int main(int argc, char **argv) {
int32_t ch, index, excl_index;
const char *name;
bool load_default, exclusive;
load_default = true;
exclusive = false;
index = 0;
while (1) {
if ((ch = getopt_long_only(argc, argv, "", opt_field, &index)) < 0)
break;
switch (ch) {
case OPT_LOG:
log_load(optarg);
break;
case OPT_CONFIG:
config_load(optarg);
load_default = false;
break;
case OPT_EXCL:
if (exclusive)
error("Cannot use --%s with --%s",
opt_field[index].name,
opt_field[excl_index].name);
exclusive = true;
excl_index = index;
case OPT_NRML:
name = opt_field[index].name;
if (opt_field[index].has_arg)
config_set(name, optarg);
else
config_set(name, "true");
break;
case OPT_VERSION:
version();
return 1;
case OPT_HELP:
default:
usage();
return 1;
}
}
if (load_default)
config_default();
mt_init();
store_load();
bucket_load();
crypt_load();
volume_load();
return 0;
}
//Initializes the system
int init()
{
//Initializes the SDL and exit if there was an error
if (SDL_Init (SDL_INIT_EVERYTHING) == -1)
{ return 1; }
//Initializes the SDL_ttf and exit if there was an error
if (TTF_Init())
{ return 3; }
//Initializes the SDL_mixer and exit if there was an error
if (Mix_OpenAudio(LC_SOUND_SAMPLERATE, LC_SOUND_FORMAT, LC_SOUND_CHANNELS, LC_SOUND_CHUNKSIZE) == -1)
{ return 4; }
//Create the window
screen = SDL_SetVideoMode (LC_SCREEN_WIDTH, LC_SCREEN_HEIGHT, LC_SCREEN_BPP, SDL_HWSURFACE | SDL_DOUBLEBUF);
//Load the necessary files and check for errors
if (!load_files())
{ return 5; }
//Changes the window title
SDL_WM_SetCaption ("Line Collapser", NULL);
//If there was an error with the window creation, exits the program
if (screen == NULL)
{ return 6; }
//Start the random number generation function
mt_init();
//If everything went fine
return 0;
}//init()
int main(int argc, char* argv[]) {
int result = parse_cmd_options(argc, argv, &opts);
int retval;
if (result != -1)
return result;
retval = 0;
if (argc - optind < 2) {
/* not enough arguments */
usage(argv);
retval = 2;
} else {
if (!sscanf(argv[optind], "%ld", &opts.num_samples)) {
fprintf(stderr, "Format of num_samples parameter is invalid.\n");
retval = 3;
} else if (!sscanf(argv[optind+1], "%lg", &opts.gamma)) {
fprintf(stderr, "Format of gamma parameter is invalid.\n");
retval = 4;
} else {
srand(opts.use_seed ? opts.seed : time(0));
mt_init(&rng);
retval = opts.continuous ? sample_continuous() : sample_discrete();
}
}
return retval;
}
/*---------------------------------------------------------------------------*/
void
checkpoint_arch_init(void)
{
mt_init();
mt_start(&checkpoint_thread, thread_loop, NULL);
/*mt_stop(&checkpoint_thread);*/
/*mt_remove();*/
}
void
thread_init()
{
#ifdef USE_OV
try_ov = ov_init();
#endif
#ifdef USE_MT
try_mt = mt_init();
#endif
}
unsigned int mt_encrypt(char *pt, unsigned int len, char *ct, unsigned short key)
{
mt_state state;
mt_init(&state, key);
unsigned int i, stream;
for(i=0; i<len; ++i)
{
if(i%4==0)
{
stream = mt_get_rand(&state);
}
ct[i] = pt[i] ^ ((char *) &stream)[i];
}
}
void
checkpoint_arch_init(void)
{
if(inited) {
return;
}
mt_init();
mt_start(&checkpoint_thread, checkpoint_thread_loop, NULL);
inited = 1;
#if CHECKPOINT_ROLLBACK_BUTTON
process_start(&checkpoint_button_process, NULL);
#endif /* CHECKPOINT_ROLLBACK_BUTTON */
/*mt_stop(&checkpoint_thread);*/
/*mt_remove();*/
}
PROCESS_THREAD(contiki_stk501_main_init_process, ev, data)
{
PROCESS_BEGIN();
/* Network support (uIP) */
init_net();
/* Initalize heap allocator */
mmem_init ();
/* Code propagator */
process_start(&codeprop_process, NULL);
/* Multi-threading support */
#ifdef MT_DEMO
mt_init ();
#endif
PROCESS_END();
}
int main()
{
//Start video driver (must always be before loading message)
mm_init();
pg_init();
real_init();
video_init();
video_setdriver(video_vgatext_getdriver(),0);
//Put loading message
cli_puts("ArcaneOS Loading...\n");
//Setup kernel
gdt_init();
idt_init();
isr_init();
irq_init();
timer_init();
kb_init();
ui_init();
cpuid_init();
cmos_init();
rtc_init();
acpi_init();
power_init();
mt_init();
syscall_init();
floppy_init();
__asm__ __volatile__ ("sti");
//Enable ACPI
acpi_enable();
//Create thread for ui
mt_create_thread(mt_kernel_process,test,2);
//Endless loop to prevent bugs when all threads are sleeping
for(;;)
__asm__ __volatile__ ("hlt");
}
SOS()
{
readyq = new_dllist();
mt_init();
writeok = mt_sem_create(0);
writers = mt_sem_create(1);
readers = mt_sem_create(1);
nelem = mt_sem_create(0);
consoleWait = mt_sem_create(0);
wr_iobuf = make_io_buffer(1);
cr_iobuf = make_io_buffer(256);
crb_no_chars = 0;
crb_end = 0;
crb_begin = 0;
curpid = -1;
// pids = make_rb();
init_partitions();
DEBUG('e', "pagesize: %d\n", PageSize);
jrbTree = make_jrb(); // Step 20
init = new_pcb(); // Step 22
init->pid = get_new_pid(); // Step 22
cread_vnode = new_vnode();
cread_vnode->iobuf =cr_iobuf;
cr_iobuf->nwriters = 1;
cwrite_vnode = new_vnode();
cwrite_vnode->iobuf = wr_iobuf;
wr_iobuf->nreaders = 1;
start_timer(10);
bzero(main_memory, MemorySize);
mt_create(read_console_io, (void *)cr_iobuf);
mt_create(write_console_io, (void *)wr_iobuf);
//mt_create(read_console, NULL);
mt_create(initialize_user_process, (void *)Argv);
schedule();
}
PROCESS_THREAD(contiki_stk501_main_init_process, ev, data)
{
PROCESS_BEGIN();
/* Network support (uIP) */
init_net();
/* Initalize heap allocator */
mmem_init ();
/* Code propagator */
/* TODO: The core elfloader-avr.c has 16/32 bit pointer problems so this won't build */
//process_start(&codeprop_process, NULL);
/* Multi-threading support */
#ifdef MT_DEMO
mt_init ();
#endif
PROCESS_END();
}
int main(int argc, char* argv[]) {
int result = parse_cmd_options(argc, argv, &opts);
int i, retval;
if (result != -1)
return result;
srand(opts.use_seed ? opts.seed : ((unsigned int)time(0)));
mt_init(&rng);
retval = 0;
if (optind == argc) {
/* no more arguments, process stdin */
process_file(stdin, "-");
} else {
for (i = optind; i < argc; i++) {
FILE* f;
if (argv[i][0] == '-')
f = stdin;
else
f = fopen(argv[i], "r");
if (!f) {
perror(argv[i]);
retval = 2;
continue;
}
process_file(f, argv[i]);
fclose(f);
}
}
return retval;
}
/*! \brief Initialize sipcapture module */
static int mod_init(void) {
struct ip_addr *ip = NULL;
#ifdef STATISTICS
/* register statistics */
if (register_module_stats(exports.name, sipcapture_stats)!=0)
{
LM_ERR("failed to register core statistics\n");
return -1;
}
#endif
if(register_mi_mod(exports.name, mi_cmds)!=0)
{
LM_ERR("failed to register MI commands\n");
return -1;
}
if(sipcapture_init_rpc()!=0)
{
LM_ERR("failed to register RPC commands\n");
return -1;
}
db_url.len = strlen(db_url.s);
table_name.len = strlen(table_name.s);
hash_source.len = strlen (hash_source.s);
mt_mode.len = strlen(mt_mode.s);
date_column.len = strlen(date_column.s);
micro_ts_column.len = strlen(micro_ts_column.s);
method_column.len = strlen(method_column.s);
reply_reason_column.len = strlen(reply_reason_column.s);
ruri_column.len = strlen(ruri_column.s);
ruri_user_column.len = strlen(ruri_user_column.s);
from_user_column.len = strlen(from_user_column.s);
from_tag_column.len = strlen(from_tag_column.s);
to_user_column.len = strlen(to_user_column.s);
pid_user_column.len = strlen(pid_user_column.s);
contact_user_column.len = strlen(contact_user_column.s);
auth_user_column.len = strlen(auth_user_column.s);
callid_column.len = strlen(callid_column.s);
via_1_column.len = strlen(via_1_column.s);
via_1_branch_column.len = strlen(via_1_branch_column.s);
cseq_column.len = strlen(cseq_column.s);
diversion_column.len = strlen(diversion_column.s);
reason_column.len = strlen(reason_column.s);
content_type_column.len = strlen(content_type_column.s);
authorization_column.len = strlen(authorization_column.s);
user_agent_column.len = strlen(user_agent_column.s);
source_ip_column.len = strlen(source_ip_column.s);
source_port_column.len = strlen(source_port_column.s);
dest_ip_column.len = strlen(dest_ip_column.s);
dest_port_column.len = strlen(dest_port_column.s);
contact_ip_column.len = strlen(contact_ip_column.s);
contact_port_column.len = strlen(contact_port_column.s);
orig_ip_column.len = strlen(orig_ip_column.s);
orig_port_column.len = strlen(orig_port_column.s);
proto_column.len = strlen(proto_column.s);
family_column.len = strlen(family_column.s);
type_column.len = strlen(type_column.s);
rtp_stat_column.len = strlen(rtp_stat_column.s);
node_column.len = strlen(node_column.s);
msg_column.len = strlen(msg_column.s);
capture_node.len = strlen(capture_node.s);
if(raw_socket_listen.s)
raw_socket_listen.len = strlen(raw_socket_listen.s);
if(raw_interface.s)
raw_interface.len = strlen(raw_interface.s);
/* Find a database module */
if (db_bind_mod(&db_url, &db_funcs))
{
LM_ERR("unable to bind database module\n");
return -1;
}
if (!DB_CAPABILITY(db_funcs, DB_CAP_INSERT))
{
LM_ERR("database modules does not provide all functions needed"
" by module\n");
return -1;
}
/*Check the table name*/
if(!table_name.len) {
LM_ERR("ERROR: sipcapture: mod_init: table_name is not defined or empty\n");
return -1;
}
if (mt_init () <0)
{
return -1;
}
if(db_insert_mode) {
LM_INFO("INFO: sipcapture: mod_init: you have enabled INSERT DELAYED \
Make sure your DB can support it\n");
}
capture_on_flag = (int*)shm_malloc(sizeof(int));
if(capture_on_flag==NULL) {
LM_ERR("no more shm memory left\n");
return -1;
}
*capture_on_flag = capture_on;
/* register DGRAM event */
if(sr_event_register_cb(SREV_NET_DGRAM_IN, hep_msg_received) < 0) {
LM_ERR("failed to register SREV_NET_DGRAM_IN event\n");
return -1;
}
if(ipip_capture_on && moni_capture_on) {
LM_ERR("only one RAW mode is supported. Please disable ipip_capture_on or moni_capture_on\n");
return -1;
}
/* raw processes for IPIP encapsulation */
if (ipip_capture_on || moni_capture_on) {
register_procs(raw_sock_children);
if(extract_host_port() && (((ip=str2ip(&raw_socket_listen)) == NULL)
#ifdef USE_IPV6
&& ((ip=str2ip6(&raw_socket_listen)) == NULL)
#endif
))
{
LM_ERR("sipcapture mod_init: bad RAW IP: %.*s\n", raw_socket_listen.len, raw_socket_listen.s);
return -1;
}
if(moni_capture_on && !moni_port_start) {
LM_ERR("ERROR:sipcapture:mod_init: Please define port/portrange in 'raw_socket_listen', before \
activate monitoring capture\n");
return -1;
}
static void f_accept_with_http_parse(INT32 nargs)
{
/* From socket.c */
struct port
{
struct fd_callback_box box;
int my_errno;
struct svalue accept_callback;
struct svalue id;
};
INT_TYPE ms, dolog;
INT_TYPE to;
struct object *port;
struct svalue *fun, *cb, *program;
struct cache *c;
struct args *args = LTHIS;
get_all_args("accept_http_loop", nargs, "%o%*%*%*%i%i%i", &port, &program,
&fun, &cb, &ms, &dolog, &to);
MEMSET(args, 0, sizeof(struct args));
if(dolog)
{
struct log *log = aap_malloc(sizeof(struct log));
MEMSET(log, 0, sizeof(struct log));
mt_init(&log->log_lock);
args->log = log;
log->next = aap_first_log;
aap_first_log = log;
}
c = aap_malloc(sizeof(struct cache));
MEMSET(c, 0, sizeof(struct cache));
mt_init(&c->mutex);
c->next = first_cache;
first_cache = c;
args->cache = c;
c->max_size = ms;
{
extern struct program *port_program;
args->fd = ((struct port *)get_storage( port, port_program))->box.fd;
}
args->filesystem = NULL;
#ifdef HAVE_TIMEOUTS
args->timeout = to;
#endif
assign_svalue_no_free(&args->cb, fun); /* FIXME: cb isn't freed on exit */
assign_svalue_no_free(&args->args, cb);
request_program = program_from_svalue( program );
if(!request_program)
{
free_args(args);
Pike_error("Invalid request program\n");
}
if(!my_callback)
my_callback = add_backend_callback( finished_p, 0, 0 );
{
int i;
for( i = 0; i<8; i++ )
th_farm((void (*)(void *))low_accept_loop, (void *)args);
}
}
void HariMain(void)
{
struct BOOTINFO *binfo = (struct BOOTINFO *) ADR_BOOTINFO;
g_binfo = binfo;
struct FIFO32 fifo;
char s[40];
int fifobuf[128];
struct TIMER *timer, *timer2, *timer3;
int mx, my, i;
int cursor_x, cursor_c;
unsigned int memtotal;
struct MOUSE_DEC mdec;
struct MEMMAN *memman = (struct MEMMAN *) MEMMAN_ADDR;
struct SHTCTL *shtctl;
struct SHEET *sht_back, *sht_mouse, *sht_win;
unsigned char *buf_back, buf_mouse[256], *buf_win;
static char keytable[0x54] = {
0, 0, '1', '2', '3', '4', '5', '6', '7', '8', '9', '0', '-', '^', 0, 0,
'Q', 'W', 'E', 'R', 'T', 'Y', 'U', 'I', 'O', 'P', '@', '[', 0, 0, 'A', 'S',
'D', 'F', 'G', 'H', 'J', 'K', 'L', ';', ':', 0, 0, ']', 'Z', 'X', 'C', 'V',
'B', 'N', 'M', ',', '.', '/', 0, '*', 0, ' ', 0, 0, 0, 0, 0, 0,
0, 0, 0, 0, 0, 0, 0, '7', '8', '9', '-', '4', '5', '6', '+', '1',
'2', '3', '0', '.'
};
struct TSS32 tss_a, tss_b;
int task_b_esp;
struct SEGMENT_DESCRIPTOR *gdt = (struct SEGMENT_DESCRIPTOR*)ADR_GDT;
init_gdtidt();
init_pic();
io_sti(); /* GDT,IDT,PIC*/
fifo32_init(&fifo, 128, fifobuf);
// timer
init_pit();
timer = timer_alloc();
timer_init(timer, &fifo, 10);
timer_settime(timer, 1000);
timer2 = timer_alloc();
timer_init(timer2, &fifo, 3);
timer_settime(timer2, 300);
timer3 = timer_alloc();
timer_init(timer3, &fifo, 1);
timer_settime(timer3, 50);
io_out8(PIC0_IMR, 0xf8); // 11111001,PIC1和IRQ1,
io_out8(PIC1_IMR, 0xef); // 11101111, IRQ12
init_keyboard(&fifo, 256);
enable_mouse(&fifo, 512, &mdec);
memtotal = memtest(0x00400000, 0xbfffffff);
memman_init(memman);
memman_free(memman, 0x00001000, 0x0009e000);
memman_free(memman, 0x00400000, memtotal - 0x00400000);
init_palette();
shtctl = shtctl_init(memman, binfo->vram, binfo->scrnx, binfo->scrny);
sht_back = sheet_alloc(shtctl);
sht_mouse = sheet_alloc(shtctl);
sht_win = sheet_alloc(shtctl);
buf_back = (unsigned char *) memman_alloc_4k(memman, binfo->scrnx * binfo->scrny);
buf_win = (unsigned char *) memman_alloc_4k(memman, 160 * 52);
sheet_setbuf(sht_back, buf_back, binfo->scrnx, binfo->scrny, -1);
sheet_setbuf(sht_mouse, buf_mouse, 16, 16, 99);
sheet_setbuf(sht_win, buf_win, 160, 52, -1); /*没有透明色*/
init_screen8(buf_back, binfo->scrnx, binfo->scrny);
init_mouse_cursor8(buf_mouse, 99);
make_window8(buf_win, 160, 52, "counter");
make_textbox8(sht_win, 8, 28, 144, 16, COL8_FFFFFF);
cursor_x = 8;
cursor_c = COL8_FFFFFF;
sheet_slide(sht_back, 0, 0);
mx = (binfo->scrnx - 16) / 2;
my = (binfo->scrny - 28 - 16) / 2;
sheet_slide(sht_mouse, mx, my);
sheet_slide(sht_win, 80, 72);
sheet_updown(sht_back, 0);
sheet_updown(sht_win, 1);
sheet_updown(sht_mouse, 2);
sprintf(s, "(0x%x, 0x%x)", mx, my);
putfonts8_asc(buf_back, binfo->scrnx, 0, 0, COL8_FFFFFF, s);
sprintf(s, "memory 0x%xMB, free : 0x%xKB", memtotal / (1024 * 1024), memman_total(memman) / 1024);
putfonts8_asc(buf_back, binfo->scrnx, 0, 32, COL8_FFFFFF, s);
sheet_refresh(sht_back, 0, 0, binfo->scrnx, 48);
tss_a.ldtr = 0;
tss_a.iomap = 0x40000000;
tss_b.ldtr = 0;
tss_b.iomap = 0x40000000;
set_segmdesc(gdt + 3, 103, (int) &tss_a, AR_TSS32);
set_segmdesc(gdt + 4, 103, (int) &tss_b, AR_TSS32);
load_tr(3 * 8);
task_b_esp = memman_alloc_4k(memman, 64 * 1024) + 64 * 1024 - 8;
*((int *) (task_b_esp + 4)) = (int) sht_back;
tss_b.eip = (int)&task_b_main - ADR_BOTPAK;
tss_b.eflags = 0x00000202; /* IF = 1*/
tss_b.eax = 0;
tss_b.ecx = 0;
tss_b.edx = 0;
tss_b.ebx = 0;
tss_b.esp = task_b_esp;
tss_b.ebp = 0;
tss_b.esi = 0;
tss_b.edi = 0;
tss_b.es = 1 * 8;
tss_b.cs = 2 * 8;
tss_b.ss = 1 * 8;
tss_b.ds = 1 * 8;
tss_b.fs = 1 * 8;
tss_b.gs = 1 * 8;
mt_init();
for(;;) {
io_cli();
if(0 == fifo32_status(&fifo)) {
io_sti();
}else{
i = fifo32_get(&fifo);
io_sti();
if (256 <= i && i <= 511) {
sprintf(s, "0x%x", i - 256);
putfonts8_asc_sht(sht_back, 0, 16, COL8_FFFFFF, COL8_008484, s, 8);
if (i < 256 + 0x54) {
if (0 != keytable[i - 256] && cursor_x < 144) {
s[0] = keytable[i - 256];
s[1] = 0;
putfonts8_asc_sht(sht_win, cursor_x, 28, COL8_000000, COL8_C6C6C6, s, 1);
cursor_x += 8;
}
}
if (i == 256 + 0x0e && cursor_x > 8) { // Backspace
putfonts8_asc_sht(sht_win, cursor_x, 28, COL8_000000, COL8_FFFFFF, " ", 1);
cursor_x -= 8;
}
boxfill8(sht_win->buf, sht_win->bxsize, cursor_c, cursor_x, 28, cursor_x + 7, 43);
sheet_refresh(sht_win, cursor_x, 28, cursor_x + 8, 44);
} // if key status
else if (512 <= i && i <= 767) {
if (0 != mouse_decode(&mdec, i - 512)) {
sprintf(s, "[lcr 0x%x 0x%x 0x%x]", mdec.buf[0], mdec.buf[1], mdec.buf[2]);
if (0 != (mdec.btn & 0x01)) {
s[1] = 'L';
}
if (0 != (mdec.btn & 0x02)) {
s[3] = 'R';
}
if (0 != (mdec.btn & 0x04)) {
s[2] = 'C';
}
putfonts8_asc_sht(sht_back, 64, 16, COL8_FFFFFF, COL8_008484, s, 24);
mx += mdec.x;
my += mdec.y;
if (mx < 0) {
mx = 0;
}
if (my < 0) {
my = 0;
}
if (mx > binfo->scrnx - 1) {
mx = binfo->scrnx - 1;
}
if (my > binfo->scrny - 1) {
my = binfo->scrny - 1;
}
sprintf(s, "(0x%x, 0x%x)", mx, my);
putfonts8_asc_sht(sht_back, 0, 0, COL8_FFFFFF, COL8_008484, s, 16);
sheet_slide(sht_mouse, mx, my); /* 显示鼠标 */
//
if ((mdec.btn & 0x01) != 0) {
sheet_slide(sht_win, mx - 80, my - 8);
}
} // if mouse decode
} // if 512 767
else if (10 == i) {
putfonts8_asc_sht(sht_back, 0, 64, COL8_FFFFFF, COL8_008484, "10[sec]", 7);
} else if (3 == i) {
putfonts8_asc_sht(sht_back, 0, 80, COL8_FFFFFF, COL8_008484, "3[sec]", 6);
} else if (i <= 1) {
if (0 != i) {
timer_init(timer3, &fifo, 0); // set to 0
cursor_c = COL8_000000;
} else {
timer_init(timer3, &fifo, 1);
cursor_c = COL8_FFFFFF;
}
boxfill8(sht_win->buf, sht_win->bxsize, cursor_c, cursor_x, 28, cursor_x + 7, 43);
timer_settime(timer3, 50);
sheet_refresh(sht_back, 8, 96, 16, 112);
}
} // else 0 == getstatus fifo
} // for
return;
}
static void sampbins(int numbins, int grainsamps)
{
float **bins;
int *virgin; /* boolean: this bin written to? */
float in[2], out[2];
float fademul;
int ix;
int cur = 0; /* current bin (playback) */
int curtail = 0; /* current bin (playing/fading tail end) */
int rec = 0; /* current bin (recording) */
int rectail = 0; /* previous bin (recording tail end) */
int pos = 0; /* bin pos, in stereo samples */
const int totalsamps = grainsamps + FADESAMPS;
if (grainsamps <= FADESAMPS*2)
{
fprintf(stderr, "sampbins: grains too short\n");
exit(EXIT_FAILURE);
}
bins = malloc(sizeof *bins * numbins);
if (bins == NULL) nomem();
virgin = malloc(sizeof *virgin * numbins);
if (virgin == NULL) nomem();
for (ix = 0; ix < numbins; ix++)
{
bins[ix] = malloc(sizeof **bins * totalsamps * 2);
if (bins[ix] == NULL) nomem();
memset(bins[ix], 0, sizeof **bins * totalsamps * 2);
virgin[ix] = 1;
}
mt_init((unsigned int)time(NULL));
rec = mt_urand() % numbins;
while (fread(in, sizeof in[0], 2, stdin) == 2)
{
/*
* first write output sample. this way if
* playing from/recording to the same bin,
* it works.
*/
out[0] = bins[cur][pos*2];
out[1] = bins[cur][pos*2+1];
if (pos < FADESAMPS)
{
out[0] += bins[curtail][(grainsamps+pos)*2];
out[1] += bins[curtail][(grainsamps+pos)*2+1];
}
if (fwrite(out, sizeof *out, 2, stdout) < 2)
return;
/* record input sample. */
bins[rec][pos*2] = in[0];
bins[rec][pos*2+1] = in[1];
/* record to tail end of previous bin, for fading. */
if (pos < FADESAMPS)
{
bins[rectail][(grainsamps+pos)*2] = in[0];
bins[rectail][(grainsamps+pos)*2+1] = in[1];
}
/*
* advance position, fading/going to new bins if
* necessary.
*/
pos++;
if (pos == FADESAMPS)
{
/*
* fade the beginning of this grain
* and the end of the previous one
* to avoid clicking.
*/
for (ix = 0; ix < FADESAMPS; ix++)
{
fademul = ix / (float)FADESAMPS;
bins[rec][ix*2] *= fademul;
bins[rec][ix*2+1] *= fademul;
bins[rectail][(totalsamps-ix)*2-2] *= fademul;
bins[rectail][(totalsamps-ix)*2-1] *= fademul;
}
rectail = rec;
curtail = cur;
}
if (pos == grainsamps)
{
virgin[rec] = 0;
rec = mt_urand() % numbins;
/*
* find the next bin that's written,
* to play from.
*/
do
{
cur++;
if (cur == numbins)
cur = 0;
} while (virgin[cur]);
pos = 0;
}
}
}
PROCESS_THREAD(udp_client_process, ev, data)
{
static struct etimer start_timer, send_timer;
static int flag=1;int i=0;
static struct mt_thread sending_thread, attackinit_thread;
PROCESS_BEGIN();
SENSORS_ACTIVATE(button_sensor);
SENSORS_ACTIVATE(radio_sensor);
set_global_address();
printf("UDP client process started\n");
print_local_addresses();
myip=uip_ds6_get_link_local(ADDR_PREFERRED)->ipaddr;
/* new connection with remote host */
client_conn = udp_new(NULL, NULL, NULL);
if(client_conn == NULL) {
printf("No UDP connection available, exiting the process!\n");
PROCESS_EXIT();
}
udp_bind(client_conn, UIP_HTONS(10000+(int)myip.u8[15]));
udp_bconn = udp_broadcast_new(UIP_HTONS(BROADCAST_PORT),tcpip_handler);
//uip_create_unspecified(&udp_bconn->ripaddr);
if(udp_bconn == NULL) {
printf("No UDP broadcast connection available, exiting the process!\n");
PROCESS_EXIT();
}
printf("Created a connection with the server ");
PRINT6ADDR(&client_conn->ripaddr);
printf(" local/remote port %u/%u\n", UIP_HTONS(client_conn->lport), UIP_HTONS(client_conn->rport));
etimer_set(&start_timer, 60 * CLOCK_SECOND);//network setting time
etimer_set(&send_timer, CLOCK_SECOND * ((int)myip.u8[15]+60+40));//node check/send parent info
char buf[3]="hi";
mt_init();
mt_start(&sending_thread, sendpacket, 0);
mt_start(&attackinit_thread, attack_init, NULL);
while(1) {
PROCESS_YIELD();
//NETSTACK_RDC.off(0);
//NETSTACK_MAC.off(0);
//NETSTACK_RADIO.off();
//button_sensor::value(0);
if(ev==tcpip_event)
{
tcpip_handler();
}
if(rssi_stored==5)// if got 5 rssi value from parent or child
{
monitor=0;
monitor_target=0;
for(i=0;i<5;i++)
printf("Monitered value %d \n",mrssi[i]);
rssi_stored=0;
}
if((ev==sensors_event) && (data == &button_sensor)) {
if(attack_flag)
{
printf("Attack deactivated\n");
attack_flag=0;
attacker=0;
attacker_set=0;
dis_output(NULL);
}else {
printf("Attack activated\n");
mt_exec(&attackinit_thread);
}
}
if((ev==sensors_event) && (data == &radio_sensor))
{
printf("Radio value %d",radio_sensor.value(0));
}
if(etimer_expired(&send_timer))
{
//uip_udp_packet_sendto(client_conn, buf, sizeof(buf), &server_ipaddr, UIP_HTONS(2345));
//uip_create_unspecified(&client_conn->ripaddr);
//if(myip.u8[15]==4)
//sendpacket(0);
etimer_set(&send_timer, CLOCK_SECOND*(myip.u8[15]+60));
if(parent_change) // send only at parent change event
{
if(!attack_flag) // this is not attacker and
{
mt_exec(&sending_thread);
//sendpacket(0); // send nbr info by broadcast 0 for broadcast
parent_change=0;
printf("Thread initiated\n");
}
}
}
if(etimer_expired(&start_timer) && flag==1)
{
flag=0;
send_xy();
etimer_set(&start_timer, CLOCK_SECOND*(myip.u8[15]+1));
PROCESS_WAIT_UNTIL(etimer_expired(&start_timer));
send_broadcast("hi",sizeof("hi"));
sendpacket(1); // 0 means send by unicast
}
}
PROCESS_END();
}
void main(){
struct BOOTINFO *binfo;
struct FIFO32 fifo;
binfo = (struct BOOTINFO *) ADR_BOOTINFO;
char s[MAX_LENGTH];
char mcursor[256];
// mouse and keyboard data
int fifobuf[BUF_LEN];
struct TIMER *timer, *timer2, *timer3;
int fifo_data;
struct MOUSE_DEC mdec;
int mx,my;
// memory manager
struct MEMMAN *memman = (struct MEMMAN *) MEMMAN_ADDR;
unsigned int memtotal;
// overlay control
struct SHTCTL *shtctl;
struct SHEET *sht_win, *sht_mouse;
unsigned char *buf_back, buf_mouse[256];
unsigned char *buf_win;
// gdt control
init_gdtidt();
init_pic();
init_pit();
_io_sti();
// init fifo
fifo32_init(&fifo, BUF_LEN, fifobuf);
init_keyboard(&fifo, 256);
enable_mouse(&fifo, 512, &mdec);
timer = timer_alloc();
timer_init(timer, &fifo, 10);
timer_settime(timer, 1000);
timer2 = timer_alloc();
timer_init(timer2, &fifo, 3);
timer_settime(timer2, 300);
timer3 = timer_alloc();
timer_init(timer3,&fifo, 1);
timer_settime(timer3, 50);
// must after init pit
// qemu 1000 = 10s
// bochs 1000 = 1s
_io_out8(PIC0_IMR,0xf8);
_io_out8(PIC1_IMR,0xef);
// mouse and keyboard control
// memory set
memtotal = memtest(0x00400000, 0xbfffffff);
memman_init(memman);
// this is ERROR!
// c400 is system
memman_free(memman, 0x00400000, memtotal - 0x00400000);
/**************************************************
* screen
* ----------------------------------------------*/
// video initialize
init_palette();
shtctl = shtctl_init(memman, binfo->vram, binfo->scrnx, binfo->scrny);
sht_back = sheet_alloc(shtctl); // background sheet
sht_mouse = sheet_alloc(shtctl); // mouse sheet
sht_win = sheet_alloc(shtctl);
buf_back = (unsigned char *) memman_alloc_4k(memman, binfo->scrnx * binfo->scrny); // background buffer
buf_win = (unsigned char *) memman_alloc_4k(memman,160*52);
sheet_setbuf(sht_back, buf_back, binfo->scrnx, binfo->scrny, -1); // bind buf
sheet_setbuf(sht_mouse, buf_mouse, 16, 16, 99);
sheet_setbuf(sht_win, buf_win, 160, 52, -1);
init_screen(buf_back, binfo->scrnx, binfo->scrny); // init color
init_mouse_cursor8(buf_mouse, 99);
make_window8(buf_win, 160, 52, "counter");
// init slide
sheet_slide(sht_back, 0, 0);
// initial mouse position
mx = (binfo->scrnx - 16) / 2;
my = (binfo->scrny - 28 - 16) / 2;
int cursor_x, cursor_c;
make_textbox8(sht_win, 8, 28, 144, 16, COL8_FFFFFF);
cursor_x = 8;
cursor_c = COL8_FFFFFF;
// init mouse slide
// init position 0,0
sheet_slide(sht_mouse, mx, my);
sheet_slide(sht_win,80,72);
sheet_updown(sht_back, 0);
sheet_updown(sht_win, 1);
sheet_updown(sht_mouse, 2);
/*-------------------------------------------------
* screen
* ***********************************************/
/*************** memory info *********/
/*
itoa(s,memtotal / 1024 /1024,MAX_LENGTH);
putfont8_asc(buf_back, binfo->scrnx, 0, 32, COL8_FFFFFF, s);
itoa(s,memman_total(memman) / 1024,MAX_LENGTH);
putfont8_asc(buf_back, binfo->scrnx, 0, 64, COL8_FFFFFF, s);
sheet_refresh(sht_back, 0, 32, binfo->scrnx, 80);
*/
/*************** memory info *********/
/*
* TSS
*/
struct TSS32 tss_a, tss_b;
tss_a.ldtr = 0;
tss_a.iomap = 0x40000000;
tss_b.ldtr = 0;
tss_b.iomap = 0x40000000;
struct SEGMENT_DESCRIPTOR *gdt = (struct SEGMENT_DESCRIPTOR *) ADR_GDT;
set_segmdesc(gdt+3, 103, (int) &tss_a, AR_TSS32);
set_segmdesc(gdt+4, 103, (int) &tss_b, AR_TSS32);
int task_b_esp;
// current tr
_load_tr(3 * 8);
task_b_esp = memman_alloc_4k(memman, 64 * 1024) + 64 * 1024;
tss_b.eip = (int) &task_b_main;
tss_b.eflags = 0x00000202; /* IF = 1; */
tss_b.eax = 0;
tss_b.ecx = 0;
tss_b.edx = 0;
tss_b.ebx = 0;
tss_b.esp = task_b_esp;
tss_b.ebp = 0;
tss_b.esi = 0;
tss_b.edi = 0;
tss_b.es = 2 * 8;
tss_b.cs = 1 * 8;
tss_b.ss = 2 * 8;
tss_b.ds = 2 * 8;
tss_b.fs = 2 * 8;
tss_b.gs = 2 * 8;
int count = 0;
mt_init();
for(;;){
count ++;
_io_cli();
if(0 == (fifo32_status(&fifo) )){
_io_stihlt();
//_io_sti(); // too fast
}
else{
fifo_data = fifo32_get(&fifo);
_io_sti();
if(256 <= fifo_data && fifo_data < 512){ // keyboard data
if(fifo_data < 256 + 0x54){
if(keytable[fifo_data-256] != 0){
s[0] = keytable[fifo_data-256];
s[1] = 0;
putfont8_asc_sht(sht_win, cursor_x, 28, COL8_000000, COL8_FFFFFF,s, 1);
cursor_x += 8; // next pos
}
if(fifo_data == 256 + 0x0e && cursor_x >= 8){
putfont8_asc_sht(sht_win, cursor_x, 28, COL8_000000, COL8_FFFFFF," ", 1);
cursor_x -= 8;
}
// boxfill8(sht_win->buf, sht_win->bxsize, cursor_c, cursor_x, 28, cursor_x+7, 43);
// sheet_refresh(sht_win, cursor_x, 28, cursor_x+7, 43);
}
}
else if(512 <= fifo_data && fifo_data < 768){ // mouse data
// fifo_data -= 512; //have some error
if (mouse_decode(&mdec,fifo_data - 512) != 0){
mx += mdec.x;
my += mdec.y;
if(mx < 0){
mx = 0;
}
if(my < 0){
my = 0;
}
if(mx > binfo->scrnx - 1){
mx = binfo->scrnx -1;
}
if(my > binfo->scrny - 1){
my = binfo->scrny -1;
}
sheet_slide(sht_mouse, mx, my);
if( (mdec.btn & 0x01) != 0 && (mx > sht_win->vx0 && mx < (sht_win->vx0 + sht_win->bxsize)) && ( my > sht_win->vy0 - sht_win->bysize*2 && my < (sht_win->vy0 + sht_win->bysize * 2) ) ){
sheet_slide(sht_win, mx - 80, my - 8);
}
}
}
else if( fifo_data == 10){
putfont8_asc_sht(sht_back, 0, 140, COL8_FFFFFF, COL8_008484,"10[sec]", 7);
itoa(s,count,MAX_LENGTH);
putfont8_asc_sht(sht_back, 140, 28, COL8_000000, COL8_C6C6C6, s ,12 );
}
else if( fifo_data == 3){
putfont8_asc_sht(sht_back, 100, 0, COL8_FFFFFF, COL8_008484,"3[sec]", 6);
}
else{
if(fifo_data != 0){
timer_init(timer3, &fifo, 0);
boxfill8(buf_back, binfo->scrnx, COL8_FFFFFF, 8, 96, 15, 111);
}
else{
timer_init(timer3, &fifo, 1);
boxfill8(buf_back, binfo->scrnx, COL8_008484, 8, 96, 15, 111);
}
timer_settime(timer3, 50);
sheet_refresh(sht_back, 8, 96, 16, 112);
}
}
}
}
/**
* メイン関数
* コマンドライン引数(options):
* -n スクランブルの数(1-10,000)
* -t スクランブルの種類(0:通常 1:コーナーのみ 2:エッジのみ 3:パリティ有り 4:パリティ無し)
* -d スクランブルの長さの最大値
* -l タイムアウト値(秒)
* (-s オプション有りで phase1/2 のセパレータ有り) 今のところ無し
* -v オプション有りで 冗長出力
* -f facelets文字列指定
* (-th スレッド数(1-4)) C版では無し
* -sd シード値(省略可)
*/
int main(int argc, char *argv[])
{
// デフォルト値
// スクランブルの数
int num_scrambles = 5;
// スクランブルの種類
int type = 6;
// スクランブルの長さの最大値
int depth = 30;
// タイムアウト値(ミリ秒)
time_t limit = 5000;
// 冗長出力
int is_verbose = 0;
// ステータス表示
int show_status = 1;
// Facelet文字列
char facelets[128];
// スレッド数
//int num_threads = 2;
// プログラム開始時間
time_t tstart = (time_t)-1;
// シード値
unsigned long seed = 0;
int i;
// コマンドライン引数の処理
facelets[0] = '\0';
for (i = 1; i < argc; i++) {
if (strcmp(argv[i], "-n") == 0) {
num_scrambles = atoi(argv[++i]);
if (num_scrambles < 1 || 10000 < num_scrambles) {
fprintf(stderr, "n must be between 1-10000.\n");
exit(1);
}
} else if (strcmp(argv[i], "-t") == 0) {
type = atoi(argv[++i]);
if (type < 0 || 6 < type) {
fprintf(stderr, "t must be between 0-4.\n");
exit(1);
}
} else if (strcmp(argv[i], "-d") == 0) {
depth = atoi(argv[++i]);
if (depth < 0) {
fprintf(stderr, "d must be positive.\n");
exit(1);
}
} else if (strcmp(argv[i], "-l") == 0) {
limit = (time_t)atoi(argv[++i]);
if (limit < 0) {
fprintf(stderr, "l must be positive.\n");
exit(1);
}
}/* else if (args[i].equals("-s")) {
useSeparator = true;
}*/ else if (strcmp(argv[i], "-v") == 0) {
is_verbose = 1;
} else if (strcmp(argv[i], "-ns") == 0) {
show_status = 0;
} else if (strcmp(argv[i], "-f") == 0) {
strcpy(facelets, argv[++i]);
/*{ else if (args[i].equals("-th")) {
numThreads = Integer.parseInt(args[++i]);
if (numThreads < 1 || 4 < numThreads) {
System.err.println("th must be between 1-4.");
System.exit(1);
}
}*/
} else if (strcmp(argv[i], "-sd") == 0) {
seed = atoi(argv[++i]);
} else {
fprintf(stderr, "Bad arguments.\n");
exit(1);
}
}
// プログラム名表示
if (is_verbose) {
printf("** TwophaseDriver in C 0.0.1 **\n");
// 各パラメータ表示
printf("num_scrambles=%d\n", num_scrambles);
printf("type=%d\n", type);
printf("depth=%d\n", depth);
printf("limit=%ld\n", (long int)limit);
printf("is_verbose=%d\n", is_verbose);
printf("facelets=%s\n", facelets);
}
// 計測開始
if (is_verbose) {
tstart = clock();
}
// 静的データの初期化
mt_init((unsigned long)time(NULL) + seed);
cubiecube_init();
coordcube_init();
if (facelets[0] != '\0') {
num_scrambles = 1;
}
// スクランブル生成
for (i = 0; i < num_scrambles; i++) {
Search sc;
char stat[128], result[128], output[256];
//output[0] = '\0';
// Facelet文字列指定されていたら
if (facelets[0] != '\0') {
strcpy(stat, facelets);
}
// スクランブルタイプによってスクランブルされたキューブの状態を生成する
else {
switch (type) {
case 0: // 通常
random_cube(stat);
break;
case 1: // コーナーのみ
corner_random_cube(stat);
break;
case 2: // エッジのみ
edge_random_cube(stat);
break;
case 3: // パリティ有り
random_cube_with_parity(stat);
break;
case 4: // パリティ無し
random_cube_with_no_parity(stat);
break;
case 5: // YY君が作成してくれたキューブ状態 (test 1)
yy_cube_test1(stat);
break;
case 6: // YY君が作成してくれたキューブ状態 (test 2)
yy_cube_test2(stat);
break;
}
}
/*if (is_verbose) {
printf("[%d] CubeString:\n%s\n", i, stat);
char cs[64];
sprintf(cs, "\n[%d] CubeString\n", i);
output = strcat(output, cs);
output += "\n" + getName() + ": [" + i + "] CubeString\n";
output += c.substring(0, 9) + " - ";
output += c.substring(9, 18) + " - ";
output += c.substring(18, 27) + " - ";
output += c.substring(27, 36) + " - ";
output += c.substring(36, 45) + " - ";
output += c.substring(45, 54) + "\n";
}*/
// 状態を表示
if (show_status) {
printf("%s\n", stat);
}
// その状態から完成状態までの解法を検索
// 参考: このメソッドの引数
// solution(java.lang.String facelets, int maxDepth, long timeOut, boolean useSeparator)
// Computes the solver string for a given cube.
solution(&sc, stat, depth, limit, 0, result);
/*if (is_verbose) {
//output = strcat(output, );
//output += getName() + ": [" + i + "] Result\n";
printf("[%d] Result:\n%s\n", i, result);
}*/
if (result[0] == 'E') { // if Error
strcpy(output, result);
} else {
reverse_alg(result, output);
}
printf("%s\n", output);
}
// 実行時間の計算
if (is_verbose) {
printf("\n");
printf("CPU Time (sec): %lf\n", (double)(clock() - tstart) / CLOCKS_PER_SEC);
}
return 0;
}
static void hw6180_init(void)
{
log_msg(INFO_MSG, "SYS::init", "Once-only initialization running.\n");
fault_gen_no_fault = 0;
sim_vm_parse_addr = parse_addr;
sim_vm_fprint_addr = fprint_addr;
sim_vm_cmd = sim_cmds;
mt_init();
console_init();
iom_init();
// todo: set debug flags for all devices
// cpu_dev.dctrl = 1;
// tape_dev.dctrl = 1;
sim_brk_types = SWMASK('E'); // execution
sim_brk_types |= SWMASK('M'); // memory read/write
sim_brk_types |= SWMASK('W'); // memory write
sim_brk_types |= SWMASK('D'); // auto-display (w/o stopping)
sim_brk_dflt = SWMASK('E');
// System-wide options
memset(&sys_opts, 0, sizeof(sys_opts));
sys_opts.clock_speed = 250000; // about 1/4 of a MIP
// Negative times imply instantaneous operation without making
// use of sim_activate(). Zero times have almost the same
// result, except that the caller queues an immediate run via
// sim_activate() and then returns. The zero wait event(s) will
// be noticed and handled prior to the next instruction execution.
sys_opts.iom_times.connect = 3; // 0
sys_opts.iom_times.chan_activate = -1; // unimplemented
sys_opts.mt_times.read = 3; // -1; 100; 1000;
sys_opts.mt_times.xfer = -1; // unimplemented
sys_opts.warn_uninit = 1;
sys_opts.startup_interrupt = 1;
// Which controller channel is used for the tape drive would seem to be
// arbitrary. However, the T&D tape actually executes an IMW word.
// Perhaps this is due to a bug elsewhere. If not, our previous
// channel choice of 036 caused the instruction word to have an illegal
// tag. The IMW at 00214 is 006715/075000 (lda 06715). GB61 has an
// example of using channel 14; we'll use that which just happens to
// leave the 006715 value unchanged
//
// Channels range from 1 to 037; the first several channels are
// reserved.
sys_opts.tape_chan = 14; // 12 bits or 6 bits; controller channel
// Hardware config -- todo - should be based on config cards!
// BUG/TODO: need to write config deck at 012000 ? Probably not
// Only one CPU
memset(&cpu_ports, 0, sizeof(cpu_ports));
for (unsigned i = 0; i < ARRAY_SIZE(cpu_ports.ports); ++i)
cpu_ports.ports[i] = -1;
// CPU Switches
memset(&switches, 0, sizeof(switches));
switches.cpu_num = 0; // CPU 'A' is bootload cpu (init_early_config.pl1)
// FLT_BASE switches are the 7 MSB of a 12bit addr
// AN87, 1-41 claims multics requires faults to be at 100o
switches.FLT_BASE = 2; // 2<<5 == 0100
// At one time, it seemed that the diag tape required using different
// fault base switch settings. However, that no longer seems to be the case.
switches.dps8_model = 0; // Most of our code assumes L68
// Only one SCU
memset(&scu, 0, sizeof(scu));
scu.mode = 1; // PROGRAM mode
for (unsigned i = 0; i < ARRAY_SIZE(scu.ports); ++i)
scu.ports[i].idnum = -1;
// BUG/TODO: the following belongs in a scu_reset()
for (unsigned i = 0; i < ARRAY_SIZE(scu.ports); ++i)
scu.ports[i].is_enabled = 0;
for (unsigned i = 0; i < ARRAY_SIZE(scu.interrupts); ++i) {
scu.interrupts[i].mask_assign.unassigned = 1;
scu.interrupts[i].exec_intr_mask = ~0 & MASKBITS(32);
}
// Only two of the four SCU masks are used; these correspond to the "A"
// and "B" rotary switches
scu.interrupts[0].avail = 1;
scu.interrupts[1].avail = 1;
// Only one IOM
iom.iom_num = 0; // IOM "A"
Mem = malloc(sizeof(*Mem) * MAXMEMSIZE);
if (Mem == NULL) {
log_msg(ERR_MSG, "SYS::init", "Cannot allocate memory.\n");
return;
}
#if FEAT_MEM_CHECK_UNINIT
memset(Mem, 0xff, MAXMEMSIZE*sizeof(Mem[0]));
#else
memset(Mem, 0, MAXMEMSIZE*sizeof(Mem[0]));
#endif
// CPU port 'a' connected to port '5' of SCU
// scas_init's call to make_card seems to require that the CPU be connected
// to SCU port zero.
// Also, rsw_util$port_info claims base addr is: port-assignment * size/1024
//int cpu_port = 4; // CPU port 'd' or 4
// However, MR12.1 error_msgs.compout says CPUs should be on higher
// port numbers than IOMs and Bulk Stores
int cpu_port = 0; // CPU port 'a' or 0
cpu_ports.scu_port = 5;
cpu_ports.ports[cpu_port] = 0; // CPU connected to SCU "A"
scu.ports[cpu_ports.scu_port].is_enabled = 1;
scu.ports[cpu_ports.scu_port].type = ADEV_CPU;
scu.ports[cpu_ports.scu_port].idnum = switches.cpu_num;
scu.ports[cpu_ports.scu_port].dev_port = cpu_port;
// The following should probably be in scu_rest() because mask
// assignments can be changed by running code
// GB61, pages 9-1 and A-2: Set Mask A to port that the bootload CPU is
// connected to; Set Mask B to off
scu.interrupts[0].mask_assign.unassigned = 0;
scu.interrupts[0].mask_assign.port = cpu_ports.scu_port;
scu.interrupts[0].mask_assign.raw = 1 << (8 - cpu_ports.scu_port);
// IOM port 3 connected to port 1 of bootload SCU
// Some sources say that we must use the same port (a-h) on the IOM as
// we used on the CPU. However, scas_init.pl1 will complain about being
// unable to setup cyclic port priority if IOMS and CPUS use the same
// SCU ports.
int iom_port = 3; // BUG
// int iom_port = cpu_port; // required by AM81 and AN70
iom.scu_port = 1;
iom.ports[iom_port] = 0; // port C connected to SCU "A"
scu.ports[iom.scu_port].is_enabled = 1;
scu.ports[iom.scu_port].type = ADEV_IOM;
scu.ports[iom.scu_port].idnum = iom.iom_num;
scu.ports[iom.scu_port].dev_port = iom_port;
/* Console */
sys_opts.opcon_chan = 012; // channels 010 and higher are probed for an operators console
iom.channels[sys_opts.opcon_chan].type = DEVT_CON;
iom.channels[sys_opts.opcon_chan].dev = &opcon_dev;
/* Disk */
const int disk_chan = 20;
iom.channels[disk_chan].type = DEVT_DISK;
iom.channels[disk_chan].dev = &disk_dev;
/* Tape */
iom.channels[sys_opts.tape_chan].type = DEVT_TAPE;
iom.channels[sys_opts.tape_chan].dev = &tape_dev;
log_msg(INFO_MSG, "SYS::init", "Once-only initialization complete.\n");
log_msg(INFO_MSG, "SYS::init", "Activity queue has %d entries.\n", sim_qcount());
}
// RANSAC
//
// Given a list of data points, find the parameters of a model that fits to
// those points. Several models are tried, and the model with the highest
// number of inliers is kept.
//
// A basic idea of this kind of ransac is that a maximum allowed error is fixed
// by hand, and then the inliers of a model are defined as the data points
// which fit the model up to the allowed error. The RANSAC algorithm randomly
// tries several models and keeps the one with the largest number of inliers.
int ransac(
// output
//int *out_ninliers, // number of inliers
bool *out_mask, // array mask identifying the inliers
float *out_model, // model parameters
// input data
float *data, // array of input data
// input context
int datadim, // dimension of each data point
int n, // number of data points
int modeldim, // number of model parameters
ransac_error_evaluation_function *mev,
ransac_model_generating_function *mgen,
int nfit, // data points needed to produce a model
// input parameters
int ntrials, // number of models to try
int min_inliers, // minimum allowed number of inliers
float max_error, // maximum allowed error
// decoration
ransac_model_accepting_function *macc,
void *usr
)
{
fprintf(stderr, "running RANSAC over %d datapoints of dimension %d\n",
n, datadim);
fprintf(stderr, "will try to find a model of size %d from %d points\n",
modeldim, nfit);
fprintf(stderr, "we will make %d trials and keep the best with e<%g\n",
ntrials, max_error);
fprintf(stderr, "a model must have more than %d inliers\n",
min_inliers);
mt_init((unsigned long int) 0); // fix seed for the Mersenne Twister PRNG
int best_ninliers = 0;
float best_model[modeldim];
bool *best_mask = xmalloc(n * sizeof*best_mask);
bool *tmp_mask = xmalloc(n * sizeof*best_mask);
for (int i = 0; i < ntrials; i++)
{
int indices[nfit];
fill_random_indices(indices, nfit, 0, n);
float x[nfit*datadim];
for (int j = 0; j < nfit; j++)
for (int k = 0; k < datadim; k++)
x[datadim*j + k] = data[datadim*indices[j] + k];
float model[modeldim*MAX_MODELS];
int nm = mgen(model, x, usr);
if (!nm)
continue;
if (macc && !macc(model, usr))
continue;
// generally, nm=1
for (int j = 0; j < nm; j++)
{
float *modelj = model + j*modeldim;
int n_inliers = ransac_trial(tmp_mask, data, modelj,
max_error, datadim, n, mev, usr);
if (n_inliers > best_ninliers)
{
best_ninliers = n_inliers;
for(int k = 0; k < modeldim; k++)
best_model[k] = modelj[k];
for(int k = 0; k < n; k++)
best_mask[k] = tmp_mask[k];
}
}
}
fprintf(stderr, "RANSAC found this best model:");
for (int i = 0; i < modeldim; i++)
fprintf(stderr, " %g", best_model[i]);
fprintf(stderr, "\n");
if (0) {
FILE *f = xfopen("/tmp/ramo.txt", "w");
for (int i = 0; i < modeldim; i++)
fprintf(f,"%lf%c",best_model[i],i==modeldim-1?'\n':' ');
xfclose(f);
}
//fprintf(stderr, "errors of outliers:");
//for (int i = 0; i < n; i++)
// if (!best_mask[i]) {
// float e = mev(best_model, data+i*datadim, usr);
// fprintf(stderr, " %g", e);
// }
//fprintf(stderr, "\n");
//fprintf(stderr, "errors of inliers:");
//for (int i = 0; i < n; i++)
// if (best_mask[i]) {
// float e = mev(best_model, data+i*datadim, usr);
// fprintf(stderr, " %g", e);
// }
//fprintf(stderr, "\n");
//fprintf(stderr, "errors of data points:\n");
//for (int i = 0; i < n; i++) {
// float e = mev(best_model, data+i*datadim, usr);
// fprintf(stderr, "\t%g\t%s\n", e, best_mask[i]?"GOOD":"bad");
//}
int return_value = 0;
if (best_ninliers >= min_inliers)
{
return_value = best_ninliers;
} else
return_value = 0;
for (int j = 0; j < modeldim; j++)
if (!isfinite(best_model[j]))
fail("model_%d not finite", j);
if (out_model)
for(int j = 0; j < modeldim; j++)
out_model[j] = best_model[j];
if (out_mask)
for(int j = 0; j < n; j++)
out_mask[j] = best_mask[j];
free(best_mask);
free(tmp_mask);
return return_value;
}
void
HariMain(void)
{
boot_info_t* binfo = (boot_info_t*)ADR_BOOTINFO;
fifo32_t fifo;
int fifobuf[128];
char debug_info[64];
timer_t* timer1;
timer_t* timer2;
timer_t* timer3;
int mouse_x, mouse_y, cursor_x, cursor_c, task_b_esp;
int data;
mouse_dec_t mdec;
unsigned int memory_total;
mem_mgr_t* mem_mgr = (mem_mgr_t*)MEMMGR_ADDR;
layer_mgr_t* layer_mgr;
layer_t* back_layer;
layer_t* mouse_layer;
layer_t* win_layer;
unsigned char* back_buf;
unsigned char mouse_buf[256];
unsigned char* win_buf;
static char s_keytable[0x54] = {
0, 0, '1', '2', '3', '4', '5', '6', '7', '8', '9', '0', '-', '=',
0, 0, 'Q', 'W', 'E', 'R', 'T', 'Y', 'U', 'I', 'O', 'P', '[', ']',
0, 0, 'A', 'S', 'D', 'F', 'G', 'H', 'J', 'K', 'L', ';', '\'','`',
0, '\\','Z', 'X', 'C', 'V', 'B', 'N', 'M', ',', '.', '/', 0, '*',
0, ' ', 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0,
0, '7', '8', '9', '-', '4', '5', '6', '+', '1', '2', '3', '0', '.'
};
tss32_t tss_a, tss_b;
segment_descriptor_t* gdt = (segment_descriptor_t*)ADR_GDT;
init_gdt_idt();
init_pic();
io_sti(); /* after initialize IDT/PIC, allow all CPU's interruptors */
fifo_init(&fifo, fifobuf, 128);
init_pit(); /* initialize programmable interval timer */
init_keyboard(&fifo, 256);
enable_mouse(&fifo, 512, &mdec);
io_out8(PIC0_IMR, 0xf8); /* set PIT/PIC1/keyboard permission 11111000 */
io_out8(PIC1_IMR, 0xef); /* set mouse permission 11101111 */
set490(&fifo, 1);
timer1 = timer_alloc();
timer_init(timer1, &fifo, 10);
timer_settimer(timer1, 1000);
timer2 = timer_alloc();
timer_init(timer2, &fifo, 3);
timer_settimer(timer2, 300);
timer3 = timer_alloc();
timer_init(timer3, &fifo, 1);
timer_settimer(timer3, 50);
memory_total = memory_test(0x00400000, 0xbfffffff);
mem_mgr_init(mem_mgr);
mem_mgr_free(mem_mgr, 0x00001000, 0x0009e000); /*0x00001000~0x0009e000*/
mem_mgr_free(mem_mgr, 0x00400000, memory_total - 0x00400000);
init_palette();
layer_mgr = layer_mgr_init(mem_mgr, binfo->vram,
binfo->screen_x, binfo->screen_y);
back_layer = layer_alloc(layer_mgr);
mouse_layer = layer_alloc(layer_mgr);
win_layer = layer_alloc(layer_mgr);
back_buf = (unsigned char*)mem_mgr_alloc_4k(mem_mgr,
binfo->screen_x * binfo->screen_y);
win_buf = (unsigned char*)mem_mgr_alloc_4k(mem_mgr, 160 * 52);
layer_setbuf(back_layer, back_buf,
binfo->screen_x, binfo->screen_y, -1);
layer_setbuf(mouse_layer, mouse_buf, 16, 16, 99);
layer_setbuf(win_layer, win_buf, 160, 52, -1);
init_screen(back_buf, binfo->screen_x, binfo->screen_y);
init_mouse_cursor8(mouse_buf, 99);
make_window8(win_buf, 160, 52, "Window");
make_text8(win_layer, 8, 28, 144, 16, COLOR8_FFFFFF);
cursor_x = 8;
cursor_c = COLOR8_FFFFFF;
layer_slide(back_layer, 0, 0);
mouse_x = (binfo->screen_x - 16) / 2;
mouse_y = (binfo->screen_y - 28 - 16) / 2;
layer_slide(mouse_layer, mouse_x, mouse_y);
layer_slide(win_layer, 80, 72);
layer_updown(back_layer, 0);
layer_updown(win_layer, 1);
layer_updown(mouse_layer, 2);
sprintf(debug_info, "(%3d, %3d)", mouse_x, mouse_y);
drawstring_and_refresh(back_layer, 0, 0,
COLOR8_FFFFFF, COLOR8_848484, debug_info, 10);
sprintf(debug_info, "memory total: %dMB, free space: %dKB",
memory_total / (1024 * 1024), mem_mgr_total(mem_mgr) / 1024);
drawstring_and_refresh(back_layer, 0, 32,
COLOR8_FFFFFF, COLOR8_848484, debug_info, 40);
tss_a.ldtr = 0;
tss_a.iomap = 0x40000000;
tss_b.ldtr = 0;
tss_b.iomap = 0x40000000;
set_segment_descriptor(gdt + 3, 103, (int)&tss_a, AR_TSS32);
set_segment_descriptor(gdt + 4, 103, (int)&tss_b, AR_TSS32);
load_tr(3 * 8);
task_b_esp = mem_mgr_alloc_4k(mem_mgr, 64 * 1024) + 64 * 1024 - 8;
tss_b.eip = (int)&task_b_main;
tss_b.eflags = 0x00000202; /* IF = 1 */
tss_b.eax = 0;
tss_b.ecx = 0;
tss_b.edx = 0;
tss_b.ebx = 0;
tss_b.esp = task_b_esp;
tss_b.ebp = 0;
tss_b.esi = 0;
tss_b.edi = 0;
tss_b.es = 1 * 8;
tss_b.cs = 2 * 8;
tss_b.ss = 1 * 8;
tss_b.ds = 1 * 8;
tss_b.fs = 1 * 8;
tss_b.gs = 1 * 8;
*((int*)(task_b_esp + 4)) = (int)back_layer;
mt_init();
for ( ; ; ) {
io_cli();
if (0 == fifo_size(&fifo))
io_stihlt();
else {
data = fifo_get(&fifo);
io_sti();
if (256 <= data && data <= 511) {
sprintf(debug_info, "%02X", data - 256);
drawstring_and_refresh(back_layer, 0, 16,
COLOR8_FFFFFF, COLOR8_848484, debug_info, 2);
if (data < (256 + 0x54)) {
if (0 != s_keytable[data - 256] && cursor_x < 144) {
/* normal character, show 1 character, move cursor 1 time */
debug_info[0] = s_keytable[data - 256];
debug_info[1] = 0;
drawstring_and_refresh(win_layer, cursor_x, 28,
COLOR8_000000, COLOR8_FFFFFF, debug_info, 1);
cursor_x += 8;
}
}
if ((256 + 0x0e) == data && cursor_x > 8) {
/* backspace, recover cursor by sapce, move back cursor 1 time */
drawstring_and_refresh(win_layer, cursor_x, 28,
COLOR8_000000, COLOR8_FFFFFF, " ", 1);
cursor_x -= 8;
}
/* show cursor again */
fill_box8(win_layer->buf, win_layer->w_size,
cursor_c, cursor_x, 28, cursor_x + 7, 43);
layers_refresh(win_layer, cursor_x, 28, cursor_x + 8, 44);
}
else if (512 <= data && data <= 767) {
if (0 != mouse_decode(&mdec, data - 512)) {
/* show all mouse bytes code */
sprintf(debug_info, "[lcr %4d %4d]", mdec.x, mdec.y);
if (0 != (mdec.state & 0x01))
debug_info[1] = 'L';
if (0 != (mdec.state & 0x02))
debug_info[3] = 'R';
if (0 != (mdec.state & 0x04))
debug_info[2] = 'C';
drawstring_and_refresh(back_layer, 32, 16,
COLOR8_FFFFFF, COLOR8_848484, debug_info, 15);
mouse_x += mdec.x;
mouse_y += mdec.y;
if (mouse_x < 0)
mouse_x = 0;
if (mouse_y < 0)
mouse_y = 0;
if (mouse_x > binfo->screen_x - 1)
mouse_x = binfo->screen_x - 1;
if (mouse_y > binfo->screen_y - 1)
mouse_y = binfo->screen_y - 1;
sprintf(debug_info, "(%3d, %3d)", mouse_x, mouse_y);
drawstring_and_refresh(back_layer, 0, 0,
COLOR8_FFFFFF, COLOR8_848484, debug_info, 10);
layer_slide(mouse_layer, mouse_x, mouse_y);
if (0 != (mdec.state & 0x01)) {
/* down left click, move window */
layer_slide(win_layer, mouse_x - 80, mouse_y - 8);
}
}
}
else if (10 == data) {
drawstring_and_refresh(back_layer, 0, 64,
COLOR8_FFFFFF, COLOR8_848484, "10[sec]", 7);
}
else if (3 == data) {
drawstring_and_refresh(back_layer, 0, 80,
COLOR8_FFFFFF, COLOR8_848484, "03[sec]", 7);
}
else if (data <= 1) { /* timer by cursor */
if (0 != data) {
timer_init(timer3, &fifo, 0);
cursor_c = COLOR8_000000;
}
else {
timer_init(timer3, &fifo, 1);
cursor_c = COLOR8_FFFFFF;
}
timer_settimer(timer3, 50);
fill_box8(win_layer->buf, win_layer->w_size,
cursor_c, cursor_x, 28, cursor_x + 7, 43);
layers_refresh(win_layer, cursor_x, 28, cursor_x + 8, 44);
}
}
}
}
