static void __init start_of_day(void)
{
init_IRQ();
scheduler_init();
/* create idle domain */
idle_domain = domain_create(IDLE_DOMAIN_ID, 0, 0);
if ((idle_domain == NULL) || (alloc_vcpu(idle_domain, 0, 0) == NULL))
BUG();
set_current(idle_domain->vcpu[0]);
idle_vcpu[0] = current;
initialize_keytable();
/* Register another key that will allow for the the Harware Probe
* to be contacted, this works with RiscWatch probes and should
* work with Chronos and FSPs */
register_keyhandler('^', key_hw_probe_attn, "Trap to Hardware Probe");
/* allow the dumping of the devtree */
register_keyhandler('D', key_ofdump , "Dump OF Devtree");
timer_init();
rcu_init();
serial_init_postirq();
do_initcalls();
}
/*
* Ok, the machine is now initialized. None of the devices
* have been touched yet, but the CPU subsystem is up and
* running, and memory and process management works.
*
* Now we can finally start doing some real work..
*/
static void __init do_basic_setup(void)
{
/* drivers will send hotplug events */
init_workqueues();
usermodehelper_init();
driver_init();
init_irq_proc();
do_initcalls();
}
void dde_kit_subsys_linux_init(void)
{
/* invoked in vfs_cache_init in Linux */
chrdev_init();
driver_init();
__dde_call_machine_init();
do_initcalls();
}
/*
* Ok, the machine is now initialized. None of the devices
* have been touched yet, but the CPU subsystem is up and
* running, and memory and process management works.
*
* Now we can finally start doing some real work..
*/
static void __init do_basic_setup(void)
{
rcu_init_sched(); /* needed by module_init stage. */
init_workqueues();
usermodehelper_init();
driver_init();
init_irq_proc();
do_initcalls();
}
void dde_init()
{
/* invoked in vfs_cache_init in Linux */
chrdev_init();
driver_init();
dde_call_machine_init();
do_initcalls();
loadable_module_init();
}
/*
* Ok, the machine is now initialized. None of the devices
* have been touched yet, but the CPU subsystem is up and
* running, and memory and process management works.
*
* Now we can finally start doing some real work..
*/
static void __init do_basic_setup(void)
{
init_workqueues();
cpuset_init_smp();
usermodehelper_init();
init_tmpfs();
driver_init();
init_irq_proc();
do_ctors();
do_initcalls();
}
/*
* Ok, the machine is now initialized. None of the devices
* have been touched yet, but the CPU subsystem is up and
* running, and memory and process management works.
*
* Now we can finally start doing some real work..
*/
static void __init do_basic_setup(void)
{
/* drivers will send hotplug events */
init_workqueues();
usermodehelper_init();
driver_init();
#ifdef CONFIG_SYSCTL
sysctl_init();
#endif
do_initcalls();
}
/*
* Ok, the machine is now initialized. None of the devices
* have been touched yet, but the CPU subsystem is up and
* running, and memory and process management works.
*
* Now we can finally start doing some real work..
*/
static void __init do_basic_setup(void)
{
driver_init();
#ifdef CONFIG_SYSCTL
sysctl_init();
#endif
/* Networking initialization needs a process context */
sock_init();
init_workqueues();
do_initcalls();
}
int bathos_setup(void)
{
CPU_PRESCALE(0);
console_early_init();
/* Turn red led on */
timer_init();
events_init();
do_initcalls();
/* Interrupts are enabled by the calling assembly code */
return 0;
}
/*
* Ok, the machine is now initialized. None of the devices
* have been touched yet, but the CPU subsystem is up and
* running, and memory and process management works.
*
* Now we can finally start doing some real work..
*/
static void __init do_basic_setup(void)
{
/* drivers will send hotplug events */
init_workqueues();
usermodehelper_init();
driver_init();
#ifdef CONFIG_SYSCTL
sysctl_init();
#endif
/* Networking initialization needs a process context */
sock_init();
do_initcalls();
}
/*
* Ok, the machine is now initialized. None of the devices
* have been touched yet, but the CPU subsystem is up and
* running, and memory and process management works.
*
* Now we can finally start doing some real work..
*/
static void __init do_basic_setup(void)
{
/* drivers will send hotplug events */
init_workqueues();
usermodehelper_init();
driver_init();
init_irq_proc();
do_initcalls();
#ifdef CONFIG_OPENRG
/* Instruct mmap and do_mmap not to verify there are free pages before
* doing the mapping. This is useful when trying to load an executable
* that is larger than the current free memory. We let the swap
* mechanism to handle such cases because very little of the executable
* pages are really needed in ram at the same time. */
sysctl_overcommit_memory = OVERCOMMIT_ALWAYS;
#endif
}
/* Init task - the job of this task is to initialise all
* installed drivers, mount the root filesystem and
* bootstrap the system */
int init_task(void *priv)
{
uint32_t ret;
struct file *file;
char buf[20];
int rval;
/* Initialise kernel subsystems */
blk_init();
vfs_init();
pci_init();
do_initcalls();
/* Mount the root filesystem etc.. */
if ( vfs_mount_root("ext2", "floppy0") ) {
panic("Unable to mount root filesystem\n");
}
file = kernel_open("/test.txt", 0);
if ( NULL == file ) {
printk("init_task: open failed, returned %u\n", -1);
} else {
rval = kernel_read(file, buf, 16);
if ( rval < 0 )
printk("read error: %d\n", rval);
else if ( rval == 0 )
printk("read returned EOF\n");
else {
buf[rval] = '\0';
printk("read: %s.\n", buf);
}
rval = kernel_write(file, buf, 16);
kernel_close(file);
}
ret = _kernel_exec("/bin/bash");
ret = _kernel_exec("/sbin/init");
ret = _kernel_exec("/bin/cat");
printk("exec: /sbin/init: %i\n", (int)ret);
return ret;
}
/*******************************************************************************
* @brief driver library initialization
*
* should be called on start-up step, to initial interrupt module
* and register hardware as camera, lcd...etc.
* @author xuchang
* @date 2008-01-21
* @return T_VOID
*******************************************************************************/
T_VOID drv_init(T_PDRIVE_INITINFO drv_info)
{
memcpy(&g_drv_info, drv_info, sizeof(g_drv_info));
clk_set_pll(DEF_PLL_VAL);
#if (CHIP_SEL_10C > 0 && DRV_SIMU_UART == 0)
uart_init(uiUART2, 115200);
#endif
//init function move to prog_manage of platform
//pmu_init();
timer_init();
gpio_init();
#ifndef BURN_TOOL
//init function move to prog_manage of platform
//analog_init();
//detector_init();
#endif
//l2_initial();
#if !(USB_VAR_MALLOC > 0)
DrvModule_Init();
#endif
//device module registeration init
do_initcalls();
drv_print(VERSION, 0, AK_TRUE);
//close VDDIO3V3 and VDD1V2 unstabitily detect
//REG32(REG_PMU_CTRL1) |= (PMU_PD_PWR_VCC | PMU_PD_PWR_VDD);
#if DRV_SUPPORT_CAMERA > 0
#if (CAMERA_GC6113 > 0)
camera_gc6113_reg();
#endif
#if (CAMERA_GC0308 > 0)
camera_gc0308_reg();
#endif
#endif
#if (CHIP_SEL_10C > 0)
//pwm32k 是给RDA芯片用的，如果FM工作不好，用32K晶振试下
pwm_start_32k_square();
#endif
}
int xboot_main(int argc, char * argv[])
{
struct runtime_t rt;
/* Create runtime */
runtime_create_save(&rt, 0, 0, 0, 0);
/* Do initial kobj */
do_init_kobj();
/* Do all initial calls */
do_initcalls();
/* Mount root filesystem */
do_system_rootfs();
/* Display system logo */
do_system_logo();
/* System autoboot */
do_system_autoboot();
/* Run loop */
while(1)
{
/* Run shell */
run_shell();
}
/* Do all exit calls */
do_exitcalls();
/* Destroy runtime */
runtime_destroy_restore(&rt, 0);
/* Xboot return */
return 0;
}
/* Init task - the job of this task is to initialise all
* installed drivers, mount the root filesystem and
* bootstrap the system */
int init_task(void *priv)
{
uint32_t ret;
/* Initialise kernel subsystems */
blk_init();
vfs_init();
pci_init();
do_initcalls();
/* Mount the root filesystem etc.. */
if ( vfs_mount_root("ext2", "floppy0") ) {
panic("Unable to mount root filesystem\n");
}
ret = _kernel_exec("/bin/bash");
ret = _kernel_exec("/sbin/init");
ret = _kernel_exec("/bin/cat");
printk("exec: /sbin/init: %i\n", (int)ret);
return ret;
}
void __noreturn master_init(void)
{
__attribute__ ((aligned(16)))
uint8_t bootstrap_pool[BOOTSTRAP_POOL_SIZE];
jump_handlers_apply();
kputs("KERN: We are in high address.\n");
arch_init();
/*
* Page allocator requires arbitrary size allocation to allocate
* struct pages, while arbitrary size allocation depends on
* page allocator to actually give out memory.
*
* We break such circular dependency by
* (1) bootstrap a small virtual memory allocator which works on the
* stack.
* (2) initialize a page allocator which works on the bootstrap
* allocator obtained in (1).
* (3) initialize a real virtual memory allocator which depend
* on (2).
* (4) make the page allocator depend on (3) instead.
*
* TODO: move the following piece of code to kern/mm
*/
simple_allocator_bootstrap(bootstrap_pool, BOOTSTRAP_POOL_SIZE);
kputs("KERN: Simple allocator bootstrapping.\n");
page_allocator_init();
kputs("KERN: Page allocator initialized.\n");
add_memory_pages();
kputs("KERN: Pages added.\n");
kprintf("KERN: Free memory: 0x%p\n", (size_t)get_free_memory());
struct simple_allocator old;
get_simple_allocator(&old);
simple_allocator_init();
kputs("KERN: Simple allocator initialized.\n");
page_allocator_move(&old);
kputs("KERN: Page allocator moved.\n");
trap_init();
kputs("KERN: Traps initialized.\n");
/* temporary test */
extern void trap_test(void);
trap_test();
kputs("KERN: Traps test passed.\n");
/* do early initcalls, one by one */
do_early_initcalls();
mm_init();
kputs("KERN: Memory management component initialized.\n");
extern void mm_test(void);
mm_test();
/* allocate per-cpu context and kworker */
// proc_init();
/* do initcalls, one by one */
do_initcalls();
/* temporary tests */
struct allocator_cache cache = {
.size = 1024,
.align = 1024,
.flags = 0,
.create_obj = NULL,
.destroy_obj = NULL
};
cache_create(&cache);
void *a, *b, *c;
a = cache_alloc(&cache);
kprintf("DEBUG: a = 0x%08x\n", a);
b = cache_alloc(&cache);
kprintf("DEBUG: b = 0x%08x\n", b);
c = cache_alloc(&cache);
kprintf("DEBUG: c = 0x%08x\n", c);
cache_free(&cache, a);
cache_free(&cache, b);
cache_free(&cache, c);
a = cache_alloc(&cache);
kprintf("DEBUG: a = 0x%08x\n", a);
cache_free(&cache, a);
int ret = cache_destroy(&cache);
kprintf("DEBUG: cache_destroy returned %d.\n", ret);
cache_create(&cache);
a = cache_alloc(&cache);
kprintf("DEBUG: a = 0x%08x\n", a);
/* startup smp */
/*
* do initcalls, one by one.
* They may fork or sleep or reschedule.
* In case any initcalls issue a fork, there MUST be EXACTLY one return
* from each initcall.
*/
/* initialize or cleanup namespace */
panic("Test done, all is well.\n");
}
void __noreturn slave_init(void)
{
panic("Unimplemented routine called.");
}
/*
* Ok, the machine is now initialized. None of the devices
* have been touched yet, but the CPU subsystem is up and
* running, and memory and process management works.
*
* Now we can finally start doing some real work..
*/
static void __init do_basic_setup(void)
{
/*
* Tell the world that we're going to be the grim
* reaper of innocent orphaned children.
*
* We don't want people to have to make incorrect
* assumptions about where in the task array this
* can be found.
*/
child_reaper = current;
#if defined(CONFIG_MTRR) /* Do this after SMP initialization */
/*
* We should probably create some architecture-dependent "fixup after
* everything is up" style function where this would belong better
* than in init/main.c..
*/
mtrr_init();
#endif
#ifdef CONFIG_SYSCTL
sysctl_init();
#endif
/*
* Ok, at this point all CPU's should be initialized, so
* we can start looking into devices..
*/
#if defined(CONFIG_ARCH_S390)
s390_init_machine_check();
#endif
#ifdef CONFIG_ACPI_INTERPRETER
acpi_init();
#endif
#ifdef CONFIG_PCI
pci_init();
#endif
#ifdef CONFIG_SBUS
sbus_init();
#endif
#if defined(CONFIG_PPC)
ppc_init();
#endif
#ifdef CONFIG_MCA
mca_init();
#endif
#ifdef CONFIG_ARCH_ACORN
ecard_init();
#endif
#ifdef CONFIG_ZORRO
zorro_init();
#endif
#ifdef CONFIG_DIO
dio_init();
#endif
#ifdef CONFIG_NUBUS
nubus_init();
#endif
#ifdef CONFIG_ISAPNP
isapnp_init();
#endif
#ifdef CONFIG_TC
tc_init();
#endif
/* Networking initialization needs a process context */
sock_init();
start_context_thread();
do_initcalls();
#ifdef CONFIG_IRDA
irda_proto_init();
irda_device_init(); /* Must be done after protocol initialization */
#endif
#ifdef CONFIG_PCMCIA
init_pcmcia_ds(); /* Do this last */
#endif
}
/*
* the entry of main function.
*/
int xboot_main(int argc, char * argv[])
{
/* do all init calls */
do_initcalls();
/* do system xtime */
do_system_xtime();
/* mount root filesystem */
do_system_rootfs();
/* load system configure */
do_system_cfg();
/* load system fonts */
do_system_fonts();
/* check battery capacity */
do_system_battery();
/* wait a moment */
do_system_wait();
/* run loop */
while(1)
{
/*
* normal mode
*/
if(xboot_get_mode() == MODE_NORMAL)
{
run_normal_mode();
}
/*
* shell mode
*/
else if(xboot_get_mode() == MODE_SHELL)
{
run_shell_mode();
}
/*
* memu mode
*/
else if(xboot_get_mode() == MODE_MENU)
{
run_menu_mode();
}
/*
* graphic mode
*/
else if(xboot_get_mode() == MODE_GRAPHIC)
{
run_graphic_mode();
}
/*
* application mode
*/
else if(xboot_get_mode() == MODE_APPLICATION)
{
run_application_mode();
}
}
/* do all exit calls */
do_exitcalls();
/* xboot return */
return 0;
}
/* C entry point for boot CPU */
void __init start_xen(unsigned long boot_phys_offset,
unsigned long fdt_paddr,
unsigned long cpuid)
{
size_t fdt_size;
int cpus, i;
const char *cmdline;
setup_cache();
percpu_init_areas();
set_processor_id(0); /* needed early, for smp_processor_id() */
smp_clear_cpu_maps();
/* This is mapped by head.S */
device_tree_flattened = (void *)BOOT_FDT_VIRT_START
+ (fdt_paddr & ((1 << SECOND_SHIFT) - 1));
fdt_size = device_tree_early_init(device_tree_flattened, fdt_paddr);
cmdline = device_tree_bootargs(device_tree_flattened);
early_printk("Command line: %s\n", cmdline);
cmdline_parse(cmdline);
setup_pagetables(boot_phys_offset, get_xen_paddr());
setup_mm(fdt_paddr, fdt_size);
vm_init();
dt_unflatten_host_device_tree();
dt_irq_xlate = gic_irq_xlate;
dt_uart_init();
console_init_preirq();
system_state = SYS_STATE_boot;
processor_id();
platform_init();
smp_init_cpus();
cpus = smp_get_max_cpus();
init_xen_time();
gic_init();
set_current((struct vcpu *)0xfffff000); /* debug sanity */
idle_vcpu[0] = current;
init_traps();
setup_virt_paging();
p2m_vmid_allocator_init();
softirq_init();
tasklet_subsys_init();
init_IRQ();
gic_route_ppis();
gic_route_spis();
init_maintenance_interrupt();
init_timer_interrupt();
timer_init();
init_idle_domain();
rcu_init();
arch_init_memory();
local_irq_enable();
local_abort_enable();
smp_prepare_cpus(cpus);
initialize_keytable();
console_init_postirq();
do_presmp_initcalls();
for_each_present_cpu ( i )
{
if ( (num_online_cpus() < cpus) && !cpu_online(i) )
{
int ret = cpu_up(i);
if ( ret != 0 )
printk("Failed to bring up CPU %u (error %d)\n", i, ret);
}
}
printk("Brought up %ld CPUs\n", (long)num_online_cpus());
/* TODO: smp_cpus_done(); */
do_initcalls();
/* Create initial domain 0. */
dom0 = domain_create(0, 0, 0);
if ( IS_ERR(dom0) || (alloc_dom0_vcpu0() == NULL) )
panic("Error creating domain 0");
dom0->is_privileged = 1;
dom0->target = NULL;
if ( construct_dom0(dom0) != 0)
panic("Could not set up DOM0 guest OS");
/* Scrub RAM that is still free and so may go to an unprivileged domain. */
scrub_heap_pages();
init_constructors();
console_endboot();
/* Hide UART from DOM0 if we're using it */
serial_endboot();
system_state = SYS_STATE_active;
domain_unpause_by_systemcontroller(dom0);
/* Switch on to the dynamically allocated stack for the idle vcpu
* since the static one we're running on is about to be freed. */
memcpy(idle_vcpu[0]->arch.cpu_info, get_cpu_info(),
sizeof(struct cpu_info));
switch_stack_and_jump(idle_vcpu[0]->arch.cpu_info, init_done);
}
/* C entry point for boot CPU */
void __init start_xen(unsigned long boot_phys_offset,
unsigned long fdt_paddr,
unsigned long cpuid)
{
size_t fdt_size;
int cpus, i;
paddr_t xen_paddr;
const char *cmdline;
struct bootmodule *xen_bootmodule;
struct domain *dom0;
struct xen_arch_domainconfig config;
setup_cache();
percpu_init_areas();
set_processor_id(0); /* needed early, for smp_processor_id() */
set_current((struct vcpu *)0xfffff000); /* debug sanity */
idle_vcpu[0] = current;
setup_virtual_regions(NULL, NULL);
/* Initialize traps early allow us to get backtrace when an error occurred */
init_traps();
smp_clear_cpu_maps();
/* This is mapped by head.S */
device_tree_flattened = (void *)BOOT_FDT_VIRT_START
+ (fdt_paddr & ((1 << SECOND_SHIFT) - 1));
fdt_size = boot_fdt_info(device_tree_flattened, fdt_paddr);
cmdline = boot_fdt_cmdline(device_tree_flattened);
printk("Command line: %s\n", cmdline);
cmdline_parse(cmdline);
/* Register Xen's load address as a boot module. */
xen_bootmodule = add_boot_module(BOOTMOD_XEN,
(paddr_t)(uintptr_t)(_start + boot_phys_offset),
(paddr_t)(uintptr_t)(_end - _start + 1), NULL);
BUG_ON(!xen_bootmodule);
xen_paddr = get_xen_paddr();
setup_pagetables(boot_phys_offset, xen_paddr);
/* Update Xen's address now that we have relocated. */
printk("Update BOOTMOD_XEN from %"PRIpaddr"-%"PRIpaddr" => %"PRIpaddr"-%"PRIpaddr"\n",
xen_bootmodule->start, xen_bootmodule->start + xen_bootmodule->size,
xen_paddr, xen_paddr + xen_bootmodule->size);
xen_bootmodule->start = xen_paddr;
setup_mm(fdt_paddr, fdt_size);
/* Parse the ACPI tables for possible boot-time configuration */
acpi_boot_table_init();
end_boot_allocator();
vm_init();
dt_unflatten_host_device_tree();
init_IRQ();
platform_init();
preinit_xen_time();
gic_preinit();
arm_uart_init();
console_init_preirq();
console_init_ring();
system_state = SYS_STATE_boot;
processor_id();
smp_init_cpus();
cpus = smp_get_max_cpus();
init_xen_time();
gic_init();
p2m_vmid_allocator_init();
softirq_init();
tasklet_subsys_init();
xsm_dt_init();
init_maintenance_interrupt();
init_timer_interrupt();
timer_init();
init_idle_domain();
rcu_init();
arch_init_memory();
local_irq_enable();
local_abort_enable();
smp_prepare_cpus(cpus);
initialize_keytable();
console_init_postirq();
do_presmp_initcalls();
for_each_present_cpu ( i )
{
if ( (num_online_cpus() < cpus) && !cpu_online(i) )
{
int ret = cpu_up(i);
if ( ret != 0 )
printk("Failed to bring up CPU %u (error %d)\n", i, ret);
}
}
printk("Brought up %ld CPUs\n", (long)num_online_cpus());
/* TODO: smp_cpus_done(); */
setup_virt_paging();
iommu_setup();
do_initcalls();
/*
* It needs to be called after do_initcalls to be able to use
* stop_machine (tasklets initialized via an initcall).
*/
apply_alternatives_all();
/* Create initial domain 0. */
/* The vGIC for DOM0 is exactly emulating the hardware GIC */
config.gic_version = XEN_DOMCTL_CONFIG_GIC_NATIVE;
config.nr_spis = gic_number_lines() - 32;
dom0 = domain_create(0, 0, 0, &config);
if ( IS_ERR(dom0) || (alloc_dom0_vcpu0(dom0) == NULL) )
panic("Error creating domain 0");
dom0->is_privileged = 1;
dom0->target = NULL;
if ( construct_dom0(dom0) != 0)
panic("Could not set up DOM0 guest OS");
/* Scrub RAM that is still free and so may go to an unprivileged domain. */
scrub_heap_pages();
init_constructors();
console_endboot();
/* Hide UART from DOM0 if we're using it */
serial_endboot();
system_state = SYS_STATE_active;
/* Must be done past setting system_state. */
unregister_init_virtual_region();
domain_unpause_by_systemcontroller(dom0);
/* Switch on to the dynamically allocated stack for the idle vcpu
* since the static one we're running on is about to be freed. */
memcpy(idle_vcpu[0]->arch.cpu_info, get_cpu_info(),
sizeof(struct cpu_info));
switch_stack_and_jump(idle_vcpu[0]->arch.cpu_info, init_done);
}
