수다닷컴

질문 제목 : 질문 내용 :
자동으로 시스템을 돌아가게만든것인데요..
저두 받은거라..ㅠㅠ;;아래 코드 알고리즘인데...이거는 안돌아간다고 하더라구요.ㅠㅠ;;
그럼 어케 해야 할까요?ㅠㅠ;;hardware timer
trigger_timer ; 1sec
drop_timer ; 3sec
button_timer(time) ; 0~1sec
constant
adcperdb = 0x000a ; 1db = 0x000a (adc)
agcreference = 0x0316 ; -10dbm level
averagingfactor = 3 ; averaging factor 2^3
alternateprotector = 3 * (adcperdbaveragingfactor) ; extended 3db
global variable
unsigned char; button, buttonprocess, triggercolor, manualmode, agcprocessdone
signed short; phaseoffset, phaseoffsetzero, hmc5, hmc6
unsigned long forwardpower, reversepower
signed long; frequency, returnloss, ad5
unsigned long long forwardpoweraverage, reversepoweraverage ; extended by averagingfactor
function
load_phaseoffsetzero
value = read from eeprom
return value
read_adc(port)
return adc(port) ; 10bit
phase_adjust(value) ; phase limit 6bit (0x00 ~ 0x3f)
while value 0x00
value += 0x40
while value 0x3f
value -= 0x40
return value
check_drop
return drop
check_frontbutton
return auto/manual, dac up, dac down, phase offset up, phase offset down, phase offset zero, no button
procedure
save_phaseoffsetzero
save phaseoffsetzero to eeprom
write_ad5
write ad5 ; 16bit
write_hmc5&hmc6
unsigned char value
value = not hmc5 ; negative logic
hmc6 = phase_adjust(phaseoffsetzero + phaseoffset)
write value & value & hmc6 ; 6bit + 6bit + 6bit
display_attenuator(color)
usingend short; value
switch color
case red
turn on red led
break
case yellow
turn on green led 63
turn on red led 315.0
break 63
case default
turn off green led
turn off red led
break
value = 5 * hmc5 ; 0x3f - 315
display value to front pannel led window ; 0x3f - 315 - 31.5
display_trigger
switch triggercolor
case red
turn on red led
break
case green
turn on green led
break
case default
turn off green led
turn off red led
break
display_dac(led)
switch led
case up
turn on up led
break
case down
turn on down led
break
case manual
turn on up led
turn on down led
break
case default
turn off up led
turn off down led
break
display ad5 to front pannel led window ; -32768 ~ 0 ~ +32767
display_returnloss
signed long; value
value = returnloss / adcperdb ; adc - db
display value to front pannel led window ; +12.5 db - 2.5 db
display_phaseoffset(value)
value *= 5.625
display value to front pannel led window ; ±5.6 °
button_reaction
switch manualmode
case auto
switch button
case auto/manual
manualmode = manual
display_dac(manual)
break
case phase offset up
phaseoffset += 1
if phaseoffset 0x3f then phaseoffset = 0x3f ; phase offset limit
display_phaseoffset(phaseoffset)
write_hmc5&hmc6
break
case phase offset down
phaseoffset -= 1
if phaseoffset -0x3f then phaseoffset = -0x3f ; phase offset limit
display_phaseoffset(phaseoffset)
write_hmc5&hmc6
break
case phase offset zero
phaseoffsetzero += phaseoffset
phaseoffset = 0
phaseoffsetzero = phase_adjust(phaseoffsetzero)
display_phaseoffset(phaseoffsetzero)
save_phaseoffsetzero
break
case default
display_phaseoffset(phaseoffset)
break
break
case manual
switch button
case auto/manual
manualmode = auto
display_dac(auto)
break
case dac up
ad5 += 1
if ad5 0xffff then ad5 = 0xffff ; ad5 limit
display_dac(manual)
write_ad5
break
case dac down
ad5 -= 1
if ad5 0x0000 then ad5 = 0x0000 ; ad5 limit
display_dac(manual)
write_ad5
break
case default
break
break
case default
break
button_process
static unsigned long; counter, counterbase, speed, debouncecounter
button = check_frontbutton
if buttonprocess = no button thenn then
if button no button then ; 1st button
debouncecounter = 0x000f
buttonprocess = button
counterbase = 10
counter = counterbase
speed = 0.5sec
turn on button_timer(speed)
else
if button = no button then ; button release
if debouncecounter = 0 then
buttonprocess = no button
else ; debounce
debouncecounter -= 1
else if button buttonprocess then ; improper button
buttonprocess = no button
turn off button_timer
else if button_timer not finished then ; button pressing
debouncecounter = 0x000f
else ; button accepted
button_reaction
counter -= 1
if counter = 0 then
counterbase = 2
speed = 2
switch manualmode
case manual
counterbase = minimum(counterbase, 10 * 1024)
speed = maximum(speed, 0.5sec / 1024)
break
case auto
counterbase = minimum(counterbase, 10 * 4)
speed = maximum(speed, 0.5sec / 4)
break
counter = counterbase
turn on button_timer(speed) ; repeatitive action protect
agc_process
signed attenuatoraverage
unsigned long forwardvalue, reversevalue
signed long alternatecompensation
alternatecompensation = forwardpoweraverage - (forwardpower + alterateprotector) ; alternate mode protection
alternatecompensation = maximum(alternatecompensation, 0)
forwardvalue = forwardpower + alternatecompensation
reversevalue = reversepower + alternatecompensation
forwardpoweraverage *= (2^averagingfactor - 1) ; averaging
forwardpoweraverage += forwardvalue
forwardpoweraverage = averagingfactor
reversepoweraverage *= (2^averagingfactor - 1)
reversepoweraverage += reversevalue
reversepoweraverage = averagingfactor
forwardvalue = forwardpoweraverage averagingfactor ; reduced forwardpoweraverge
attenuatoraverage = (forwardvalue - agcreference) / (adcperdb1) ; agc reference, adc - 0.5db conversion
if (attenuatoraverage (hmc5 + 1)) or (attenuatoraverage (hmc5 - 1)) then ; hysteresis ±0.5db
hmc5 = attenuatoraverage
if hmc5 = 0x3f then ; high power
hmc5 = 0x3f
display_attenuator(red)
else if hmc5 = 0 then ; low power
hmc5 = 0x00
display_attenuator(yellow)
else ; normal power
display_attenuator(normal)
write_hmc5&hmc6
reversevalue = reversepoweraverage averagingfactor ; reduced reversepoweraverage
returnloss = forwardvalue - reversevalue
display_returnloss
agcprocessdone = done
afc_process
unsigned char; led, counter, step
signed char; updown
static unsigned char; i
unsigned char; j
static signed char; history[3..0]
i += 1
if i 3 then i = 0
counter = 0 ; check resonance
for (j = 0; j = 3; j++)
if history[j] 0 then counter++
if (counter = 4 or counter = 0) then
step = 0x0f ; wide step
else
step = 0x01 ; narrow step
if returnloss (3 * adcperdb) then ; detector select
frequency = read_adc(forward_frequency_port) - read_adc(reverse_frequency_port)
if frequency 0 then ; low frequency
updown = 1
else if frequency 0 then ; high frequency
updown = -1
else
frequency = read_adc(pfd_port)
if frequency 0x02ff then ; high frequency
updown = -1
else if frequency 0x00ff then ; low frequency
updown = 1
history[i] = updown
updown *= step
ad5 += updown
if ad5 0xffff then
led = up
ad5 = 0xffff
else if ad5 0x0000 then
led = down
ad5 = 0x0000
else
led = normal
write_ad5
display_dac(led)
interrupt_trigger_process
forwardpower = read_adc(forward_port) averagingfactor ; extended forwardpower
reversepower = read_adc(reverse_port) averagingfactor ; extended reversepower
agcprocessdone = not done
if manualmode = auto then
afc_process ; afc
switch check_drop
case drop
triggercolor = red ; drop trigger
display_trigger
turn on drop_timer
break
case default ; normal trigger
break
turn on trigger_timer
clear triggered
main()
hmc5 = 0x3f ; 31.5db attenuation
phaseoffsetzero = load_phaseoffsetzero
hmc6 = phaseoffsetzero
write_hmc5&hmc6
display_attenuator(red)
ad5 = 0x8000 ; afc 0v out
write_ad5
display_dac(auto)
forwardpoweraverage = 0x03ff averagingfactor ; extended maximum power (10bit x)
reversepoweraverage = 0x03ff averagingfactor
buttonprocess = no button ; no button
manualmode = auto ; auto mode
agcprocessdone = done
initialize interrupt ; turn on trigger interrupt
while(1) ; infinite loop
if drop_timer not finished then ; drop trigger
triggercolor = red
else if trigger_timer not finished then ; nomal trigger
triggercolor = green
else ; no trigger
triggercolor = no trigger
display_trigger
if agcprocessdone = not done then
agc_process
button_process

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