void octopus_keyboard_device::device_reset()
{
buffered_rs232_device::device_reset();
set_data_frame(1, 8, PARITY_NONE, STOP_BITS_1);
set_rcv_rate(1200);
set_tra_rate(9600);
receive_register_reset();
transmit_register_reset();
m_enabled = 0;
m_delay = 500; // 3*100+200
m_repeat = 110; // 4^2*5+30
stop_processing();
reset_key_state();
typematic_stop();
clear_fifo();
output_dcd(0);
output_dsr(0);
output_cts(0);
output_rxd(1);
start_processing(attotime::from_hz(9600));
}
// MDSM entry point
int main(int argc, char *argv[])
{
// Create main QCoreApplication instance
QCoreApplication app(argc, argv);
SURVEY* survey = file_process_arguments(argc, argv);
// Initialise Dedispersion code and survey struct
initialise(survey);
unsigned char *input_buffer;
// Process current chunk
unsigned int counter = 0, data_read = 0;
while (TRUE)
{
// Get current buffer pointer
input_buffer = get_buffer_pointer();
// Read data from file
// data_read = readBinaryData(input_buffer, survey -> fp, survey -> nbits,
// survey -> nsamp, survey -> nchans, survey -> nbeams);
// Check if there is more processing to be done
unsigned int x;
next_chunk(survey -> nsamp, x, survey -> tsamp * survey -> nsamp * counter, survey -> tsamp);
if (!start_processing(survey -> nsamp)) break;
counter++;
}
// Tear down MDSM
tearDown();
}
void apricot_keyboard_hle_device::device_reset()
{
clear_fifo();
receive_register_reset();
transmit_register_reset();
set_data_frame(1, 8, PARITY_NONE, STOP_BITS_1);
set_rcv_rate(7800);
set_tra_rate(7800);
reset_key_state();
start_processing(attotime::from_hz(7800));
}
void m20_keyboard_device::device_reset()
{
buffered_rs232_device::device_reset();
reset_key_state();
clear_fifo();
set_data_frame(1, 8, PARITY_NONE, STOP_BITS_2);
set_rate(1'200);
receive_register_reset();
transmit_register_reset();
output_dcd(0);
output_dsr(0);
output_cts(0);
output_rxd(1);
start_processing(attotime::from_hz(1'200));
}
static int s3c_pp_ioctl(struct file *file, unsigned int cmd, unsigned long arg)
{
s3c_pp_instance_context_t *current_instance;
s3c_pp_params_t *parg;
unsigned int temp = 0;
mutex_lock(h_mutex);
current_instance = (s3c_pp_instance_context_t *) file->private_data;
parg = (s3c_pp_params_t *) arg;
switch ( cmd )
{
case S3C_PP_SET_PARAMS:
{
s3c_pp_out_path_t temp_out_path;
unsigned int temp_src_width, temp_src_height, temp_dst_width, temp_dst_height;
s3c_color_space_t temp_src_color_space, temp_dst_color_space;
get_user(temp_out_path, &parg->out_path);
if ( (-1 != s3c_pp_instance_info.fifo_mode_instance_no )
|| ((s3c_pp_instance_info.dma_mode_instance_count) && (FIFO_FREERUN == temp_out_path)) )
{
printk ( KERN_ERR "\n%s: S3C_PP_SET_PARAMS can't be executed.\n", __FUNCTION__ );
mutex_unlock(h_mutex);
return -EINVAL;
}
get_user(temp_src_width, &parg->src_width);
get_user(temp_src_height, &parg->src_height);
get_user(temp_dst_width, &parg->dst_width);
get_user(temp_dst_height, &parg->dst_height);
// S3C6410 support that the source image is up to 4096 x 4096
// and the destination image is up to 2048 x 2048.
if ( (temp_src_width > 4096) || (temp_src_height > 4096)
|| (temp_dst_width > 2048) || (temp_dst_height > 2048) )
{
printk(KERN_ERR "\n%s: Size is too big to be supported.\n", __FUNCTION__);
mutex_unlock(h_mutex);
return -EINVAL;
}
get_user(temp_src_color_space, &parg->src_color_space);
get_user(temp_dst_color_space, &parg->dst_color_space);
if ( ( (temp_src_color_space == YC420) && (temp_src_width % 8) )
|| ( (temp_src_color_space == RGB16) && (temp_src_width % 2) )
|| ( (temp_out_path == DMA_ONESHOT) && ( ((temp_dst_color_space == YC420) && (temp_dst_width % 8))
|| ((temp_dst_color_space == RGB16) && (temp_dst_width % 2)))) )
{
printk(KERN_ERR "\n%s: YUV420 image width must be a multiple of 8.\n", __FUNCTION__);
printk(KERN_ERR "%s: RGB16 must be a multiple of 2.\n", __FUNCTION__);
mutex_unlock(h_mutex);
return -EINVAL;
}
get_user(current_instance->src_full_width, &parg->src_full_width);
get_user(current_instance->src_full_height, &parg->src_full_height);
get_user(current_instance->src_start_x, &parg->src_start_x);
get_user(current_instance->src_start_y, &parg->src_start_y);
current_instance->src_width = temp_src_width;
current_instance->src_height = temp_src_height;
current_instance->src_color_space = temp_src_color_space;
get_user(current_instance->dst_full_width, &parg->dst_full_width);
get_user(current_instance->dst_full_height, &parg->dst_full_height);
get_user(current_instance->dst_start_x, &parg->dst_start_x);
get_user(current_instance->dst_start_y, &parg->dst_start_y);
current_instance->dst_width = temp_dst_width;
current_instance->dst_height = temp_dst_height;
current_instance->dst_color_space = temp_dst_color_space;
current_instance->out_path = temp_out_path;
if ( DMA_ONESHOT == current_instance->out_path )
{
s3c_pp_instance_info.instance_state[current_instance->instance_no] = PP_INSTANCE_INUSE_DMA_ONESHOT;
s3c_pp_instance_info.dma_mode_instance_count++;
}
else
{
get_user(current_instance->scan_mode, &parg->scan_mode);
current_instance->dst_color_space = RGB30;
s3c_pp_instance_info.instance_state[current_instance->instance_no] = PP_INSTANCE_INUSE_FIFO_FREERUN;
s3c_pp_instance_info.fifo_mode_instance_no = current_instance->instance_no;
s3c_pp_instance_info.wincon0_value_before_fifo_mode = __raw_readl ( S3C_WINCON0 );
//.[ REDUCE_VCLK_SYOP_TIME
if ( current_instance->src_height > current_instance->dst_height )
{
int i;
for ( i=2; (current_instance->src_height >= (i * current_instance->dst_height)) && (i<8); i++ )
{
}
current_instance->src_full_width *= i;
current_instance->src_full_height /= i;
current_instance->src_height /= i;
}
//.] REDUCE_VCLK_SYOP_TIME
}
current_instance->value_changed |= PP_VALUE_CHANGED_PARAMS;
}
break;
case S3C_PP_START:
dprintk ( "%s: S3C_PP_START last_instance=%d, curr_instance=%d\n", __FUNCTION__,
s3c_pp_instance_info.last_running_instance_no, current_instance->instance_no );
if ( PP_INSTANCE_READY == s3c_pp_instance_info.instance_state[current_instance->instance_no] )
{
printk ( KERN_ERR "%s: S3C_PP_START must be executed after running S3C_PP_SET_PARAMS.\n", __FUNCTION__ );
mutex_unlock(h_mutex);
return -EINVAL;
}
if ( current_instance->instance_no != s3c_pp_instance_info.last_running_instance_no )
{
__raw_writel(0x0<<31, s3c_pp_base + S3C_VPP_POSTENVID);
temp = S3C_MODE2_ADDR_CHANGE_DISABLE | S3C_MODE2_CHANGE_AT_FRAME_END | S3C_MODE2_SOFTWARE_TRIGGER;
__raw_writel(temp, s3c_pp_base + S3C_VPP_MODE_2);
set_clock_src(HCLK);
// setting the src/dst color space
set_data_format(current_instance);
// setting the src/dst size
set_scaler(current_instance);
// setting the src/dst buffer address
set_src_addr(current_instance);
set_dest_addr(current_instance);
current_instance->value_changed = PP_VALUE_CHANGED_NONE;
s3c_pp_instance_info.last_running_instance_no = current_instance->instance_no;
s3c_pp_instance_info.running_instance_no = current_instance->instance_no;
if ( PP_INSTANCE_INUSE_DMA_ONESHOT == s3c_pp_instance_info.instance_state[current_instance->instance_no] )
{ // DMA OneShot Mode
dprintk ( "%s: DMA_ONESHOT mode\n", __FUNCTION__ );
post_int_enable(1);
pp_dma_mode_set_and_start();
if ( !(file->f_flags & O_NONBLOCK) )
{
if (interruptible_sleep_on_timeout(&waitq, 500) == 0)
{
printk(KERN_ERR "\n%s: Waiting for interrupt is timeout\n", __FUNCTION__);
}
}
}
else
{ // FIFO freerun Mode
dprintk ( "%s: FIFO_freerun mode\n", __FUNCTION__ );
s3c_pp_instance_info.fifo_mode_instance_no = current_instance->instance_no;
post_int_enable(1);
pp_fifo_mode_set_and_start(current_instance);
}
}
else
{
if ( current_instance->value_changed != PP_VALUE_CHANGED_NONE )
{
__raw_writel(0x0<<31, s3c_pp_base + S3C_VPP_POSTENVID);
if ( current_instance->value_changed & PP_VALUE_CHANGED_PARAMS )
{
set_data_format(current_instance);
set_scaler(current_instance);
}
if ( current_instance->value_changed & PP_VALUE_CHANGED_SRC_BUF_ADDR_PHY )
{
set_src_addr(current_instance);
}
if ( current_instance->value_changed & PP_VALUE_CHANGED_DST_BUF_ADDR_PHY )
{
set_dest_addr(current_instance);
}
current_instance->value_changed = PP_VALUE_CHANGED_NONE;
}
s3c_pp_instance_info.running_instance_no = current_instance->instance_no;
post_int_enable(1);
start_processing();
if ( !(file->f_flags & O_NONBLOCK) )
{
if (interruptible_sleep_on_timeout(&waitq, 500) == 0)
{
printk(KERN_ERR "\n%s: Waiting for interrupt is timeout\n", __FUNCTION__);
}
}
}
break;
case S3C_PP_GET_SRC_BUF_SIZE:
if ( PP_INSTANCE_READY == s3c_pp_instance_info.instance_state[current_instance->instance_no] )
{
dprintk ( "%s: S3C_PP_GET_SRC_BUF_SIZE must be executed after running S3C_PP_SET_PARAMS.\n", __FUNCTION__ );
mutex_unlock(h_mutex);
return -EINVAL;
}
temp = cal_data_size ( current_instance->src_color_space, current_instance->src_full_width, current_instance->src_full_height );
mutex_unlock(h_mutex);
return temp;
case S3C_PP_SET_SRC_BUF_ADDR_PHY:
get_user(current_instance->src_buf_addr_phy, &parg->src_buf_addr_phy);
current_instance->value_changed |= PP_VALUE_CHANGED_SRC_BUF_ADDR_PHY;
break;
case S3C_PP_SET_SRC_BUF_NEXT_ADDR_PHY:
if ( current_instance->instance_no != s3c_pp_instance_info.fifo_mode_instance_no )
{ // if FIFO Mode is not Active
dprintk (KERN_DEBUG "%s: S3C_PP_SET_SRC_BUF_NEXT_ADDR_PHY can't be executed.\n", __FUNCTION__ );
mutex_unlock(h_mutex);
return -EINVAL;
}
get_user(current_instance->src_next_buf_addr_phy, &parg->src_next_buf_addr_phy);
temp = __raw_readl(s3c_pp_base + S3C_VPP_MODE_2);
temp |= (0x1<<4);
__raw_writel(temp, s3c_pp_base + S3C_VPP_MODE_2);
set_src_next_buf_addr(current_instance);
temp = __raw_readl(s3c_pp_base + S3C_VPP_MODE_2);
temp &= ~(0x1<<4);
__raw_writel(temp, s3c_pp_base + S3C_VPP_MODE_2);
break;
case S3C_PP_GET_DST_BUF_SIZE:
if ( PP_INSTANCE_READY == s3c_pp_instance_info.instance_state[current_instance->instance_no] )
{
dprintk ( "%s: S3C_PP_GET_DST_BUF_SIZE must be executed after running S3C_PP_SET_PARAMS.\n", __FUNCTION__ );
mutex_unlock(h_mutex);
return -EINVAL;
}
temp = cal_data_size ( current_instance->dst_color_space, current_instance->dst_full_width, current_instance->dst_full_height );
mutex_unlock(h_mutex);
return temp;
case S3C_PP_SET_DST_BUF_ADDR_PHY:
get_user(current_instance->dst_buf_addr_phy, &parg->dst_buf_addr_phy);
current_instance->value_changed |= PP_VALUE_CHANGED_DST_BUF_ADDR_PHY;
break;
case S3C_PP_ALLOC_KMEM:
{
s3c_pp_mem_alloc_t param;
if (copy_from_user(¶m, (s3c_pp_mem_alloc_t *)arg, sizeof(s3c_pp_mem_alloc_t)))
{
mutex_unlock(h_mutex);
return -EFAULT;
}
flag = ALLOC_KMEM;
param.vir_addr = do_mmap(file, 0, param.size, PROT_READ|PROT_WRITE, MAP_SHARED, 0);
dprintk (KERN_DEBUG "param.vir_addr = %08x\n", param.vir_addr);
flag = 0;
if(param.vir_addr == -EINVAL) {
printk(KERN_ERR "%s: PP_MEM_ALLOC FAILED\n", __FUNCTION__);
mutex_unlock(h_mutex);
return -EFAULT;
}
param.phy_addr = physical_address;
dprintk (KERN_DEBUG "KERNEL MALLOC : param.phy_addr = 0x%X \t size = %d \t param.vir_addr = 0x%X\n", param.phy_addr, param.size, param.vir_addr);
if (copy_to_user((s3c_pp_mem_alloc_t *)arg, ¶m, sizeof(s3c_pp_mem_alloc_t)))
{
mutex_unlock(h_mutex);
return -EFAULT;
}
}
break;
case S3C_PP_FREE_KMEM:
{
s3c_pp_mem_alloc_t param;
struct mm_struct *mm = current->mm;
void *virt_addr;
if ( copy_from_user(¶m, (s3c_pp_mem_alloc_t *)arg, sizeof(s3c_pp_mem_alloc_t)) )
{
mutex_unlock(h_mutex);
return -EFAULT;
}
dprintk (KERN_DEBUG "KERNEL FREE : param.phy_addr = 0x%X \t size = %d \t param.vir_addr = 0x%X\n", param.phy_addr, param.size, param.vir_addr);
if ( do_munmap(mm, param.vir_addr, param.size ) < 0 )
{
dprintk("do_munmap() failed !!\n");
mutex_unlock(h_mutex);
return -EINVAL;
}
virt_addr = phys_to_virt(param.phy_addr);
dprintk ( "KERNEL : virt_addr = 0x%X\n", (unsigned int) virt_addr );
kfree(virt_addr);
param.size = 0;
dprintk(KERN_DEBUG "do_munmap() succeed !!\n");
}
break;
case S3C_PP_GET_RESERVED_MEM_SIZE:
mutex_unlock(h_mutex);
return PP_RESERVED_MEM_SIZE;
case S3C_PP_GET_RESERVED_MEM_ADDR_PHY:
mutex_unlock(h_mutex);
return PP_RESERVED_MEM_ADDR_PHY;
default:
mutex_unlock(h_mutex);
return -EINVAL;
}
mutex_unlock(h_mutex);
return 0;
}
void x68k_keyboard_device::received_byte(uint8_t data)
{
/* Keyboard control commands:
00xxxxxx - TV Control
Not of much use as yet
01000xxy - y = Mouse control signal
01001xxy - y = Keyboard enable
010100xy - y = Sharp X1 display compatibility mode
010101xx - xx = LED brightness (00 = bright, 11 = dark)
010110xy - y = Display control enable
010111xy - y = Display control via the Opt. 2 key enable
0110xxxx - xxxx = Key delay (default 500ms)
100 * (delay time) + 200ms
0111xxxx - xxxx = Key repeat rate (default 110ms)
(repeat rate)^2*5 + 30ms
1xxxxxxx - xxxxxxx = keyboard LED status
b6 = fullwidth
b5 = hiragana
b4 = insert
b3 = caps
b2 = code input
b1 = romaji
b0 = kana
*/
if (data & 0x80) // LED status
{
machine().output().set_value("key_led_kana", data & 0x01);
machine().output().set_value("key_led_romaji", data & 0x02);
machine().output().set_value("key_led_code", data & 0x04);
machine().output().set_value("key_led_caps", data & 0x08);
machine().output().set_value("key_led_insert", data & 0x10);
machine().output().set_value("key_led_hiragana", data & 0x20);
machine().output().set_value("key_led_fullsize", data & 0x40);
logerror("KB: LED status set to %02x\n", data & 0x7f);
}
if ((data & 0xc0) == 0) // TV control
{
// nothing for now
}
if ((data & 0xf8) == 0x48) // Keyboard enable
{
m_enabled = data & 0x01;
if (m_enabled) start_processing(attotime::from_hz(2'400));
else stop_processing();
logerror("KB: Keyboard enable bit = %i\n", m_enabled);
}
if ((data & 0xf0) == 0x60) // Key delay time
{
m_delay = ((data & 0x0f) * 100) + 200;
logerror("KB: Keypress delay time is now %ims\n", m_delay);
}
if ((data & 0xf0) == 0x70) // Key repeat rate
{
m_repeat = (((data & 0x0f)^2) * 5) + 30;
logerror("KB: Keypress repeat rate is now %ims\n", m_repeat);
}
}
int main(int argc, char *argv[])
{
int sd = 0, opt, print_pkt = 0, fix_cks = 0, status;
static char *opstring = "czhpa:e:d:t:i:f:o:";
if (argc == 1) {
usage(argv[0]);
exit(-1);
}
while ((opt = getopt(argc, argv, opstring)) != -1) {
switch (opt) {
case ('i'):
status = set_source(ETHERNET_NIC, optarg);
printf("Source: live NIC %s\n", optarg);
if (status != 1) {
printf("Error setting input\n");
exit(-2);
}
sd = create_set();
break;
case ('f'):
status = set_source(TCPDUMP_TRACE, optarg);
printf("Source: pcap file %s\n", optarg);
if (status != 1) {
printf("Error setting input\n");
exit(-2);
}
sd = create_set();
break;
case ('e'):
if (strcmp(optarg, "ZERO") == 0) {
add_function(sd, "ANONYMIZE", ETHERNET, SRC_IP, ZERO);
add_function(sd, "ANONYMIZE", ETHERNET, DST_IP, ZERO);
printf("Zero ethernet addresses\n");
}
break;
case ('a'):
if (strcmp(optarg, "MAP") == 0) {
add_function(sd, "ANONYMIZE", IP, SRC_IP, MAP);
add_function(sd, "ANONYMIZE", IP, DST_IP, MAP);
printf("Map ip addresses\n");
} else if (strcmp(optarg, "PREFIX") == 0) {
add_function(sd, "ANONYMIZE", IP, SRC_IP, PREFIX_PRESERVING);
add_function(sd, "ANONYMIZE", IP, DST_IP, PREFIX_PRESERVING);
printf("Prefix-preserving ip addresses\n");
} else {
add_function(sd, "ANONYMIZE", IP, SRC_IP, ZERO);
add_function(sd, "ANONYMIZE", IP, DST_IP, ZERO);
printf("Zero ip addresses\n");
}
break;
case ('p'):
print_pkt = 1;
break;
case ('d'):
if (strcmp(optarg, "STRIP") == 0) {
add_function(sd, "ANONYMIZE", TCP, PAYLOAD, STRIP, 0);
add_function(sd, "ANONYMIZE", UDP, PAYLOAD, STRIP, 0);
printf("Removing TCP payload\n");
} else if (strcmp(optarg, "HASH") == 0) {
add_function(sd, "ANONYMIZE", TCP, PAYLOAD, HASHED, MD5,
STRIP_REST);
add_function(sd, "ANONYMIZE", UDP, PAYLOAD, HASHED, MD5,
STRIP_REST);
printf("HASH TCP/UDP payload\n");
} else {
add_function(sd, "ANONYMIZE", TCP, PAYLOAD, ZERO);
add_function(sd, "ANONYMIZE", UDP, PAYLOAD, ZERO);
printf("ZERO TCP payload\n");
}
break;
case ('h'):
usage(argv[0]);
exit(0);
break;
case ('t'):
if (strcmp(optarg, "MAP") == 0) {
add_function(sd, "ANONYMIZE", TCP, SRC_PORT, MAP);
add_function(sd, "ANONYMIZE", TCP, DST_PORT, MAP);
printf("Map TCP ports\n");
} else {
add_function(sd, "ANONYMIZE", TCP, SRC_PORT, ZERO);
add_function(sd, "ANONYMIZE", TCP, DST_PORT, ZERO);
printf("ZERO TCP ports\n");
}
break;
case ('z'):
add_function(sd, "ANONYMIZE", IP, OPTIONS, ZERO);
add_function(sd, "ANONYMIZE", TCP, TCP_OPTIONS, RANDOM);
printf("Zero TCP and IP options\n");
break;
case ('c'):
fix_cks = 1;
printf("Fix checksums\n");
break;
default:
usage(argv[0]);
exit(0);
break;
}
}
status = set_output(sd, TCPDUMP_TRACE, argv[argc - 1]);
printf("Output: File %s\n\n", argv[argc - 1]);
if (status != 1) {
printf("Error setting output\n");
exit(-2);
}
if (fix_cks)
add_function(sd, "ANONYMIZE", IP, CHECKSUM, CHECKSUM_ADJUST);
if (print_pkt)
add_function(sd, "PRINT_PACKET");
printf("\nStart anonymize...\n");
start_processing();
printf("End anonymize\n");
return EXIT_SUCCESS;
}