vdr/remote.c
Klaus Schmidinger 5d8e3b18dc Version 1.4.0-1
- Updated 'S110W' in 'sources.conf'.
- Adjusted the 'runvdr' script so that the user can fill in the functions to
  detect, load and unload the necessary driver modules (thanks to M. Kiesel for
  reporting that it still used DVBDIR).
- Added 'eval' to the $VDRCMD call in 'runvdr' to avoid problems with quoting
  (suggested by Udo Richter).
- Fixed missing ',' in the Italian and Polish OSD texts (thanks to Marko Mäkelä).
- Updated the Czech OSD texts (thanks to Vladimír Bárta).
- Fixed handling the "Power" key in case a timer is about to start recording
  (thanks to Udo Richter).
- Fixed the character 'r' in fontosd and fontsml for iso8859-2 (thanks to Vladimír
  Bárta).
- When checking whether a VPS timer has entered the "VPS margin", the event's start
  time is now used instead of the timer's start time, because otherwise events that
  start way off of their VPS time wouldn't be recorded correctly.
- If VPS timers are active, their events are now being kept up to date if there
  are any free devices available.
- Fixed the character #207 in fontosd for iso8859-2 (thanks to Vladimír Bárta).
- Fixed handling unknown codes when learning LIRC remote control codes (reported
  by Helmut Auer).
- Since some channels (especially the Austrian ORF) randomly change the ids of their
  EPG events, VDR now gives the start time precedence when searching for existing
  events.
- Fixed automatically updating the CAM menu in case the whole operation (for
  instance a firmware update) takes longer than the menu timeout.
2006-05-14 18:00:00 +02:00

352 lines
8.0 KiB
C

/*
* remote.c: General Remote Control handling
*
* See the main source file 'vdr.c' for copyright information and
* how to reach the author.
*
* $Id: remote.c 1.51 2006/05/12 12:40:15 kls Exp $
*/
#include "remote.h"
#include <fcntl.h>
#include <netinet/in.h>
#include <string.h>
#include <sys/types.h>
#include <sys/time.h>
#include <unistd.h>
#include "tools.h"
// --- cRemote ---------------------------------------------------------------
#define INITTIMEOUT 10000 // ms
#define REPEATTIMEOUT 1000 // ms
eKeys cRemote::keys[MaxKeys];
int cRemote::in = 0;
int cRemote::out = 0;
cTimeMs cRemote::repeatTimeout;
cRemote *cRemote::learning = NULL;
char *cRemote::unknownCode = NULL;
cMutex cRemote::mutex;
cCondVar cRemote::keyPressed;
const char *cRemote::plugin = NULL;
cRemote::cRemote(const char *Name)
{
name = Name ? strdup(Name) : NULL;
Remotes.Add(this);
}
cRemote::~cRemote()
{
free(name);
}
const char *cRemote::GetSetup(void)
{
return Keys.GetSetup(Name());
}
void cRemote::PutSetup(const char *Setup)
{
Keys.PutSetup(Name(), Setup);
}
bool cRemote::Initialize(void)
{
if (Ready()) {
char *NewCode = NULL;
eKeys Key = Get(INITTIMEOUT, &NewCode);
if (Key != kNone || NewCode)
return true;
}
return false;
}
void cRemote::Clear(void)
{
cMutexLock MutexLock(&mutex);
in = out = 0;
if (learning) {
free(unknownCode);
unknownCode = NULL;
}
}
bool cRemote::Put(eKeys Key, bool AtFront)
{
if (Key != kNone) {
cMutexLock MutexLock(&mutex);
if (in != out && (keys[out] & k_Repeat) && (Key & k_Release))
Clear();
int d = out - in;
if (d <= 0)
d = MaxKeys + d;
if (d - 1 > 0) {
if (AtFront) {
if (--out < 0)
out = MaxKeys - 1;
keys[out] = Key;
}
else {
keys[in] = Key;
if (++in >= MaxKeys)
in = 0;
}
keyPressed.Broadcast();
return true;
}
return false;
}
return true; // only a real key shall report an overflow!
}
bool cRemote::PutMacro(eKeys Key)
{
const cKeyMacro *km = KeyMacros.Get(Key);
if (km) {
plugin = km->Plugin();
for (int i = 1; i < MAXKEYSINMACRO; i++) {
if (km->Macro()[i] != kNone) {
if (!Put(km->Macro()[i]))
return false;
}
else
break;
}
}
return true;
}
bool cRemote::Put(uint64 Code, bool Repeat, bool Release)
{
char buffer[32];
snprintf(buffer, sizeof(buffer), "%016LX", Code);
return Put(buffer, Repeat, Release);
}
bool cRemote::Put(const char *Code, bool Repeat, bool Release)
{
if (learning && this != learning)
return false;
eKeys Key = Keys.Get(Name(), Code);
if (Key != kNone) {
if (Repeat)
Key = eKeys(Key | k_Repeat);
if (Release)
Key = eKeys(Key | k_Release);
return Put(Key);
}
if (learning) {
free(unknownCode);
unknownCode = strdup(Code);
keyPressed.Broadcast();
}
return false;
}
bool cRemote::CallPlugin(const char *Plugin)
{
cMutexLock MutexLock(&mutex);
if (!plugin) {
plugin = Plugin;
Put(k_Plugin);
return true;
}
return false;
}
const char *cRemote::GetPlugin(void)
{
cMutexLock MutexLock(&mutex);
const char *p = plugin;
plugin = NULL;
return p;
}
bool cRemote::HasKeys(void)
{
cMutexLock MutexLock(&mutex);
return in != out && !(keys[out] & k_Repeat);
}
eKeys cRemote::Get(int WaitMs, char **UnknownCode)
{
for (;;) {
cMutexLock MutexLock(&mutex);
if (in != out) {
eKeys k = keys[out];
if (++out >= MaxKeys)
out = 0;
if ((k & k_Repeat) != 0)
repeatTimeout.Set(REPEATTIMEOUT);
return k;
}
else if (!WaitMs || !keyPressed.TimedWait(mutex, WaitMs) && repeatTimeout.TimedOut())
return kNone;
else if (learning && UnknownCode && unknownCode) {
*UnknownCode = unknownCode;
unknownCode = NULL;
return kNone;
}
}
}
// --- cRemotes --------------------------------------------------------------
cRemotes Remotes;
// --- cKbdRemote ------------------------------------------------------------
struct tKbdMap {
eKbdFunc func;
uint64 code;
};
static tKbdMap KbdMap[] = {
{ kfF1, 0x0000001B5B31317EULL },
{ kfF2, 0x0000001B5B31327EULL },
{ kfF3, 0x0000001B5B31337EULL },
{ kfF4, 0x0000001B5B31347EULL },
{ kfF5, 0x0000001B5B31357EULL },
{ kfF6, 0x0000001B5B31377EULL },
{ kfF7, 0x0000001B5B31387EULL },
{ kfF8, 0x0000001B5B31397EULL },
{ kfF9, 0x0000001B5B32307EULL },
{ kfF10, 0x0000001B5B32317EULL },
{ kfF11, 0x0000001B5B32327EULL },
{ kfF12, 0x0000001B5B32337EULL },
{ kfUp, 0x00000000001B5B41ULL },
{ kfDown, 0x00000000001B5B42ULL },
{ kfLeft, 0x00000000001B5B44ULL },
{ kfRight, 0x00000000001B5B43ULL },
{ kfHome, 0x00000000001B5B48ULL },
{ kfEnd, 0x00000000001B5B46ULL },
{ kfPgUp, 0x000000001B5B357EULL },
{ kfPgDown, 0x000000001B5B367EULL },
{ kfIns, 0x000000001B5B327EULL },
{ kfDel, 0x000000001B5B337EULL },
{ kfNone, 0x0000000000000000ULL }
};
bool cKbdRemote::kbdAvailable = false;
bool cKbdRemote::rawMode = false;
cKbdRemote::cKbdRemote(void)
:cRemote("KBD")
,cThread("KBD remote control")
{
tcgetattr(STDIN_FILENO, &savedTm);
struct termios tm;
if (tcgetattr(STDIN_FILENO, &tm) == 0) {
tm.c_iflag = 0;
tm.c_lflag &= ~(ICANON | ECHO);
tm.c_cc[VMIN] = 0;
tm.c_cc[VTIME] = 0;
tcsetattr(STDIN_FILENO, TCSANOW, &tm);
}
kbdAvailable = true;
Start();
}
cKbdRemote::~cKbdRemote()
{
kbdAvailable = false;
Cancel(3);
tcsetattr(STDIN_FILENO, TCSANOW, &savedTm);
}
void cKbdRemote::SetRawMode(bool RawMode)
{
rawMode = RawMode;
}
uint64 cKbdRemote::MapFuncToCode(int Func)
{
for (tKbdMap *p = KbdMap; p->func != kfNone; p++) {
if (p->func == Func)
return p->code;
}
return (Func <= 0xFF) ? Func : 0;
}
int cKbdRemote::MapCodeToFunc(uint64 Code)
{
for (tKbdMap *p = KbdMap; p->func != kfNone; p++) {
if (p->code == Code)
return p->func;
}
return (Code <= 0xFF) ? Code : kfNone;
}
int cKbdRemote::ReadKey(void)
{
cPoller Poller(STDIN_FILENO);
if (Poller.Poll(50)) {
uchar ch = 0;
int r = safe_read(STDIN_FILENO, &ch, 1);
if (r == 1)
return ch;
if (r < 0)
LOG_ERROR_STR("cKbdRemote");
}
return -1;
}
uint64 cKbdRemote::ReadKeySequence(void)
{
uint64 k = 0;
int key1;
if ((key1 = ReadKey()) >= 0) {
k = key1;
if (key1 == 0x1B) {
// Start of escape sequence
if ((key1 = ReadKey()) >= 0) {
k <<= 8;
k |= key1 & 0xFF;
switch (key1) {
case 0x4F: // 3-byte sequence
if ((key1 = ReadKey()) >= 0) {
k <<= 8;
k |= key1 & 0xFF;
}
break;
case 0x5B: // 3- or more-byte sequence
if ((key1 = ReadKey()) >= 0) {
k <<= 8;
k |= key1 & 0xFF;
switch (key1) {
case 0x31 ... 0x3F: // more-byte sequence
case 0x5B: // strange, may apparently occur
do {
if ((key1 = ReadKey()) < 0)
break; // Sequence ends here
k <<= 8;
k |= key1 & 0xFF;
} while (key1 != 0x7E);
break;
}
}
break;
}
}
}
}
return k;
}
void cKbdRemote::Action(void)
{
while (Running()) {
uint64 Command = ReadKeySequence();
if (Command) {
if (rawMode || !Put(Command)) {
int func = MapCodeToFunc(Command);
if (func)
Put(KBDKEY(func));
}
}
}
}