// Given the file descriptor for a serial device, close that device.
void CloseSerialPort(int fileDescriptor)
{
#if 1
// Block until all written output has been sent from the device.
// Note that this call is simply passed on to the serial device driver.
// See tcsendbreak(3) ("man 3 tcsendbreak") for details.
if (tcdrain(fileDescriptor) == -1)
{
printf("Error waiting for drain - %s(%d).\n",
strerror(errno), errno);
}
// Traditionally it is good practice to reset a serial port back to
// the state in which you found it. This is why the original termios struct
// was saved.
if (tcsetattr(fileDescriptor, TCSANOW, &gOriginalTTYAttrs) == -1)
{
printf("Error resetting tty attributes - %s(%d).\n",
strerror(errno), errno);
}
#endif
KeyCheck(&key_data); // Clean up serial buffer;
printf("Clena up uart buffer completed!\n");
close(fileDescriptor);
}
unsigned int Read_joypad(void)
{
unsigned int button=0;
if(KeyCheck(&key_data))
{
if(key_data & 0x2000) button = BIT_U; //UP
if(key_data & 0x1000) button |= BIT_D; //DOWN
if(key_data & 0x8000) button |= BIT_L; //LEFT
if(key_data & 0x4000) button |= BIT_R; //RIGHT
if(key_data & 0x0010) button |= BIT_ST; // START
if(key_data & 0x0020) button |= BIT_SEL; // SELECT
if(key_data & 0x0040) button |= BIT_RPAD; // TR
if(key_data & 0x0080) button |= BIT_LPAD; // TL
if(key_data & 0x0400) button |= BIT_PUSH; // Y
//if(key_data & 0x0800) button |= BIT_X; // X
if(key_data & 0x0200) button |= BIT_A; // 1 - A
if(key_data & 0x0100) button |= BIT_B; // 2 - B
old_button=button;
//printf("%02x %02x\n",(key_data&0xff00)>>8, key_data&0xff);
}
return old_button;
}
void CKeyMgr::ProcessingSequence()
{
/*
1. 테이블을 바꾼다
2. 현재 테이블을 모두 KS_None으로 세팅
3. KeyCheck를 통해 눌린 상태를 조사한다
*/
swapTable();
memset(curr_KeyTable, KS_None, sizeof(curr_KeyTable));
KeyCheck();
}
//#define BUFSIZE 100
//char readbuf[BUFSIZE];
int Init_joypad(void)
{
// kern_return_t kernResult; // on PowerPC this is an int (4 bytes)
/*
* error number layout as follows (see mach/error.h):
*
* hi lo
* | system(6) | subsystem(12) | code(14) |
*/
// io_iterator_t serialPortIterator;
char bsdPath[MAXPATHLEN]="/dev/tty.iap";
/*
kernResult = FindModems(&serialPortIterator);
kernResult = GetModemPath(serialPortIterator, bsdPath, sizeof(bsdPath));
IOObjectRelease(serialPortIterator); // Release the iterator.
*/
// Now open the modem port we found, initialize the modem, then close it
if (!bsdPath[0])
{
printf("No modem port found.\n");
return EX_UNAVAILABLE;
}
fileDescriptor = OpenSerialPort(bsdPath);
if (-1 == fileDescriptor)
{
return EX_IOERR;
}
/*
if (InitializeModem(fileDescriptor))
{
printf("Modem initialized successfully.\n");
}
else {
printf("Could not initialize modem.\n");
}
*/
printf("Clena up uart buffer!\n");
KeyCheck(&key_data); // Clean up serial buffer;
key_data=0;
printf("Joynux init OK.!\n");
return EX_OK;
}
void update(float time) {
KeyCheck();
switch(STATE) {
case stay:
anim.set("stay");
break;
case walk:
anim.set("walk");
break;
case jump:
anim.set("jump");
break;
case duck:
anim.set("duck");
break;
case climb:
anim.set("climb");
anim.pause();
if(dy != 0)
anim.play();
if(!onLadder)
STATE = stay;
break;
}
/*if (STATE == stay) anim.set("stay");
if (STATE==walk) anim.set("walk");
if (STATE==jump) anim.set("jump");
if (STATE==duck) anim.set("duck");
if (STATE==climb) {anim.set("climb"); anim.pause(); if (dy!=0) anim.play(); if (!onLadder) STATE=stay;}
*/
if (shoot) {
switch(STATE) {
case stay:
anim.set("shoot");
break;
case walk:
anim.set("walking_attack");
break;
case jump:
anim.set("jumping_attack");
break;
case duck:
anim.set("ducking_attack");
break;
case climb:
anim.set("climbing_attack");
break;
}
/*if (STATE==jump) anim.set("jumping_attack");
if (STATE==duck) anim.set("ducking_attack");
if (STATE==climb) anim.set("climbing_attack");
if (STATE==walk) anim.set("walking_attack");
if (STATE==stay) anim.set("shoot");
*/
}
if(hit) {
timer += time;
if(timer > 1000) {
hit = false;
timer = 0;
}
//anim.set("hit");
}
if(dir)
anim.flip();
if((offsetX - x) < -260) { // если пытаемся выбежать вперед за правую границу экрана - нас отбрасывает назад
x = offsetX + 260;
}
if((offsetX - x) > 300) { //если тупим и не успеваем, то нас выталкивает вперед и придает скорости
x = offsetX - 300;
dx = 0.3;
}
x += dx * time;
Collision(0);
//мы оказались за пределом экрана до этого и теперь dx>0, а так же Collision отбросила нас обратно за пределы
if (((offsetX - x) > 300) && (dx > 0)) { // если после всего мы по прежнему за пределом экрана, то нас "прищемляет"
Health -= 50;
//screen_speed = 0;
x = offsetX - 300;
}
if (STATE != climb)
dy += 0.0005*time;
y += dy*time;
onLadder = false;
Collision(1);
anim.tick(time);
key["R"] = key["L"] = key["Up"] = key["Down"] = key["Space"] = false;
}
bool GGameMenu::Frame()
{
//if (g_pMain->m_nGameBeforePhase != g_pMain->m_nGamePhase) {
// g_pMain->m_pSound.Play(SND_INTRO, true);
// g_pMain->m_nGameBeforePhase = g_pMain->m_nGamePhase;
//}
SoundPlay();
KeyCheck();
/*GControlUI* pSelect = SelectRect();
if (pSelect != NULL && m_pSelectPlane != pSelect)
{
m_pSelectPlane = pSelect;
}
if (m_pSelectPlane)
{
D3DXVECTOR3 vPos(0, 0, 0);
D3DXVECTOR3 vScale(0, 0, 0);
if (g_InputData.bQKey)
{
vScale.x += 50 * g_fSecPerFrame;
}
if (g_InputData.bEKey)
{
vScale.x += -50 * g_fSecPerFrame;
}
if (g_InputData.bZKey)
{
vScale.y += 50 * g_fSecPerFrame;
}
if (g_InputData.bCKey)
{
vScale.y += -50 * g_fSecPerFrame;
}
if (g_InputData.bWKey)
{
vPos.y = 50 * g_fSecPerFrame;
}
if (g_InputData.bSKey)
{
vPos.y = -50 * g_fSecPerFrame;
}
if (g_InputData.bAKey)
{
vPos.x = -50 * g_fSecPerFrame;
}
if (g_InputData.bDKey)
{
vPos.x = 50 * g_fSecPerFrame;
}
m_pSelectPlane->Move(vPos.x, vPos.y, vPos.z);
m_pSelectPlane->Scale(vScale.x, vScale.y, vScale.z);
}*/
for (int iPlane = 0; iPlane < m_pUIList.size(); iPlane++)
{
GControlUI* pRect = m_pUIList[iPlane];
pRect->Update();
}
return true;
}
