/*-----------------------------------------------------------------------------------*/
int
main(void)
{
idata u8_t i, arptimer;
idata u16_t j;
// idata int i;
InitGraphic();//putchar(0,62,0);
//while(1)
for(i=0;i<100;i++)
{
putstring(6,0, "Welcome to http://shop34480016.taobao.com www.dianshijin.cn");
}
init_uart();
printu("starting......\r\n");
/* Initialize the device driver. */
// rtl8019as_init();
dev_init();
uip_arp_init();
/* Initialize the uIP TCP/IP stack. */
uip_init();
printu("11111111111111111111111\r\n");
/* Initialize the HTTP server. */
// httpd_init();
tcp_server_init();
arptimer = 0;
printu("222222222222222222222222222\r\n");
while(1) {
/* Let the tapdev network device driver read an entire IP packet
into the uip_buf. If it must wait for more than 0.5 seconds, it
will return with the return value 0. If so, we know that it is
time to call upon the uip_periodic(). Otherwise, the tapdev has
received an IP packet that is to be processed by uIP. */
uip_len = dev_poll();
for(j=0;j<500;j++);
/*
if(uip_len > 0)
{
printuf("--------------- uip_len = 0x%x", uip_len);
printuf("%x ----------\r\n", uip_len);
for(i=0;i<uip_len;i++)
{
printuf("%x ", uip_buf[i]);
if((i+1)%16==0) printu("\r\n");
}
printu("\r\n");
}
*/
if(uip_len == 0) {
for(i = 0; i < UIP_CONNS; i++) {
uip_periodic(i);
/* If the above function invocation resulted in data that
should be sent out on the network, the global variable
uip_len is set to a value > 0. */
if(uip_len > 0) {
uip_arp_out();
dev_send();
}
}
#if UIP_UDP
for(i = 0; i < UIP_UDP_CONNS; i++) {
uip_udp_periodic(i);
/* If the above function invocation resulted in data that
should be sent out on the network, the global variable
uip_len is set to a value > 0. */
if(uip_len > 0) {
uip_arp_out();
dev_send();
}
}
#endif /* UIP_UDP */
/* Call the ARP timer function every 10 seconds. */
if(++arptimer == 20) {
uip_arp_timer();
arptimer = 0;
}
} else {
if(BUF->type == htons(UIP_ETHTYPE_IP)) {
uip_arp_ipin();
uip_input();
/* If the above function invocation resulted in data that
should be sent out on the network, the global variable
uip_len is set to a value > 0. */
if(uip_len > 0) {
uip_arp_out();
dev_send();
}
} else if(BUF->type == htons(UIP_ETHTYPE_ARP)) {
uip_arp_arpin();
/* If the above function invocation resulted in data that
should be sent out on the network, the global variable
uip_len is set to a value > 0. */
if(uip_len > 0) {
dev_send();
}
}
}
}
return 0;
}
//called when init_main proc start
// file system
// 用于初始化文件系统
void
fs_init(void) {
vfs_init();
dev_init();
sfs_init();
}
void _main()
{
mem_extent_t *ramext;
u8 sn[6];
u32 cpu_clk_hz = 0;
rtc_time_t tm;
s32 ret;
/*
This section runs with interrupts disabled. The boot console is not available in this
section.
*/
preempt_disable();
/* Copy kernel read/write data areas into kernel RAM */
memcpy(&_sdata, &_etext, &_edata - &_sdata); /* Copy .data section to kernel RAM */
bzero(&_sbss, &_ebss - &_sbss); /* Initialise .bss section */
/* Begin platform initialisation */
if(plat_init() != SUCCESS)
boot_early_fail(1);
if(plat_mem_detect() != SUCCESS) /* Detect installed RAM, initialise memory extents */
boot_early_fail(2);
/* Initialise kernel slabs */
slab_init(&_ebss); /* Slabs sit after the .bss section */
/* Initialise kernel heap */
kmeminit(g_slab_end, mem_get_highest_addr(MEM_EXTENT_KERN | MEM_EXTENT_RAM) - KERNEL_STACK_LEN);
/* Initialise user heap. Place it in the largest user RAM extent. */
ramext = mem_get_largest_extent(MEM_EXTENT_USER | MEM_EXTENT_RAM);
umeminit(ramext->base, ramext->base + ramext->len);
/* By default, all exceptions cause a context-dump followed by a halt. */
cpu_irq_init_table();
/* Initialise device tree */
if(dev_init() != SUCCESS)
boot_early_fail(3);
/*
It's not yet possible to initialise the real (platform) console because devices haven't
been enumerated and interrupts are disabled. In the meantime, create a temporary in-memory
kernel console device to capture output from the boot process.
*/
if(early_boot_console_init() != SUCCESS)
boot_early_fail(4);
printf("%s\nplatform: %s\n", g_warmup_message, plat_get_name());
printf("%uMB RAM detected\n", (mem_get_total_size(MEM_EXTENT_USER | MEM_EXTENT_RAM)
+ mem_get_total_size(MEM_EXTENT_KERN | MEM_EXTENT_RAM)) >> 20);
/* === Initialise peripherals - phase 2 === */
if(dev_enumerate() != SUCCESS)
boot_early_fail(5);
/* Initialise the console */
if(plat_console_init() != SUCCESS)
boot_early_fail(6);
ret = sched_init("[sys]"); /* Init scheduler and create system process */
/*
Enable interrupts and continue booting
*/
preempt_enable();
/* Copy the contents of the temporary console to the real console; close the temp console. */
early_boot_console_close();
/* Activate red LED while the boot process continues */
plat_led_off(LED_ALL);
plat_led_on(LED_RED);
/*
Device enumeration is done; interrupts are enabled, and the console should be functional.
Booting continues...
*/
/* Zero any user RAM extents. This happens after init'ing the DUART, because beeper. */
/*
put("Clearing user RAM: ");
mem_zero_extents(MEM_EXTENT_USER | MEM_EXTENT_RAM);
puts("done");
*/
/* Initialise the block cache, then scan mass-storage devices for partitions */
block_cache_init(2039);
partition_init();
boot_list_mass_storage();
boot_list_partitions();
/* ret is set by the call to sched_init(), above */
if(ret != SUCCESS)
printf("sched: init failed: %s\n", kstrerror(ret));
ret = vfs_init();
if(ret != SUCCESS)
printf("vfs: init failed: %s\n", kstrerror(ret));
/* Display approximate CPU clock speed */
if(plat_get_cpu_clock(&cpu_clk_hz) == SUCCESS)
printf("\nCPU fclk ~%2u.%uMHz\n", cpu_clk_hz / 1000000, (cpu_clk_hz % 1000000) / 100000);
/* Initialise tick handler */
tick_init();
/* Display memory information */
printf("%u bytes of kernel heap memory available\n"
"%u bytes of user memory available\n", kfreemem(), ufreemem());
/* Display platform serial number */
if(plat_get_serial_number(sn) == SUCCESS)
{
printf("Hardware serial number %02X%02X%02X%02X%02X%02X\n",
sn[0], sn[1], sn[2], sn[3], sn[4], sn[5]);
}
/* Display the current date and time */
if(get_time(&tm) == SUCCESS)
{
char timebuf[12], datebuf[32];
if((time_iso8601(&tm, timebuf, sizeof(timebuf)) == SUCCESS) &&
(date_long(&tm, datebuf, sizeof(datebuf)) == SUCCESS))
printf("%s %s\n", timebuf, datebuf);
else
puts("Date/time invalid - please set clock");
}
/* Create housekeeper process */
// proc_create(0, 0, "[hk]", NULL, housekeeper, 0, 0, PROC_TYPE_KERNEL, NULL, NULL);
/* Initialise networking system */
ret = net_init();
if(ret != SUCCESS)
printf("net: init failed: %s\n", kstrerror(ret));
/* Startup complete - activate green LED */
plat_led_off(LED_RED);
plat_led_on(LED_GREEN);
monitor(); /* start interactive "shell" thing */
cpu_halt(); /* should never be reached */
}
/*
* ======== api_init ========
* Purpose:
* Module initialization used by Bridge API.
*/
bool api_init(void)
{
bool ret = true;
bool fdrv, fdev, fcod, fchnl, fmsg, fio;
bool fmgr, fproc, fnode, fdisp, fstrm, frmm;
if (api_c_refs == 0) {
/* initialize driver and other modules */
fdrv = drv_init();
fmgr = mgr_init();
fproc = proc_init();
fnode = node_init();
fdisp = disp_init();
fstrm = strm_init();
frmm = rmm_init();
fchnl = chnl_init();
fmsg = msg_mod_init();
fio = io_init();
fdev = dev_init();
fcod = cod_init();
ret = fdrv && fdev && fchnl && fcod && fmsg && fio;
ret = ret && fmgr && fproc && frmm;
if (!ret) {
if (fdrv)
drv_exit();
if (fmgr)
mgr_exit();
if (fstrm)
strm_exit();
if (fproc)
proc_exit();
if (fnode)
node_exit();
if (fdisp)
disp_exit();
if (fchnl)
chnl_exit();
if (fmsg)
msg_exit();
if (fio)
io_exit();
if (fdev)
dev_exit();
if (fcod)
cod_exit();
if (frmm)
rmm_exit();
}
}
if (ret)
api_c_refs++;
return ret;
}
void
fs_init(void) {
vfs_init();
dev_init();
pipe_init();
}
// Real entry point of the OS :
void init() {
unsigned int freq;
interrupt_init();
earlyterm_init();
earlyterm_clear();
kbd_init();
rtc_init();
time_init();
earlyterm_write("Kernel initialization...\n");
set_kernel_print(&earlyterm_write);
printk(LOG_INFO, "cmd args: '%s'\n", &cmdargs_begin);
cmdline_parse(&cmdargs_begin, 1024);
mmu_init();
pm_init_pages();
stimer_init();
hwkbd_start_periodic_update();
DBG_WAIT;
interrupt_inhibit_all(0);
// console initialisation as soon as possible
dev_init();
// add TTY device (on major 4)
ttydev_device.init();
dev_register_device(&ttydev_device, 4);
// add virtual terminal TTYs
vt_init();
// USB initialisation
usb_init();
// add usb-acm TTY
acm_usb_init();
DBG_WAIT;
// will be the last message displayed on early console
printk(LOG_INFO, "Switching screen to tty1...\n The display will be cleared.\n");
console_make_active();
// in all cases, Virtual Terminals should be made active (tty1)
DBG_WAIT;
vt_set_active(0);
// need to be changed for "overclocking" :
//freq_change(FREQ_STC_4, FREQ_DIV_1, FREQ_DIV_4);
freq_time_calibrate();
freq = freq_get_internal_hz();
printk(LOG_INFO, "CPU freq : %d.%dMHz\n", freq/1000000, (freq/100000)%10);
freq = freq_get_peripheral_hz();
printk(LOG_INFO, "Peripheral freq : %d.%dMHz\n", freq/1000000, (freq/100000)%10);
// initialize sysctl tables
ctl_init();
//test_keyboard_int();
//test_virtual_mem();
//asm volatile ("trapa #50");
//DBG_WAIT;
// Initializing VFS and device sub-sytems, mount platform filesystems,
// register platform devices...
vfs_init();
vfs_file_init();
vfs_register_fs(&smemfs_file_system, VFS_REGISTER_STATIC);
vfs_register_fs(&protofs_file_system, VFS_REGISTER_STATIC);
vfs_mount("protofs", NULL, VFS_MOUNT_ROOT);
vfs_create("/", "dev", INODE_TYPE_PARENT, INODE_FLAG_READ | INODE_FLAG_EXEC, 0);
vfs_create("/dev", "tty1", INODE_TYPE_DEV, INODE_FLAG_WRITE, 0x00040000);
vfs_create("/dev", "tty2", INODE_TYPE_DEV, INODE_FLAG_WRITE, 0x00040001);
vfs_create("/dev", "serial", INODE_TYPE_DEV, INODE_FLAG_WRITE, 0x00030000);
vfs_create("/dev", "console", INODE_TYPE_DEV, INODE_FLAG_WRITE,
console_get_device());
DBG_WAIT;
// keyboard input for virtual terminals
kbd_set_kstroke_handler(&vt_key_stroke);
// mount additional filesystems
vfs_create("/", "mnt", INODE_TYPE_PARENT, INODE_FLAG_WRITE, 0);
vfs_create("/mnt", "smem", INODE_TYPE_PARENT, INODE_FLAG_WRITE, 0);
vfs_mount("smemfs", "/mnt/smem", VFS_MOUNT_NORMAL);
DBG_WAIT;
// set /dev/display device
_display_device.init();
dev_register_device(&_display_device, 0x20);
vfs_create("/dev", "display", INODE_TYPE_DEV, INODE_FLAG_WRITE, 0x00200001);
// direct keyboard device on major 0x21
fxkeyboard_device.init();
dev_register_device(&fxkeyboard_device, 0x21);
vfs_create("/dev", "keyboard", INODE_TYPE_DEV, INODE_FLAG_WRITE, 0x00210000);
DBG_WAIT;
//test_keymatrix();
// test_keyboard();
/*while(1) {
char c;
if(vfs_read(console, &c, 1) == 1) {
vfs_write(console, &c, 1);
}
}*/
DBG_WAIT;
//test_vfs();
//test_sdcard();
//test_sleep_funcs();
// EEPROM-related code commented to avoid useless write cycles ;)
//test_eeprom();
/*char mybuf[128];
int len;
len = usb_receive(USB_EP_ADDR_EP1OUT, mybuf, 10, 0);
printk(LOG_DEBUG, "usb_receive ret=%d\n", len);
if(len > 0) {
mybuf[len] = '\0';
printk(LOG_DEBUG, "content = '%s'\n", mybuf);
}
while(!_magic_lock);
set_kernel_print(&print_usb_ep2);
test_vfs();
*/
// memory area subsystem
mem_area_init();
process_init();
sched_init();
test_process();
printk(LOG_WARNING, "End of init job, sleeping...\n");
while(1)
printk(LOG_WARNING, "IER: 0x%x 0x%x\n", USB.IFR0.BYTE, USB.IFR1.BYTE);
}
/*
* dev_c7200_pa_pos_init()
*
* Add a PA-POS port adapter into specified slot.
*/
int dev_c7200_pa_pos_init(vm_instance_t *vm,struct cisco_card *card)
{
struct pos_oc3_data *d;
u_int slot = card->slot_id;
/* Allocate the private data structure for PA-POS-OC3 chip */
if (!(d = malloc(sizeof(*d)))) {
vm_error(vm,"%s: out of memory\n",card->dev_name);
return(-1);
}
memset(d,0,sizeof(*d));
d->name = card->dev_name;
d->vm = vm;
/* Set the PCI bus */
card->pci_bus = vm->slots_pci_bus[slot];
/* Set the EEPROM */
cisco_card_set_eeprom(vm,card,cisco_eeprom_find_pa("PA-POS-OC3"));
c7200_set_slot_eeprom(VM_C7200(vm),slot,&card->eeprom);
/* Initialize RX device */
d->rx_name = dyn_sprintf("%s_RX",card->dev_name);
dev_init(&d->rx_dev);
d->rx_dev.name = d->rx_name;
d->rx_dev.priv_data = d;
d->rx_dev.handler = dev_pos_rx_access;
/* Initialize TX device */
d->tx_name = dyn_sprintf("%s_TX",card->dev_name);
dev_init(&d->tx_dev);
d->tx_dev.name = d->tx_name;
d->tx_dev.priv_data = d;
d->tx_dev.handler = dev_pos_tx_access;
/* Initialize CS device */
d->cs_name = dyn_sprintf("%s_CS",card->dev_name);
dev_init(&d->cs_dev);
d->cs_dev.name = d->cs_name;
d->cs_dev.priv_data = d;
d->cs_dev.handler = dev_pos_cs_access;
/* Initialize PLX9060 for RX part */
d->rx_obj = dev_plx9060_init(vm,d->rx_name,card->pci_bus,0,&d->rx_dev);
/* Initialize PLX9060 for TX part */
d->tx_obj = dev_plx9060_init(vm,d->tx_name,card->pci_bus,1,&d->tx_dev);
/* Initialize PLX9060 for CS part (CS=card status, chip status, ... ?) */
d->cs_obj = dev_plx9060_init(vm,d->cs_name,card->pci_bus,2,&d->cs_dev);
/* Unknown PCI device here (will be mapped at 0x30000) */
dev_init(&d->dev);
d->dev.name = card->dev_name;
d->dev.priv_data = d;
d->dev.phys_len = 0x10000;
d->dev.handler = dev_pos_access;
d->pci_dev = pci_dev_add(card->pci_bus,card->dev_name,0,0,3,0,
c7200_net_irq_for_slot_port(slot,0),
d,NULL,pci_pos_read,pci_pos_write);
/* Store device info into the router structure */
card->drv_info = d;
return(0);
}