static void intrpt_routine(struct work_struct *unused)
{
    static u32 psu_status = 1;	// default high, psu fail 時會 low
    u8 val = 0;

    if ((board_idx != 4) && (board_idx != 5) && (board_idx != 6)){
        val = PCH_6_gpio_read_bit(57);	// PSU_FAIL gpio
        if(psu_status != val) {
            // default high, psu fail 時會 low
            if(val == 1) {
                sprintf(Message, "PSU_FAIL OFF\n");
            } else {
                sprintf(Message, "PSU_FAIL ON\n");
            }
            psu_status = val;
            wake_up_interruptible(&thecus_event_queue);
        }
    }
    if(PCH_6_gpio_read_bit(72)==0) {	// mute button
	    kd_mksound(0 * 440, 0);
	    keep_BUZZER = BUZZER_OFF;
    }

    // If cleanup wants us to die
    if (module_die == 0)
	queue_delayed_work(my_workqueue, &Task, dyn_work_queue_timer);

}
Beispiel #2
0
int speakup_thread(void *data)
{
	unsigned long flags;
	int should_break;
	struct bleep our_sound;

	our_sound.active = 0;
	our_sound.freq = 0;
	our_sound.jiffies = 0;

	mutex_lock(&spk_mutex);
	while (1) {
		DEFINE_WAIT(wait);

		while (1) {
			spin_lock_irqsave(&speakup_info.spinlock, flags);
			our_sound = spk_unprocessed_sound;
			spk_unprocessed_sound.active = 0;
			prepare_to_wait(&speakup_event, &wait,
				TASK_INTERRUPTIBLE);
			should_break = kthread_should_stop() ||
				our_sound.active ||
				(synth && synth->catch_up && synth->alive &&
					(speakup_info.flushing ||
					!synth_buffer_empty()));
			spin_unlock_irqrestore(&speakup_info.spinlock, flags);
			if (should_break)
				break;
			mutex_unlock(&spk_mutex);
			schedule();
			mutex_lock(&spk_mutex);
		}
		finish_wait(&speakup_event, &wait);
		if (kthread_should_stop())
			break;

		if (our_sound.active)
			kd_mksound(our_sound.freq, our_sound.jiffies);
		if (synth && synth->catch_up && synth->alive) {
			/* It is up to the callee to take the lock, so that it
			 * can sleep whenever it likes */
			synth->catch_up(synth);
		}

		speakup_start_ttys();
	}
	mutex_unlock(&spk_mutex);
	return 0;
}
Beispiel #3
0
static void beep(unsigned int freq)
{
	if (sound)
		kd_mksound(freq, HZ/10);
}
static ssize_t proc_thecus_io_write(struct file *file,
				    const char __user * buf, size_t length,
				    loff_t * ppos)
{
    char *buffer, buf1[20];
    int i, err, v1, v2;
    u8 val;

    if (!buf || length > PAGE_SIZE)
	return -EINVAL;

    err = -ENOMEM;
    buffer = (char *) __get_free_page(GFP_KERNEL);
    if (!buffer)
	goto out2;

    err = -EFAULT;
    if (copy_from_user(buffer, buf, length))
	goto out;

    err = -EINVAL;
    if (length < PAGE_SIZE) {
	buffer[length] = '\0';
#define LF	0xA
	if (length > 0 && buffer[length - 1] == LF)
	    buffer[length - 1] = '\0';
    } else if (buffer[PAGE_SIZE - 1])
	goto out;

    memset(buf1, 0, sizeof(buf1));

    /*
     * Usage: echo "S_LED 1-16 0|1|2" >/proc/thecus_io //2:Blink * LED SATA 1-16 ERROR led
     * Usage: echo "U_LED 0|1|2" >/proc/thecus_io //2:Blink * USB BUSY led
     * Usage: echo "UF_LED 0|1|2" >/proc/thecus_io //2:Blink * USB ERROR led
     * Usage: echo "Fail 0|1" >/proc/thecus_io                  * LED System Fail
     * Usage: echo "Busy 0|1" >/proc/thecus_io                  * LED System Busy
     * Usage: echo "Buzzer 0|1" >/proc/thecus_io                * Buzzer
     * Usage: echo "RESET_PIC" >/proc/thecus_io                * RESET_PIC 
     */

    if (!strncmp(buffer, "S_LED", strlen("S_LED"))) {
	i = sscanf(buffer + strlen("S_LED"), "%d %d\n", &v1, &v2);
	if (i == 2)		//two input
	{
	    if (v2 == 0)	//input 0: want to turn off
		val = LED_OFF;
	    else if (v2 == 1)	//turn on
		val = LED_ON;
	    else
		val = LED_BLINK1;

	    if (v1 >= 1 && v1 <= 16) {
		v1 = v1 - 1;
		if((board_idx == 0) || (board_idx == 3) || (board_idx == 7)) { // only for N8900 back board, it's error led begin 8~15
		    if(v1 >= 0 && v1 <= 7)
			pca9532_set_led(v1+8, val);
		    else
			pca9532_set_led(v1, val);
		} else {
		    pca9532_set_led(v1, val);
		}
	    }
	}
    } else if (!strncmp(buffer, "UF_LED", strlen("UF_LED"))) {
	i = sscanf(buffer + strlen("UF_LED"), "%d\n", &v1);
	if (i == 1)		//only one input
	{
	    _DBG(1, "UF_LED %d\n", v1);
	    if (v1 == 0)	//input 0: want to turn off
		val = LED_OFF;
	    else if (v1 == 1)	//turn on
		val = LED_ON;
	    else
		val = LED_BLINK1;

	    led_usb_err = val;
	    pca9532_id_set_led(11, val);
	}
    } else if (!strncmp(buffer, "U_LED", strlen("U_LED"))) {
	i = sscanf(buffer + strlen("U_LED"), "%d\n", &v1);
	if (i == 1)		//only one input
	{
	    _DBG(1, "U_LED %d\n", v1);
	    if (v1 == 0)	//input 0: want to turn off
		val = LED_OFF;
	    else if (v1 == 1)	//turn on
		val = LED_ON;
	    else
		val = LED_BLINK1;

	    led_usb_busy = val;
	    pca9532_id_set_led(12, val);
	}
    } else if (!strncmp(buffer, "PWR_LED", strlen("PWR_LED"))) {
	i = sscanf(buffer + strlen("PWR_LED"), "%d\n", &v1);
	if (i == 1)		//only one input
	{
	    _DBG(1, "PWR_LED %d\n", v1);
	    if (v1 == 0)	//input 0: want to turn off
		val = LED_OFF;
	    else if (v1 == 1)	//turn on
		val = LED_ON;
	    else
		val = LED_BLINK1;

	    led_sys_power = val;
	    pca9532_id_set_led(13, val);
	}
    } else if (!strncmp(buffer, "Busy", strlen("Busy"))) {
	i = sscanf(buffer + strlen("Busy"), "%d\n", &v1);
	if (i == 1)		//only one input
	{
	    _DBG(1, "Busy %d\n", v1);
	    if (v1 == 0)	//input 0: want to turn off
		val = LED_OFF;
	    else if (v1 == 1)	//turn on
		val = LED_ON;
	    else
		val = LED_BLINK1;

	    led_sys_busy = val;
	    pca9532_id_set_led(14, val);
	}
    } else if (!strncmp(buffer, "Fail", strlen("Fail"))) {
	i = sscanf(buffer + strlen("Fail"), "%d\n", &v1);
	if (i == 1)		//only one input
	{
	    _DBG(1, "Fail %d\n", v1);
	    if (v1 == 0)	//input 0: want to turn off
		val = LED_OFF;
	    else if (v1 == 1)	//turn on
		val = LED_ON;
	    else
		val = LED_BLINK1;

	    led_sys_err = val;
	    pca9532_id_set_led(15, val);
	}
/*
    } else if (!strncmp(buffer, "GPIO2", strlen("GPIO2"))) {
	i = sscanf(buffer + strlen("GPIO2"), "%d\n", &v1);
	if (i == 1)		//only one input
	{
	    printk("GPIO2 %d\n", v1);
	    PCH_6_gpio_write_bit(2,v1);
	}
    } else if (!strncmp(buffer, "GPIO3", strlen("GPIO3"))) {
	i = sscanf(buffer + strlen("GPIO3"), "%d\n", &v1);
	if (i == 1)		//only one input
	{
	    printk("GPIO3 %d\n", v1);
	    PCH_6_gpio_write_bit(3,v1);
	}
*/
    } else if (!strncmp(buffer, "Buzzer", strlen("Buzzer"))) {
	i = sscanf(buffer + strlen("Buzzer"), "%d\n", &v1);
	if (i == 1)		//only one input
	{
	    _DBG(1, "Buzzer %d\n", v1);
	    if (v1 == 0)	//input 0: want to turn off
		val = BUZZER_OFF;
	    else
		val = BUZZER_ON;

	    keep_BUZZER = val;
	    kd_mksound(val * 440, 0);
	}
    } else if (!strncmp(buffer, "RESET_PIC", strlen("RESET_PIC"))) {
        reset_pic();
    }

    err = length;
  out:
    free_page((unsigned long) buffer);
  out2:
    *ppos = 0;

    return err;
}
Beispiel #5
0
static int
kbd_ioctl (struct inode *i, struct file *f, unsigned int cmd, unsigned long arg)
{
	unsigned char c;
	unsigned char leds = 0;
	int value;

	switch (cmd){
	case KIOCTYPE:		  /* return keyboard type */
		put_user_ret(sunkbd_type, (int *) arg, -EFAULT);
		break;
	case KIOCGTRANS:
		put_user_ret(TR_UNTRANS_EVENT, (int *) arg, -EFAULT);
		break;
	case KIOCTRANS:
		get_user_ret(value, (int *) arg, -EFAULT);
		if (value != TR_UNTRANS_EVENT)
			return -EINVAL;
		break;
	case KIOCLAYOUT:
		put_user_ret(sunkbd_layout, (int *) arg, -EFAULT);
		break;
	case KIOCSDIRECT:
#ifndef CODING_NEW_DRIVER
		get_user_ret(value, (int *) arg, -EFAULT);
		if(value)
			kbd_redirected = fg_console + 1;
		else
			kbd_redirected = 0;
		kbd_table [fg_console].kbdmode = kbd_redirected ? VC_RAW : VC_XLATE;
#endif
		break;
	case KIOCCMD:
		get_user_ret(value, (int *) arg, -EFAULT);
		c = (unsigned char) value;
		switch (c) {
			case SKBDCMD_CLICK:
			case SKBDCMD_NOCLICK:
				send_cmd(c);
				return 0;
			case SKBDCMD_BELLON:
				kd_mksound(1,0);
				return 0;
			case SKBDCMD_BELLOFF:
				kd_mksound(0,0);
				return 0;
			default:
				return -EINVAL;
		}
	case KIOCSLED:
		get_user_ret(c, (unsigned char *) arg, -EFAULT);
			
		if (c & LED_SCRLCK) leds |= (1 << VC_SCROLLOCK);
		if (c & LED_NLOCK) leds |= (1 << VC_NUMLOCK);
		if (c & LED_CLOCK) leds |= (1 << VC_CAPSLOCK);
		compose_led_on = !!(c & LED_CMPOSE);
		sun_setledstate(kbd_table + fg_console, leds);
		break;
	case KIOCGLED:
		put_user_ret(vcleds_to_sunkbd(getleds()), (unsigned char *) arg, -EFAULT);
		break;
	case KIOCGRATE:
	{
		struct kbd_rate rate;

		rate.delay = kbd_delay_ticks;
		if (kbd_rate_ticks)
			rate.rate = HZ / kbd_rate_ticks;
		else
			rate.rate = 0;

		copy_to_user_ret((struct kbd_rate *)arg, &rate,
				 sizeof(struct kbd_rate), -EFAULT);

		return 0;
	}
	case KIOCSRATE:
	{
		struct kbd_rate rate;

		if (verify_area(VERIFY_READ, (void *)arg,
				sizeof(struct kbd_rate)))
			return -EFAULT;
		copy_from_user(&rate, (struct kbd_rate *)arg,
			       sizeof(struct kbd_rate));

		if (rate.rate > 50)
			return -EINVAL;
		if (rate.rate == 0)
			kbd_rate_ticks = 0;
		else
			kbd_rate_ticks = HZ / rate.rate;
		kbd_delay_ticks = rate.delay;

		return 0;
	}
	case FIONREAD:		/* return number of bytes in kbd queue */
	{
		int count;
		
		count = kbd_head - kbd_tail;
		put_user_ret((count < 0) ? KBD_QSIZE - count : count, (int *) arg, -EFAULT);
		return 0;
	}
	default:
		printk ("Unknown Keyboard ioctl: %8.8x\n", cmd);
		return -EINVAL;
	}
	return 0;
}