void generate_tone(long frequency, long duration)
{
int32 total_delay_time; // in microseconds
long total_ms_delay_time, total_us_delay_time;
int num_us_delays, num_ms_delays, ms_delay_time, us_delay_time;
long num_periods;
total_delay_time = (1000000/frequency)/2-10; // calculate total delay time (10 for error)
total_ms_delay_time = total_delay_time/1000; // total delay time of ms
num_ms_delays = total_ms_delay_time/250; // number of 250ms delays needed
ms_delay_time = total_ms_delay_time%250; // left over ms delay time needed
total_us_delay_time = total_delay_time%1000; // total delay time of us (ms already acounted for)
num_us_delays = total_us_delay_time/250; // number of 250us delays needed
us_delay_time = total_us_delay_time%250; // left over us delay time needed
num_periods = ((int32)duration*1000)/(1000000/frequency);
while((num_periods--) != 0)
{
do_delay(ms_delay_time, num_ms_delays, us_delay_time, num_us_delays);
output_high(TONE_PIN);
do_delay(ms_delay_time, num_ms_delays, us_delay_time, num_us_delays);
output_low(TONE_PIN);
}
return;
}
/*
* reset AC link
*/
static int snd_atiixp_aclink_reset(atiixp_t *chip)
{
int timeout;
/* reset powerdoewn */
if (atiixp_update(chip, CMD, ATI_REG_CMD_POWERDOWN, 0))
udelay(10);
/* perform a software reset */
atiixp_update(chip, CMD, ATI_REG_CMD_AC_SOFT_RESET, ATI_REG_CMD_AC_SOFT_RESET);
atiixp_read(chip, CMD);
udelay(10);
atiixp_update(chip, CMD, ATI_REG_CMD_AC_SOFT_RESET, 0);
timeout = 10;
while (! (atiixp_read(chip, CMD) & ATI_REG_CMD_ACLINK_ACTIVE)) {
/* do a hard reset */
atiixp_update(chip, CMD, ATI_REG_CMD_AC_SYNC|ATI_REG_CMD_AC_RESET,
ATI_REG_CMD_AC_SYNC);
atiixp_read(chip, CMD);
do_delay();
atiixp_update(chip, CMD, ATI_REG_CMD_AC_RESET, ATI_REG_CMD_AC_RESET);
if (--timeout) {
snd_printk(KERN_ERR "atiixp: codec reset timeout\n");
break;
}
}
/* deassert RESET and assert SYNC to make sure */
atiixp_update(chip, CMD, ATI_REG_CMD_AC_SYNC|ATI_REG_CMD_AC_RESET,
ATI_REG_CMD_AC_SYNC|ATI_REG_CMD_AC_RESET);
return 0;
}
void
Receiver::handle_read_stream (const TRB_Asynch_Read_Stream::Result &result)
{
this->trace_read_completion (result);
// emulate long callback
do_delay (cfg.delay()); // delay milliseconds
{
ACE_GUARD (ACE_SYNCH_MUTEX, monitor, this->mutex () );
this->ref_cnt_r_--;
ACE_Message_Block & mb = result.message_block ();
if (result.error () == 0 && result.bytes_transferred () > 0)
{
this->initiate_write_stream (&mb);
this->initiate_read_stream (0);
}
else
{
mb.release ();
}
if (result.error () != 0)
this->stream_.cancel_and_close ();
if (!is_safe_to_delete())
return;
}
this->manager()->destroy_session(this);
}
void
RcvProtocol::on_read_finished (ACE_Message_Block & mb,
size_t bytes_transferred,
int error)
{
if (bytes_transferred == 0)
{
this->get_connection()->free_msg (&mb);
return;
}
// emulate long callback
do_delay (cfg.delay()); // delay milliseconds
this->write(mb);
//u_int blksize = this->get_connection()->config().r_blksize();
u_int winsize = this->get_connection()->config().w_size();
// flow control
if ((u_long)(this->get_connection()->get_total_rcv () -
this->get_connection()->get_total_snd () > winsize))
return;
this->read();
}
//
// Transition the card/slot to a new state
// note: currently only supports transitions to Ready, Empty
//
bool
cf_hwr_change_state(struct cf_slot *slot, int new_state)
{
int i, ptr, len;
unsigned char buf[256];
if (new_state == CF_SLOT_STATE_Ready) {
if (slot->state == CF_SLOT_STATE_Inserted) {
assabet_BCR(SA1110_BCR_CF_POWER |
SA1110_BCR_CF_RESET |
SA1110_BCR_CF_BUS,
SA1110_BCR_CF_POWER_ON |
SA1110_BCR_CF_RESET_DISABLE |
SA1110_BCR_CF_BUS_OFF);
do_delay(30); // At least 300 ms
slot->state = CF_SLOT_STATE_Powered;
assabet_BCR(SA1110_BCR_CF_POWER |
SA1110_BCR_CF_RESET |
SA1110_BCR_CF_BUS,
SA1110_BCR_CF_POWER_ON |
SA1110_BCR_CF_RESET_ENABLE |
SA1110_BCR_CF_BUS_ON);
do_delay(1); // At least 10 us
slot->state = CF_SLOT_STATE_Reset;
assabet_BCR(SA1110_BCR_CF_POWER |
SA1110_BCR_CF_RESET |
SA1110_BCR_CF_BUS,
SA1110_BCR_CF_POWER_ON |
SA1110_BCR_CF_RESET_DISABLE |
SA1110_BCR_CF_BUS_ON);
do_delay(5); // At least 20 ms
// Wait until the card is ready to talk
for (i = 0; i < 10; i++) {
ptr = 0;
if (cf_get_CIS(slot, CF_CISTPL_VERS_1, buf, &len, &ptr)) {
slot->state = CF_SLOT_STATE_Ready;
break;
}
do_delay(10);
}
}
}
}
//
// Transition the card/slot to a new state
// note: currently only supports transitions to Ready, Empty
//
void
cf_hwr_change_state(struct cf_slot *slot, int new_state)
{
int i, ptr, len;
unsigned char buf[256];
if (new_state == CF_SLOT_STATE_Ready) {
if (slot->state == CF_SLOT_STATE_Inserted) {
ipaq_EGPIO( SA1110_EIO_OPT_PWR | SA1110_EIO_OPT | SA1110_EIO_CF_RESET,
SA1110_EIO_OPT_PWR_ON | SA1110_EIO_OPT_ON | SA1110_EIO_CF_RESET_DISABLE);
do_delay(30); // At least 300 ms
slot->state = CF_SLOT_STATE_Powered;
ipaq_EGPIO( SA1110_EIO_CF_RESET, SA1110_EIO_CF_RESET_ENABLE);
*(volatile unsigned short *)IPAQ_CF_CTRL = IPAQ_CF_CTRL_V5_DISABLE |
IPAQ_CF_CTRL_V3_ENABLE |
IPAQ_CF_CTRL_RESET_ENABLE |
IPAQ_CF_CTRL_APOE_ENABLE |
IPAQ_CF_CTRL_SOE_ENABLE;
do_delay(1); // At least 10 us
slot->state = CF_SLOT_STATE_Reset;
ipaq_EGPIO( SA1110_EIO_CF_RESET, SA1110_EIO_CF_RESET_DISABLE);
do_delay(5); // At least 20 ms
// This is necessary for the two slot sleeve and doesn't seem to
// hurt on the single slot versions. Note: only 3.3V is ever used!
*(volatile unsigned short *)IPAQ_CF_CTRL = IPAQ_CF_CTRL_V5_DISABLE |
IPAQ_CF_CTRL_V3_ENABLE |
IPAQ_CF_CTRL_RESET_DISABLE |
IPAQ_CF_CTRL_APOE_ENABLE |
IPAQ_CF_CTRL_SOE_ENABLE;
do_delay(5); // At least 20 ms
// Wait until the card is ready to talk
for (i = 0; i < 10; i++) {
ptr = 0;
if (cf_get_CIS(slot, CF_CISTPL_VERS_1, buf, &len, &ptr)) {
slot->state = CF_SLOT_STATE_Ready;
break;
}
do_delay(10);
}
}
}
}
int spi_adc_read(struct busyboard *bb) {
int i, val;
spi_set_cs(bb, 0);
for (i = 0; i < 3; ++i) {
do_delay();
spi_set_clk(bb);
do_delay();
spi_clear_clk(bb);
}
for (i = val = 0; i < 10; ++i) {
do_delay();
spi_set_clk(bb);
do_delay();
busyboard_in(bb);
val = (val << 1) | (bb->in_state[1] & 1);
spi_clear_clk(bb);
}
spi_clear_cs(bb);
return val;
}
static int snd_atiixp_codec_detect(atiixp_t *chip)
{
int timeout;
chip->codec_not_ready_bits = 0;
atiixp_write(chip, IER, CODEC_CHECK_BITS);
/* wait for the interrupts */
timeout = HZ / 10;
while (timeout-- > 0) {
do_delay();
if (chip->codec_not_ready_bits)
break;
}
atiixp_write(chip, IER, 0); /* disable irqs */
if ((chip->codec_not_ready_bits & ALL_CODEC_NOT_READY) == ALL_CODEC_NOT_READY) {
snd_printk(KERN_ERR "atiixp: no codec detected!\n");
return -ENXIO;
}
return 0;
}
void do_blink(void) {
uint8_t i = 0;
for (i = 0; i < 3; i++) {
do_delay();
GPIO_BSRR(GPIOB) = GPIO10;
do_delay();
GPIO_BRR(GPIOB) = GPIO10;
}
do_delay();
do_delay();
do_delay();
do_delay();
for (i = 0; i < 10; i++) {
do_delay();
GPIO_BSRR(GPIOB) = GPIO10;
do_delay();
GPIO_BRR(GPIOB) = GPIO10;
}
}
static double eval_rpn(int *equat) {
int i;
double temx, temy, temz;
union /* WARNING -- ASSUMES 32 bit int and 64 bit double */
{
struct {
int int1;
int int2;
} pieces;
struct {
double z;
} num;
} encoder;
while ((i = *equat++) != ENDEXP) {
switch (i) {
case NUMSYM:
encoder.pieces.int2 = *equat++;
encoder.pieces.int1 = *equat++;
PUSH(encoder.num.z);
break;
case ENDFUN:
i = *equat++;
uptr -= i;
break;
case MYIF: {
int ijmp;
temx = POP;
ijmp = *equat++;
if (temx == 0.0)
equat += ijmp;
break;
}
case MYTHEN: {
int ijmp = *equat++;
equat += ijmp;
break;
}
case MYELSE:
break;
case ENDDELSHFT:
temx = POP;
temy = POP;
temz = POP;
PUSH(do_delay_shift(temx, temy, temz));
break;
case ENDDELAY:
temx = POP;
temy = POP;
PUSH(do_delay(temx, temy));
break;
case ENDSHIFT:
temx = POP;
temy = POP;
PUSH(do_shift(temx, temy));
break;
case ENDISHIFT:
temx = POP;
temy = POP;
PUSH(do_ishift(temx, temy));
break;
case SUMSYM: {
int high;
int low;
int ijmp;
double sum;
temx = POP;
high = (int)temx;
temx = POP;
low = (int)temx;
ijmp = *equat++;
sum = 0.0;
if (low <= high) {
for (int is = low; is <= high; is++) {
constants.elems[SumIndex] = (double)is;
sum += eval_rpn(equat);
}
}
equat += ijmp;
PUSH(sum);
break;
}
case ENDSUM:
return (POP);
case INDXCOM:
PUSH(0.0);
break;
default: {
int it = i / MAXTYPE;
int in = i % MAXTYPE;
switch (it) {
case FUN1TYPE:
PUSH(expr_fun1[in](POP));
break;
case FUN2TYPE:
switch (in) {
case 0:
temx = POP;
temy = POP;
PUSH(temx + temy);
break;
case 1:
temx = POP;
temy = POP;
PUSH(temy - temx);
break;
case 2:
temx = POP;
temy = POP;
PUSH(temx * temy);
break;
case 3:
temx = POP;
if (temx == 0.0)
temx = DOUB_EPS;
temy = POP;
PUSH(temy / temx);
break;
default:
temx = POP;
temy = POP;
PUSH(expr_fun2[in](temy, temx));
break;
}
break;
case CONTYPE:
PUSH(constants.elems[in]);
break;
case NETTYPE:
PUSH(network_value(POP, in));
break;
case TABTYPE:
PUSH(lookup(POP, in));
break;
case USTACKTYPE:
/* ram: so this means ustacks really do need to be of USTACKTYPE */
PUSH(ustack[uptr - 1 - in]);
break;
case KERTYPE:
PUSH(ker_val(in));
break;
case VARTYPE:
PUSH(variables.elems[in]);
break;
/* indexes for shift and delay operators... */
case SCONTYPE:
PUSH((double)(COM(CONTYPE, in)));
break;
case SVARTYPE:
PUSH((double)(COM(VARTYPE, in)));
break;
case UFUNTYPE:
i = *equat++;
for (int j = 0; j < i; j++) {
ustack[uptr] = POP;
uptr++;
}
PUSH(eval_rpn(ufuns.elems[in].rpn));
break;
}
break;
}
}
}
return (POP);
}
void main()
{
restart:
#ifdef JOYSTICK
hit_border();
#ifndef LOMEM
#if defined(MSX) || defined(SVI) || defined(SC3000) || defined(EINSTEIN)
msx_text();
#endif
#ifdef SPECTRUM
#ifdef ZX81
hrg_off();
zx_colour(112);
#endif
#endif
printf("%c",12);
printf("\n CHOOSE YOUR JOYSTICK INTERFACE\n\n");
for (k=0 ; k!=GAME_DEVICES; k++)
printf(" %u - %s\n\n",k+1,joystick_type[k]);
stick=0;
while ((stick<1) || (stick>GAME_DEVICES)) {
stick=getk()-48;
}
#else
stick=1;
#endif
#endif
#ifdef SPECTRUM
#ifdef ZX81
hrg_on();
zx_colour(112);
#endif
#endif
#ifdef CLOCK
srand(clock());
#endif
tt=-1;
#ifdef ZX81
#if (spritesize == 2)
speed=500;
#else
speed=300;
#endif
#else
#ifdef C128
#else
speed=300;
#endif
#endif
start_level:
#ifdef ZX81
speed-=100;
#else
speed-=200;
#endif
tt++; t=0; p=1;
clg();
hit_border();
#ifdef LAMBDA
zx_border (INK_CYAN);
zx_colour(112);
#endif
for (m=1; m<=4; m+=2)
for (n=0; n<=30; n+=2) {
putsprite(spr_or,(n*spritesize),((m+3)*spritesizeh),brick_l);
putsprite(spr_or,((n+1)*spritesize),((m+3)*spritesizeh),brick_r);
putsprite(spr_or,(n*spritesize),((m+4)*spritesizeh),brick_r);
putsprite(spr_or,((n+1)*spritesize),((m+4)*spritesizeh),brick_l);
#if (spritesize == 8)
#ifdef SPECTRUM
#ifdef ZX81
*zx_cyx2aaddr(m+3,n) = m<<4;
*zx_cyx2aaddr(m+3,n+1) = m<<4;
*zx_cyx2aaddr(m+4,n) = (m+1)<<4;
*zx_cyx2aaddr(m+4,n+1) = (m+1)<<4;
#else
*zx_cyx2aaddr(m+3,n) = m<<3;
*zx_cyx2aaddr(m+3,n+1) = m<<3;
*zx_cyx2aaddr(m+4,n) = (m+1)<<3;
*zx_cyx2aaddr(m+4,n+1) = (m+1)<<3;
#endif
#endif
#endif
#ifdef LAMBDA
*zx_cyx2aaddr(m+3,n) = m<<4;
*zx_cyx2aaddr(m+3,n+1) = m<<4;
*zx_cyx2aaddr(m+4,n) = (m+1)<<4;
*zx_cyx2aaddr(m+4,n+1) = (m+1)<<4;
#endif
#if defined(MSX) || defined(SVI) || defined(SC3000) || defined(MTX) || defined(EINSTEIN)
#if (spritesize == 8)
set_attr(m+3,n,((m+1)<<1)|0x10);
set_attr(m+3,n+1,((m+1)<<1)|0x10);
set_attr(m+4,n,(m<<1)|0x10);
set_attr(m+4,n+1,(m<<1)|0x10);
#endif
#endif
}
for (n=0; n<=30; n+=2) {
putsprite(spr_or,(n*spritesize),((m+3)*spritesizeh),brick_l);
putsprite(spr_or,((n+1)*spritesize),((m+3)*spritesizeh),brick_r);
#if (spritesize == 8)
#ifdef SPECTRUM
#ifdef ZX81
*zx_cyx2aaddr(m+3,n) = 6<<4;
*zx_cyx2aaddr(m+3,n+1) = 6<<4;
#else
*zx_cyx2aaddr(m+3,n) = 6<<3;
*zx_cyx2aaddr(m+3,n+1) = 6<<3;
#endif
#endif
#endif
#ifdef LAMBDA
*zx_cyx2aaddr(m+3,n) = 6<<4;
*zx_cyx2aaddr(m+3,n+1) = 6<<4;
#endif
#if defined(MSX) || defined(SVI) || defined(SC3000) || defined(MTX) || defined(EINSTEIN)
#if (spritesize == 8)
set_attr(m+3,n,LIGHT_YELLOW|0x10);
set_attr(m+3,n+1,LIGHT_YELLOW|0x10);
#endif
#endif
}
u=0; v=0; a=14; t=0; w=0;
for (r=0; r<=6; r++) {
m=10; n=8+rand()%15;
p=0; a=13;
#if (spritesize == 2)
putsprite(spr_or,(a*spritesize),(21*spritesizeh)-1,paddle);
#else
putsprite(spr_or,(a*spritesize),(21*spritesizeh),paddle);
#endif
#ifndef LOMEM
for (i=0; i<=6; i++) {
putsprite (spr_and, (24+i)*spritesize, 23*spritesizeh, ball);
if (i>r)
putsprite (spr_or, (24+i)*spritesize, 23*spritesizeh, ball);
}
#endif
g=200;
/* Let's show where the ball stars before the dance begins */
putsprite(spr_or,(n*spritesize),(m*spritesizeh),ball);
hit_border();
#ifdef SOUND
for (i=1; i<14; i++) {
bit_synth(4, 199+i, 200+i, 239+i, 240+i);
putsprite(spr_xor,(n*spritesize),(m*spritesizeh),ball);
}
bit_synth(9, 255, 254, 253, 252);
#endif
putsprite(spr_and,(n*spritesize),(m*spritesizeh),ball);
while (m <= 20) {
/* delay */
do_delay();
move_ball();
/* total score count is 574 */
if (t>=573) goto start_level;
if (u==20)
putsprite(spr_and,(v*spritesize),(u*spritesizeh),bounce);
else
putsprite(spr_and,(v*spritesize),(u*spritesizeh),ball);
/* Intermediate step to move the ball smoothly */
putsprite(spr_xor,(((n+v)*spritesize)>>1),(((m+u)*spritesizeh)>>1),ball);
do_delay();
putsprite(spr_xor,(((n+v)*spritesize)>>1),(((m+u)*spritesizeh)>>1),ball);
u=m; v=n;
if (m==20)
putsprite(spr_or,(n*spritesize),(m*spritesizeh),bounce);
else
putsprite(spr_or,(n*spritesize),(m*spritesizeh),ball);
/*
#ifdef SOUND
bit_click();
#endif
*/
#ifdef JOYSTICK
if (joystick(stick) & MOVE_LEFT) {
move_left();
if (joystick(stick) & MOVE_FIRE)
move_left();
}
if (joystick(stick) & MOVE_RIGHT) {
move_right();
if (joystick(stick) & MOVE_FIRE)
move_right();
}
#else
k=getk();
switch (k) {
case '2':
move_left();
break
case '1':
move_left();
move_left();
break;
case '9':
move_right();
break;
case '0':
move_right();
move_right();
break;
}
#endif
}
/* ball is lost */
#if (spritesize == 2)
putsprite(spr_and,(a*spritesize),(21*spritesizeh)-1,paddle);
#else
putsprite(spr_and,(a*spritesize),(21*spritesizeh),paddle);
#endif
}
#ifdef ZX81
#if (spritesize == 2)
#asm
ld a,$1e
ld i,a
#endasm
#endif
#endif
#ifndef LOMEM
#ifdef BANNERS
putsprite(spr_or,40,(12*spritesizeh),scorebanner);
sprintf (scoretxt,"%05u",tt*1000+t);
k=0;
for (i=0; i<5; i++) {
putsprite (spr_or, 140+i+k, 12*spritesizeh+7, &bigdigit[(scoretxt[i]-48)*38]);
if (scoretxt[i]=='1')
k+=5;
else
k+=14;
}
#else
printf("%c\n\n Score: %u ",12,tt*1000+t);
#endif
#endif
/* return (tt*1000+t); */
#ifdef SOUND
bit_fx2(5);
#endif
while (getk()) {}
while (!getk()) {}
goto restart;
}
static void
#else
static int
#endif
sc_lpe_card_handler(cyg_addrword_t param)
{
struct eth_drv_sc *sc = (struct eth_drv_sc *)param;
dp83902a_priv_data_t *dp = (dp83902a_priv_data_t*)sc->driver_private;
struct cf_slot *slot;
struct cf_cftable cftable;
struct cf_config config;
int i, len, ptr, cor = 0;
unsigned char buf[256], *cp;
cyg_uint8* base;
unsigned char *vers_product, *vers_manuf, *vers_revision, *vers_date;
#ifndef CYGPKG_KERNEL
int tries = 0;
#endif
bool first = true;
slot = (struct cf_slot*)dp->plf_priv;
cyg_drv_dsr_lock();
while (true) {
cyg_drv_dsr_unlock(); // Give DSRs a chance to run (card insertion)
cyg_drv_dsr_lock();
if ((slot->state == CF_SLOT_STATE_Inserted) ||
((slot->state == CF_SLOT_STATE_Ready) && first)) {
first = false;
if (slot->state != CF_SLOT_STATE_Ready) {
cf_change_state(slot, CF_SLOT_STATE_Ready);
}
if (slot->state != CF_SLOT_STATE_Ready) {
diag_printf("CF card won't go ready!\n");
#ifndef CYGPKG_KERNEL
return false;
#else
continue;
#endif
}
len = sizeof(buf);
ptr = 0;
if (cf_get_CIS(slot, CF_CISTPL_MANFID, buf, &len, &ptr)) {
if (*(short *)&buf[2] != SC_LPE_MANUF) {
diag_printf("Not a SC LPE, sorry\n");
continue;
}
}
ptr = 0;
if (cf_get_CIS(slot, CF_CISTPL_VERS_1, buf, &len, &ptr)) {
// Find individual strings
cp = &buf[4];
vers_product = cp;
while (*cp++) ; // Skip to nul
vers_manuf = cp;
while (*cp++) ; // Skip to nul
vers_revision = cp;
while (*cp++) ; // Skip to nul
vers_date = cp;
#ifndef CYGPKG_KERNEL
if (tries != 0) diag_printf("\n");
diag_printf("%s: %s %s %s\n", vers_manuf, vers_product, vers_revision, vers_date);
#endif
}
ptr = 0;
if (cf_get_CIS(slot, CF_CISTPL_CONFIG, buf, &len, &ptr)) {
if (cf_parse_config(buf, len, &config)) {
cor = config.base;
}
}
if (!cor) {
// diag_printf("Couldn't find COR pointer!\n");
continue;
}
ptr = 0;
if (cf_get_CIS(slot, CF_CISTPL_CFTABLE_ENTRY, buf, &len, &ptr)) {
if (cf_parse_cftable(buf, len, &cftable)) {
cyg_uint8 tmp;
// Initialize dp83902a IO details
dp->base = base = (cyg_uint8*)&slot->io[cftable.io_space.base[0]];
dp->data = base + DP_DATA;
dp->interrupt = slot->int_num;
cf_set_COR(slot, cor, cftable.cor);
// Reset card (read issues RESET, write clears it)
HAL_READ_UINT8(base+DP_CARD_RESET, tmp);
HAL_WRITE_UINT8(base+DP_CARD_RESET, tmp);
// Wait for card
do {
DP_IN(base, DP_ISR, tmp);
} while (0 == (tmp & DP_ISR_RESET));
// Fetch hardware address from card - terrible, but not well defined
// Patterned after what Linux drivers do
if (!dp->hardwired_esa) {
static unsigned char sc_lpe_addr[] = { 0x00, 0xC0, 0x1B, 0x00, 0x99, 0x9E};
if ((slot->attr[0x1C0] == sc_lpe_addr[0]) &&
(slot->attr[0x1C2] == sc_lpe_addr[1]) &&
(slot->attr[0x1C4] == sc_lpe_addr[2])) {
sc_lpe_addr[3] = slot->attr[0x1C6];
sc_lpe_addr[4] = slot->attr[0x1C8];
sc_lpe_addr[5] = slot->attr[0x1CA];
} else {
// Coudn't find it in the CIS (attribute) data
unsigned char prom[32];
// Tell device to give up ESA
DP_OUT(base, DP_DCR, 0x48); // Bytewide access
DP_OUT(base, DP_RBCH, 0); // Remote byte count
DP_OUT(base, DP_RBCL, 0);
DP_OUT(base, DP_ISR, 0xFF); // Clear any pending interrupts
DP_OUT(base, DP_IMR, 0x00); // Mask all interrupts
DP_OUT(base, DP_RCR, 0x20); // Monitor
DP_OUT(base, DP_TCR, 0x02); // loopback
DP_OUT(base, DP_RBCH, 32); // Remote byte count
DP_OUT(base, DP_RBCL, 0);
DP_OUT(base, DP_RSAL, 0); // Remote address
DP_OUT(base, DP_RSAH, 0);
DP_OUT(base, DP_CR, DP_CR_START|DP_CR_RDMA); // Read data
for (i = 0; i < 32; i++) {
HAL_READ_UINT8(base+DP_DATAPORT, prom[i]);
}
if ((prom[0] == sc_lpe_addr[0]) &&
(prom[2] == sc_lpe_addr[1]) &&
(prom[4] == sc_lpe_addr[2])) {
diag_printf("Getting address from port\n");
sc_lpe_addr[3] = prom[6];
sc_lpe_addr[4] = prom[8];
sc_lpe_addr[5] = prom[10];
} else {
diag_printf("No valid ESA found in CIS! Hardwiring to 00:C0:1B:00:99:9E\n");
}
}
for (i = 0; i < 6; i++) {
dp->esa[i] = sc_lpe_addr[i];
}
}
// Initialize upper level driver
(sc->funs->eth_drv->init)(sc, dp->esa);
// Tell system card is ready to talk
dp->tab->status = CYG_NETDEVTAB_STATUS_AVAIL;
#ifndef CYGPKG_KERNEL
cyg_drv_dsr_unlock();
return true;
#endif
} else {
diag_printf("Can't parse CIS\n");
continue;
}
} else {
diag_printf("Can't fetch config info\n");
continue;
}
} else if (slot->state == CF_SLOT_STATE_Removed) {
diag_printf("Compact Flash card removed!\n");
} else {
cyg_drv_dsr_unlock();
do_delay(50); // FIXME!
#ifndef CYGPKG_KERNEL
if (tries == 0) diag_printf("... Waiting for network card: ");
diag_printf(".");
if (++tries == 10) {
// 5 seconds have elapsed - give up
return false;
}
cf_hwr_poll(slot); // Check to see if card has been inserted
#endif
cyg_drv_dsr_lock();
}
}
}
void
DSession::handle_read_dgram (const TRB_Asynch_Read_Dgram::Result &result)
{
{
ACE_GUARD (ACE_SYNCH_MUTEX, monitor, this->lock_ );
this->io_count_r_--;
int loglevel = cfg.loglevel();
ACE_Message_Block *mb = result.message_block ();
size_t xfer_bytes = result.bytes_transferred();
char * last = mb->wr_ptr();
char * first = last - xfer_bytes;
u_long error = result.error ();
if (loglevel == 0)
{
LogLocker log_lock;
ACE_DEBUG ((LM_DEBUG,
ACE_TEXT ("(%t) **** %s=%d handle_read_dgram() ****\n"),
this->get_name(),
this->index()));
this->print_address (result.remote_address());
ACE_DEBUG ((LM_DEBUG,
ACE_TEXT ("%s = %d\n"),
ACE_TEXT ("bytes_to_read"),
result.bytes_to_read ()));
ACE_DEBUG ((LM_DEBUG,
ACE_TEXT ("%s = %d\n"),
ACE_TEXT ("handle"),
result.handle ()));
ACE_DEBUG ((LM_DEBUG,
ACE_TEXT ("%s = %d\n"),
ACE_TEXT ("bytes_transfered"),
result.bytes_transferred ()));
ACE_DEBUG ((LM_DEBUG,
ACE_TEXT ("%s = %d\n"),
ACE_TEXT ("error"),
error));
ACE_DEBUG ((LM_DEBUG,
ACE_TEXT ("message_block:\n")));
ACE_HEX_DUMP ((LM_DEBUG, first, xfer_bytes));
ACE_DEBUG ((LM_DEBUG,
ACE_TEXT ("**** end of message ****************\n")));
}
else if (error != 0)
{
LogLocker log_lock;
this->print_address (result.remote_address());
ACE_OS::last_error (error);
ACE_Log_Msg::instance ()->errnum (error);
ACE_Log_Msg::instance ()->log (LM_ERROR,
ACE_TEXT ("(%t) %s=%d READ ERROR=%d %p\n"),
this->get_name (),
this->index (),
error,
ACE_TEXT (":"));
}
else if (loglevel == 1)
{
LogLocker log_lock;
this->print_address (result.remote_address());
ACE_DEBUG ((LM_DEBUG,
ACE_TEXT ("(%t) %s=%d READ=%d bytes ok\n"),
this->get_name (),
this->index (),
result.bytes_transferred ()));
}
do_delay (cfg.delay()); // delay milliseconds
if (error == 0 && result.bytes_transferred () > 0)
{
this->total_rcv_ += result.bytes_transferred ();
}
else
{
mb->msg_type (ACE_Message_Block::MB_HANGUP);
mb->wr_ptr (mb->rd_ptr());
}
this->on_data_received (*mb,
static_cast<const ACE_INET_Addr&>
(result.remote_address()));
if (this->io_count_r_ != 0 ||
this->io_count_w_ != 0 ||
this->post_count_ != 0 )
return;
}
delete this;
}