int main(int argc, char** argv) {
char line[MAX_LINE + 1]; int had_a_comment = 1;
RTC_t time_before; rtc_gettime(&time_before);
int8_t res;
char* output[32];
while(fgets(line, MAX_LINE, stdin) != NULL) {
line[strlen(line) - 1] = 0; // drop '\n'
if(line[0] == '#') {
if(!had_a_comment) puts("\n");
puts(line);
had_a_comment=1;
continue;
} else {
if(!had_a_comment) puts("\n");
had_a_comment=0;
printf("Test: '%s'\n", line);
}
// --------------------------------------
res = rtc_time(line, output);
if(res == -1 ) {
printf("before: "); rtc_timestamp(&time_before);
printf(" after: "); rtc_timestamp(&time_after);
} else if(res > 0) {
printf("***** ERROR %d *****\n", res);
} else if(res < -1) {
printf("***** ERROR %d *****\n", res);
}
}
return 0;
}
void
rtc_init(struct vmctx *ctx)
{
size_t himem;
size_t lomem;
int err;
/* XXX init diag/reset code/equipment/checksum ? */
/*
* Report guest memory size in nvram cells as required by UEFI.
* Little-endian encoding.
* 0x34/0x35 - 64KB chunks above 16MB, below 4GB
* 0x5b/0x5c/0x5d - 64KB chunks above 4GB
*/
lomem = (vm_get_lowmem_size(ctx) - m_16MB) / m_64KB;
err = vm_rtc_write(ctx, RTC_LMEM_LSB, lomem);
assert(err == 0);
err = vm_rtc_write(ctx, RTC_LMEM_MSB, lomem >> 8);
assert(err == 0);
himem = vm_get_highmem_size(ctx) / m_64KB;
err = vm_rtc_write(ctx, RTC_HMEM_LSB, himem);
assert(err == 0);
err = vm_rtc_write(ctx, RTC_HMEM_SB, himem >> 8);
assert(err == 0);
err = vm_rtc_write(ctx, RTC_HMEM_MSB, himem >> 16);
assert(err == 0);
err = vm_rtc_settime(ctx, rtc_time(ctx));
assert(err == 0);
}
static unsigned long long ia64_sn2_printk_clock(void)
{
unsigned long rtc_now = rtc_time();
return (rtc_now - sn2_rtc_initial) *
(1000000000 / sn_rtc_cycles_per_second);
}
static unsigned long kvm_get_itc(struct kvm_vcpu *vcpu)
{
#if defined(CONFIG_IA64_SGI_SN2) || defined(CONFIG_IA64_GENERIC)
if (vcpu->kvm->arch.is_sn2)
return rtc_time();
else
#endif
return ia64_getreg(_IA64_REG_AR_ITC);
}
int exec_alarm(void) {
leds_toggle(LED_RED);
alarm.date = rtc_time() + 5;
alarm.exec_cb = exec_alarm;
rtc_set_alarm(&alarm);
return 0;
}
static int cmd_date(int argc, char** argv, void(*callback)(char* result, int exit_status)) {
uint32_t date = rtc_date();
uint32_t time = rtc_time();
printf("%s %s %d %02d:%02d:%02d UTC %d\n",
weeks[RTC_WEEK(date)], months[RTC_MONTH(date)], RTC_DATE(date),
RTC_HOUR(time), RTC_MINUTE(time), RTC_SECOND(time), 2000 + RTC_YEAR(date));
return 0;
}
struct qtime_entry *
alloc_qtime() {
struct qtime_entry *qtime = set_syspage_section(&lsp.qtime, sizeof(*lsp.qtime.p));
const struct startup_info_time *time;
qtime->epoch = 1970;
if(!(misc_flags & MISC_FLAG_SUPPRESS_BOOTTIME)) {
time = find_startup_info(NULL, STARTUP_INFO_TIME);
qtime->boot_time = (time != NULL) ? time->time : rtc_time();
qtime->nsec_tod_adjust = qtime->boot_time * (uint64_t)1000000000;
}
return(qtime);
}
void rtc_isr(void)
{
struct tm open;
struct tm close;
struct tm *now;
time_t time = rtc_time();
now = gmtime(&time);
settings_getopen(&open);
settings_getclose(&close);
if (timcmp(now, &open)) {
boom_open();
} else if (timcmp(now, &close)) {
boom_close();
}
/* The interrupt flag isn't cleared by hardware, we have to do it. */
rtc_clear_flag(RTC_SEC);
}
/*
* This function must be called with interrupts disabled and preemption off
* in order to insure that the setup succeeds in a deterministic time frame.
* It will check if the interrupt setup succeeded.
*/
static int mmtimer_setup(int cpu, int comparator, unsigned long expires)
{
switch (comparator) {
case 0:
mmtimer_setup_int_0(cpu, expires);
break;
case 1:
mmtimer_setup_int_1(cpu, expires);
break;
case 2:
mmtimer_setup_int_2(cpu, expires);
break;
}
/* We might've missed our expiration time */
if (rtc_time() <= expires)
return 1;
/*
* If an interrupt is already pending then its okay
* if not then we failed
*/
return mmtimer_int_pending(comparator);
}
/**
* sn_setup - SN platform setup routine
* @cmdline_p: kernel command line
*
* Handles platform setup for SN machines. This includes determining
* the RTC frequency (via a SAL call), initializing secondary CPUs, and
* setting up per-node data areas. The console is also initialized here.
*/
void __init sn_setup(char **cmdline_p)
{
long status, ticks_per_sec, drift;
u32 version = sn_sal_rev();
extern void sn_cpu_init(void);
sn2_rtc_initial = rtc_time();
ia64_sn_plat_set_error_handling_features(); // obsolete
ia64_sn_set_os_feature(OSF_MCA_SLV_TO_OS_INIT_SLV);
ia64_sn_set_os_feature(OSF_FEAT_LOG_SBES);
#if defined(CONFIG_VT) && defined(CONFIG_VGA_CONSOLE)
/*
* Handle SN vga console.
*
* SN systems do not have enough ACPI table information
* being passed from prom to identify VGA adapters and the legacy
* addresses to access them. Until that is done, SN systems rely
* on the PCDP table to identify the primary VGA console if one
* exists.
*
* However, kernel PCDP support is optional, and even if it is built
* into the kernel, it will not be used if the boot cmdline contains
* console= directives.
*
* So, to work around this mess, we duplicate some of the PCDP code
* here so that the primary VGA console (as defined by PCDP) will
* work on SN systems even if a different console (e.g. serial) is
* selected on the boot line (or CONFIG_EFI_PCDP is off).
*/
if (! vga_console_membase)
sn_scan_pcdp();
if (vga_console_membase) {
/* usable vga ... make tty0 the preferred default console */
if (!strstr(*cmdline_p, "console="))
add_preferred_console("tty", 0, NULL);
} else {
printk(KERN_DEBUG "SGI: Disabling VGA console\n");
if (!strstr(*cmdline_p, "console="))
add_preferred_console("ttySG", 0, NULL);
#ifdef CONFIG_DUMMY_CONSOLE
conswitchp = &dummy_con;
#else
conswitchp = NULL;
#endif /* CONFIG_DUMMY_CONSOLE */
}
#endif /* def(CONFIG_VT) && def(CONFIG_VGA_CONSOLE) */
MAX_DMA_ADDRESS = PAGE_OFFSET + MAX_PHYS_MEMORY;
/*
* Build the tables for managing cnodes.
*/
build_cnode_tables();
status =
ia64_sal_freq_base(SAL_FREQ_BASE_REALTIME_CLOCK, &ticks_per_sec,
&drift);
if (status != 0 || ticks_per_sec < 100000) {
printk(KERN_WARNING
"unable to determine platform RTC clock frequency, guessing.\n");
/* PROM gives wrong value for clock freq. so guess */
sn_rtc_cycles_per_second = 1000000000000UL / 30000UL;
} else
sn_rtc_cycles_per_second = ticks_per_sec;
platform_intr_list[ACPI_INTERRUPT_CPEI] = IA64_CPE_VECTOR;
ia64_printk_clock = ia64_sn2_printk_clock;
/*
* Old PROMs do not provide an ACPI FADT. Disable legacy keyboard
* support here so we don't have to listen to failed keyboard probe
* messages.
*/
if (is_shub1() && version <= 0x0209 && acpi_kbd_controller_present) {
printk(KERN_INFO "Disabling legacy keyboard support as prom "
"is too old and doesn't provide FADT\n");
acpi_kbd_controller_present = 0;
}
printk("SGI SAL version %x.%02x\n", version >> 8, version & 0x00FF);
/*
* we set the default root device to /dev/hda
* to make simulation easy
*/
ROOT_DEV = Root_HDA1;
/*
* Create the PDAs and NODEPDAs for all the cpus.
*/
sn_init_pdas(cmdline_p);
ia64_mark_idle = &snidle;
/*
* For the bootcpu, we do this here. All other cpus will make the
* call as part of cpu_init in slave cpu initialization.
*/
sn_cpu_init();
#ifdef CONFIG_SMP
init_smp_config();
#endif
screen_info = sn_screen_info;
sn_timer_init();
/*
* set pm_power_off to a SAL call to allow
* sn machines to power off. The SAL call can be replaced
* by an ACPI interface call when ACPI is fully implemented
* for sn.
*/
pm_power_off = ia64_sn_power_down;
current->thread.flags |= IA64_THREAD_MIGRATION;
}
/*
* Notify other partitions to disengage from all references to our memory.
*/
static void
xpc_die_disengage(void)
{
struct xpc_partition *part;
short partid;
unsigned long engaged;
long time, printmsg_time, disengage_request_timeout;
/* keep xpc_hb_checker thread from doing anything (just in case) */
xpc_exiting = 1;
xpc_vars->heartbeating_to_mask = 0; /* indicate we're deactivated */
for (partid = 1; partid < XP_MAX_PARTITIONS; partid++) {
part = &xpc_partitions[partid];
if (!XPC_SUPPORTS_DISENGAGE_REQUEST(part->
remote_vars_version)) {
/* just in case it was left set by an earlier XPC */
xpc_clear_partition_engaged(1UL << partid);
continue;
}
if (xpc_partition_engaged(1UL << partid) ||
part->act_state != XPC_P_INACTIVE) {
xpc_request_partition_disengage(part);
xpc_mark_partition_disengaged(part);
xpc_IPI_send_disengage(part);
}
}
time = rtc_time();
printmsg_time = time +
(XPC_DISENGAGE_PRINTMSG_INTERVAL * sn_rtc_cycles_per_second);
disengage_request_timeout = time +
(xpc_disengage_request_timelimit * sn_rtc_cycles_per_second);
/* wait for all other partitions to disengage from us */
while (1) {
engaged = xpc_partition_engaged(-1UL);
if (!engaged) {
dev_info(xpc_part, "all partitions have disengaged\n");
break;
}
time = rtc_time();
if (time >= disengage_request_timeout) {
for (partid = 1; partid < XP_MAX_PARTITIONS; partid++) {
if (engaged & (1UL << partid)) {
dev_info(xpc_part, "disengage from "
"remote partition %d timed "
"out\n", partid);
}
}
break;
}
if (time >= printmsg_time) {
dev_info(xpc_part, "waiting for remote partitions to "
"disengage, timeout in %ld seconds\n",
(disengage_request_timeout - time) /
sn_rtc_cycles_per_second);
printmsg_time = time +
(XPC_DISENGAGE_PRINTMSG_INTERVAL *
sn_rtc_cycles_per_second);
}
}
}
void
ccnl_get_timeval(struct timeval *tv)
{
//gettimeofday(tv, NULL);
rtc_time(tv);
}