void rds_tcp_state_change(struct sock *sk)
{
void (*state_change)(struct sock *sk);
struct rds_conn_path *cp;
struct rds_tcp_connection *tc;
read_lock_bh(&sk->sk_callback_lock);
cp = sk->sk_user_data;
if (!cp) {
state_change = sk->sk_state_change;
goto out;
}
tc = cp->cp_transport_data;
state_change = tc->t_orig_state_change;
rdsdebug("sock %p state_change to %d\n", tc->t_sock, sk->sk_state);
switch (sk->sk_state) {
/* ignore connecting sockets as they make progress */
case TCP_SYN_SENT:
case TCP_SYN_RECV:
break;
case TCP_ESTABLISHED:
rds_connect_path_complete(cp, RDS_CONN_CONNECTING);
break;
case TCP_CLOSE_WAIT:
case TCP_CLOSE:
rds_conn_path_drop(cp);
default:
break;
}
out:
read_unlock_bh(&sk->sk_callback_lock);
state_change(sk);
}
static DBusHandlerResult supplicant_filter(DBusConnection *conn,
DBusMessage *msg, void *data)
{
struct supplicant_task *task;
const char *member, *path;
if (dbus_message_has_interface(msg,
SUPPLICANT_INTF ".Interface") == FALSE)
return DBUS_HANDLER_RESULT_NOT_YET_HANDLED;
member = dbus_message_get_member(msg);
if (member == NULL)
return DBUS_HANDLER_RESULT_NOT_YET_HANDLED;
path = dbus_message_get_path(msg);
if (path == NULL)
return DBUS_HANDLER_RESULT_NOT_YET_HANDLED;
task = find_task_by_path(path);
if (task == NULL)
return DBUS_HANDLER_RESULT_NOT_YET_HANDLED;
_DBG_SUPPLICANT("task %p member %s", task, member);
if (g_str_equal(member, "ScanResultsAvailable") == TRUE)
scan_results_available(task);
else if (g_str_equal(member, "Scanning") == TRUE)
scanning(task, msg);
else if (g_str_equal(member, "StateChange") == TRUE)
state_change(task, msg);
return DBUS_HANDLER_RESULT_NOT_YET_HANDLED;
}
void rds_tcp_state_change(struct sock *sk)
{
void (*state_change)(struct sock *sk);
struct rds_connection *conn;
struct rds_tcp_connection *tc;
read_lock(&sk->sk_callback_lock);
conn = sk->sk_user_data;
if (conn == NULL) {
state_change = sk->sk_state_change;
goto out;
}
tc = conn->c_transport_data;
state_change = tc->t_orig_state_change;
rdsdebug("sock %p state_change to %d\n", tc->t_sock, sk->sk_state);
switch(sk->sk_state) {
/* ignore connecting sockets as they make progress */
case TCP_SYN_SENT:
case TCP_SYN_RECV:
break;
case TCP_ESTABLISHED:
rds_connect_complete(conn);
break;
case TCP_CLOSE:
rds_conn_drop(conn);
default:
break;
}
out:
read_unlock(&sk->sk_callback_lock);
state_change(sk);
}
ENTRYPOINT void
draw_voronoi (ModeInfo *mi)
{
voronoi_configuration *vp = &vps[MI_SCREEN(mi)];
Display *dpy = MI_DISPLAY(mi);
Window window = MI_WINDOW(mi);
if (!vp->glx_context)
return;
glXMakeCurrent(MI_DISPLAY(mi), MI_WINDOW(mi), *(vp->glx_context));
glShadeModel(GL_FLAT);
glEnable(GL_POINT_SMOOTH);
/* glEnable(GL_LINE_SMOOTH);*/
/* glEnable(GL_POLYGON_SMOOTH);*/
glEnable (GL_DEPTH_TEST);
glDepthFunc (GL_LEQUAL);
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
mi->polygon_count = 0;
draw_cells (mi);
move_points (vp);
prune_points (vp);
state_change (mi);
if (mi->fps_p) do_fps (mi);
glFinish();
glXSwapBuffers(dpy, window);
}
void ts::scene::Loading_sequence::async_load(const action::Stage* stage)
{
loaded_scene_ = Scene();
exception_ptr_ = nullptr;
stage_ = stage;
set_finished(false);
set_loading(true);
scene_loader_.set_completion_handler([this]()
{
load_scripts_if_ready();
});
scene_loader_.set_state_change_handler([this](Scene_loader_state new_state)
{
state_change(to_string(new_state));
});
audio_loader_.set_completion_handler([this]()
{
load_scripts_if_ready();
});
scene_loader_.async_load(stage, resource_store_->video_settings());
audio_loader_.async_load(stage, resource_store_->audio_settings());
}
void ModuleSequencer::set_state(GxEngineState state) {
int newmode = PGN_MODE_MUTE;
switch( state ) {
case kEngineOn: newmode = PGN_MODE_NORMAL; break;
case kEngineBypass: newmode = PGN_MODE_BYPASS; break;
case kEngineOff: newmode = PGN_MODE_MUTE; break;
}
if (audio_mode == newmode) {
return;
}
audio_mode = newmode;
set_rack_changed();
state_change(state);
}
void rds_tcp_state_change(struct sock *sk)
{
void (*state_change)(struct sock *sk);
struct rds_conn_path *cp;
struct rds_tcp_connection *tc;
read_lock_bh(&sk->sk_callback_lock);
cp = sk->sk_user_data;
if (!cp) {
state_change = sk->sk_state_change;
goto out;
}
tc = cp->cp_transport_data;
state_change = tc->t_orig_state_change;
rdsdebug("sock %p state_change to %d\n", tc->t_sock, sk->sk_state);
switch (sk->sk_state) {
/* ignore connecting sockets as they make progress */
case TCP_SYN_SENT:
case TCP_SYN_RECV:
break;
case TCP_ESTABLISHED:
/* Force the peer to reconnect so that we have the
* TCP ports going from <smaller-ip>.<transient> to
* <larger-ip>.<RDS_TCP_PORT>. We avoid marking the
* RDS connection as RDS_CONN_UP until the reconnect,
* to avoid RDS datagram loss.
*/
if (!IS_CANONICAL(cp->cp_conn->c_laddr, cp->cp_conn->c_faddr) &&
rds_conn_path_transition(cp, RDS_CONN_CONNECTING,
RDS_CONN_ERROR)) {
rds_conn_path_drop(cp, false);
} else {
rds_connect_path_complete(cp, RDS_CONN_CONNECTING);
}
break;
case TCP_CLOSE_WAIT:
case TCP_CLOSE:
rds_conn_path_drop(cp, false);
default:
break;
}
out:
read_unlock_bh(&sk->sk_callback_lock);
state_change(sk);
}
/******************************************************************
** 函数名: TIMy_IRQHandler
** 输 入: none
** 描 述: 该定时器用作检测和LED控制计时使用
** 全局变量:
** 调用模块:
** 作 者: zcs
** 日 期: 2015-04-21
** 修 改:
** 日 期:
** 版 本: 1.0
*******************************************************************/
void ReportState(void)
{
if (state_report_flag) //此时向上层发送状态报告并作心跳检测
{
SendStatusReply(current_state); //发送当前状态给上层
state_report_flag = FALSE; //清零状态报告标志位
}
if (system_start)
{
heart_time_count = 0;
if (topdeath)
{
state_change(TopDead); //更改当前状态位上层死机，通信出现故障
topdeath = FALSE;
}
}
}
int main()
{
int totalTime;
totalTime = 0;
int quantum;
int op;
int cpp = 0;
pcbCtrl *ctrl;
pcbStates *states;
groupsCtrl *ctrlG;
usersCtrl *ctrlU;
ctrl = malloc(sizeof(pcbCtrl));
states = malloc(sizeof(pcbStates));
states->readys = malloc(sizeof(pcbCtrl));
states->waiting = malloc(sizeof(pcbCtrl));
states->sleeping = malloc(sizeof(pcbCtrl));
ctrlG = malloc(sizeof(groupsCtrl));
ctrlU = malloc(sizeof(usersCtrl));
printf("\n");
quantum = set_int("Quantum del programa", 1);
if(val_npos(quantum, 1) != FAIL)
{
do
{
printf("\n \t\t<< SIMULACION DE ALGORITMO DE DESPACHO RONUD-ROBIN >>\n");
print_options(0);
printf("\n>");
scanf("%i",&op);
getchar();
switch(op)
{
case 1:
printf("\n");
create_group(ctrlG);
break;
case 2:
printf("\n");
create_user(ctrlU);
break;
case 3:
printf("\n");
create_process(cpp,ctrl,states,ctrlG,ctrlU);
cpp++;
break;
case 4:
printf("\n");
state_change(ctrl,states);
break;
case 5:
printf("\n");
show_everything(ctrl,states,ctrlG,ctrlU);
break;
case 6:
printf("\n");
rr(states, ctrl, quantum, &totalTime);
break;
case 7:
printf("\n");
del_option(ctrl,states,ctrlG,ctrlU);
break;
case 8:
break;
default:
printf("Opcion invalida, vuelva a intentarlo.\n");
}
}while(op != 8);
if(ctrl->front != NULL)
{
pcb *aux = ctrl->front;
while( next_pcb(&aux,ctrl->front) != FAIL )
free(aux);
}
if(ctrlG->front != NULL)
{
groups *aux = ctrlG->front;
while( next_group(&aux,ctrlG->front) != FAIL )
free(aux);
}
if(ctrlU->front != NULL)
{
users *aux = ctrlU->front;
while( next_user(&aux,ctrlU->front) != FAIL )
free(aux);
}
free(ctrl->front);
free(ctrlG->front);
free(ctrlU->front);
free(ctrl);
free(ctrlG);
free(ctrlU);
}
return 0;
}
// the kernel bootstrap routine
PUBLIC
void
kernel_thread_t::bootstrap()
{
// Initializations done -- helping_lock_t can now use helping lock
helping_lock_t::threading_system_active = true;
//
// set up my own thread control block
//
state_change (0, Thread_running);
sched()->set_prio (config::kernel_prio);
sched()->set_mcp (config::kernel_mcp);
sched()->set_timeslice (config::default_time_slice);
sched()->set_ticks_left (config::default_time_slice);
present_next = present_prev = this;
ready_next = ready_prev = this;
//
// set up class variables
//
for (int i = 0; i < 256; i++) prio_next[i] = prio_first[i] = 0;
prio_next[config::kernel_prio] = prio_first[config::kernel_prio] = this;
prio_highest = config::kernel_prio;
timeslice_ticks_left = config::default_time_slice;
timeslice_owner = this;
//
// install our slow trap handler
//
nested_trap_handler = base_trap_handler;
base_trap_handler = thread_handle_trap;
//
// initialize FPU
//
set_ts(); // FPU ops -> exception
//
// initialize interrupts
//
irq_t::lookup(2)->alloc(this, false); // reserve cascade irq
irq_t::lookup(8)->alloc(this, false); // reserve timer irq
pic_enable_irq(2); // allow cascaded irqs
// set up serial console
if (! strstr(kmem::cmdline(), " -I-")
&& !strstr(kmem::cmdline(), " -irqcom"))
{
int com_port = console::serial_com_port;
int com_irq = com_port & 1 ? 4 : 3;
irq_t::lookup(com_irq)->alloc(this, false); // the remote-gdb interrupt
pic_enable_irq(com_irq);
// for some reason, we have to re-enable the com irq here
if (config::serial_esc)
com_cons_enable_receive_interrupt();
}
// initialize the profiling timer
bool user_irq0 = strstr(kmem::cmdline(), "irq0");
if (config::profiling)
{
if (user_irq0)
{
kdb_ke("options `-profile' and `-irq0' don't mix "
"-- disabling `-irq0'");
}
irq_t::lookup(0)->alloc(this, false);
profile::init();
if (strstr(kmem::cmdline(), " -profstart"))
profile::start();
}
else if (! user_irq0)
irq_t::lookup(0)->alloc(this, false); // reserve irq0 even though
// we don't use it
//
// set up timer interrupt (~ 1ms)
//
while (rtcin(RTC_STATUSA) & RTCSA_TUP) ; // wait till RTC ready
rtcout(RTC_STATUSA, RTCSA_DIVIDER | RTCSA_1024); // 1024 Hz
// set up 1024 Hz interrupt
rtcout(RTC_STATUSB, rtcin(RTC_STATUSB) | RTCSB_PINTR | RTCSB_SQWE);
rtcin(RTC_INTR); // reset
pic_enable_irq(8); // allow this interrupt
//
// set PCE-Flag in CR4 to enable read of performace measurement counters
// in usermode. PMC were introduced in Pentium MMX and PPro processors.
//
#ifndef CPUF_MMX
#define CPUF_MMX 0x00800000
#endif
if(strncmp(cpu.vendor_id, "GenuineIntel", 12) == 0
&& (cpu.family == CPU_FAMILY_PENTIUM_PRO ||
cpu.feature_flags & CPUF_MMX))
{
set_cr4(get_cr4() | CR4_PCE);
}
//
// allow the boot task to create more tasks
//
for (unsigned i = config::boot_taskno + 1;
i < space_index_t::max_space_number;
i++)
{
check(space_index_t(i).set_chief(space_index(),
space_index_t(config::boot_taskno)));
}
//
// create sigma0
//
// sigma0's chief is the boot task
space_index_t(config::sigma0_id.id.task).
set_chief(space_index(), space_index_t(config::sigma0_id.id.chief));
sigma0 = new space_t(config::sigma0_id.id.task);
sigma0_thread =
new (&config::sigma0_id) thread_t (sigma0, &config::sigma0_id,
config::sigma0_prio,
config::sigma0_mcp);
// push address of kernel info page to sigma0's stack
vm_offset_t esp = kmem::info()->sigma0_esp;
* reinterpret_cast<vm_offset_t*>(kmem::phys_to_virt(--esp))
= kmem::virt_to_phys(kmem::info());
sigma0_thread->initialize(kmem::info()->sigma0_eip, esp,
0, 0);
//
// create the boot task
//
// the boot task's chief is the boot task itself
space_index_t(config::boot_id.id.task).
set_chief(space_index(), space_index_t(config::boot_id.id.chief));
space_t *boot = new space_t(config::boot_id.id.task);
thread_t *boot_thread
= new (&config::boot_id) thread_t (boot, &config::boot_id,
config::boot_prio,
config::boot_mcp);
boot_thread->initialize(0x200000,
0x200000,
sigma0_thread, 0);
//
// the idle loop
//
for (;;)
{
// printf("I");
sti(); // enable irqs, otherwise idling is fatal
if (config::hlt_works_ok)
asm("hlt"); // stop the CPU, waiting for an int
while (ready_next != this) // are there any other threads ready?
schedule();
}
}