JOYSTICK(Section* configuration):Module_base(configuration){
Section_prop * section=static_cast<Section_prop *>(configuration);
const char * type=section->Get_string("joysticktype");
if (!strcasecmp(type,"none")) joytype = JOY_NONE;
else if (!strcasecmp(type,"false")) joytype = JOY_NONE;
else if (!strcasecmp(type,"auto")) joytype = JOY_AUTO;
else if (!strcasecmp(type,"2axis")) joytype = JOY_2AXIS;
else if (!strcasecmp(type,"4axis")) joytype = JOY_4AXIS;
else if (!strcasecmp(type,"4axis_2")) joytype = JOY_4AXIS_2;
else if (!strcasecmp(type,"fcs")) joytype = JOY_FCS;
else if (!strcasecmp(type,"ch")) joytype = JOY_CH;
else joytype = JOY_AUTO;
bool timed = section->Get_bool("timed");
if(timed) {
ReadHandler.Install(0x201,read_p201_timed,IO_MB);
WriteHandler.Install(0x201,write_p201_timed,IO_MB);
} else {
ReadHandler.Install(0x201,read_p201,IO_MB);
WriteHandler.Install(0x201,write_p201,IO_MB);
}
autofire = section->Get_bool("autofire");
swap34 = section->Get_bool("swap34");
button_wrapping_enabled = section->Get_bool("buttonwrap");
stick[0].enabled = false;
stick[1].enabled = false;
stick[0].xtick = stick[0].ytick = stick[1].xtick =
stick[1].ytick = PIC_FullIndex();
}
Bitu read_herc_status(Bitu port,Bitu iolen) {
// 3BAh (R): Status Register
// bit 0 Horizontal sync
// 1 Light pen status (only some cards)
// 3 Video signal
// 4-6 000: Hercules
// 001: Hercules Plus
// 101: Hercules InColor
// 111: Unknown clone
// 7 Vertical sync inverted
double timeInFrame = PIC_FullIndex()-vga.draw.delay.framestart;
Bit8u retval=0x72; // Hercules ident; from a working card (Winbond W86855AF)
// Another known working card has 0x76 ("KeysoGood", full-length)
if (timeInFrame < vga.draw.delay.vrstart ||
timeInFrame > vga.draw.delay.vrend) retval |= 0x80;
double timeInLine=fmod(timeInFrame,vga.draw.delay.htotal);
if (timeInLine >= vga.draw.delay.hrstart &&
timeInLine <= vga.draw.delay.hrend) retval |= 0x1;
// 688 Attack sub checks bit 3 - as a workaround have the bit enabled
// if no sync active (corresponds to a completely white screen)
if ((retval&0x81)==0x80) retval |= 0x8;
return retval;
}
void JOYSTICK_Init() {
LOG(LOG_MISC,LOG_DEBUG)("Initializing joystick emulation");
/* NTS: Joystick emulation does not work if we init joystick type AFTER mapper init.
* We cannot wait for poweron/reset signal for determination of joystick type.
* But, I/O port setup can happen later. */
{
Section_prop * section=static_cast<Section_prop *>(control->GetSection("joystick"));
const char * type=section->Get_string("joysticktype");
if (!strcasecmp(type,"none")) joytype = JOY_NONE;
else if (!strcasecmp(type,"false")) joytype = JOY_NONE;
else if (!strcasecmp(type,"auto")) joytype = JOY_AUTO;
else if (!strcasecmp(type,"2axis")) joytype = JOY_2AXIS;
else if (!strcasecmp(type,"4axis")) joytype = JOY_4AXIS;
else if (!strcasecmp(type,"4axis_2")) joytype = JOY_4AXIS_2;
else if (!strcasecmp(type,"fcs")) joytype = JOY_FCS;
else if (!strcasecmp(type,"ch")) joytype = JOY_CH;
else joytype = JOY_AUTO;
autofire = section->Get_bool("autofire");
swap34 = section->Get_bool("swap34");
button_wrapping_enabled = section->Get_bool("buttonwrap");
stick[0].enabled = false;
stick[1].enabled = false;
stick[0].xtick = stick[0].ytick = stick[1].xtick =
stick[1].ytick = PIC_FullIndex();
}
AddExitFunction(AddExitFunctionFuncPair(JOYSTICK_Destroy),true);
AddVMEventFunction(VM_EVENT_POWERON,AddVMEventFunctionFuncPair(JOYSTICK_OnPowerOn));
}
static Bitu read_p61(Bitu, Bitu) {
unsigned char dbg;
dbg = ((port_61_data & 0xF) |
(TIMER_GetOutput2()? 0x20:0) |
((fmod(PIC_FullIndex(),0.030) > 0.015)? 0x10:0));
return dbg;
}
static void cmos_checktimer(void) {
PIC_RemoveEvents(cmos_timerevent);
if (cmos.timer.div<=2) cmos.timer.div+=7;
cmos.timer.delay=(1000.0f/(32768.0f / (1 << (cmos.timer.div - 1))));
if (!cmos.timer.div || !cmos.timer.enabled) return;
LOG(LOG_PIT,LOG_NORMAL)("RTC Timer at %.2f hz",1000.0/cmos.timer.delay);
// PIC_AddEvent(cmos_timerevent,cmos.timer.delay);
/* A rtc is always running */
double remd=fmod(PIC_FullIndex(),(double)cmos.timer.delay);
PIC_AddEvent(cmos_timerevent,(float)((double)cmos.timer.delay-remd)); //Should be more like a real pc. Check
// status reg A reading with this (and with other delays actually)
}
static void write_p201_timed(Bitu port,Bitu val,Bitu iolen) {
// Store writetime index
// Axes take time = 24.2 microseconds + ( 0.011 microsecons/ohm * resistance )
// to reset to 0
// Precalculate the time at which each axis hits 0 here
double currentTick = PIC_FullIndex();
if (stick[0].enabled) {
stick[0].xtick = currentTick + 1000.0*( JOY_S_CONSTANT + S_PER_OHM *
(double)(((stick[0].xpos+1.0)* OHMS)) );
stick[0].ytick = currentTick + 1000.0*( JOY_S_CONSTANT + S_PER_OHM *
(double)(((stick[0].ypos+1.0)* OHMS)) );
}
if (stick[1].enabled) {
stick[1].xtick = currentTick + 1000.0*( JOY_S_CONSTANT + S_PER_OHM *
(double)((swap34? stick[1].ypos : stick[1].xpos)+1.0) * OHMS);
stick[1].ytick = currentTick + 1000.0*( JOY_S_CONSTANT + S_PER_OHM *
(double)((swap34? stick[1].xpos : stick[1].ypos)+1.0) * OHMS);
}
}
static Bitu read_p201_timed(Bitu port,Bitu iolen) {
Bit8u ret=0xff;
double currentTick = PIC_FullIndex();
if( stick[0].enabled ){
if( stick[0].xtick < currentTick ) ret &=~1;
if( stick[0].ytick < currentTick ) ret &=~2;
}
if( stick[1].enabled ){
if( stick[1].xtick < currentTick ) ret &=~4;
if( stick[1].ytick < currentTick ) ret &=~8;
}
if (stick[0].enabled) {
if (stick[0].button[0]) ret&=~16;
if (stick[0].button[1]) ret&=~32;
}
if (stick[1].enabled) {
if (stick[1].button[0]) ret&=~64;
if (stick[1].button[1]) ret&=~128;
}
return ret;
}
static Bitu cmos_readreg(Bitu port,Bitu iolen) {
if (cmos.reg>0x3f) {
LOG(LOG_BIOS,LOG_ERROR)("CMOS:Read from illegal register %x",cmos.reg);
return 0xff;
}
Bitu drive_a, drive_b;
Bit8u hdparm;
time_t curtime;
struct tm *loctime;
/* Get the current time. */
curtime = time (NULL);
/* Convert it to local time representation. */
loctime = localtime (&curtime);
switch (cmos.reg) {
case 0x00: /* Seconds */
return MAKE_RETURN(loctime->tm_sec);
case 0x02: /* Minutes */
return MAKE_RETURN(loctime->tm_min);
case 0x04: /* Hours */
return MAKE_RETURN(loctime->tm_hour);
case 0x06: /* Day of week */
return MAKE_RETURN(loctime->tm_wday + 1);
case 0x07: /* Date of month */
return MAKE_RETURN(loctime->tm_mday);
case 0x08: /* Month */
return MAKE_RETURN(loctime->tm_mon + 1);
case 0x09: /* Year */
return MAKE_RETURN(loctime->tm_year % 100);
case 0x32: /* Century */
return MAKE_RETURN(loctime->tm_year / 100 + 19);
case 0x01: /* Seconds Alarm */
case 0x03: /* Minutes Alarm */
case 0x05: /* Hours Alarm */
return cmos.regs[cmos.reg];
case 0x0a: /* Status register A */
if (PIC_TickIndex()<0.002) {
return (cmos.regs[0x0a]&0x7f) | 0x80;
} else {
return (cmos.regs[0x0a]&0x7f);
}
case 0x0c: /* Status register C */
if (cmos.timer.enabled) {
/* In periodic interrupt mode only care for those flags */
Bit8u val=cmos.regs[0xc];
cmos.regs[0xc]=0;
return val;
} else {
/* Give correct values at certain times */
Bit8u val=0;
double index=PIC_FullIndex();
if (index>=(cmos.last.timer+cmos.timer.delay)) {
cmos.last.timer=index;
val|=0x40;
}
if (index>=(cmos.last.ended+1000)) {
cmos.last.ended=index;
val|=0x10;
}
return val;
}
case 0x10: /* Floppy size */
drive_a = 0;
drive_b = 0;
if(imageDiskList[0] != NULL) drive_a = imageDiskList[0]->GetBiosType();
if(imageDiskList[1] != NULL) drive_b = imageDiskList[1]->GetBiosType();
return ((drive_a << 4) | (drive_b));
/* First harddrive info */
case 0x12:
hdparm = 0;
if(imageDiskList[2] != NULL) hdparm |= 0xf;
if(imageDiskList[3] != NULL) hdparm |= 0xf0;
return hdparm;
case 0x19:
if(imageDiskList[2] != NULL) return 47; /* User defined type */
return 0;
case 0x1b:
if(imageDiskList[2] != NULL) return (imageDiskList[2]->cylinders & 0xff);
return 0;
case 0x1c:
if(imageDiskList[2] != NULL) return ((imageDiskList[2]->cylinders & 0xff00)>>8);
return 0;
case 0x1d:
if(imageDiskList[2] != NULL) return (imageDiskList[2]->heads);
return 0;
case 0x1e:
if(imageDiskList[2] != NULL) return 0xff;
return 0;
case 0x1f:
if(imageDiskList[2] != NULL) return 0xff;
return 0;
case 0x20:
if(imageDiskList[2] != NULL) return (0xc0 | (((imageDiskList[2]->heads) > 8) << 3));
return 0;
case 0x21:
if(imageDiskList[2] != NULL) return (imageDiskList[2]->cylinders & 0xff);
return 0;
case 0x22:
if(imageDiskList[2] != NULL) return ((imageDiskList[2]->cylinders & 0xff00)>>8);
return 0;
case 0x23:
if(imageDiskList[2] != NULL) return (imageDiskList[2]->sectors);
return 0;
/* Second harddrive info */
case 0x1a:
if(imageDiskList[3] != NULL) return 47; /* User defined type */
return 0;
case 0x24:
if(imageDiskList[3] != NULL) return (imageDiskList[3]->cylinders & 0xff);
return 0;
case 0x25:
if(imageDiskList[3] != NULL) return ((imageDiskList[3]->cylinders & 0xff00)>>8);
return 0;
case 0x26:
if(imageDiskList[3] != NULL) return (imageDiskList[3]->heads);
return 0;
case 0x27:
if(imageDiskList[3] != NULL) return 0xff;
return 0;
case 0x28:
if(imageDiskList[3] != NULL) return 0xff;
return 0;
case 0x29:
if(imageDiskList[3] != NULL) return (0xc0 | (((imageDiskList[3]->heads) > 8) << 3));
return 0;
case 0x2a:
if(imageDiskList[3] != NULL) return (imageDiskList[3]->cylinders & 0xff);
return 0;
case 0x2b:
if(imageDiskList[3] != NULL) return ((imageDiskList[3]->cylinders & 0xff00)>>8);
return 0;
case 0x2c:
if(imageDiskList[3] != NULL) return (imageDiskList[3]->sectors);
return 0;
case 0x39:
return 0;
case 0x3a:
return 0;
case 0x0b: /* Status register B */
case 0x0d: /* Status register D */
case 0x0f: /* Shutdown status byte */
case 0x14: /* Equipment */
case 0x15: /* Base Memory KB Low Byte */
case 0x16: /* Base Memory KB High Byte */
case 0x17: /* Extended memory in KB Low Byte */
case 0x18: /* Extended memory in KB High Byte */
case 0x30: /* Extended memory in KB Low Byte */
case 0x31: /* Extended memory in KB High Byte */
// LOG(LOG_BIOS,LOG_NORMAL)("CMOS:Read from reg %X : %04X",cmos.reg,cmos.regs[cmos.reg]);
return cmos.regs[cmos.reg];
default:
LOG(LOG_BIOS,LOG_NORMAL)("CMOS:Read from reg %X",cmos.reg);
return cmos.regs[cmos.reg];
}
}
static void DISNEY_analyze(Bitu channel){
switch(disney.state) {
case DS_RUNNING: // should not get here
break;
case DS_IDLE:
// initialize channel data
for(int i = 0; i < 2; i++) {
disney.da[i].used = 0;
disney.da[i].speedcheck_sum = 0;
disney.da[i].speedcheck_failed = false;
disney.da[i].speedcheck_init = false;
}
disney.da[channel].speedcheck_last = PIC_FullIndex();
disney.da[channel].speedcheck_init = true;
disney.state = DS_ANALYZING;
break;
case DS_FINISH:
{
// detect stereo: if we have about the same data amount in both channels
Bits st_diff = disney.da[0].used - disney.da[1].used;
// find leader channel (the one with higher rate) [this good for the stereo case?]
if(disney.da[0].used > disney.da[1].used) {
//disney.monochannel=0;
disney.leader = &disney.da[0];
} else {
//disney.monochannel=1;
disney.leader = &disney.da[1];
}
if((st_diff < 5) && (st_diff > -5)) disney.stereo = true;
else disney.stereo = false;
// calculate rate for both channels
Bitu ch_speed[2];
for(Bitu i = 0; i < 2; i++) {
ch_speed[i] = (Bitu)(1.0/((disney.da[i].speedcheck_sum/1000.0) /
(float)(((float)disney.da[i].used)-1.0))); // -1.75
}
// choose the larger value
DISNEY_enable(ch_speed[0] > ch_speed[1]?
ch_speed[0]:ch_speed[1]); // TODO
break;
}
case DS_ANALYZING:
{
double current = PIC_FullIndex();
dac_channel* cch = &disney.da[channel];
if(!cch->speedcheck_init) {
cch->speedcheck_init = true;
cch->speedcheck_last = current;
break;
}
cch->speedcheck_sum += current - cch->speedcheck_last;
//LOG_MSG("t=%f",current - cch->speedcheck_last);
// sanity checks (printer...)
if((current - cch-> speedcheck_last) < 0.01 ||
(current - cch-> speedcheck_last) > 2)
cch->speedcheck_failed = true;
// if both are failed we are back at start
if(disney.da[0].speedcheck_failed && disney.da[1].speedcheck_failed) {
disney.state=DS_IDLE;
break;
}
cch->speedcheck_last = current;
// analyze finish condition
if(disney.da[0].used > 30 || disney.da[1].used > 30)
disney.state = DS_FINISH;
break;
}
}
}
CDirectSerial::CDirectSerial (Bitu id, CommandLine* cmd)
:CSerial (id, cmd) {
InstallationSuccessful = false;
hCom = INVALID_HANDLE_VALUE; // else destructor may close an invalid handle
rx_retry = 0;
rx_retry_max = 0;
// open the port in NT object space (recommended by Microsoft)
// allows the user to open COM10+ and custom port names.
std::string prefix="\\\\.\\";
std::string tmpstring;
if(!cmd->FindStringBegin("realport:",tmpstring,false)) return;
#if SERIAL_DEBUG
if(dbg_modemcontrol)
fprintf(debugfp,"%12.3f Port type directserial realport %s\r\n",
PIC_FullIndex(),tmpstring.c_str());
#endif
prefix.append(tmpstring);
// rxdelay: How many milliseconds to wait before causing an
// overflow when the application is unresponsive.
if(getBituSubstring("rxdelay:", &rx_retry_max, cmd)) {
if(!(rx_retry_max<=10000)) {
rx_retry_max=0;
}
}
const char* tmpchar=prefix.c_str();
LOG_MSG ("Serial%d: Opening %s", COMNUMBER, tmpstring.c_str());
hCom = CreateFile (tmpchar,
GENERIC_READ | GENERIC_WRITE, 0,
// must be opened with exclusive-access
NULL, // no security attributes
OPEN_EXISTING, // must use OPEN_EXISTING
0, // non overlapped I/O
NULL // hTemplate must be NULL for comm devices
);
if (hCom == INVALID_HANDLE_VALUE) {
int error = GetLastError ();
LOG_MSG ("Serial%d: Serial Port \"%s\" could not be opened.",
COMNUMBER, tmpstring.c_str());
if (error == 2) {
LOG_MSG ("The specified port does not exist.");
} else if (error == 5) {
LOG_MSG ("The specified port is already in use.");
} else {
LOG_MSG ("Windows error %d occurred.", error);
}
return;
}
dcb.DCBlength=sizeof(dcb);
fSuccess = GetCommState (hCom, &dcb);
if (!fSuccess) {
// Handle the error.
LOG_MSG ("GetCommState failed with error %d.\n", (int)GetLastError ());
hCom = INVALID_HANDLE_VALUE;
return;
}
// initialize the port
dcb.BaudRate=CBR_9600;
dcb.fBinary=true;
dcb.fParity=true;
dcb.fOutxCtsFlow=false;
dcb.fOutxDsrFlow=false;
dcb.fDtrControl=DTR_CONTROL_DISABLE;
dcb.fDsrSensitivity=false;
dcb.fOutX=false;
dcb.fInX=false;
dcb.fErrorChar=0;
dcb.fNull=false;
dcb.fRtsControl=RTS_CONTROL_DISABLE;
dcb.fAbortOnError=false;
dcb.ByteSize=8;
dcb.Parity=NOPARITY;
dcb.StopBits=ONESTOPBIT;
fSuccess = SetCommState (hCom, &dcb);
if (!fSuccess) {
// Handle the error.
LOG_MSG ("SetCommState failed with error %d.\n", (int)GetLastError ());
hCom = INVALID_HANDLE_VALUE;
return;
}
// Configure timeouts to effectively use polling
COMMTIMEOUTS ct;
ct.ReadIntervalTimeout = MAXDWORD;
ct.ReadTotalTimeoutConstant = 0;
ct.ReadTotalTimeoutMultiplier = 0;
ct.WriteTotalTimeoutConstant = 0;
ct.WriteTotalTimeoutMultiplier = 0;
SetCommTimeouts (hCom, &ct);
CSerial::Init_Registers();
InstallationSuccessful = true;
receiveblock=false;
ClearCommBreak (hCom);
setEvent(SERIAL_POLLING_EVENT, 1); // millisecond tick
}
void CDirectSerial::updatePortConfig (Bit16u divider, Bit8u lcr) {
Bit8u parity = 0;
Bit8u bytelength = 0;
// baud
if (divider == 0x1)
dcb.BaudRate = CBR_115200;
else if (divider == 0x2)
dcb.BaudRate = CBR_57600;
else if (divider == 0x3)
dcb.BaudRate = CBR_38400;
else if (divider == 0x6)
dcb.BaudRate = CBR_19200;
else if (divider == 0xc)
dcb.BaudRate = CBR_9600;
else if (divider == 0x18)
dcb.BaudRate = CBR_4800;
else if (divider == 0x30)
dcb.BaudRate = CBR_2400;
else if (divider == 0x60)
dcb.BaudRate = CBR_1200;
else if (divider == 0xc0)
dcb.BaudRate = CBR_600;
else if (divider == 0x180)
dcb.BaudRate = CBR_300;
else if (divider == 0x417)
dcb.BaudRate = CBR_110;
// I read that windows can handle nonstandard baudrates:
else
dcb.BaudRate = 115200 / divider;
// byte length
bytelength = lcr & 0x3;
bytelength += 5;
dcb.ByteSize = bytelength;
// parity
parity = lcr & 0x38;
parity = parity >> 3;
switch (parity) {
case 0x1:
dcb.Parity = ODDPARITY;
break;
case 0x3:
dcb.Parity = EVENPARITY;
break;
case 0x5:
dcb.Parity = MARKPARITY;
break;
case 0x7:
dcb.Parity = SPACEPARITY;
break;
default:
dcb.Parity = NOPARITY;
break;
}
// stopbits
if (lcr & 0x4) {
if (bytelength == 5)
dcb.StopBits = ONE5STOPBITS;
else
dcb.StopBits = TWOSTOPBITS;
} else {
dcb.StopBits = ONESTOPBIT;
}
#ifdef SERIALPORT_DEBUGMSG
LOG_MSG ("__________________________");
LOG_MSG ("Serial%d: new baud rate: %d", COMNUMBER, dcb.BaudRate);
LOG_MSG ("Serial%d: new bytelen: %d", COMNUMBER, dcb.ByteSize);
LOG_MSG ("Serial%d: new parity: %d", COMNUMBER, dcb.Parity);
LOG_MSG ("Serial%d: new stopbits: %d", COMNUMBER, dcb.StopBits);
#endif
if (!SetCommState (hCom, &dcb)) {
#if SERIAL_DEBUG
if(dbg_modemcontrol)
fprintf(debugfp,"%12.3f serial mode not supported: rate=%d,LCR=%x.\r\n",
PIC_FullIndex(),dcb.BaudRate,lcr);
#endif
LOG_MSG ("Serial%d: Desired serial mode not supported (%d,%d,%d,%d",
(Bit32u)dcb.BaudRate,(Bit32u)dcb.ByteSize,
(Bit32u)dcb.Parity,(Bit32u)dcb.StopBits, COMNUMBER);
}
}