAndOffset<const descr_s2_satellite_delivery_system>(s, offset);
if (s->scrambling_sequence_selector)
data.setPointerAndOffset<const descr_scrambling_sequence_selector>(sss, offset);
if (s->multiple_input_stream_flag)
input_stream_identifier = *data.getData(offset++);
}
int S2SatelliteDeliverySystemDescriptor::getScramblingSequenceSelector() const {
return s->scrambling_sequence_selector;
}
int S2SatelliteDeliverySystemDescriptor::getMultipleInputStreamFlag() const {
return s->multiple_input_stream_flag;
}
int S2SatelliteDeliverySystemDescriptor::getBackwardsCompatibilityIndicator() const {
return s->backwards_compatibility_indicator;
}
int S2SatelliteDeliverySystemDescriptor::getScramblingSequenceIndex() const {
return sss == NULL ? 0 : (sss->scrambling_sequence_index_hi_lo << 16) | HILO(sss->scrambling_sequence_index_lo);
}
void ExtensionDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_extension>(s, offset);
}
int ExtensionDescriptor::getExtensionDescriptorTag() const {
return s->descriptor_tag_extension;
}
void T2DeliverySystemDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_t2_delivery_system>(s, offset);
extended_data_flag = s->descriptor_length > 0x04;
}
int T2DeliverySystemDescriptor::getExtendedDataFlag() const {
return extended_data_flag;
}
int T2DeliverySystemDescriptor::getExtensionDescriptorTag() const {
return s->descriptor_tag_extension;
}
int T2DeliverySystemDescriptor::getPlpId() const {
return s->plp_id;
}
int T2DeliverySystemDescriptor::getT2SystemId() const {
return HILO(s->t2_system_id);
}
int T2DeliverySystemDescriptor::getSisoMiso() const {
return extended_data_flag ? s->siso_miso : -1;
}
int T2DeliverySystemDescriptor::getBandwidth() const {
return extended_data_flag ? s->bandwidth : -1;
}
int T2DeliverySystemDescriptor::getGuardInterval() const {
return extended_data_flag ? s->guard_interval : -1;
}
int T2DeliverySystemDescriptor::getTransmissionMode() const {
return extended_data_flag ? s->transmission_mode : -1;
}
int T2DeliverySystemDescriptor::getOtherFrequencyFlag() const {
return extended_data_flag ? s->other_frequency_flag : -1;
}
int T2DeliverySystemDescriptor::getTfsFlag() const {
return extended_data_flag ? s->tfs_flag : -1;
}
void LogicalChannelDescriptor::Parse() {
//this descriptor is only a header and a loop
logicalChannelLoop.setData(data+sizeof(descr_logical_channel), getLength()-sizeof(descr_logical_channel));
}
int LogicalChannelDescriptor::LogicalChannel::getServiceId() const {
return HILO(s->service_id);
}
int LogicalChannelDescriptor::LogicalChannel::getVisibleServiceFlag() const {
return s->visible_service_flag;
}
int LogicalChannelDescriptor::LogicalChannel::getLogicalChannelNumber() const {
return HILO(s->logical_channel_number);
}
void LogicalChannelDescriptor::LogicalChannel::Parse() {
s=data.getData<const item_logical_channel>();
}
void HdSimulcastLogicalChannelDescriptor::Parse() {
//this descriptor is only a header and a loop
hdSimulcastLogicalChannelLoop.setData(data+sizeof(descr_hd_simulcast_logical_channel), getLength()-sizeof(descr_hd_simulcast_logical_channel));
}
int HdSimulcastLogicalChannelDescriptor::HdSimulcastLogicalChannel::getServiceId() const {
return HILO(s->service_id);
}
int HdSimulcastLogicalChannelDescriptor::HdSimulcastLogicalChannel::getVisibleServiceFlag() const {
return s->visible_service_flag;
}
int HdSimulcastLogicalChannelDescriptor::HdSimulcastLogicalChannel::getLogicalChannelNumber() const {
return HILO(s->logical_channel_number);
}
void HdSimulcastLogicalChannelDescriptor::HdSimulcastLogicalChannel::Parse() {
s=data.getData<const item_hd_simulcast_logical_channel>();
}
int PremiereContentTransmissionDescriptor::getOriginalNetworkId() const {
return HILO(s->original_network_id);
}
int PremiereContentTransmissionDescriptor::getTransportStreamId() const {
return HILO(s->transport_stream_id);
}
int PremiereContentTransmissionDescriptor::getServiceId() const {
return HILO(s->service_id);
}
void PremiereContentTransmissionDescriptor::Parse() {
s=data.getData<const descr_premiere_content_transmission>();
startDayLoop.setData(data+sizeof(descr_premiere_content_transmission), getLength()-sizeof(descr_premiere_content_transmission));
}
int PremiereContentTransmissionDescriptor::StartDayEntry::getMJD() const {
return HILO(s->mjd);
}
int PremiereContentTransmissionDescriptor::StartDayEntry::getLoopLength() const {
return s->start_time_loop;
}
int PremiereContentTransmissionDescriptor::StartDayEntry::getLength() {
return sizeof(item_premiere_content_transmission_day)+getLoopLength();
}
void PremiereContentTransmissionDescriptor::StartDayEntry::Parse() {
s=data.getData<const item_premiere_content_transmission_day>();
startTimeLoop.setData(data+sizeof(item_premiere_content_transmission_day), getLoopLength());
}
time_t PremiereContentTransmissionDescriptor::StartDayEntry::StartTimeEntry::getStartTime(int mjd) const {
return DVBTime::getTime(mjd >> 8, mjd & 0xff, s->start_time_h, s->start_time_m, s->start_time_s);
}
void PremiereContentTransmissionDescriptor::StartDayEntry::StartTimeEntry::Parse() {
s=data.getData<const item_premiere_content_transmission_time>();
}
void ApplicationSignallingDescriptor::Parse() {
entryLoop.setData(data+sizeof(descr_application_signalling), getLength()-sizeof(descr_application_signalling));
}
int ApplicationSignallingDescriptor::ApplicationEntryDescriptor::getApplicationType() const {
return HILO(s->application_type);
}
int ApplicationSignallingDescriptor::ApplicationEntryDescriptor::getAITVersionNumber() const {
return s->AIT_version_number;
}
void ApplicationSignallingDescriptor::ApplicationEntryDescriptor::Parse() {
s=data.getData<const application_signalling_entry>();
}
bool MHP_ApplicationDescriptor::isServiceBound() const {
return s->service_bound_flag;
}
int MHP_ApplicationDescriptor::getVisibility() const {
return s->visibility;
}
int MHP_ApplicationDescriptor::getApplicationPriority() const {
return s->application_priority;
}
void MHP_ApplicationDescriptor::Parse() {
int offset=0;
const descr_application *dapp;
data.setPointerAndOffset<const descr_application>(dapp, offset);
profileLoop.setDataAndOffset(data+offset, dapp->application_profiles_length, offset);
data.setPointerAndOffset<const descr_application_end>(s, offset);
transportProtocolLabels.setData(data+offset, getLength()-offset);
}
int MHP_ApplicationDescriptor::Profile::getApplicationProfile() const {
return HILO(s->application_profile);
}
int MHP_ApplicationDescriptor::Profile::getVersionMajor() const {
return s->version_major;
}
int MHP_ApplicationDescriptor::Profile::getVersionMinor() const {
return s->version_minor;
}
int MHP_ApplicationDescriptor::Profile::getVersionMicro() const {
return s->version_micro;
}
void MHP_ApplicationDescriptor::Profile::Parse() {
s=data.getData<application_profile_entry>();
}
void MHP_ApplicationNameDescriptor::Parse() {
nameLoop.setData(data+sizeof(descr_application_name), getLength()-sizeof(descr_application_name));
}
void MHP_ApplicationNameDescriptor::NameEntry::Parse() {
const descr_application_name_entry *s;
s=data.getData<const descr_application_name_entry>();
name.setData(data+sizeof(descr_application_name_entry), s->application_name_length);
languageCode[0]=s->lang_code1;
languageCode[1]=s->lang_code2;
languageCode[2]=s->lang_code3;
languageCode[3]=0;
}
int MHP_TransportProtocolDescriptor::getProtocolId() const {
return HILO(s->protocol_id);
}
int MHP_TransportProtocolDescriptor::getProtocolLabel() const {
return s->transport_protocol_label;
}
bool MHP_TransportProtocolDescriptor::isRemote() const {
return remote;
}
int MHP_TransportProtocolDescriptor::getComponentTag() const {
return componentTag;
}
char *MHP_TransportProtocolDescriptor::getUrlBase(char *buffer, int size) {
return UrlBase.getText(buffer, size);
}
void MHP_TransportProtocolDescriptor::Parse() {
int offset=0;
remote=false;
componentTag=-1;
data.setPointerAndOffset<const descr_transport_protocol>(s, offset);
if (getProtocolId() == ObjectCarousel) {
const transport_via_oc *oc;
data.setPointerAndOffset<const transport_via_oc>(oc, offset);
remote=oc->remote;
if (remote) {
const transport_via_oc_remote_end *rem;
data.setPointerAndOffset<const transport_via_oc_remote_end>(rem, offset);
componentTag=rem->component_tag;
} else {
const transport_via_oc_end *rem;
data.setPointerAndOffset<const transport_via_oc_end>(rem, offset);
componentTag=rem->component_tag;
}
} else if (getProtocolId() == HTTPoverInteractionChannel) {
const transport_via_http *http;
data.setPointerAndOffset<const transport_via_http>(http, offset);
UrlBase.setDataAndOffset(data+offset, http->url_base_length, offset);
// fill URL Extension,
UrlExtensionLoop.setData(data+offset, getLength()-offset);
} else {
//unimplemented
}
}
void MHP_TransportProtocolDescriptor::UrlExtensionEntry::Parse() {
const descr_url_extension_entry *s;
s=data.getData<const descr_url_extension_entry>();
UrlExtension.setData(data, s->url_extension_length);
}
void MHP_DVBJApplicationDescriptor::Parse() {
applicationLoop.setData(data+sizeof(descr_dvbj_application), getLength()-sizeof(descr_dvbj_application));
}
void MHP_DVBJApplicationDescriptor::ApplicationEntry::Parse() {
const descr_dvbj_application_entry *entry=data.getData<const descr_dvbj_application_entry>();
parameter.setData(data+sizeof(descr_dvbj_application_entry), entry->parameter_length);
}
void MHP_DVBJApplicationLocationDescriptor::Parse() {
int offset=0;
const descr_dvbj_application_location *first;
data.setPointerAndOffset<const descr_dvbj_application_location>(first, offset);
baseDirectory.setDataAndOffset(data+offset, first->base_directory_length, offset);
const descr_dvbj_application_location_mid *mid;
data.setPointerAndOffset<const descr_dvbj_application_location_mid>(mid, offset);
classPath.setDataAndOffset(data+offset, mid->classpath_extension_length, offset);
initialClass.setData(data+offset, getLength()-offset);
}
int MHP_ApplicationIconsDescriptor::getIconFlags() const {
return HILO(s->icon_flags);
}
void MHP_ApplicationIconsDescriptor::Parse() {
int offset=0;
const descr_application_icons_descriptor *first;
data.setPointerAndOffset<const descr_application_icons_descriptor>(first, offset);
iconLocator.setDataAndOffset(data+offset, first->icon_locator_length, offset);
data.setPointerAndOffset<const descr_application_icons_descriptor_end>(s, offset);
}
char *MHP_SimpleApplicationLocationDescriptor::getLocation(char *buffer, int size) {
return location.getText(buffer, size);
}
void MHP_SimpleApplicationLocationDescriptor::Parse() {
int offset=0;
const descr_simple_application_location_descriptor *loc;
data.setPointerAndOffset<const descr_simple_application_location_descriptor>(loc, offset);
location.setDataAndOffset(data+offset, loc->descriptor_length, offset);
}
int RegistrationDescriptor::getFormatIdentifier() const {
return HILOHILO(s->format_identifier);
}
void RegistrationDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_registration>(s, offset);
if (checkSize(getLength()-offset))
privateData.assign(data.getData(offset), getLength()-offset);
}
int AVCDescriptor::getProfileIdc() const {
return s->profile_idc;
}
int AVCDescriptor::getConstraintSet0Flag() const {
return s->constraint_set0_flag;
}
int AVCDescriptor::getConstraintSet1Flag() const {
return s->constraint_set1_flag;
}
int AVCDescriptor::getConstraintSet2Flag() const {
return s->constraint_set2_flag;
}
int AVCDescriptor::getConstraintSet3Flag() const {
return s->constraint_set3_flag;
}
int AVCDescriptor::getConstraintSet4Flag() const {
return s->constraint_set4_flag;
}
int AVCDescriptor::getConstraintSet5Flag() const {
return s->constraint_set5_flag;
}
int AVCDescriptor::getAVCCompatibleFlags() const {
return s->avc_compatible_flags;
}
int AVCDescriptor::getLevelIdc() const {
return s->level_idc;
}
int AVCDescriptor::getAVCStillPresent() const {
return s->avc_still_present;
}
int AVCDescriptor::getAVC24HourPictureFlag() const {
return s->avc_24_hour_picture_flag;
}
int AVCDescriptor::getFramePackingSEINotPresentFlag() const {
return s->frame_packing_sei_not_present_flag;
}
void AVCDescriptor::Parse() {
int offset=0;
data.setPointerAndOffset<const descr_avc>(s, offset);
if (checkSize(getLength()-offset))
privateData.assign(data.getData(offset), getLength()-offset);
}
} //end of namespace