TCP_RECEIVEOBJ::TCP_RECEIVEOBJ(int num) : BASE_CL()
{
int i;
outports = 0;
inports = 0;
width=80;
height=50;
for (i=0;i<MAX_PORTS;i++)
out_ports[i].get_range=-1;
sock=0;
reset_header(&header);
reset_channel(channel);
state=0;
watching=FALSE;
packetcount=0;
packetnum=0;
streamnum=-1;
syncloss=0;
timestamp=0;
bufend=0;
bufstart=0;
strcpy(edfheader,"none");
strcpy(host,defaulthost);
}
int zd_mac_set_regdomain(struct zd_mac *mac, u8 regdomain)
{
int r;
u8 channel;
ZD_ASSERT(!irqs_disabled());
spin_lock_irq(&mac->lock);
if (regdomain == 0) {
regdomain = mac->default_regdomain;
}
if (!zd_regdomain_supported(regdomain)) {
spin_unlock_irq(&mac->lock);
return -EINVAL;
}
mac->regdomain = regdomain;
channel = mac->requested_channel;
spin_unlock_irq(&mac->lock);
r = zd_geo_init(zd_mac_to_ieee80211(mac), regdomain);
if (r)
return r;
if (!zd_regdomain_supports_channel(regdomain, channel)) {
r = reset_channel(mac);
if (r)
return r;
}
return 0;
}
int zd_mac_init_hw(struct zd_mac *mac, u8 device_type)
{
int r;
struct zd_chip *chip = &mac->chip;
u8 addr[ETH_ALEN];
u8 default_regdomain;
r = zd_chip_enable_int(chip);
if (r)
goto out;
r = zd_chip_init_hw(chip, device_type);
if (r)
goto disable_int;
zd_get_e2p_mac_addr(chip, addr);
r = zd_write_mac_addr(chip, addr);
if (r)
goto disable_int;
ZD_ASSERT(!irqs_disabled());
spin_lock_irq(&mac->lock);
memcpy(mac->netdev->dev_addr, addr, ETH_ALEN);
spin_unlock_irq(&mac->lock);
r = zd_read_regdomain(chip, &default_regdomain);
if (r)
goto disable_int;
if (!zd_regdomain_supported(default_regdomain)) {
dev_dbg_f(zd_mac_dev(mac),
"Regulatory Domain %#04x is not supported.\n",
default_regdomain);
r = -EINVAL;
goto disable_int;
}
spin_lock_irq(&mac->lock);
mac->regdomain = mac->default_regdomain = default_regdomain;
spin_unlock_irq(&mac->lock);
r = reset_channel(mac);
if (r)
goto disable_int;
/* We must inform the device that we are doing encryption/decryption in
* software at the moment. */
r = zd_set_encryption_type(chip, ENC_SNIFFER);
if (r)
goto disable_int;
r = zd_geo_init(zd_mac_to_ieee80211(mac), mac->regdomain);
if (r)
goto disable_int;
r = 0;
disable_int:
zd_chip_disable_int(chip);
out:
return r;
}
void CToneBalanceDlg::OnResetAll()
{
for (int i=IDC_DO_ALL; i<IDC_DO_BLACK; i++) // setup each channel with defaults
{
if(ChannelsCombo_IsEnabled(i))
reset_channel(i);
}
set_quarter_channel(m_lpData->wChannel); // setup the actual histogram and controls
AutoPreview(m_lpData->lpMap, m_bAutoPreview, YES);
}
void z80sio_reset(int which)
{
z80sio *sio = sios + which;
int ch;
assert(which < MAX_SIO);
/* loop over channels */
for (ch = 0; ch < 2; ch++)
reset_channel(sio, ch);
}
CToneBalanceDlg::OnInitDialog()
{
HWND hControl;
FRMDATATYPE type;
LPIMAGE lpImage = NULL;
int i;
LONG style;
HWND hDlg = GetSafeHwnd();
PreDoModal();
m_lpData = (LPQUARTERSTRUCT)Alloc(sizeof(QUARTERSTRUCT));
if (!m_lpData)
return(FALSE);
for (i=0;i<3;i++) // setup tag sliders
{
if (hControl = ::GetDlgItem(hDlg, i+IDC_QUART1))
{
style = GetWindowLong(hControl, GWL_EXSTYLE);
style |= WS_EX_TRANSPARENT;
SetWindowLong(hControl, GWL_EXSTYLE, style);
}
}
lpImage = GetImage();
RightPopup( hDlg );
// set channels combo
type = FrameType(ImgGetBaseEditFrame(lpImage));
m_lpData->wChannel = IDC_DO_ALL;
m_MapValues.wChannel = m_lpData->wChannel; //this is not a very good solution
ChannelsCombo_Setup(IDC_CHANNELS, type);
ControlEnable(hDlg, IDC_PREVIEW, !m_bAutoPreview);
// remove or add percents
SetAllDlgItemsText(hDlg, IDC_PERCENT, m_bPercentages ? (LPSTR)"%":(LPSTR)"");
m_lpData->lpHistos[0] = NULL;
ResetAllMaps();
// setup each channel with defaults
for (i=IDC_DO_ALL; i<=IDC_DO_BLACK;i++)
reset_channel(i);
// setup the actual histogram and controls
set_quarter_channel(m_lpData->wChannel);
return CPPMapDlg::OnInitDialog();
}
EDF_READEROBJ::EDF_READEROBJ(int num) : BASE_CL()
{
int i;
outports = 0;
inports = 0;
width=80;
height=50;
for (i=0;i<MAX_PORTS;i++)
out_ports[i].get_range=-1;
reset_header(&header);
reset_channel(channel);
state=0;
packetcount=0;
sampos=0;
sessionlength=0;
offset=0;
loading=0;
edffile=INVALID_HANDLE_VALUE;
strcpy(filename,"none");
}
/*
* Reset and initialize the device
*/
static int init_device(struct device *dev)
{
struct talitos_private *priv = dev_get_drvdata(dev);
int ch, err;
/*
* Master reset
* errata documentation: warning: certain SEC interrupts
* are not fully cleared by writing the MCR:SWR bit,
* set bit twice to completely reset
*/
err = reset_device(dev);
if (err)
return err;
err = reset_device(dev);
if (err)
return err;
/* reset channels */
for (ch = 0; ch < priv->num_channels; ch++) {
err = reset_channel(dev, ch);
if (err)
return err;
}
/* enable channel done and error interrupts */
setbits32(priv->reg + TALITOS_IMR, TALITOS_IMR_INIT);
setbits32(priv->reg + TALITOS_IMR_LO, TALITOS_IMR_LO_INIT);
/* disable integrity check error interrupts (use writeback instead) */
if (priv->features & TALITOS_FTR_HW_AUTH_CHECK)
setbits32(priv->reg + TALITOS_MDEUICR_LO,
TALITOS_MDEUICR_LO_ICE);
return 0;
}
void CToneBalanceDlg::OnReset()
{
reset_channel(m_lpData->wChannel); // setup channel with defaults
set_quarter_channel(m_lpData->wChannel); // setup the actual histogram and controls
AutoPreview(m_lpData->lpMap, m_bAutoPreview, YES);
}
//server_disconnect(server *s, char *mesg, int flags)
void
server_disconnect(server *s, int err, int kill, char *mesg)
{
/* When err flag is set:
* Disconnect initiated by remote host
*
* When kill flag is set:
* Free the server, update ccur
*/
/* Server connection in progress, cancel the connection attempt */
if (s->connecting) {
connection_thread *ct = s->connecting;
if ((pthread_cancel(ct->tid)))
fatal("pthread_cancel");
/* There's a chance the thread is canceled with an open socket */
if (ct->socket_tmp)
close(ct->socket_tmp);
free(ct);
s->connecting = NULL;
newlinef(s->channel, 0, "--", "Connection to '%s' port %s canceled", s->host, s->port);
}
/* Server is/was connected, close socket, send quit message if non-erroneous disconnect */
else if (s->soc >= 0) {
if (err) {
/* If disconnecting due to error, attempt a reconnect */
newlinef(s->channel, 0, "ERROR", "%s", mesg);
newlinef(s->channel, 0, "--", "Attempting reconnect in %ds", RECONNECT_DELTA);
s->reconnect_time = time(NULL) + RECONNECT_DELTA;
s->reconnect_delta = RECONNECT_DELTA;
} else if (mesg) {
sendf(NULL, s, "QUIT :%s", mesg);
}
close(s->soc);
/* Set all server attributes back to default */
memset(s->usermodes, 0, MODE_SIZE);
s->soc = -1;
s->iptr = s->input;
s->nptr = config.nicks;
s->latency_delta = 0;
/* Reset the nick that reconnects will attempt to register with */
auto_nick(&(s->nptr), s->nick);
/* Print message to all open channels and reset their attributes */
channel *c = s->channel;
do {
newline(c, 0, "-!!-", "(disconnected)");
reset_channel(c);
} while ((c = c->next) != s->channel);
}
/* Server was waiting to reconnect, cancel future attempt */
else if (s->reconnect_time) {
newlinef(s->channel, 0, "--", "Auto reconnect attempt canceled");
s->reconnect_time = 0;
s->reconnect_delta = 0;
}
if (kill) {
DLL_DEL(server_head, s);
free_server(s);
}
}
int main()
{
/*
DECLARE LOCAL DATA AREAS:
*/
char cmd_buff[80]; /* command line input buffer */
unsigned finished, finished1; /* flag to exit program */
int hstatus; /* returned status of routines */
int item; /* menu item selection variable */
float ideal_volt_span; /* storage span info */
float f_data;
long addr; /* board address */
int flag; /* general flag for exiting loops */
int i,j; /* loop index */
int temp;
struct conf_blk c_block; /* configuration block */
int hflag; /* interrupt handler installed flag */
struct handler_data hdata; /* interrupt data structure (see exception.h) */
float fb[MAXSIZE]; /* storage buffer for floats */
float fs, zs, slope, ge;
/*
ENTRY POINT OF ROUTINE:
INITIALIZATION
*/
flag = 0; /* indicate board address not yet assigned */
finished = 0; /* indicate not finished with program */
hflag = 0; /* indicate interrupt handler not installed yet */
for(j = 0; j < MAXSIZE; j++) /* clear float buffer */
fb[j] = 0.0;
for(i = 0; i < NUM_CHAN;i++)
{
for(j = 0; j < MAXSIZE; j++)
{
c_block.ideal_data[i][j] = 0; /* clear ideal data buffer */
c_block.cor_data[i][j] = 0; /* clear corrected data buffer */
}
c_block.coef_bufu10[i][0] = c_block.coef_bufu10[i][1] = 0;
c_block.coef_bufb10[i][0] = c_block.coef_bufb10[i][1] = 0;
c_block.coef_bufb5[i][0] = c_block.coef_bufb5[i][1] = 0;
/* Initialize the Configuration Parameter Block to default values */
c_block.mode[i] = 0; /* mode */
c_block.trigger[i] = 0; /* default triggering */
c_block.interrupt_enable[i] = 0; /* interrupt enable */
c_block.threshold[i] = 0; /* empty threshold */
c_block.range[i] = BIPOLAR_10;/* channel range storage */
c_block.prescaler[i] = 53; /* timer prescaler */
c_block.counter[i] = 1; /* conversion counter */
c_block.write_size[i] = 1;
}
c_block.interrupt_flag = 0; /* default to no interrupts */
c_block.current_channel = 0; /* default channel */
c_block.interrupt_vector = VECTOR; /* default interrupt vector */
c_block.bCarrier = FALSE; /* indicate no carrier initialized and set up yet */
c_block.bInitialized = FALSE; /* indicate not ready to talk to IP */
c_block.slotLetter = SLOT_A;
c_block.nHandle = 0; /* make handle to a closed carrier board */
hdata.h_pid = getpid(); /* save it in the interrupt handler data structure */
hdata.hd_ptr = (char *)&c_block;/* put in address of c_block structure also */
/*
Initialize the Carrier library
*/
if(InitCarrierLib() != S_OK)
{
printf("\nUnable to initialize the carrier library. Exiting program.\n");
exit(0);
}
/*
Open an instance of a carrier device
*/
if(CarrierOpen(0, &c_block.nHandle) != S_OK)
{
printf("\nUnable to Open instance of carrier.\n");
finished = 1; /* indicate finished with program */
}
else
flag = 1;
/* Enter main loop */
while(!finished)
{
printf("\nIP236 Library Demonstration Rev. A \n\n");
printf(" 1. Exit this Program\n");
printf(" 2. Set Board Base Address\n");
printf(" 3. Set IP Slot Letter\n");
printf(" 4. Read Module I.D./Display Event Status\n");
printf(" 5. Read Calibration Coefficients\n");
printf(" 6. Set/Change Channel Number\n");
printf(" 7. Issue Software Reset to Board\n");
printf(" 8. Set Up Configuration Parameters\n");
printf(" 9. Configure Channel\n");
printf("10. Enter/Change Output Values\n");
printf("11. Correct Output Values\n");
printf("12. Write Values to Output FIFO\n");
printf("13. N/A\n");
printf("14. Start/Stop Conversions\n");
printf("15. View Data Buffers & Offset/Gain Coefficients\n");
printf("16. Clear All Data Buffers\n");
printf("17. Modify Offset/Gain Coefficients\n");
printf("18. N/A\n\n");
printf("Select: ");
scanf("%d",&item);
/*
perform the menu item selected.
*/
switch(item)
{
case 1: /* exit program command */
printf("Exit program(y/n)?: ");
scanf("%s",cmd_buff);
if( cmd_buff[0] == 'y' || cmd_buff[0] == 'Y' )
finished++;
break;
case 2: /* set board address command */
do
{
if(flag == 0)
{
printf("\n\nenter base address of carrier board in hex: ");
scanf("%lx",&addr);
/* Set Carrier Address for Open Carrier Device */
SetCarrierAddress(c_block.nHandle, addr); /* Set Carrier Address */
}
GetCarrierAddress(c_block.nHandle, &addr); /* Read back carrier address */
printf("address: %lX\n",addr);
printf("is this value correct(y/n)?: ");
scanf("%s",cmd_buff);
if( cmd_buff[0] == 'y' || cmd_buff[0] == 'Y' )
{
SetCarrierAddress(c_block.nHandle, addr); /* Set Carrier Address */
if(CarrierInitialize(c_block.nHandle) == S_OK)/* Initialize Carrier */
{
c_block.bCarrier = TRUE;
SetInterruptLevel(c_block.nHandle, INTERRUPT_LEVEL);/* Set carrier interrupt level */
}
flag = 1;
}
else
flag = 0;
}while( cmd_buff[0] != 'y' && cmd_buff[0] != 'Y' );
break;
case 3: /* set IP Slot Letter */
if(flag == 0 || c_block.bCarrier == FALSE)
printf("\n>>> ERROR: BOARD ADDRESS NOT SET <<<\n");
else
{
printf("\n\nEnter IP slot letter (A, B etc...): ");
scanf("%s",cmd_buff);
cmd_buff[0] = toupper(cmd_buff[0]);
if(cmd_buff[0] < 'A' || cmd_buff[0] > GetLastSlotLetter())
{
printf("\nInvalid Slot Letter!\n");
c_block.bCarrier = FALSE;
}
else
{
c_block.slotLetter = cmd_buff[0];
/*
Get the IPACK's base address based on the Slot letter,
and initialize the IPACK's data structure with the returned address
*/
if(GetIpackAddress(c_block.nHandle, c_block.slotLetter, &addr) != S_OK)
{
printf("\nUnable to Get Ipack Address.\n");
c_block.bInitialized = FALSE;
}
else
{
c_block.brd_ptr = (struct map236 *)addr;
c_block.bInitialized = TRUE;
}
}
}
break;
case 4: /* Read ID Prom */
if(!c_block.bInitialized)
printf("\n>>> ERROR: BOARD ADDRESS NOT SET <<<\n");
else
readid(&c_block);
break;
case 5: /* Read calibration coeficients*/
if(!c_block.bInitialized)
printf("\n>>> ERROR: BOARD ADDRESS NOT SET <<<\n");
else
{
for( i = 0; i < NUM_CHAN; i++ )
{
c_block.coef_bufu10[i][0] = (word)ReadOffsetError( &c_block, i, UNIPOLAR_10 );
c_block.coef_bufu10[i][1] = (word)ReadGainError( &c_block, i, UNIPOLAR_10 );
c_block.coef_bufb5[i][0] = (word)ReadOffsetError( &c_block, i, BIPOLAR_5 );
c_block.coef_bufb5[i][1] = (word)ReadGainError( &c_block, i, BIPOLAR_5 );
c_block.coef_bufb10[i][0] = (word)ReadOffsetError( &c_block, i, BIPOLAR_10 );
c_block.coef_bufb10[i][1] = (word)ReadGainError( &c_block, i, BIPOLAR_10 );
}
}
break;
case 6: /* channel number */
finished1 = 0;
while(!finished1)
{
printf("\n\nChannel: %x\n\n",c_block.current_channel);
printf(" 1. Return to Previous Menu\n");
printf(" 2. Change Channel Number\n");
printf("\nSelect: ");
scanf("%d",&temp);
switch(temp)
{
case 1: /* return to previous menu */
finished1++;
break;
case 2: /* Select channel */
printf("New Channel Number (0 - %d)\n",(NUM_CHAN - 1));
c_block.current_channel = (int)get_param();
break;
}
}
break;
case 7: /* Reset channel */
if(!c_block.bInitialized)
printf("\n>>> ERROR: BOARD ADDRESS NOT SET <<<\n");
else
reset_board(&c_block);
break;
case 8: /* set up configuration block parameters */
setconf236(&c_block);
break;
case 9: /* configure */
if(!c_block.bInitialized)
printf("\n>>> ERROR: BOARD ADDRESS NOT SET <<<\n");
else
cnfg236(&c_block);
break;
case 10: /* Enter Ideal Data */
finished1 = 0;
while(!finished1)
{
printf("\n\nChannel: %x\n\n",c_block.current_channel);
printf(" 1. Return to Previous Menu\n");
printf(" 2. Enter Value(s)\n");
printf("\nSelect: ");
scanf("%d",&temp);
switch(temp)
{
case 1: /* return to previous menu */
finished1++;
break;
case 2: /* enter channel values */
printf("\nEnter desired voltage: ie: 1.25, follow each with CR %d max)",MAXSIZE);
printf("\n CR alone moves to next value,");
printf("\n SPACE CR moves to previous value,");
printf("\n Q CR quits:\n\n");
gets( &cmd_buff[0] ); /* purge input stream */
for( j = 0; j < MAXSIZE; j++ )
{
printf("[%02X]: %f ",j,fb[j]);
gets( &cmd_buff[0] );
if(( cmd_buff[0] == 'Q') || ( cmd_buff[0] == 'q'))
break;
else
{
if( cmd_buff[0] == ' ' ) /* check for space */
j -= 2; /* back up if so */
if( cmd_buff[0] != 0 && cmd_buff[0] != ' ' ) /* check for CR */
sscanf( &cmd_buff[0], "%f", &fb[j]); /* save */
}
}
for( i = 0; i < j; i++ ) /* convert data */
{
if(c_block.range[c_block.current_channel] == BIPOLAR_10)
ideal_volt_span = VOLT_SPAN_B10;
else
ideal_volt_span = VOLT_SPAN;
f_data = (((float)65536 * fb[i]) / ideal_volt_span);
if( c_block.range[c_block.current_channel] == UNIPOLAR_10 )
f_data -= 32768.0;
if( f_data < 0.0) /* round */
f_data -= 0.5;
else
f_data += 0.5;
if( f_data > 32767.0 ) /* clip high */
f_data = 32767.0;
if( f_data < -32768.0 ) /* clip low */
f_data = -32768.0;
c_block.ideal_data[c_block.current_channel][i] = (short)f_data;
}
c_block.write_size[c_block.current_channel] = j;
break;
}
}
break;
case 11: /* Correct Data */
cd236(&c_block); /* correct data */
break;
case 12: /* Write Data to output */
if(!c_block.bInitialized)
printf("\n>>> ERROR: BOARD ADDRESS NOT SET <<<\n");
else
{
finished1 = 0;
while(!finished1)
{
printf("\n\nChannel: %x\n\n",c_block.current_channel);
printf(" 1. Return to Previous Menu\n");
printf(" 2. Write Ideal Data Values\n");
printf(" 3. Write Corrected Data Values\n");
printf("\nSelect: ");
scanf("%d",&temp);
switch(temp)
{
case 1: /* return to previous menu */
finished1++;
break;
case 2: /* Ideal */
c_block.current_ptr[c_block.current_channel] =
c_block.head_ptr[c_block.current_channel] = &c_block.ideal_data[c_block.current_channel][0];
c_block.tail_ptr[c_block.current_channel] = &c_block.ideal_data[c_block.current_channel][0] + c_block.write_size[c_block.current_channel];
wro236(&c_block, c_block.current_channel);
break;
case 3: /* Corrected */
c_block.current_ptr[c_block.current_channel] =
c_block.head_ptr[c_block.current_channel] = &c_block.cor_data[c_block.current_channel][0];
c_block.tail_ptr[c_block.current_channel] = &c_block.cor_data[c_block.current_channel][0] + c_block.write_size[c_block.current_channel];
wro236(&c_block, c_block.current_channel);
break;
}
}
}
break;
case 13: /* attach exception handler */
if(!c_block.bInitialized)
printf("\n>>> ERROR: BOARD ADDRESS NOT SET <<<\n");
break;
case 14: /* Start Conversion */
finished1 = 0;
while(!finished1)
{
printf("\n\nChannel: %x\n\n",c_block.current_channel);
printf(" 1. Return to Previous Menu\n");
printf(" 2. Start Current Channel\n");
printf(" 3. Start Multiple Channels\n");
printf(" 4. Stop/Reset Current Channel\n");
printf(" 5. Stop/Reset Multiple Channels\n");
printf("\nSelect: ");
scanf("%d",&temp);
switch(temp)
{
case 1: /* return to previous menu */
finished1++;
break;
case 2: /* Current channel */
start_single(&c_block);
break;
case 3: /* multiple channels */
printf("8 Bit Channel Mask to Start\n");
start_multiple(&c_block,(byte)get_param());
break;
case 4: /* Current channel */
reset_channel(&c_block);
break;
case 5: /* stop multiple channels */
printf("8 Bit Channel Mask to Stop\n");
stop_multiple(&c_block,(byte)get_param());
break;
}
}
break;
case 15: /* Display Ideal/Corrected Data, Offset/Gain Coefficients */
previous:
printf("\n\nChannel: %1d Range: ",c_block.current_channel);
if(c_block.range[c_block.current_channel] == BIPOLAR_5)
printf("Bipolar 5 ");
if(c_block.range[c_block.current_channel] == BIPOLAR_10)
printf("Bipolar 10 ");
if(c_block.range[c_block.current_channel] == UNIPOLAR_10)
printf("Unipolar 10");
printf(" Coefficients: Offset ");
if(c_block.range[c_block.current_channel] == BIPOLAR_5)
printf("%04X",(c_block.coef_bufb5[c_block.current_channel][0] & 0xFFFF));
if(c_block.range[c_block.current_channel] == BIPOLAR_10)
printf("%04X",(c_block.coef_bufb10[c_block.current_channel][0] & 0xFFFF));
if(c_block.range[c_block.current_channel] == UNIPOLAR_10)
printf("%04X",(c_block.coef_bufu10[c_block.current_channel][0] & 0xFFFF));
printf(" Gain ");
if(c_block.range[c_block.current_channel] == BIPOLAR_5)
printf("%04X",(c_block.coef_bufb5[c_block.current_channel][1] & 0xFFFF));
if(c_block.range[c_block.current_channel] == BIPOLAR_10)
printf("%04X",(c_block.coef_bufb10[c_block.current_channel][1] & 0xFFFF));
if(c_block.range[c_block.current_channel] == UNIPOLAR_10)
printf("%04X",(c_block.coef_bufu10[c_block.current_channel][1] & 0xFFFF));
printf("\n\nIdeal Data");
for( j = 0; j < 8; j++)
{
printf("\n[%02X]",j*8);
for(i = 0; i < 8; i++)
printf(" %04x",c_block.ideal_data[c_block.current_channel][j*8+i] & 0xFFFF);
}
printf("\n\nCorrected Data ");
for( j = 0; j < 8; j++)
{
printf("\n[%02X]",j*8);
for(i = 0; i < 8; i++)
printf(" %04x",c_block.cor_data[c_block.current_channel][j*8+i] & 0xFFFF);
}
printf("\n 1. Return to Previous Menu");
printf("\n 2. View Next Data Block");
printf("\nSelect: ");
scanf("%d",&temp);
if(temp == 1)
break;
printf("\n\nChannel: %1d Range: ",c_block.current_channel);
if(c_block.range[c_block.current_channel] == BIPOLAR_5)
printf("Bipolar 5 ");
if(c_block.range[c_block.current_channel] == BIPOLAR_10)
printf("Bipolar 10 ");
if(c_block.range[c_block.current_channel] == UNIPOLAR_10)
printf("Unipolar 10");
printf(" Coefficients: Offset ");
if(c_block.range[c_block.current_channel] == BIPOLAR_5)
printf("%04X",(c_block.coef_bufb5[c_block.current_channel][0] & 0xFFFF));
if(c_block.range[c_block.current_channel] == BIPOLAR_10)
printf("%04X",(c_block.coef_bufb10[c_block.current_channel][0] & 0xFFFF));
if(c_block.range[c_block.current_channel] == UNIPOLAR_10)
printf("%04X",(c_block.coef_bufu10[c_block.current_channel][0] & 0xFFFF));
printf(" Gain ");
if(c_block.range[c_block.current_channel] == BIPOLAR_5)
printf("%04X",(c_block.coef_bufb5[c_block.current_channel][1] & 0xFFFF));
if(c_block.range[c_block.current_channel] == BIPOLAR_10)
printf("%04X",(c_block.coef_bufb10[c_block.current_channel][1] & 0xFFFF));
if(c_block.range[c_block.current_channel] == UNIPOLAR_10)
printf("%04X",(c_block.coef_bufu10[c_block.current_channel][1] & 0xFFFF));
printf("\n\nIdeal Data");
for( j = 8; j < 16; j++)
{
printf("\n[%02X]",j*8);
for(i = 0; i < 8; i++)
printf(" %04x",c_block.ideal_data[c_block.current_channel][j*8+i] & 0xFFFF);
}
printf("\n\nCorrected Data ");
for( j = 8; j < 16; j++)
{
printf("\n[%02X]",j*8);
for(i = 0; i < 8; i++)
printf(" %04x",c_block.cor_data[c_block.current_channel][j*8+i] & 0xFFFF);
}
printf("\n 1. Return to Previous Menu");
printf("\n 2. View Previous Data Block");
printf("\nSelect: ");
scanf("%d",&temp);
if( temp == 2)
goto previous;
break;
case 16: /* clear all data buffers */
for(i = 0; i < NUM_CHAN; i++)
{
for(j = 0; j < MAXSIZE; j++)
{
c_block.ideal_data[i][j] = 0; /* clear ideal data buffer */
c_block.cor_data[i][j] = 0; /* clear corrected data buffer */
}
c_block.coef_bufu10[i][0] = c_block.coef_bufu10[i][1] = 0;
c_block.coef_bufb10[i][0] = c_block.coef_bufb10[i][1] = 0;
c_block.coef_bufb5[i][0] = c_block.coef_bufb5[i][1] = 0;
}
break;
case 17: /* modify gain & offset coefficients for a channel */
if(flag == 0)
printf("\n>>> ERROR: BOARD ADDRESS NOT SET <<<\n");
else
{
finished1 = 0;
while(!finished1)
{
printf("\n\nChannel: %x\n\n",c_block.current_channel);
printf(" 1. Return to Previous Menu\n");
printf(" 2. Change Channel Number\n");
printf(" 3. Change Bipolar 5 Offset & Gain\n");
printf(" 4. Change Bipolar 10 Offset & Gain\n");
printf(" 5. Change Unipolar 10 Offset & Gain\n");
printf(" 6. Calculate Offset & Gain from End Points\n");
printf(" 7. Write All Current Channel Coefficients to EEPROM\n");
printf("\nSelect: ");
scanf("%d",&temp);
switch(temp)
{
case 1: /* return to previous menu */
finished1++;
break;
case 2: /* Select channel */
printf("New Channel Number (0 - %d)\n",(NUM_CHAN - 1));
c_block.current_channel = (int)get_param();
break;
case 3: /* Select Bipolar 5 */
printf("New Offset Value\n");
c_block.coef_bufb5[c_block.current_channel][0] = (short)get_param();
printf("New Gain Value\n");
c_block.coef_bufb5[c_block.current_channel][1] = (short)get_param();
break;
case 4: /* Select Bipolar 10 */
printf("New Offset Value\n");
c_block.coef_bufb10[c_block.current_channel][0] = (short)get_param();
printf("New Gain Value\n");
c_block.coef_bufb10[c_block.current_channel][1] = (short)get_param();
break;
case 5: /* Select Unipolar 10 */
printf("New Offset Value\n");
c_block.coef_bufu10[c_block.current_channel][0] = (short)get_param();
printf("New Gain Value\n");
c_block.coef_bufu10[c_block.current_channel][1] = (short)get_param();
break;
case 6: /* calculate */
printf("\nSpan 10 or 20: ");
scanf("%d",&temp);
printf("\nFull Scale Value: ");
scanf("%f",&fs);
printf("\nZero Scale Value: ");
scanf("%f",&zs);
if((fs - zs) == 0.0)
break;
/* do gain calculation */
slope = 65536.0 / (fs - zs);
/* gain error */
ge = (((float)temp * slope) / 65536.0) - 1.0;
printf("\nGain = %X", ((short)((ge * 65536.0 * 4) + 0.5) & 0xFFFF));
/* do offset calculation */
slope *= -1;
printf(" Offset = %X",((short)((((slope * zs) - 32768.0) * 4) + 0.5) & 0xFFFF));
break;
case 7: /* Write values to EEPROM */
WriteCoefficients( &c_block, c_block.current_channel, c_block.coef_bufu10[c_block.current_channel][0],
c_block.coef_bufu10[c_block.current_channel][1], UNIPOLAR_10 );
WriteCoefficients( &c_block, c_block.current_channel, c_block.coef_bufb5[c_block.current_channel][0],
c_block.coef_bufb5[c_block.current_channel][1], BIPOLAR_5 );
WriteCoefficients( &c_block, c_block.current_channel, c_block.coef_bufb10[c_block.current_channel][0],
c_block.coef_bufb10[c_block.current_channel][1], BIPOLAR_10 );
break;
}
}
}
break;
case 18: /* detach exception handlers */
hflag = 0;
DisableInterrupts(c_block.nHandle);
break;
} /* end of switch */
} /* end of while */
/*
Reset board to disable interrupts from all counters on this IP module
*/
if(!c_block.bInitialized) /* module address was set */
reset_board(&c_block); /* reset board */
DisableInterrupts(c_block.nHandle);
if(c_block.bCarrier)
CarrierClose(c_block.nHandle);
printf("\nEXIT PROGRAM\n");
} /* end of main */
// This is the diagnostic tool. It should be run only once to correct the wear level value on the virtium cards.
int main(int argc, char *argv)
{
char *disklist;
char *disk, ch;
int reset = 0, disk_cnt, ret, fd, read = 0;
if (argc < 2) {
usage();
}
while ((ch = getopt(argc, argv, "rw")) != -1)
switch (ch) {
case 'r':
read = 1;
break;
case 'w':
read = 0;
break;
case 'f':
reset = 1;
break;
case '?':
default:
usage();
/* NOTREACHED */
}
// Disks_computed.
disklist = compute_disks();
for (disk_cnt = 0; disk_cnt < MAX_NO_DISKS; disk_cnt++)
{
int mode;
char device[64];
disk = strsep(&disklist, " ");
if (disk == NULL)
break;
sprintf(device, "/dev/%s", disk);
if ((fd = open(device, O_RDONLY)) < 0)
err(1, "device not found");
// If mfg is different or only reading move on.
if(((ret = validate_mfg_card(device, fd))) || read == 1) {
close(fd);
continue;
}
if((ret = read_anchor_block(fd)) && !reset) {
printf("The value is Already Set. \n");
close(fd);
continue;
}
printf(" Setting the Card ..Might Take a Moment ..Please wait..\n");
if((ret = fix_anchor_block(fd ,reset))) {
err(1, "Fixing Anchor block failed.");
}
if((ret = reset_channel(fd))) {
err(1, "Reset of channel failed for some reason.\n");
}
if((ret = read_anchor_block(fd))) {
printf("Set to correct value .\n");
}
close(fd);
}
exit(0);
}
/*
* recover from error interrupts
*/
static void talitos_error(unsigned long data, u32 isr, u32 isr_lo)
{
struct device *dev = (struct device *)data;
struct talitos_private *priv = dev_get_drvdata(dev);
unsigned int timeout = TALITOS_TIMEOUT;
int ch, error, reset_dev = 0, reset_ch = 0;
u32 v, v_lo;
for (ch = 0; ch < priv->num_channels; ch++) {
/* skip channels without errors */
if (!(isr & (1 << (ch * 2 + 1))))
continue;
error = -EINVAL;
v = in_be32(priv->reg + TALITOS_CCPSR(ch));
v_lo = in_be32(priv->reg + TALITOS_CCPSR_LO(ch));
if (v_lo & TALITOS_CCPSR_LO_DOF) {
dev_err(dev, "double fetch fifo overflow error\n");
error = -EAGAIN;
reset_ch = 1;
}
if (v_lo & TALITOS_CCPSR_LO_SOF) {
/* h/w dropped descriptor */
dev_err(dev, "single fetch fifo overflow error\n");
error = -EAGAIN;
}
if (v_lo & TALITOS_CCPSR_LO_MDTE)
dev_err(dev, "master data transfer error\n");
if (v_lo & TALITOS_CCPSR_LO_SGDLZ)
dev_err(dev, "s/g data length zero error\n");
if (v_lo & TALITOS_CCPSR_LO_FPZ)
dev_err(dev, "fetch pointer zero error\n");
if (v_lo & TALITOS_CCPSR_LO_IDH)
dev_err(dev, "illegal descriptor header error\n");
if (v_lo & TALITOS_CCPSR_LO_IEU)
dev_err(dev, "invalid execution unit error\n");
if (v_lo & TALITOS_CCPSR_LO_EU)
report_eu_error(dev, ch, current_desc(dev, ch));
if (v_lo & TALITOS_CCPSR_LO_GB)
dev_err(dev, "gather boundary error\n");
if (v_lo & TALITOS_CCPSR_LO_GRL)
dev_err(dev, "gather return/length error\n");
if (v_lo & TALITOS_CCPSR_LO_SB)
dev_err(dev, "scatter boundary error\n");
if (v_lo & TALITOS_CCPSR_LO_SRL)
dev_err(dev, "scatter return/length error\n");
flush_channel(dev, ch, error, reset_ch);
if (reset_ch) {
reset_channel(dev, ch);
} else {
setbits32(priv->reg + TALITOS_CCCR(ch),
TALITOS_CCCR_CONT);
setbits32(priv->reg + TALITOS_CCCR_LO(ch), 0);
while ((in_be32(priv->reg + TALITOS_CCCR(ch)) &
TALITOS_CCCR_CONT) && --timeout)
cpu_relax();
if (timeout == 0) {
dev_err(dev, "failed to restart channel %d\n",
ch);
reset_dev = 1;
}
}
}
if (reset_dev || isr & ~TALITOS_ISR_CHERR || isr_lo) {
dev_err(dev, "done overflow, internal time out, or rngu error: "
"ISR 0x%08x_%08x\n", isr, isr_lo);
/* purge request queues */
for (ch = 0; ch < priv->num_channels; ch++)
flush_channel(dev, ch, -EIO, 1);
/* reset and reinitialize the device */
init_device(dev);
}
}
void z80sio_c_w(int which, int ch, UINT8 data)
{
z80sio *sio = sios + which;
sio_channel *chan = &sio->chan[ch];
int reg = chan->regs[0] & 7;
UINT8 old = chan->regs[reg];
if (reg != 0 || (reg & 0xf8))
VPRINTF(("%04X:sio_reg_w(%c,%d) = %02X\n", activecpu_get_pc(), 'A' + ch, reg, data));
/* write a new value to the selected register */
chan->regs[reg] = data;
/* clear the register number for the next write */
if (reg != 0)
chan->regs[0] &= ~7;
/* switch off the register for live state changes */
switch (reg)
{
/* SIO write register 0 */
case 0:
switch (data & SIO_WR0_COMMAND_MASK)
{
case SIO_WR0_COMMAND_CH_RESET:
VPRINTF(("%04X:SIO reset channel %c\n", activecpu_get_pc(), 'A' + ch));
reset_channel(sio, ch);
break;
case SIO_WR0_COMMAND_RES_STATUS_INT:
sio->int_state[INT_CHA_STATUS - 4*ch] &= ~Z80_DAISY_INT;
interrupt_check(sio);
break;
case SIO_WR0_COMMAND_ENA_RX_INT:
chan->int_on_next_rx = TRUE;
interrupt_check(sio);
break;
case SIO_WR0_COMMAND_RES_TX_INT:
sio->int_state[INT_CHA_TRANSMIT - 4*ch] &= ~Z80_DAISY_INT;
interrupt_check(sio);
break;
case SIO_WR0_COMMAND_RES_ERROR:
sio->int_state[INT_CHA_ERROR - 4*ch] &= ~Z80_DAISY_INT;
interrupt_check(sio);
break;
}
break;
/* SIO write register 1 */
case 1:
interrupt_check(sio);
break;
/* SIO write register 5 */
case 5:
if (((old ^ data) & SIO_WR5_DTR) && sio->dtr_changed_cb)
(*sio->dtr_changed_cb)(ch, (data & SIO_WR5_DTR) != 0);
if (((old ^ data) & SIO_WR5_SEND_BREAK) && sio->break_changed_cb)
(*sio->break_changed_cb)(ch, (data & SIO_WR5_SEND_BREAK) != 0);
if (((old ^ data) & SIO_WR5_RTS) && sio->rts_changed_cb)
(*sio->rts_changed_cb)(ch, (data & SIO_WR5_RTS) != 0);
break;
}
}
