int beep_bufout(cw_length * cw_len, int fd, char * buf)
{
int len, co;
len = (int)strlen(buf);
for(co = 0; co < len; co++){
if(buf[co] == cw_len->short_p){
beep_on(fd, cw_len->sp, cw_len->freq);
beep_sleep(cw_len->ps);
}
else if(buf[co] == cw_len->long_p){
beep_on(fd, cw_len->lp, cw_len->freq);
beep_sleep(cw_len->ps);
}
else if(buf[co] == cw_len->break_p){
beep_sleep(cw_len->cs);
#ifdef LIBCW_BUG
printf("LIBCW_BUG: beep_bufout(): break time %d\n", cw_len->cs);
#endif
}
else if(buf[co] == cw_len->wbreak_p){
beep_sleep(cw_len->ws);
#ifdef LIBCW_BUG
printf("LIBCW_BUG: beep_bufout(): wbreak time %d\n", cw_len->ws);
#endif
}
else{
}
}
return len;
}
// BEEP 再生
void pro100_beep(UINT freq, UINT msecs)
{
beep_on();
beep_set_freq(freq);
pro100_sleep(msecs);
beep_off();
}
static void report_finish(void)
{
int i;
beep_on();
if (g_timeout) {
display_msg("----");
g_rf.tx.err |= err_timeout;
g_rf.tx.finish.time = 0;
} else
g_rf.tx.finish.time = wc_get_time(&g_wc);
display_hex(g_rf.tx.finish.time);
for (i = REPEAT_MSGS; i; --i) {
rfb_send_msg(&g_rf, pkt_finish);
wc_delay(&g_wc, REPEAT_MSGS_DELAY);
}
beep_off();
if (P2IN & XSTATUS) {
uart_send_time_hex(g_rf.tx.finish.time);
}
}
void test_beep(void)
{
char pressKey;
while (1)
{
printf("Press 'o' to on beep\n");
printf("Press 'f' to off beep\n");
printf("Press 'e' to ending beep operat\n");
printf("Enter you choice: \n");
pressKey = getchar();
printf("\n");
switch (pressKey)
{
case 'o':
beep_on();
break;
case 'f':
beep_off();
break;
}
if (pressKey=='e')
break;
}
}
static void
acpi_pm1_sleep (u32 v)
{
struct facs *facs;
#ifdef ACPI_DSDT
bool m[6];
int i;
u8 n;
#endif
#ifdef ACPI_DSDT
n = (v & PM1_CNT_SLP_TYPX_MASK) >> PM1_CNT_SLP_TYPX_SHIFT;
for (i = 0; i <= 5; i++) {
if (acpi_dsdt_system_state[i][0] &&
acpi_dsdt_system_state[i][1] == n)
m[i] = true;
else
m[i] = false;
}
if (!m[2] && !m[3])
return;
#endif
facs = acpi_mapmem (facs_addr, sizeof *facs);
if (IS_STRUCT_SIZE_OK (facs->length, facs,
facs->x_firmware_waking_vector))
facs->x_firmware_waking_vector = 0;
if (IS_STRUCT_SIZE_OK (facs->length, facs,
facs->firmware_waking_vector))
facs->firmware_waking_vector = 0xFFFF0;
else
for (;;); /* FIXME: ERROR */
/* DEBUG */
/* the computer is going to sleep */
/* most devices are suspended */
/* vmm can't write anything to a screen here */
/* vmm can't input from/output to a keyboard here */
/* vmm can beep! */
beep_on ();
beep_set_freq (880);
usleep (500000);
beep_set_freq (440);
usleep (500000);
beep_set_freq (880);
usleep (500000);
beep_set_freq (440);
usleep (500000);
beep_set_freq (880);
usleep (500000);
beep_set_freq (440);
usleep (500000);
beep_set_freq (880);
acpi_poweroff ();
}
void long_press(int key_num,int num){
if((rEXTINT1 &(7<<num))==0){
if(key_num == 5 || key_num == 6){
led_on_all();
}else{
led_on(key_num);
}
beep_on();
rEXTINT1 &= ~(7<<num);
rEXTINT1 |= 0x4;
} else if((rEXTINT1 &(7<<num)) == 0x4){
led_off_all();
beep_off();
rEXTINT1 &= ~(7<<num);
}
}
static int beep_ioctl(struct inode *inode, struct file *filp, unsigned int cmd, unsigned long arg)
{
switch(cmd)
{
case BEEP_ON:
beep_on(arg);
break;
case BEEP_OFF:
beep_off(arg);
break;
default:
printk(KERN_WARNING "wrong input\n");
break;
}
return 0;
}
int main()
{
init_led();
init_beep();
//init_key(); 轮循初始化
//init_interrupt_for_key(); //中断的方式
led_off_all();
if(flag){
led_on_all();
beep_on();
}
int i;
while(1){
}
return 0;
}
int main()
{
init_led();
init_beep();
int i;
while(1)
{
for(i=1;i<=4;i++)
{
beep_on();
led_on(i);
delay(0xffff);
beep_off();
led_off(i);
delay(0xffff);
}
}
return 0;
}
void long_press(int key_num,int num){
if((rEXTINT1 &(num))==0){
//低电平触发了中断
if(key_num == 5 || key_num == 6){
led_on_all();
}else{
led_on(key_num);
}
beep_on();
//改变中断的触发方式为上升沿
rEXTINT1 &= ~(num);
rEXTINT1 |= 0x4;
} else if((rEXTINT1 &(num)) == 0x4){
//上升沿触发中断
led_off_all();
beep_off();
rEXTINT1 &= ~(num);
}
}
// Setup working channel
static void setup_channel(void)
{
int r;
set_state(st_setup);
// Select control channel
rf_set_channel(CTL_CHANNEL);
// Wait setup message
r = rfb_receive_msg(&g_rf, pkt_setup);
if (r) {
// Show error message
rfb_err_msg(r);
// Reset itself
wc_delay(&g_wc, SHORT_DELAY_TICKS);
reset();
} else {
// Show channel number
display_msg("Ch");
display_set_dp(1);
display_hex_(g_rf.rx.p.setup.chan, 2, 2);
}
beep_on();
// Set working channel
rf_set_channel(g_rf.rx.p.setup.chan);
// Delay to allow sender to switch to RX
wc_delay(&g_wc, SETUP_RESP_DELAY);
// Send test message
g_rf.tx.setup_resp.li = g_rf.rx.li;
rfb_send_msg(&g_rf, pkt_setup_resp);
beep_off();
// Reset itself on error or in test mode
if (r || (g_rf.rx.p.setup.flags & SETUP_F_TEST))
reset();
}
int main()
{
init_led();
init_beep();
init_key();
led_off_all();
int i;
while(1)
{
if(i= key_press()){
led_on(i);
beep_on();
}else{
led_off_all();
beep_off();
}
}
return 0;
}
void MCP39F511Interface::setupPWM(int frequency, int duty_cycle) {
int calculated_duty_cycle;
double calculated_period;
calculated_period = 2 * MCP_PWM_PRESCALER * frequency;
calculated_period = (1 /(double)MCP39F511_CLOCK_FREQUENCY) * calculated_period;
calculated_period = 1 / calculated_period;
/* Apply the period part */
mcpCompPeriphReg.PWM_period = ((int)calculated_period & MCP_PWM_PERIOD_PWM_P_MASK) << MCP_PWM_PERIOD_PWM_P_POS;
/* Apply the prescaler part */
mcpCompPeriphReg.PWM_period |= (MCP_PWM_REG_PRESCALER & MCP_PWM_PERIOD_PRE_MASK) << MCP_PWM_PERIOD_PRE_POS;
/* Apply the duty cycle */
calculated_duty_cycle = duty_cycle;
mcpCompPeriphReg.PWM_duty_cycle = (calculated_duty_cycle & MCP_PWM_DUTY_UPPER_MASK) << MCP_PWM_DUTY_UPPER_POS; //duty_cycle * 4 * frequency;
mcpCompPeriphReg.PWM_duty_cycle |= (calculated_duty_cycle & MCP_PWM_DUTY_LOWER_MASK) << MCP_PWM_DUTY_LOWER_POS;
mcp_comms->enqueTransaction(MCP_COMP_PERIPH_REG_PWM_PERIOD, (u_int8_t*) &mcpCompPeriphReg.PWM_period, sizeof(mcpCompPeriphReg.PWM_period) + sizeof(mcpCompPeriphReg.PWM_duty_cycle), MCP_CMD_REGISTER_WRITE);
/* Ensure sounder is off */
beep_on(false);
}
void task_3()
{
while(1)
{
cpu = OS_GetCPU();
if(connectState == 1)
{
count1++;
count1=count1%2;
if(count1 == 0)
{
msg.len = sizeof(xintiaoBuf);
msg.buf = xintiaoBuf;
udp.send(&msg);
}
}
if(warningState == 1)
{
if(turn == 0)
{
led_on();
beep_on();
}
else
{
led_off();
beep_off();
}
if(warningTime > 0)
{
if(warningTime*2 < count2)
{
warningState = 0;
led_off();
beep_off();
count2 = 0;
turn = 0;
}
count2++;
}
turn++;
turn = turn%2;
}
else
{
led_off();
beep_off();
}
// uart1.printf("cpu = %0.1f%%\r\n",cpu);
//
//
// mem = OS_GetStackMaxUsage(TASK_1_STK,TASK_1_STK_SIZE);
// uart1.printf("task1：mem = %02d%%\r\n",mem);
// mem = OS_GetStackMaxUsage(TASK_2_STK,TASK_2_STK_SIZE);
// uart1.printf("task2：mem = %02d%%\r\n",mem);
// mem = OS_GetStackMaxUsage(TASK_3_STK,TASK_3_STK_SIZE);
// uart1.printf("task3：mem = %02d%%\r\n",mem);
OS_DelayTimes(500);
}
}
static void wait_start(void)
{
for (;;) {
int r;
// Wait start message monitoring IR at the same time
chk_ir_ctx_init();
if (!(r = rfb_receive_valid_msg_(&g_rf, -1, monitor_events))) {
switch (g_rf.rx.p.type) {
case pkt_start:
// Start message received
g_timeout = 0;
wc_reset(&g_wc);
wc_advance(&g_wc, g_rf.rx.p.start.offset);
return;
case pkt_ping:
// Ping message received
beep_on();
display_rssi();
wc_delay(&g_wc, SHORT_DELAY_TICKS);
rfb_send_msg(&g_rf, pkt_ping);
beep_off();
break;
case pkt_reset:
// Start wants to reinitialize communication
reset();
}
continue;
}
if (r == ir_event) {
// Need to send IR status to start
if (!g_no_ir_reported) {
display_msg("noIr");
g_rf.tx.status.flags = sta_no_ir;
rfb_send_msg(&g_rf, pkt_status);
g_no_ir_reported = 1;
} else {
display_msg("Good");
g_rf.tx.status.flags = 0;
rfb_send_msg(&g_rf, pkt_status);
g_no_ir_reported = 0;
}
continue;
}
if (r == btn_event)
{
// Send ping to start
for (;;) {
wait_btn_release();
beep_on();
display_msg("PIng");
rfb_send_msg(&g_rf, pkt_ping);
r = rfb_receive_valid_msg_(&g_rf, pkt_ping, monitor_btn);
if (!r) {
display_rssi();
beep_off();
break;
}
if (r == btn_event) {
beep_off();
continue;
}
rfb_err_msg(r);
break;
}
continue;
}
rfb_err_msg(r);
}
}
//extern void bsp_RunPer1ms(void);
//extern void bsp_RunPer10ms(void);
void TIM3_IRQHandler(void)
{
static uint8_t s_count = 0;
uint8_t i;
if(TIM_GetITStatus(TIM3,TIM_IT_Update)!=RESET)
{
TIM_ClearITPendingBit(TIM3,TIM_IT_Update);
/* 每隔1ms进来1次 （仅用于 bsp_DelayMS） */
if (s_uiDelayCount > 0)
{
if (--s_uiDelayCount == 0)
{
s_ucTimeOutFlag = 1;
}
}
/* 每隔1ms，对软件定时器的计数器进行减一操作 */
for (i = 0; i < TMR_COUNT; i++)
{
bsp_SoftTimerDec(&s_tTmr[i]);
}
/* 全局运行时间每1ms增1 */
g_iRunTime++;
if (g_iRunTime == 0x7FFFFFFF) /* 这个变量是 int32_t 类型，最大数为 0x7FFFFFFF */
{
g_iRunTime = 0;
}
// bsp_RunPer1ms(); /* 每隔1ms调用一次此函数，此函数在 bsp.c */
/* 全局运行时间每10ms增1 */
if (++s_count >= 10)
{
s_count = 0;
g_iRunTime10ms++;
if (g_iRunTime10ms == 0x7FFFFFFF) /* 这个变量是 int32_t 类型，最大数为 0x7FFFFFFF */
{
g_iRunTime10ms = 0;
}
//bsp_RunPer10ms(); /* 每隔10ms调用一次此函数，此函数在 bsp.c */
switch(beep_status)
{
case BEEP_STATUS_BEEP:
{
beep_cnt++;
if(beep_cnt>=beep_comp)
{
beep_off();
beep_status=BEEP_STATUS_MUTE;
}
break;
}
case BEEP_STATUS_MUTE:
{
beep_cnt++;
if(beep_cnt>=mute_comp)
{
beep_cnt=0;
if(beep_time>1)
{
beep_time--;
beep_status=BEEP_STATUS_BEEP;
beep_on();
}
else
{
beep_status=BEEP_STATUS_IDLE;
}
}
break;
}
case BEEP_STATUS_IDLE:
{
break;
}
default:
{
beep_off();
beep_status=BEEP_STATUS_IDLE;
break;
}
}
}
}
}
