     #include "reflow.h"
     #include "process.h"
     #include <math.h>
     // nastaveni teplot a casu
-...
     #define TL3             PIN_B1      // tlacitko S3
     #define TL4             PIN_B0      // tlacitko S4
     #define POWER_T3        PIN_A6      // ovladani optotriaku T3
     #define POWER_T3        PIN_A3      // ovladani optotriaku T3
     #define POWER_T4        PIN_A5      // ovladani optotriaku T4
     #define POWER_T5        PIN_A4      // ovladani optotriaku T5
-...
        volatile unsigned int8  sec;
     }cas;
     // funkce
     void GeneralCpuInit()
     unsigned int top_heat_power=0;  // range 0-200% nad 100% je ale teleso jiz pretizene
     unsigned int bottom_heat_power=0; // contains heating power range 0-100%
     unsigned int period;
     float temp_last=0;
     void GeneralCpuInit() // inicializace
+    {
        output_high(POWER_T4);
        output_high(POWER_T5);
-...
        setup_spi(SPI_SS_DISABLED);
        setup_timer_0(RTCC_INTERNAL|RTCC_DIV_1);  //nepouzit
        setup_timer_1(T1_DISABLED);               //nepouzit
        setup_timer_1(T1_INTERNAL|T1_DIV_BY_1);               // rizeni
        setup_timer_2(T2_DIV_BY_16,249,10);       //rtc 40ms
        setup_comparator(NC_NC_NC_NC);
-...
        return (0.674201*adc() - 294.35);
+    }
     void top_heating()
+    {
       if (period <= top_heat_power){
         output_low(POWER_T4);
         output_low(POWER_T5);
+      }
       else{
         output_high(POWER_T4);
         output_high(POWER_T5);
+      }
+    }
     void bottom_heating()
+    {
       if (period <= 2*bottom_heat_power){
         output_low(POWER_T3);
+      }
       else{
         output_high(POWER_T3);
+      }
+    }
     #int_TIMER1
     void heating_control()        //rizeni topnych teles pri preteceni casovace
+    {
     top_heating();
     bottom_heating();
     if (period <= 200) period++;
     else period=0;
+    }
     #int_TIMER2
     void Rtc(void)         //40ms
+    {
-...
+        }
+    }
     void slope_control(float ramp, unsigned int balance) // P proporcionalni rizeni narustu teploty predpoklada periodicke volani 1x/s
+    {
     float slope_deviation;
     slope_deviation = (teplota() - temp_last) - ramp;          // vypocet strmosti a odchylky od pozadovane strmosti
     if(slope_deviation < 0)
+    {
       top_heat_power= slope_deviation*(-10) + balance;
       bottom_heat_power= slope_deviation*(-10);
+    }
     else{
       top_heat_power=0;
       bottom_heat_power=0;
+    }
     temp_last = teplota();
+    }
     void level_control(float level) // P proporcionalni rizeni teploty
+    {
     teplota();
+    }
     void nullcas(struct time* time)
+    {
        disable_interrupts(INT_TIMER2);
-...
        enable_interrupts(INT_TIMER2);
+    }
     // start
     void main()
     void reflow_solder()
+    {
        int8 tmp;
     // preheat
       nullcas(&cas);
       do {
         slope_control(PREHEAT_SLOPE, 0); // hlida strmost predehrevu
         lcd_gotoxy(1,1);
         printf(lcd_putc,"%3.1f\21C  ",teplota());
         lcd_gotoxy(9,1);
         printf(lcd_putc,"%2u:%02u:%02u",cas.hod,cas.min,cas.sec);
         delay_ms(1000);
+      }
       while (teplota() < SOAK_TEMP);
     // soak
       nullcas(&cas);
       while (cas.min*60+cas.sec <= SOAK_TIME)
+      {
         level_control(SOAK_TEMP);
         lcd_gotoxy(1,1);
         printf(lcd_putc,"%3.1f\21C  ",teplota());
         lcd_gotoxy(9,1);
         printf(lcd_putc,"%2u:%02u:%02u",cas.hod, SOAK_TIME/60 - cas.min, SOAK_TIME - cas.min*60 - cas.sec);
         delay_ms(1000);
+      }
     // solder
+    }
     void main() // main loop
+    {
        GeneralCpuInit();
        PowerOff();
-...
        while(true)
+       {
           delay_ms(300);
           if (cas.sec != tmp){
              tmp=cas.sec;
              lcd_gotoxy(9,1);
              printf(lcd_putc,"%2u:%02u:%02u",cas.hod,cas.min,cas.sec);
+          }
           lcd_gotoxy(1,2);
           printf(lcd_putc,"teplota: %3.1f\21C  ",teplota());
           reflow_solder();
+       }
+    }