author | mickeyl <mickeyl> | 2003-12-05 21:24:53 (UTC) |
---|---|---|
committer | mickeyl <mickeyl> | 2003-12-05 21:24:53 (UTC) |
commit | 650d6e3ec023759f1c6566d7562857d8dd0e8028 (patch) (side-by-side diff) | |
tree | b028807a522b553aa4cfae8bdb6fa174f9a7fe2b | |
parent | 978b8c98ba1e206dd683b2f1f0a743b8d2ce290f (diff) | |
download | opie-650d6e3ec023759f1c6566d7562857d8dd0e8028.zip opie-650d6e3ec023759f1c6566d7562857d8dd0e8028.tar.gz opie-650d6e3ec023759f1c6566d7562857d8dd0e8028.tar.bz2 |
add some comments to Zaurus class
-rw-r--r-- | libopie/odevice.cpp | 17 |
1 files changed, 17 insertions, 0 deletions
diff --git a/libopie/odevice.cpp b/libopie/odevice.cpp index 71ed9e4..9373ef9 100644 --- a/libopie/odevice.cpp +++ b/libopie/odevice.cpp @@ -1304,827 +1304,844 @@ bool iPAQ::filter ( int /*unicode*/, int keycode, int modifiers, bool isPress, b newkeycode = HardKey_Mail; } break; } // Rotate cursor keys 180° case Key_Left : case Key_Right: case Key_Up : case Key_Down : { if (( d-> m_model == Model_iPAQ_H31xx ) || ( d-> m_model == Model_iPAQ_H38xx )) { newkeycode = Key_Left + ( keycode - Key_Left + 2 ) % 4; } break; } // map Power Button short/long press to F34/F35 case Key_SysReq: { if ( isPress ) { if ( m_power_timer ) killTimer ( m_power_timer ); m_power_timer = startTimer ( 500 ); } else if ( m_power_timer ) { killTimer ( m_power_timer ); m_power_timer = 0; QWSServer::sendKeyEvent ( -1, HardKey_Suspend, 0, true, false ); QWSServer::sendKeyEvent ( -1, HardKey_Suspend, 0, false, false ); } newkeycode = Key_unknown; break; } } if ( newkeycode != keycode ) { if ( newkeycode != Key_unknown ) QWSServer::sendKeyEvent ( -1, newkeycode, modifiers, isPress, autoRepeat ); return true; } else return false; } void iPAQ::timerEvent ( QTimerEvent * ) { killTimer ( m_power_timer ); m_power_timer = 0; QWSServer::sendKeyEvent ( -1, HardKey_Backlight, 0, true, false ); QWSServer::sendKeyEvent ( -1, HardKey_Backlight, 0, false, false ); } void iPAQ::alarmSound ( ) { #ifndef QT_NO_SOUND static Sound snd ( "alarm" ); int fd; int vol; bool vol_reset = false; if (( fd = ::open ( "/dev/sound/mixer", O_RDWR )) >= 0 ) { if ( ::ioctl ( fd, MIXER_READ( 0 ), &vol ) >= 0 ) { Config cfg ( "qpe" ); cfg. setGroup ( "Volume" ); int volalarm = cfg. readNumEntry ( "AlarmPercent", 50 ); if ( volalarm < 0 ) volalarm = 0; else if ( volalarm > 100 ) volalarm = 100; volalarm |= ( volalarm << 8 ); if ( ::ioctl ( fd, MIXER_WRITE( 0 ), &volalarm ) >= 0 ) vol_reset = true; } } snd. play ( ); while ( !snd. isFinished ( )) qApp-> processEvents ( ); if ( fd >= 0 ) { if ( vol_reset ) ::ioctl ( fd, MIXER_WRITE( 0 ), &vol ); ::close ( fd ); } #endif } bool iPAQ::setSoftSuspend ( bool soft ) { bool res = false; int fd; if (( fd = ::open ( "/proc/sys/ts/suspend_button_mode", O_WRONLY )) >= 0 ) { if ( ::write ( fd, soft ? "1" : "0", 1 ) == 1 ) res = true; else ::perror ( "write to /proc/sys/ts/suspend_button_mode" ); ::close ( fd ); } else ::perror ( "/proc/sys/ts/suspend_button_mode" ); return res; } bool iPAQ::setDisplayBrightness ( int bright ) { bool res = false; int fd; if ( bright > 255 ) bright = 255; if ( bright < 0 ) bright = 0; if (( fd = ::open ( "/dev/touchscreen/0", O_WRONLY )) >= 0 ) { FLITE_IN bl; bl. mode = 1; bl. pwr = bright ? 1 : 0; bl. brightness = ( bright * ( displayBrightnessResolution ( ) - 1 ) + 127 ) / 255; res = ( ::ioctl ( fd, FLITE_ON, &bl ) == 0 ); ::close ( fd ); } return res; } int iPAQ::displayBrightnessResolution ( ) const { switch ( model ( )) { case Model_iPAQ_H31xx: case Model_iPAQ_H36xx: case Model_iPAQ_H37xx: return 128; // really 256, but >128 could damage the LCD case Model_iPAQ_H38xx: case Model_iPAQ_H39xx: return 64; case Model_iPAQ_H5xxx: return 255; default: return 2; } } bool iPAQ::hasLightSensor ( ) const { return true; } int iPAQ::readLightSensor ( ) { int fd; int val = -1; if (( fd = ::open ( "/proc/hal/light_sensor", O_RDONLY )) >= 0 ) { char buffer [8]; if ( ::read ( fd, buffer, 5 ) == 5 ) { char *endptr; buffer [4] = 0; val = ::strtol ( buffer + 2, &endptr, 16 ); if ( *endptr != 0 ) val = -1; } ::close ( fd ); } return val; } int iPAQ::lightSensorResolution ( ) const { return 256; } /************************************************** * * Zaurus * **************************************************/ // Check whether this device is the sharp zaurus.. +// FIXME This gets unnecessary complicated. We should think about splitting the Zaurus +// class up into individual classes. We need three classes +// +// Zaurus-Collie (SA-model w/ 320x240 lcd, for SL5500 and SL5000) +// Zaurus-Poodle (PXA-model w/ 320x240 lcd, for SL5600) +// Zaurus-Corgi (PXA-model w/ 640x480 lcd, for C700, C750, C760, and C860) +// +// Only question right now is: Do we really need to do it? Because as soon +// as the OpenZaurus kernel is ready, there will be a unified interface for all +// Zaurus models (concerning apm, backlight, buttons, etc.) +// +// Comments? - mickeyl. + bool Zaurus::isZaurus() { // If the special devices by embedix exist, it is quite simple: it is a Zaurus ! if ( QFile::exists ( "/dev/sharp_buz" ) || QFile::exists ( "/dev/sharp_led" ) ){ return true; } // On non-embedix kernels, we have to look closer. bool is_zaurus = false; QFile f ( "/proc/cpuinfo" ); if ( f. open ( IO_ReadOnly ) ) { QString model; QFile f ( "/proc/cpuinfo" ); QTextStream ts ( &f ); QString line; while( line = ts. readLine ( ) ) { if ( line. left ( 8 ) == "Hardware" ) break; } int loc = line. find ( ":" ); if ( loc != -1 ) model = line. mid ( loc + 2 ). simplifyWhiteSpace( ); if ( model == "Sharp-Collie" || model == "Collie" || model == "SHARP Corgi" || model == "SHARP Shepherd" || model == "SHARP Poodle" || model == "SHARP Husky" ) is_zaurus = true; } return is_zaurus; } void Zaurus::init ( ) { d-> m_vendorstr = "Sharp"; d-> m_vendor = Vendor_Sharp; m_embedix = true; // Not openzaurus means: It has an embedix kernel ! // QFile f ( "/proc/filesystems" ); QString model; // It isn't a good idea to check the system configuration to // detect the distribution ! // Otherwise it may happen that any other distribution is detected as openzaurus, just // because it uses a jffs2 filesystem.. // (eilers) // if ( f. open ( IO_ReadOnly ) && ( QTextStream ( &f ). read ( ). find ( "\tjffs2\n" ) >= 0 )) { QFile f ("/etc/oz_version"); if ( f.exists() ){ d-> m_vendorstr = "OpenZaurus Team"; d-> m_systemstr = "OpenZaurus"; d-> m_system = System_OpenZaurus; if ( f. open ( IO_ReadOnly )) { QTextStream ts ( &f ); d-> m_sysverstr = ts. readLine ( );//. mid ( 10 ); f. close ( ); } // Openzaurus sometimes uses the embedix kernel! // => Check whether this is an embedix kernel FILE *uname = popen("uname -r", "r"); QString line; if ( f.open(IO_ReadOnly, uname) ) { QTextStream ts ( &f ); line = ts. readLine ( ); int loc = line. find ( "embedix" ); if ( loc != -1 ) m_embedix = true; else m_embedix = false; f. close ( ); } pclose(uname); } else { d-> m_systemstr = "Zaurus"; d-> m_system = System_Zaurus; } f. setName ( "/proc/cpuinfo" ); if ( f. open ( IO_ReadOnly ) ) { QTextStream ts ( &f ); QString line; while( line = ts. readLine ( ) ) { if ( line. left ( 8 ) == "Hardware" ) break; } int loc = line. find ( ":" ); if ( loc != -1 ) model = line. mid ( loc + 2 ). simplifyWhiteSpace( ); } if ( model == "SHARP Corgi" ) { d-> m_model = Model_Zaurus_SLC7x0; d-> m_modelstr = "Zaurus SL-C700"; } else if ( model == "SHARP Shepherd" ) { d-> m_model = Model_Zaurus_SLC7x0; d-> m_modelstr = "Zaurus SL-C750"; } else if ( model == "SHARP Husky" ) { d-> m_model = Model_Zaurus_SLC7x0; d-> m_modelstr = "Zaurus SL-C760"; } else if ( model == "SHARP Poodle" ) { d-> m_model = Model_Zaurus_SLB600; d-> m_modelstr = "Zaurus SL-B500 or SL-5600"; } else if ( model == "Sharp-Collie" || model == "Collie" ) { d-> m_model = Model_Zaurus_SL5500; d-> m_modelstr = "Zaurus SL-5500 or SL-5000d"; } else { d-> m_model = Model_Zaurus_SL5500; d-> m_modelstr = "Zaurus (Model unknown)"; } bool flipstate = false; switch ( d-> m_model ) { case Model_Zaurus_SLA300: d-> m_rotation = Rot0; break; case Model_Zaurus_SLC7x0: // Note: need to 1) set flipstate based on physical screen orientation // and 2) check to see if the user overrode the rotation direction // using appearance, and if so, remove that item from the Config to // ensure the rotate applet flips us back to the previous state. + // treke said he has patches for detecting the phys. so where are they, treke? -mickeyl. if ( flipstate ) { // 480x640 d-> m_rotation = Rot0; d-> m_direction = CW; } else { // 640x480 d-> m_rotation = Rot270; d-> m_direction = CCW; } break; case Model_Zaurus_SLB600: case Model_Zaurus_SL5500: case Model_Zaurus_SL5000: default: d-> m_rotation = Rot270; break; } m_leds [0] = Led_Off; } void Zaurus::initButtons ( ) { if ( d-> m_buttons ) return; d-> m_buttons = new QValueList <ODeviceButton>; struct z_button * pz_buttons; int buttoncount; switch ( d-> m_model ) { case Model_Zaurus_SLC7x0: pz_buttons = z_buttons_c700; buttoncount = ARRAY_SIZE(z_buttons_c700); break; default: pz_buttons = z_buttons; buttoncount = ARRAY_SIZE(z_buttons); break; } for ( int i = 0; i < buttoncount; i++ ) { struct z_button *zb = pz_buttons + i; ODeviceButton b; b. setKeycode ( zb-> code ); b. setUserText ( QObject::tr ( "Button", zb-> utext )); b. setPixmap ( Resource::loadPixmap ( zb-> pix )); b. setFactoryPresetPressedAction ( OQCopMessage ( makeChannel ( zb-> fpressedservice ), zb-> fpressedaction )); b. setFactoryPresetHeldAction ( OQCopMessage ( makeChannel ( zb-> fheldservice ), zb-> fheldaction )); d-> m_buttons-> append ( b ); } reloadButtonMapping ( ); QCopChannel *sysch = new QCopChannel ( "QPE/System", this ); connect ( sysch, SIGNAL( received( const QCString &, const QByteArray & )), this, SLOT( systemMessage ( const QCString &, const QByteArray & ))); } #include <unistd.h> #include <fcntl.h> #include <sys/ioctl.h> //#include <asm/sharp_char.h> // including kernel headers is evil ... #define SHARP_DEV_IOCTL_COMMAND_START 0x5680 #define SHARP_BUZZER_IOCTL_START (SHARP_DEV_IOCTL_COMMAND_START) #define SHARP_BUZZER_MAKESOUND (SHARP_BUZZER_IOCTL_START) #define SHARP_BUZ_TOUCHSOUND 1 /* touch panel sound */ #define SHARP_BUZ_KEYSOUND 2 /* key sound */ #define SHARP_BUZ_SCHEDULE_ALARM 11 /* schedule alarm */ /* --- for SHARP_BUZZER device --- */ //#define SHARP_BUZZER_IOCTL_START (SHARP_DEV_IOCTL_COMMAND_START) //#define SHARP_BUZZER_MAKESOUND (SHARP_BUZZER_IOCTL_START) #define SHARP_BUZZER_SETVOLUME (SHARP_BUZZER_IOCTL_START+1) #define SHARP_BUZZER_GETVOLUME (SHARP_BUZZER_IOCTL_START+2) #define SHARP_BUZZER_ISSUPPORTED (SHARP_BUZZER_IOCTL_START+3) #define SHARP_BUZZER_SETMUTE (SHARP_BUZZER_IOCTL_START+4) #define SHARP_BUZZER_STOPSOUND (SHARP_BUZZER_IOCTL_START+5) //#define SHARP_BUZ_TOUCHSOUND 1 /* touch panel sound */ //#define SHARP_BUZ_KEYSOUND 2 /* key sound */ //#define SHARP_PDA_ILLCLICKSOUND 3 /* illegal click */ //#define SHARP_PDA_WARNSOUND 4 /* warning occurred */ //#define SHARP_PDA_ERRORSOUND 5 /* error occurred */ //#define SHARP_PDA_CRITICALSOUND 6 /* critical error occurred */ //#define SHARP_PDA_SYSSTARTSOUND 7 /* system start */ //#define SHARP_PDA_SYSTEMENDSOUND 8 /* system shutdown */ //#define SHARP_PDA_APPSTART 9 /* application start */ //#define SHARP_PDA_APPQUIT 10 /* application ends */ //#define SHARP_BUZ_SCHEDULE_ALARM 11 /* schedule alarm */ //#define SHARP_BUZ_DAILY_ALARM 12 /* daily alarm */ //#define SHARP_BUZ_GOT_PHONE_CALL 13 /* phone call sound */ //#define SHARP_BUZ_GOT_MAIL 14 /* mail sound */ // #define SHARP_LED_IOCTL_START (SHARP_DEV_IOCTL_COMMAND_START) #define SHARP_LED_SETSTATUS (SHARP_LED_IOCTL_START+1) typedef struct sharp_led_status { int which; /* select which LED status is wanted. */ int status; /* set new led status if you call SHARP_LED_SETSTATUS */ } sharp_led_status; #define SHARP_LED_MAIL_EXISTS 9 /* mail status (exists or not) */ #define LED_MAIL_NO_UNREAD_MAIL 0 /* for SHARP_LED_MAIL_EXISTS */ #define LED_MAIL_NEWMAIL_EXISTS 1 /* for SHARP_LED_MAIL_EXISTS */ #define LED_MAIL_UNREAD_MAIL_EX 2 /* for SHARP_LED_MAIL_EXISTS */ // #include <asm/sharp_apm.h> // including kernel headers is evil ... #define APM_IOCGEVTSRC OD_IOR( 'A', 203, int ) #define APM_IOCSEVTSRC OD_IORW( 'A', 204, int ) #define APM_EVT_POWER_BUTTON (1 << 0) #define FL_IOCTL_STEP_CONTRAST 100 void Zaurus::buzzer ( int sound ) { #ifndef QT_NO_SOUND QString soundname; // Not all devices have real sound if ( d->m_model == Model_Zaurus_SLC7x0 || d->m_model == Model_Zaurus_SLB600 ){ switch ( sound ){ case SHARP_BUZ_SCHEDULE_ALARM: soundname = "alarm"; break; case SHARP_BUZ_TOUCHSOUND: soundname = "touchsound"; break; case SHARP_BUZ_KEYSOUND: soundname = "keysound"; break; default: soundname = "alarm"; } } // If a soundname is defined, we expect that this device has // sound capabilities.. Otherwise we expect to have the buzzer // device.. if ( !soundname.isEmpty() ){ int fd; int vol; bool vol_reset = false; Sound snd ( soundname ); if (( fd = ::open ( "/dev/sound/mixer", O_RDWR )) >= 0 ) { if ( ::ioctl ( fd, MIXER_READ( 0 ), &vol ) >= 0 ) { Config cfg ( "qpe" ); cfg. setGroup ( "Volume" ); int volalarm = cfg. readNumEntry ( "AlarmPercent", 50 ); if ( volalarm < 0 ) volalarm = 0; else if ( volalarm > 100 ) volalarm = 100; volalarm |= ( volalarm << 8 ); if ( ::ioctl ( fd, MIXER_WRITE( 0 ), &volalarm ) >= 0 ) vol_reset = true; } } snd. play ( ); while ( !snd. isFinished ( )) qApp-> processEvents ( ); if ( fd >= 0 ) { if ( vol_reset ) ::ioctl ( fd, MIXER_WRITE( 0 ), &vol ); ::close ( fd ); } } else { int fd = ::open ( "/dev/sharp_buz", O_WRONLY|O_NONBLOCK ); if ( fd >= 0 ) { ::ioctl ( fd, SHARP_BUZZER_MAKESOUND, sound ); ::close ( fd ); } } #endif } void Zaurus::alarmSound ( ) { buzzer ( SHARP_BUZ_SCHEDULE_ALARM ); } void Zaurus::touchSound ( ) { buzzer ( SHARP_BUZ_TOUCHSOUND ); } void Zaurus::keySound ( ) { buzzer ( SHARP_BUZ_KEYSOUND ); } QValueList <OLed> Zaurus::ledList ( ) const { QValueList <OLed> vl; vl << Led_Mail; return vl; } QValueList <OLedState> Zaurus::ledStateList ( OLed l ) const { QValueList <OLedState> vl; if ( l == Led_Mail ) vl << Led_Off << Led_On << Led_BlinkSlow; return vl; } OLedState Zaurus::ledState ( OLed which ) const { if ( which == Led_Mail ) return m_leds [0]; else return Led_Off; } bool Zaurus::setLedState ( OLed which, OLedState st ) { if (!m_embedix) // Currently not supported on non_embedix kernels return false; static int fd = ::open ( "/dev/sharp_led", O_RDWR|O_NONBLOCK ); if ( which == Led_Mail ) { if ( fd >= 0 ) { struct sharp_led_status leds; ::memset ( &leds, 0, sizeof( leds )); leds. which = SHARP_LED_MAIL_EXISTS; bool ok = true; switch ( st ) { case Led_Off : leds. status = LED_MAIL_NO_UNREAD_MAIL; break; case Led_On : leds. status = LED_MAIL_NEWMAIL_EXISTS; break; case Led_BlinkSlow: leds. status = LED_MAIL_UNREAD_MAIL_EX; break; default : ok = false; } if ( ok && ( ::ioctl ( fd, SHARP_LED_SETSTATUS, &leds ) >= 0 )) { m_leds [0] = st; return true; } } } return false; } bool Zaurus::setSoftSuspend ( bool soft ) { if (!m_embedix) { /* non-Embedix kernels dont have kernel autosuspend */ return ODevice::setSoftSuspend( soft ); } bool res = false; int fd; if ((( fd = ::open ( "/dev/apm_bios", O_RDWR )) >= 0 ) || (( fd = ::open ( "/dev/misc/apm_bios",O_RDWR )) >= 0 )) { int sources = ::ioctl ( fd, APM_IOCGEVTSRC, 0 ); // get current event sources if ( sources >= 0 ) { if ( soft ) sources &= ~APM_EVT_POWER_BUTTON; else sources |= APM_EVT_POWER_BUTTON; if ( ::ioctl ( fd, APM_IOCSEVTSRC, sources ) >= 0 ) // set new event sources res = true; else perror ( "APM_IOCGEVTSRC" ); } else perror ( "APM_IOCGEVTSRC" ); ::close ( fd ); } else perror ( "/dev/apm_bios or /dev/misc/apm_bios" ); return res; } bool Zaurus::setDisplayBrightness ( int bright ) { +// FIXME The C7x0 have a proc-interface (/proc/drivers/corgi-bl) which +// is nice to use. Currently it exposes 16+1 levels. Implement this! +// (or wait for kergoth unifying the interfaces in the OpenZaurus kernel.) bool res = false; int fd; if ( bright > 255 ) bright = 255; if ( bright < 0 ) bright = 0; if (m_embedix) { if (( fd = ::open ( "/dev/fl", O_WRONLY )) >= 0 ) { int bl = ( bright * 4 + 127 ) / 255; // only 4 steps on zaurus if ( bright && !bl ) bl = 1; res = ( ::ioctl ( fd, FL_IOCTL_STEP_CONTRAST, bl ) == 0 ); ::close ( fd ); } } else { #define FB_BACKLIGHT_SET_BRIGHTNESS _IOW('F', 1, u_int) /* set brightness */ if (( fd = ::open ( "/dev/fb0", O_WRONLY )) >= 0 ) { res = ( ::ioctl ( fd , FB_BACKLIGHT_SET_BRIGHTNESS, bright ) == 0 ); ::close ( fd ); } } return res; } int Zaurus::displayBrightnessResolution ( ) const { if (m_embedix) return 5; else return 256; } /************************************************** * * SIMpad * **************************************************/ void SIMpad::init ( ) { d-> m_vendorstr = "SIEMENS"; d-> m_vendor = Vendor_SIEMENS; QFile f ( "/proc/hal/model" ); //TODO Implement model checking //FIXME For now we assume an SL4 d-> m_modelstr = "SL4"; d-> m_model = Model_SIMpad_SL4; switch ( d-> m_model ) { default: d-> m_rotation = Rot0; d-> m_direction = CCW; d-> m_holdtime = 1000; // 1000ms break; } f. setName ( "/etc/familiar-version" ); if ( f. open ( IO_ReadOnly )) { d-> m_systemstr = "Familiar"; d-> m_system = System_Familiar; QTextStream ts ( &f ); d-> m_sysverstr = ts. readLine ( ). mid ( 10 ); f. close ( ); } else { f. setName ( "/etc/oz_version" ); if ( f. open ( IO_ReadOnly )) { d-> m_systemstr = "OpenEmbedded/SIMpad"; d-> m_system = System_OpenZaurus; QTextStream ts ( &f ); ts.setDevice ( &f ); d-> m_sysverstr = ts. readLine ( ); f. close ( ); } } m_leds [0] = m_leds [1] = Led_Off; m_power_timer = 0; } void SIMpad::initButtons ( ) { if ( d-> m_buttons ) return; if ( isQWS( ) ) QWSServer::setKeyboardFilter ( this ); d-> m_buttons = new QValueList <ODeviceButton>; for ( uint i = 0; i < ( sizeof( simpad_buttons ) / sizeof( s_button )); i++ ) { s_button *sb = simpad_buttons + i; ODeviceButton b; if (( sb-> model & d-> m_model ) == d-> m_model ) { b. setKeycode ( sb-> code ); b. setUserText ( QObject::tr ( "Button", sb-> utext )); b. setPixmap ( Resource::loadPixmap ( sb-> pix )); b. setFactoryPresetPressedAction ( OQCopMessage ( makeChannel ( sb-> fpressedservice ), sb-> fpressedaction )); b. setFactoryPresetHeldAction ( OQCopMessage ( makeChannel ( sb-> fheldservice ), sb-> fheldaction )); d-> m_buttons-> append ( b ); } } reloadButtonMapping ( ); QCopChannel *sysch = new QCopChannel ( "QPE/System", this ); connect ( sysch, SIGNAL( received( const QCString &, const QByteArray & )), this, SLOT( systemMessage ( const QCString &, const QByteArray & ))); } // SIMpad boardcontrol register CS3 #define SIMPAD_BOARDCONTROL "/proc/cs3" #define SIMPAD_VCC_5V_EN 0x0001 // For 5V PCMCIA #define SIMPAD_VCC_3V_EN 0x0002 // FOR 3.3V PCMCIA #define SIMPAD_EN1 0x0004 // This is only for EPROM's #define SIMPAD_EN0 0x0008 // Both should be enable for 3.3V or 5V #define SIMPAD_DISPLAY_ON 0x0010 #define SIMPAD_PCMCIA_BUFF_DIS 0x0020 #define SIMPAD_MQ_RESET 0x0040 #define SIMPAD_PCMCIA_RESET 0x0080 #define SIMPAD_DECT_POWER_ON 0x0100 #define SIMPAD_IRDA_SD 0x0200 // Shutdown for powersave #define SIMPAD_RS232_ON 0x0400 #define SIMPAD_SD_MEDIAQ 0x0800 // Shutdown for powersave #define SIMPAD_LED2_ON 0x1000 #define SIMPAD_IRDA_MODE 0x2000 // Fast/Slow IrDA mode #define SIMPAD_ENABLE_5V 0x4000 // Enable 5V circuit #define SIMPAD_RESET_SIMCARD 0x8000 //SIMpad touchscreen backlight strength control #define SIMPAD_BACKLIGHT_CONTROL "/proc/driver/mq200/registers/PWM_CONTROL" #define SIMPAD_BACKLIGHT_MASK 0x00a10044 QValueList <OLed> SIMpad::ledList ( ) const { QValueList <OLed> vl; vl << Led_Power; //FIXME which LED is LED2 ? The green one or the amber one? //vl << Led_Mail; //TODO find out if LED1 is accessible anyway return vl; } QValueList <OLedState> SIMpad::ledStateList ( OLed l ) const { QValueList <OLedState> vl; if ( l == Led_Power ) //FIXME which LED is LED2 ? The green one or the amber one? vl << Led_Off << Led_On; //else if ( l == Led_Mail ) //TODO find out if LED1 is accessible anyway //vl << Led_Off; return vl; } OLedState SIMpad::ledState ( OLed l ) const { switch ( l ) { case Led_Power: return m_leds [0]; //case Led_Mail: // return m_leds [1]; default: return Led_Off; } } bool SIMpad::setLedState ( OLed l, OLedState st ) { static int fd = ::open ( SIMPAD_BOARDCONTROL, O_RDWR | O_NONBLOCK ); if ( l == Led_Power ) { if ( fd >= 0 ) { LED_IN leds; ::memset ( &leds, 0, sizeof( leds )); leds. TotalTime = 0; leds. OnTime = 0; leds. OffTime = 1; leds. OffOnBlink = 2; switch ( st ) { case Led_Off : leds. OffOnBlink = 0; break; case Led_On : leds. OffOnBlink = 1; break; |