void main()
{
int temp;
int led_count;
while(1)
{
P0=0xfe; //P0^0输出低电平
temp = P0;
for(led_count=7;led_count>=0;led_count--)
{
delay_on(255);
// temp = temp<<1;
// temp += 1;
// P0 = temp;
temp = _crol_(temp, 1); // _crol_将temp循环左移1位，无需像上面再加1
P0 = temp;
}
}
}
/************************************************
*名称：main
*功能：实现数码管的扫描
*输入：无
*输出：无
************************************************/
void main()
{
// int i;
// int j;
// while(1)
// {
// for(i=0;i<=15;i++)
// {
// P2 = bit_select[2];
// P0 = seg_table[i];
// delay_on(230);
// }
// }
// while(1)
// {
// for(j=0;j<=7;j++)
// {
// P2 = bit_select[i];
// P0 = seg_table[0];
// delay_on(230);
// }
// }
while(1)
{
seg_lock = 1;
P0 = seg_table[1];
seg_lock = 0;
P0 = 0x00;
P2 = bit_select[0];
delay_on(yuhui);
seg_lock = 1;
P0 = seg_table[2];
seg_lock = 0;
P0 = 0x00;
P2 = bit_select[1];
delay_on(yuhui);
seg_lock = 1;
P0 = seg_table[3];
seg_lock = 0;
P0 = 0x00;
P2 = bit_select[2];
delay_on(yuhui);
seg_lock = 1;
P0 = seg_table[4];
seg_lock = 0;
P0 = 0x00;
P2 = bit_select[3];
delay_on(yuhui);
seg_lock = 1;
P0 = seg_table[5];
seg_lock = 0;
P0 = 0x00;
P2 = bit_select[4];
delay_on(yuhui);
seg_lock = 1;
P0 = seg_table[6];
seg_lock = 0;
P0 = 0x00;
P2 = bit_select[5];
delay_on(yuhui);
seg_lock = 1;
P0 = seg_table[7];
seg_lock = 0;
P0 = 0x00;
P2 = bit_select[6];
delay_on(yuhui);
seg_lock = 1;
P0 = seg_table[8];
seg_lock = 0;
P0 = 0x00;
P2 = bit_select[7];
delay_on(yuhui);
}
}
/**
* @brief provede co je potřeba pro funkci
* @note
* posledních 8 bitů je pro I2C a opto
* zbytek jsou efekty pro relé
*
* @param[in] function setup
* @ingroup LOGIC_HL
*
*/
static void logic_function(const logic_function_t * arg,
const logic_button_t * but)
{
(void) but;
//I2C effects 28 - harmonist ,29 - delay
uint64_t temp = arg->effects.w;
logic_dibit_t temp_i2c = arg->effects;
logic_specific(arg->special);
uint32_t old_state_eff = switch_getRelays();
old_state_eff |= opto_getEffects() << 20;
old_state_eff |= delay_get() << 30;
uint8_t in = harm_getInputs();
old_state_eff |= harm_getInput_LED(in) << 31;
//relays
uint8_t i;
logic_effect_t tmp;
for (i = 0; i < 12; i++)
{
tmp = temp & 0b11;
temp >>= 2;
if (tmp == EFF_ENABLE)
switch_setRelay(i);
else if (tmp == EFF_DISABLE)
switch_clearRelay(i);
else if (tmp == EFF_TOGGLE)
switch_toggleRelay(i);
}
//overdrive
if (temp_i2c.s.eff14 == EFF_ENABLE)
opto_enableEffect(0);
else if (temp_i2c.s.eff14 == EFF_DISABLE)
opto_disableEffect(0);
else if (temp_i2c.s.eff14 == EFF_TOGGLE)
opto_toggleEffect(0);
//tuner
if (temp_i2c.s.eff15 == EFF_ENABLE)
opto_enableEffect(1);
else if (temp_i2c.s.eff15 == EFF_DISABLE)
opto_disableEffect(1);
else if (temp_i2c.s.eff15 == EFF_TOGGLE)
opto_toggleEffect(1);
//harmonist
if (temp_i2c.s.eff12 == EFF_ENABLE)
harm_enable();
else if (temp_i2c.s.eff12 == EFF_DISABLE)
harm_disable();
else if (temp_i2c.s.eff12 == EFF_TOGGLE)
harm_toggle();
//delay
if (temp_i2c.s.eff13 == EFF_ENABLE)
{
delay_on();
}
else if (temp_i2c.s.eff13 == EFF_DISABLE)
{
delay_off();
}
else if (temp_i2c.s.eff13 == EFF_TOGGLE)
{
delay_toggle();
}
uint32_t new_state_eff = switch_getRelays();
new_state_eff |= opto_getEffects() << 20;
new_state_eff |= delay_get() << 30;
in = harm_getInputs();
new_state_eff |= harm_getInput_LED(in) << 31;
uint32_t diff = new_state_eff ^ old_state_eff;
const logic_marshall_t * marsh;
if (active.bank->channels[active.activeChannel - 1].VolumeOverloadEnabled
&& new_state_eff & diff)
marsh = &arg->marshall;
else
marsh = &active.bank->channels[active.activeChannel - 1].marshall;
logic_marshallSetup(marsh);
}
