See the original mikroBasic code and check if month_, day, year holds raw BCD data from RTC or transformed data. I will also check it.
day and month data from RTC are converted to decimal and sent to the function. Also y always will be 2010. Is it correct or do you want to send year data from RTC ?
Code - [expand] program prayer_time ' Lcd module connections dim LCD_RS as sbit at LATD0_bit LCD_EN as sbit at LATD1_bit LCD_D4 as sbit at LATD4_bit LCD_D5 as sbit at LATD5_bit LCD_D6 as sbit at LATD6_bit LCD_D7 as sbit at LATD7_bit LCD_RS_Direction as sbit at TRISD0_bit LCD_EN_Direction as sbit at TRISD1_bit LCD_D4_Direction as sbit at TRISD4_bit LCD_D5_Direction as sbit at TRISD5_bit LCD_D6_Direction as sbit at TRISD6_bit LCD_D7_Direction as sbit at TRISD7_bit ' End Lcd module connections '//////////////////////////////////////////////////////////////////////////////////////// ' RTC Definitions hours, minutes, seconds, day, week, month, year as byte ' Global date/time variables oldstate as byte ' RTC Definitions const RTC_ADDR = 0xD0 ' Configure user buttons 'TRISA0_bit = 1 ' Set RA0 pin as input. '{************************************************************************************************** '* DS1307 Functions '**************************************************************************************************} '{************************************************************************************************** '* Read data from RTC DS1307 '* input : addres of RTC register '* output: value of of RTC register '**************************************************************************************************} sub function RTC_Read(dim addr as byte) as byte dim value as byte I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307, see DS1307 datasheet I2C1_Wr(addr) ' Start from address 2 I2C1_Start() ' Issue repeated start signal I2C1_Wr(RTC_ADDR) ' Address DS1307 for reading R/W=1 value = I2C1_Rd(0) ' Read seconds byte I2C1_Stop() ' Issue stop signal result = value end sub '{************************************************************************************************** '* Write data from DS1307 '* input : addres of RTC register, value of of RTC register '**************************************************************************************************} sub procedure RTC_Write(dim addr as byte, dim value as byte) I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307 I2C1_Wr(addr) ' Start from address I2C1_Wr(value) ' Write value to RTC register I2C1_Stop() ' Issue stop signal end sub '{************************************************************************************************** '* Read time from RTC DS1307 '* input : pointer to variables where RTC data will be stored '* output: variables with RTC data '**************************************************************************************************} sub procedure Read_Time(dim p_hours as ^byte, dim p_minutes as ^byte, dim p_seconds as ^byte, dim p_day as ^byte, dim p_week as ^byte, dim p_month as ^byte, dim p_year as ^byte) I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307, see DS1307 datasheet I2C1_Wr(0) ' Start from address 0 I2C1_Repeated_Start() ' Issue repeated start signal I2C1_Wr(RTC_ADDR + 1) ' Address DS1307 for reading R/W=1 p_seconds^ = I2C1_Rd(1) ' Read seconds byte p_minutes^ = I2C1_Rd(1) ' Read minutes byte p_hours^ = I2C1_Rd(1) ' Read hours byte p_week^ = I2C1_Rd(1) p_day^ = I2C1_Rd(1) p_month^ = I2C1_Rd(1) p_year^ = I2C1_Rd(0) I2C1_Stop() ' Issue stop signal end sub '{************************************************************************************************** '* Write time to RTC DS1307 '* input : variables with RTC data '**************************************************************************************************} sub procedure Write_Time(dim c_hours as byte, dim c_minutes as byte, dim c_seconds as byte, dim c_day as byte, dim c_week as byte, dim c_month as byte, dim c_year as byte) I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address (REG0) I2C1_Wr(0x80) ' write $80 to REG0. (pause counter + 0 sec) I2C1_Wr(c_minutes) ' write 0 to minutes word to (REG1) I2C1_Wr(c_hours) ' write 17 to hours word (24-hours mode)(REG2) I2C1_Wr(c_week) ' write 2 - Monday (REG3) I2C1_Wr(c_day) ' write 4 to date word (REG4) I2C1_Wr(c_month) ' write 5 (May) to month word (REG5) I2C1_Wr(c_year) ' write 01 to year word (REG6) I2C1_Stop() ' issue stop signal I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address 0 I2C1_Wr(0 or c_seconds) ' write 0 to REG0 (enable counting + 0 sec) I2C1_Stop() ' issue stop signal end sub '{************************************************************************************************** '* Show on the LCD display '* input : variables with RTC data '**************************************************************************************************} sub procedure Show_Time() dim txt as string[4] seconds = ((seconds and 0x70) >> 4)*10 + (seconds and 0x0F) minutes = ((minutes and 0xF0) >> 4)*10 + (minutes and 0x0F) hours = ((hours and 0x30) >> 4)*10 + (hours and 0x0F) week = (week and 0x07) day = ((day and 0xF0) >> 4)*10 + (day and 0x0F) month = ((month and 0x10) >> 4)*10 + (month and 0x0F) year = ((year and 0xF0) >> 4)*10+(year and 0x0F) select case week case 1 txt = "Sun" case 2 txt = "Mon" case 3 txt = "Tue" case 4 txt = "Wed" case 5 txt = "Thu" case 6 txt = "Fri" case 7 txt = "Sat" end select LCD_Out(1,1, txt) Lcd_Chr(1, 6, (day div 10) + 48) ' Print tens digit of day variable Lcd_Chr(1, 7, (day mod 10) + 48) ' Print oness digit of day variable Lcd_Chr(1, 9, (month div 10) + 48) Lcd_Chr(1,10, (month mod 10) + 48) Lcd_Chr(1,14, (year div 10) + 48) Lcd_Chr(1,15, (year mod 10) + 48) Lcd_Chr(2, 6, (hours div 10) + 48) Lcd_Chr(2, 7, (hours mod 10) + 48) Lcd_Chr(2, 9, (minutes div 10) + 48) Lcd_Chr(2,10, (minutes mod 10) + 48) Lcd_Chr(2,12, (seconds div 10) + 48) Lcd_Chr(2,13, (seconds mod 10) + 48) end sub '///////////////////////////////////////////////////////////////////// Dim y, L1 as longint Dim D_, L, ty, Lambda, Obliquity, Alpha, ST, Dec1, noon, utnoon, dhrtime, asrtime, asralt, durinalarc, marbtime, EshaArc, M, eshatime, fajrtime, shroq, ard, tol as float i, farq as byte day_, month_, dhr, dhr1, asr, asr1, fjr, fjr1, marb, marb1, esha, esha1 as byte Dim x, x1 as byte[48] Dim sec, minutes_, hr, week_day, dday, mn, year_ as short 'edited Dim str,str1,strzoherh,strzoherm,strasrh,strasrm,strmagrebh,strmagrebm,strfajrh,strfajrm as String[20] Dim ssec, sminutes, shr, sweek_day, sdday, smn, syear as String[20] sub procedure awqat() ard = 34.54 tol = 31.522 farq = 2 D_ = ((367 * y) - (floor((1.75) * (y + floor((month_ + 9) / 12)))) + floor(275 * (month_ / 9)) + day - 730531.5) L = 280.461+0.9856474 * D_ L1 = L L = L - L1 L1 = L1 mod 360 L = L1 + L M = 357.528 + 0.9856003 * D_ L1 = M M = M - L1 L1 = L1 mod 360 M = L1 + M Obliquity = 23.439 - 0.0000004 * D_ Lambda = L + 1.915 * sin(M * PI / 180) + 0.02 * sin(2 * M * PI / 180) L1 = Lambda Lambda = Lambda - L1 L1 = L1 mod 360 Lambda = L1 + Lambda Alpha = atan(cos(Obliquity * PI / 180) * tan(Lambda * PI / 180)) * 180/PI Alpha = Alpha - (360 * floor(Alpha / 360)) Alpha = Alpha + 90 * (floor(Lambda / 90) - floor(Alpha / 90)) ST = 100.46 + 0.985647352 * D_ L1 = ST ST = ST - L1 L1 = L1 mod 360 ST = L1 + ST Dec1 = asin(sin(Obliquity * PI / 180) * sin(Lambda * PI / 180)) * 180 / PI noon = Alpha - ST if noon >= 0 then noon = fabs(noon) L1 = fabs(noon) noon = noon - L1 L1 = L1 mod 360 noon = noon + L1 else noon = fabs(noon) L1 = fabs(noon) noon = noon - L1 L1 = L1 mod 360 noon = noon + L1 noon = 360 - noon end if utnoon = noon - tol dhrtime = (utnoon/15)+farq dhr1 = dhrtime dhrtime = dhrtime - dhr1 dhr = floor(dhrtime * 60) dhrtime = (utnoon / 15) + 3 asralt = atan(1 + tan((ard - Dec1) * PI / 180)) * 180 / PI asrtime = acos((sin((90 - asralt) * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * COS(ard * PI / 180))) * 180 / PI asrtime = (asrtime / 15) + dhrtime asr1 = asrtime asrtime = asrtime - asr1 asr=floor(asrtime * 60) durinalarc = acos((sin( - 0.8333 * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * cos(ard * PI / 180))) * 180 / PI shroq = dhrtime - durinalarc / 15 marbtime = dhrtime + durinalarc / 15 marb1 = marbtime marbtime = marbtime - marb1 marb = floor(marbtime * 60) EshaArc = acos((sin(-18 * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * cos(ard * PI / 180))) * 180 / PI eshatime = dhrtime + EshaArc / 15 esha1 = eshatime eshatime = eshatime - esha1 esha = floor(eshatime * 60) fajrtime = dhrtime - EshaArc / 15 fjr1 = fajrtime fajrtime = fajrtime - fjr1 fjr = floor(fajrtime * 60) 'dhr = Dec2Bcd(dhr) 'dhr1 = Dec2Bcd(dhr1) 'fjr = Dec2Bcd(fjr) 'fjr1 = Dec2Bcd(fjr1) if asr1 > 12 then asr1 = asr1 - 12 end if if marb1 > 12 then marb1 = marb1 - 12 end if if esha1 > 12 then esha1 = esha1 - 12 end if ' 'asr = Dec2Bcd(asr) 'asr1 = Dec2Bcd(asr1) 'marb = Dec2Bcd(marb) 'marb1= Dec2Bcd(marb1) 'esha = Dec2Bcd(esha) 'esha1 = Dec2Bcd(esha1) end sub sub procedure Read_Time_(Dim byref sec, minutes, hr, week_day, dday, mn, year as short) I2C1_Start() I2C1_Wr(0xD0) I2C1_Wr(0) I2C1_Repeated_Start() I2C1_Wr(0xD1) sec = I2C1_Rd(1) minutes = I2C1_Rd(1) hr = I2C1_Rd(1) week_day = I2C1_Rd(1) dday = I2C1_Rd(1) mn = I2C1_Rd(1) year = I2C1_Rd(0) I2C1_Stop() end sub sub procedure Write_Time_(Dim address as short, Dim data_wr as short) I2C1_Start() I2C1_Wr(0xD0) I2C1_Wr(address) I2C1_Wr(data_wr) I2C1_Stop() end sub sub procedure showpray() LCD_Out(1,1,"F") LCD_Out_cp(strfajrh) LCD_Out_cp(":") LCD_Out_cp(strfajrm) LCD_Out_cp(" Z") LCD_Out_cp(strzoherh) LCD_Out_cp(":") LCD_Out_cp(strzoherm) LCD_Out_cp(" A") LCD_Out_cp(strasrh) LCD_Out_cp(":") LCD_Out_cp(strasrm) LCD_Out(2,1," M ") LCD_Out_cp(strmagrebh) LCD_Out_cp(":") LCD_Out_cp(strmagrebm) LCD_Out_cp(" E ") LCD_Out_cp(str1) LCD_Out_cp(":") LCD_Out_cp(str) end sub main: TRISB = 0 PORTB = 0 TRISC.0 = 0 TRISC.1 = 0 TRISC.2 = 0 TRISA.0 = 0 TRISC.3 = 1 TRISC.4 = 1 TRISD = 0 PORTA = 0x00 PORTB = 0x00 PORTC = 0x00 PORTD = 0x00 PORTE = 0x00 LATA = 0x00 LATB = 0x00 LATC = 0x00 LATD = 0x00 LATE = 0x00 LCD_Init() LCD_Cmd(_LCD_CURSOR_OFF) LCD_Cmd(_LCD_CLEAR) LCD_Out(1,1,"Prayer Time") Delay_ms(2000) LCD_Cmd(_LCD_CLEAR) I2C1_Init(100000) while true Read_Time(hr,minutes,sec,dday, week_day, mn, year) 'day = Bcd2Dec(dday) 'month_= Bcd2Dec(mn) 'y = 2014 sec = ((sec and 0x70) >> 4)*10 + (sec and 0x0F) minutes = ((minutes and 0xF0) >> 4)*10 + (minutes and 0x0F) hr = ((hr and 0x30) >> 4)*10 + (hr and 0x0F) week_day = (week_day and 0x07) day = ((dday and 0xF0) >> 4)*10 + (dday and 0x0F) mn = ((mn and 0x10) >> 4)*10 + (mn and 0x0F) year = ((year and 0xF0) >> 4)*10+(year and 0x0F) month_ = mn y = 2000+ year awqat() for i = 0 to 47 x[i] = 0 x1[i] = 0 next i memset(@x, 0, sizeof(x)) memset(@x1, 0, sizeof(x1)) for i = 0 to 7 x[i] = dhr.i x1[i] = esha.i next i for i = 0 to 7 x[i+8] = dhr1.i x1[i+8] = esha1.i next i for i = 0 to 7 x[i+16] = fjr.i x1[i+16] = marb.i next i for i = 0 to 7 x[i+24] = fjr1.i x1[i+24] = marb1.i next i for i = 0 to 7 x[i+32] = minutes.i x1[i+32] = asr.i next i for i = 0 to 7 x[i+40] = hr.i x1[i+40] = asr1.i next i for i = 0 to 47 PORTB.0 = x[i] PORTC.0 = x1[i] PORTB.1 = 0 PORTC.1 = 0 Delay_us(20) PORTB.1 = 1 PORTC.1 = 1 next i PORTA.0 = 1 Delay_ms(300) PORTB.2 = 0 PORTC.2 = 0 Delay_us(20) PORTB.2 = 1 PORTC.2 = 1 PORTA.0 = 0 Delay_ms(300) 'LCD_Out(1,1,"Esha") IntToStr(esha, str) IntToStr(esha1, str1) IntToStr(dhr1, strzoherh) IntToStr(dhrtime, strzoherm) IntToStr(asr1, strasrh) IntToStr(asrtime, strasrm) IntToStr(marb1, strmagrebh) IntToStr(marb, strmagrebm) IntToStr(fjr1, strfajrh) IntToStr(fajrtime, strfajrm) Ltrim(str) Ltrim(str1) Ltrim(strmagrebh) Ltrim(strmagrebm) Ltrim(strasrh) Ltrim(strasrm) Ltrim(strzoherh) Ltrim(strzoherm) Ltrim(strfajrh) Ltrim(strfajrm) '/////////////////////////////////////////////////////////// Lcd_Cmd(_LCD_CLEAR) ' Prepare and output static text on LCD LCD_Chr(1,8,".") LCD_Chr(1,11,".") LCD_Out(2,1,"Time:") LCD_Chr(2,8,":") LCD_Chr(2,11,":") LCD_Out(1,12,"201") ' Start the test examples while(TRUE) ' Endless loop ' if (Button(PORTA, 0, 1, 0)) then ' Detect logical one ' oldstate = 1 ' Update flag ' end if ' if (oldstate and Button(PORTA, 0, 1, 1)) then ' Detect one-to-zero transition ' Write TIME 11 : 15 : 00 : 24. tuesday april 2012 Write_Time(0x11, 0x15, 0x00, 0x24, 0x03, 0x04, 0x12) oldstate = 0 ' Update flag ' end if Read_Time(@hours, @minutes, @seconds, @day, @week, @month, @year) Show_Time() Delay_mS(1000) '//////////////////////////////////////////////////////////// showpray() Delay_mS(5000) wend wend end.
Try this code.
Code - [expand] program prayer_time ' Lcd module connections dim LCD_RS as sbit at LATD0_bit LCD_EN as sbit at LATD1_bit LCD_D4 as sbit at LATD4_bit LCD_D5 as sbit at LATD5_bit LCD_D6 as sbit at LATD6_bit LCD_D7 as sbit at LATD7_bit LCD_RS_Direction as sbit at TRISD0_bit LCD_EN_Direction as sbit at TRISD1_bit LCD_D4_Direction as sbit at TRISD4_bit LCD_D5_Direction as sbit at TRISD5_bit LCD_D6_Direction as sbit at TRISD6_bit LCD_D7_Direction as sbit at TRISD7_bit ' End Lcd module connections '//////////////////////////////////////////////////////////////////////////////////////// ' RTC Definitions hours, minutes, seconds, day, week, month, year as byte ' Global date/time variables oldstate as byte ' RTC Definitions const RTC_ADDR = 0xD0 ' Configure user buttons 'TRISA0_bit = 1 ' Set RA0 pin as input. '{************************************************************************************************** '* DS1307 Functions '**************************************************************************************************} '{************************************************************************************************** '* Read data from RTC DS1307 '* input : addres of RTC register '* output: value of of RTC register '**************************************************************************************************} sub function RTC_Read(dim addr as byte) as byte dim value as byte I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307, see DS1307 datasheet I2C1_Wr(addr) ' Start from address 2 I2C1_Start() ' Issue repeated start signal I2C1_Wr(RTC_ADDR) ' Address DS1307 for reading R/W=1 value = I2C1_Rd(0) ' Read seconds byte I2C1_Stop() ' Issue stop signal result = value end sub '{************************************************************************************************** '* Write data from DS1307 '* input : addres of RTC register, value of of RTC register '**************************************************************************************************} sub procedure RTC_Write(dim addr as byte, dim value as byte) I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307 I2C1_Wr(addr) ' Start from address I2C1_Wr(value) ' Write value to RTC register I2C1_Stop() ' Issue stop signal end sub '{************************************************************************************************** '* Read time from RTC DS1307 '* input : pointer to variables where RTC data will be stored '* output: variables with RTC data '**************************************************************************************************} sub procedure Read_Time(dim p_hours as ^byte, dim p_minutes as ^byte, dim p_seconds as ^byte, dim p_day as ^byte, dim p_week as ^byte, dim p_month as ^byte, dim p_year as ^byte) I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307, see DS1307 datasheet I2C1_Wr(0) ' Start from address 0 I2C1_Repeated_Start() ' Issue repeated start signal I2C1_Wr(RTC_ADDR + 1) ' Address DS1307 for reading R/W=1 p_seconds^ = I2C1_Rd(1) ' Read seconds byte p_minutes^ = I2C1_Rd(1) ' Read minutes byte p_hours^ = I2C1_Rd(1) ' Read hours byte p_week^ = I2C1_Rd(1) p_day^ = I2C1_Rd(1) p_month^ = I2C1_Rd(1) p_year^ = I2C1_Rd(0) I2C1_Stop() ' Issue stop signal end sub '{************************************************************************************************** '* Write time to RTC DS1307 '* input : variables with RTC data '**************************************************************************************************} sub procedure Write_Time(dim c_hours as byte, dim c_minutes as byte, dim c_seconds as byte, dim c_day as byte, dim c_week as byte, dim c_month as byte, dim c_year as byte) I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address (REG0) I2C1_Wr(0x80) ' write $80 to REG0. (pause counter + 0 sec) I2C1_Wr(c_minutes) ' write 0 to minutes word to (REG1) I2C1_Wr(c_hours) ' write 17 to hours word (24-hours mode)(REG2) I2C1_Wr(c_week) ' write 2 - Monday (REG3) I2C1_Wr(c_day) ' write 4 to date word (REG4) I2C1_Wr(c_month) ' write 5 (May) to month word (REG5) I2C1_Wr(c_year) ' write 01 to year word (REG6) I2C1_Stop() ' issue stop signal I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address 0 I2C1_Wr(0 or c_seconds) ' write 0 to REG0 (enable counting + 0 sec) I2C1_Stop() ' issue stop signal end sub '{************************************************************************************************** '* Show on the LCD display '* input : variables with RTC data '**************************************************************************************************} sub procedure Show_Time() dim txt as string[4] seconds = ((seconds and 0x70) >> 4)*10 + (seconds and 0x0F) minutes = ((minutes and 0xF0) >> 4)*10 + (minutes and 0x0F) hours = ((hours and 0x30) >> 4)*10 + (hours and 0x0F) week = (week and 0x07) day = ((day and 0xF0) >> 4)*10 + (day and 0x0F) month = ((month and 0x10) >> 4)*10 + (month and 0x0F) year = ((year and 0xF0) >> 4)*10+(year and 0x0F) select case week case 1 txt = "Sun" case 2 txt = "Mon" case 3 txt = "Tue" case 4 txt = "Wed" case 5 txt = "Thu" case 6 txt = "Fri" case 7 txt = "Sat" end select LCD_Out(1,1, txt) Lcd_Chr(1, 6, (day div 10) + 48) ' Print tens digit of day variable Lcd_Chr(1, 7, (day mod 10) + 48) ' Print oness digit of day variable Lcd_Chr(1, 9, (month div 10) + 48) Lcd_Chr(1,10, (month mod 10) + 48) Lcd_Chr(1,14, (year div 10) + 48) Lcd_Chr(1,15, (year mod 10) + 48) Lcd_Chr(2, 6, (hours div 10) + 48) Lcd_Chr(2, 7, (hours mod 10) + 48) Lcd_Chr(2, 9, (minutes div 10) + 48) Lcd_Chr(2,10, (minutes mod 10) + 48) Lcd_Chr(2,12, (seconds div 10) + 48) Lcd_Chr(2,13, (seconds mod 10) + 48) end sub '///////////////////////////////////////////////////////////////////// Dim y, L1 as longint Dim D_, L, ty, Lambda, Obliquity, Alpha, ST, Dec1, noon, utnoon, dhrtime, asrtime, asralt, durinalarc, marbtime, EshaArc, M, eshatime, fajrtime, shroq, ard, tol as float i, farq as byte day_, month_, dhr, dhr1, asr, asr1, fjr, fjr1, marb, marb1, esha, esha1 as byte Dim x, x1 as byte[48] Dim sec, minutes_, hr, week_day, dday, mn, year_ as short 'edited Dim str,str1,strzoherh,strzoherm,strasrh,strasrm,strmagrebh,strmagrebm,strfajrh,strfajrm as String[20] Dim ssec, sminutes, shr, sweek_day, sdday, smn, syear as String[20] sub procedure awqat() ard = 34.54 tol = 31.522 farq = 2 D_ = ((367 * y) - (floor((1.75) * (y + floor((month_ + 9) / 12)))) + floor(275 * (month_ / 9)) + day - 730531.5) L = 280.461+0.9856474 * D_ L1 = L L = L - L1 L1 = L1 mod 360 L = L1 + L M = 357.528 + 0.9856003 * D_ L1 = M M = M - L1 L1 = L1 mod 360 M = L1 + M Obliquity = 23.439 - 0.0000004 * D_ Lambda = L + 1.915 * sin(M * PI / 180) + 0.02 * sin(2 * M * PI / 180) L1 = Lambda Lambda = Lambda - L1 L1 = L1 mod 360 Lambda = L1 + Lambda Alpha = atan(cos(Obliquity * PI / 180) * tan(Lambda * PI / 180)) * 180/PI Alpha = Alpha - (360 * floor(Alpha / 360)) Alpha = Alpha + 90 * (floor(Lambda / 90) - floor(Alpha / 90)) ST = 100.46 + 0.985647352 * D_ L1 = ST ST = ST - L1 L1 = L1 mod 360 ST = L1 + ST Dec1 = asin(sin(Obliquity * PI / 180) * sin(Lambda * PI / 180)) * 180 / PI noon = Alpha - ST if noon >= 0 then noon = fabs(noon) L1 = fabs(noon) noon = noon - L1 L1 = L1 mod 360 noon = noon + L1 else noon = fabs(noon) L1 = fabs(noon) noon = noon - L1 L1 = L1 mod 360 noon = noon + L1 noon = 360 - noon end if utnoon = noon - tol dhrtime = (utnoon/15)+farq dhr1 = dhrtime dhrtime = dhrtime - dhr1 dhr = floor(dhrtime * 60) dhrtime = (utnoon / 15) + 3 asralt = atan(1 + tan((ard - Dec1) * PI / 180)) * 180 / PI asrtime = acos((sin((90 - asralt) * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * COS(ard * PI / 180))) * 180 / PI asrtime = (asrtime / 15) + dhrtime asr1 = asrtime asrtime = asrtime - asr1 asr=floor(asrtime * 60) durinalarc = acos((sin( - 0.8333 * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * cos(ard * PI / 180))) * 180 / PI shroq = dhrtime - durinalarc / 15 marbtime = dhrtime + durinalarc / 15 marb1 = marbtime marbtime = marbtime - marb1 marb = floor(marbtime * 60) EshaArc = acos((sin(-18 * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * cos(ard * PI / 180))) * 180 / PI eshatime = dhrtime + EshaArc / 15 esha1 = eshatime eshatime = eshatime - esha1 esha = floor(eshatime * 60) fajrtime = dhrtime - EshaArc / 15 fjr1 = fajrtime fajrtime = fajrtime - fjr1 fjr = floor(fajrtime * 60) 'dhr = Dec2Bcd(dhr) 'dhr1 = Dec2Bcd(dhr1) 'fjr = Dec2Bcd(fjr) 'fjr1 = Dec2Bcd(fjr1) if asr1 > 12 then asr1 = asr1 - 12 end if if marb1 > 12 then marb1 = marb1 - 12 end if if esha1 > 12 then esha1 = esha1 - 12 end if ' 'asr = Dec2Bcd(asr) 'asr1 = Dec2Bcd(asr1) 'marb = Dec2Bcd(marb) 'marb1= Dec2Bcd(marb1) 'esha = Dec2Bcd(esha) 'esha1 = Dec2Bcd(esha1) end sub sub procedure Read_Time_(Dim byref sec, minutes, hr, week_day, dday, mn, year as short) I2C1_Start() I2C1_Wr(0xD0) I2C1_Wr(0) I2C1_Repeated_Start() I2C1_Wr(0xD1) sec = I2C1_Rd(1) minutes = I2C1_Rd(1) hr = I2C1_Rd(1) week_day = I2C1_Rd(1) dday = I2C1_Rd(1) mn = I2C1_Rd(1) year = I2C1_Rd(0) I2C1_Stop() end sub sub procedure Write_Time_(Dim address as short, Dim data_wr as short) I2C1_Start() I2C1_Wr(0xD0) I2C1_Wr(address) I2C1_Wr(data_wr) I2C1_Stop() end sub sub procedure showpray() LCD_Out(1,1,"F") LCD_Out_cp(strfajrh) LCD_Out_cp(":") LCD_Out_cp(strfajrm) LCD_Out_cp(" Z") LCD_Out_cp(strzoherh) LCD_Out_cp(":") LCD_Out_cp(strzoherm) LCD_Out_cp(" A") LCD_Out_cp(strasrh) LCD_Out_cp(":") LCD_Out_cp(strasrm) LCD_Out(2,1," M ") LCD_Out_cp(strmagrebh) LCD_Out_cp(":") LCD_Out_cp(strmagrebm) LCD_Out_cp(" E ") LCD_Out_cp(str1) LCD_Out_cp(":") LCD_Out_cp(str) end sub main: TRISB = 0 PORTB = 0 TRISC.0 = 0 TRISC.1 = 0 TRISC.2 = 0 TRISA.0 = 0 TRISC.3 = 1 TRISC.4 = 1 TRISD = 0 PORTA = 0x00 PORTB = 0x00 PORTC = 0x00 PORTD = 0x00 PORTE = 0x00 LATA = 0x00 LATB = 0x00 LATC = 0x00 LATD = 0x00 LATE = 0x00 LCD_Init() LCD_Cmd(_LCD_CURSOR_OFF) LCD_Cmd(_LCD_CLEAR) LCD_Out(1,1,"Prayer Time") Delay_ms(2000) LCD_Cmd(_LCD_CLEAR) I2C1_Init(100000) while true Read_Time(hr,minutes,sec,dday, week_day, mn, year) 'day = Bcd2Dec(dday) 'month_= Bcd2Dec(mn) 'y = 2014 sec = ((sec and 0x70) >> 4)*10 + (sec and 0x0F) minutes = ((minutes and 0xF0) >> 4)*10 + (minutes and 0x0F) hr = ((hr and 0x30) >> 4)*10 + (hr and 0x0F) week_day = (week_day and 0x07) day = ((dday and 0xF0) >> 4)*10 + (dday and 0x0F) mn = ((mn and 0x10) >> 4)*10 + (mn and 0x0F) year = ((year and 0xF0) >> 4)*10+(year and 0x0F) month_ = mn y = 2000+ year awqat() for i = 0 to 47 x[i] = 0 x1[i] = 0 next i memset(@x, 0, sizeof(x)) memset(@x1, 0, sizeof(x1)) for i = 0 to 7 x[i] = dhr.i x1[i] = esha.i next i for i = 0 to 7 x[i+8] = dhr1.i x1[i+8] = esha1.i next i for i = 0 to 7 x[i+16] = fjr.i x1[i+16] = marb.i next i for i = 0 to 7 x[i+24] = fjr1.i x1[i+24] = marb1.i next i for i = 0 to 7 x[i+32] = minutes.i x1[i+32] = asr.i next i for i = 0 to 7 x[i+40] = hr.i x1[i+40] = asr1.i next i for i = 0 to 47 PORTB.0 = x[i] PORTC.0 = x1[i] PORTB.1 = 0 PORTC.1 = 0 Delay_us(20) PORTB.1 = 1 PORTC.1 = 1 next i PORTA.0 = 1 Delay_ms(300) PORTB.2 = 0 PORTC.2 = 0 Delay_us(20) PORTB.2 = 1 PORTC.2 = 1 PORTA.0 = 0 Delay_ms(300) 'LCD_Out(1,1,"Esha") IntToStr(esha, str) IntToStr(esha1, str1) IntToStr(dhr1, strzoherh) IntToStr(dhrtime, strzoherm) IntToStr(asr1, strasrh) IntToStr(asrtime, strasrm) IntToStr(marb1, strmagrebh) IntToStr(marb, strmagrebm) IntToStr(fjr1, strfajrh) IntToStr(fajrtime, strfajrm) Ltrim(str) Ltrim(str1) Ltrim(strmagrebh) Ltrim(strmagrebm) Ltrim(strasrh) Ltrim(strasrm) Ltrim(strzoherh) Ltrim(strzoherm) Ltrim(strfajrh) Ltrim(strfajrm) '/////////////////////////////////////////////////////////// Lcd_Cmd(_LCD_CLEAR) ' Prepare and output static text on LCD LCD_Chr(1,8,".") LCD_Chr(1,11,".") LCD_Out(2,1,"Time:") LCD_Chr(2,8,":") LCD_Chr(2,11,":") LCD_Out(1,12,"201") ' Start the test examples while(TRUE) ' Endless loop ' if (Button(PORTA, 0, 1, 0)) then ' Detect logical one ' oldstate = 1 ' Update flag ' end if ' if (oldstate and Button(PORTA, 0, 1, 1)) then ' Detect one-to-zero transition ' Write TIME 11 : 15 : 00 : 24. tuesday april 2012 Write_Time(0x11, 0x15, 0x00, 0x24, 0x03, 0x04, 0x12) oldstate = 0 ' Update flag ' end if Read_Time(@hours, @minutes, @seconds, @day, @week, @month, @year) Show_Time() Delay_mS(1000) '//////////////////////////////////////////////////////////// showpray() Delay_mS(5000) wend wend end.
Code - [expand] program prayer_time ' Lcd module connections dim LCD_RS as sbit at LATD0_bit LCD_EN as sbit at LATD1_bit LCD_D4 as sbit at LATD4_bit LCD_D5 as sbit at LATD5_bit LCD_D6 as sbit at LATD6_bit LCD_D7 as sbit at LATD7_bit LCD_RS_Direction as sbit at TRISD0_bit LCD_EN_Direction as sbit at TRISD1_bit LCD_D4_Direction as sbit at TRISD4_bit LCD_D5_Direction as sbit at TRISD5_bit LCD_D6_Direction as sbit at TRISD6_bit LCD_D7_Direction as sbit at TRISD7_bit ' End Lcd module connections '//////////////////////////////////////////////////////////////////////////////////////// ' RTC Definitions hours, minutes, seconds, day, week_day, month, year as byte ' Global date/time variables oldstate as byte ' RTC Definitions const RTC_ADDR = 0xD0 ' Configure user buttons 'TRISA0_bit = 1 ' Set RA0 pin as input. '{************************************************************************************************** '* DS1307 Functions '**************************************************************************************************} '{************************************************************************************************** '* Read data from RTC DS1307 '* input : addres of RTC register '* output: value of of RTC register '**************************************************************************************************} sub function RTC_Read(dim addr as byte) as byte dim value as byte I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307, see DS1307 datasheet I2C1_Wr(addr) ' Start from address 2 I2C1_Start() ' Issue repeated start signal I2C1_Wr(RTC_ADDR) ' Address DS1307 for reading R/W=1 value = I2C1_Rd(0) ' Read seconds byte I2C1_Stop() ' Issue stop signal result = value end sub '{************************************************************************************************** '* Write data from DS1307 '* input : addres of RTC register, value of of RTC register '**************************************************************************************************} sub procedure RTC_Write(dim addr as byte, dim value as byte) I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307 I2C1_Wr(addr) ' Start from address I2C1_Wr(value) ' Write value to RTC register I2C1_Stop() ' Issue stop signal end sub '{************************************************************************************************** '* Read time from RTC DS1307 '* input : pointer to variables where RTC data will be stored '* output: variables with RTC data '**************************************************************************************************} sub procedure Read_Time(dim p_hours as ^byte, dim p_minutes as ^byte, dim p_seconds as ^byte, dim p_day as ^byte, dim p_week as ^byte, dim p_month as ^byte, dim p_year as ^byte) I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307, see DS1307 datasheet I2C1_Wr(0) ' Start from address 0 I2C1_Repeated_Start() ' Issue repeated start signal I2C1_Wr(RTC_ADDR + 1) ' Address DS1307 for reading R/W=1 p_seconds^ = I2C1_Rd(1) ' Read seconds byte p_minutes^ = I2C1_Rd(1) ' Read minutes byte p_hours^ = I2C1_Rd(1) ' Read hours byte p_week^ = I2C1_Rd(1) p_day^ = I2C1_Rd(1) p_month^ = I2C1_Rd(1) p_year^ = I2C1_Rd(0) I2C1_Stop() ' Issue stop signal end sub '{************************************************************************************************** '* Write time to RTC DS1307 '* input : variables with RTC data '**************************************************************************************************} sub procedure Write_Time(dim c_hours as byte, dim c_minutes as byte, dim c_seconds as byte, dim c_day as byte, dim c_week as byte, dim c_month as byte, dim c_year as byte) I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address (REG0) I2C1_Wr(0x80) ' write $80 to REG0. (pause counter + 0 sec) I2C1_Wr(c_minutes) ' write 0 to minutes word to (REG1) I2C1_Wr(c_hours) ' write 17 to hours word (24-hours mode)(REG2) I2C1_Wr(c_week) ' write 2 - Monday (REG3) I2C1_Wr(c_day) ' write 4 to date word (REG4) I2C1_Wr(c_month) ' write 5 (May) to month word (REG5) I2C1_Wr(c_year) ' write 01 to year word (REG6) I2C1_Stop() ' issue stop signal I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address 0 I2C1_Wr(0 or c_seconds) ' write 0 to REG0 (enable counting + 0 sec) I2C1_Stop() ' issue stop signal end sub '{************************************************************************************************** '* Show on the LCD display '* input : variables with RTC data '**************************************************************************************************} sub procedure Show_Time() dim txt as string[4] select case week_day case 1 txt = "Sun" case 2 txt = "Mon" case 3 txt = "Tue" case 4 txt = "Wed" case 5 txt = "Thu" case 6 txt = "Fri" case 7 txt = "Sat" end select LCD_Out(1,1, txt) Lcd_Chr(1, 6, (day div 10) + 48) ' Print tens digit of day variable Lcd_Chr(1, 7, (day mod 10) + 48) ' Print oness digit of day variable Lcd_Chr(1, 9, (month div 10) + 48) Lcd_Chr(1,10, (month mod 10) + 48) Lcd_Chr(1,14, (year div 10) + 48) Lcd_Chr(1,15, (year mod 10) + 48) Lcd_Chr(2, 6, (hours div 10) + 48) Lcd_Chr(2, 7, (hours mod 10) + 48) Lcd_Chr(2, 9, (minutes div 10) + 48) Lcd_Chr(2,10, (minutes mod 10) + 48) Lcd_Chr(2,12, (seconds div 10) + 48) Lcd_Chr(2,13, (seconds mod 10) + 48) end sub '///////////////////////////////////////////////////////////////////// Dim y, L1 as longint Dim D_, L, ty, Lambda, Obliquity, Alpha, ST, Dec1, noon, utnoon, dhrtime, asrtime, asralt, durinalarc, marbtime, EshaArc, M, eshatime, fajrtime, shroq, ard, tol as float i, farq as byte day_, month_, dhr, dhr1, asr, asr1, fjr, fjr1, marb, marb1, esha, esha1 as byte Dim x, x1 as byte[48] Dim sec, minutes_, hr, dday, mn, year_ as short 'edited Dim str,str1,strzoherh,strzoherm,strasrh,strasrm,strmagrebh,strmagrebm,strfajrh,strfajrm as String[20] Dim ssec, sminutes, shr, sweek_day, sdday, smn, syear as String[20] sub procedure awqat() ard = 34.54 tol = 31.522 farq = 2 D_ = ((367 * y) - (floor((1.75) * (y + floor((month_ + 9) / 12)))) + floor(275 * (month_ / 9)) + day - 730531.5) L = 280.461+0.9856474 * D_ L1 = L L = L - L1 L1 = L1 mod 360 L = L1 + L M = 357.528 + 0.9856003 * D_ L1 = M M = M - L1 L1 = L1 mod 360 M = L1 + M Obliquity = 23.439 - 0.0000004 * D_ Lambda = L + 1.915 * sin(M * PI / 180) + 0.02 * sin(2 * M * PI / 180) L1 = Lambda Lambda = Lambda - L1 L1 = L1 mod 360 Lambda = L1 + Lambda Alpha = atan(cos(Obliquity * PI / 180) * tan(Lambda * PI / 180)) * 180/PI Alpha = Alpha - (360 * floor(Alpha / 360)) Alpha = Alpha + 90 * (floor(Lambda / 90) - floor(Alpha / 90)) ST = 100.46 + 0.985647352 * D_ L1 = ST ST = ST - L1 L1 = L1 mod 360 ST = L1 + ST Dec1 = asin(sin(Obliquity * PI / 180) * sin(Lambda * PI / 180)) * 180 / PI noon = Alpha - ST if noon >= 0 then noon = fabs(noon) L1 = fabs(noon) noon = noon - L1 L1 = L1 mod 360 noon = noon + L1 else noon = fabs(noon) L1 = fabs(noon) noon = noon - L1 L1 = L1 mod 360 noon = noon + L1 noon = 360 - noon end if utnoon = noon - tol dhrtime = (utnoon/15)+farq dhr1 = dhrtime dhrtime = dhrtime - dhr1 dhr = floor(dhrtime * 60) dhrtime = (utnoon / 15) + 3 asralt = atan(1 + tan((ard - Dec1) * PI / 180)) * 180 / PI asrtime = acos((sin((90 - asralt) * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * COS(ard * PI / 180))) * 180 / PI asrtime = (asrtime / 15) + dhrtime asr1 = asrtime asrtime = asrtime - asr1 asr=floor(asrtime * 60) durinalarc = acos((sin( - 0.8333 * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * cos(ard * PI / 180))) * 180 / PI shroq = dhrtime - durinalarc / 15 marbtime = dhrtime + durinalarc / 15 marb1 = marbtime marbtime = marbtime - marb1 marb = floor(marbtime * 60) EshaArc = acos((sin(-18 * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * cos(ard * PI / 180))) * 180 / PI eshatime = dhrtime + EshaArc / 15 esha1 = eshatime eshatime = eshatime - esha1 esha = floor(eshatime * 60) fajrtime = dhrtime - EshaArc / 15 fjr1 = fajrtime fajrtime = fajrtime - fjr1 fjr = floor(fajrtime * 60) 'dhr = Dec2Bcd(dhr) 'dhr1 = Dec2Bcd(dhr1) 'fjr = Dec2Bcd(fjr) 'fjr1 = Dec2Bcd(fjr1) if asr1 > 12 then asr1 = asr1 - 12 end if if marb1 > 12 then marb1 = marb1 - 12 end if if esha1 > 12 then esha1 = esha1 - 12 end if ' 'asr = Dec2Bcd(asr) 'asr1 = Dec2Bcd(asr1) 'marb = Dec2Bcd(marb) 'marb1= Dec2Bcd(marb1) 'esha = Dec2Bcd(esha) 'esha1 = Dec2Bcd(esha1) end sub sub procedure Read_Time_(Dim byref seconds, minutes, hours, week_day, day, month, year as short) I2C1_Start() I2C1_Wr(0xD0) I2C1_Wr(0) I2C1_Repeated_Start() I2C1_Wr(0xD1) seconds = I2C1_Rd(1) minutes = I2C1_Rd(1) hours = I2C1_Rd(1) week_day = I2C1_Rd(1) day = I2C1_Rd(1) month = I2C1_Rd(1) year = I2C1_Rd(0) I2C1_Stop() end sub sub procedure Write_Time_(Dim address as short, Dim data_wr as short) I2C1_Start() I2C1_Wr(0xD0) I2C1_Wr(address) I2C1_Wr(data_wr) I2C1_Stop() end sub sub procedure showpray() LCD_Out(1,1,"F") LCD_Out_cp(strfajrh) LCD_Out_cp(":") LCD_Out_cp(strfajrm) LCD_Out_cp(" Z") LCD_Out_cp(strzoherh) LCD_Out_cp(":") LCD_Out_cp(strzoherm) LCD_Out_cp(" A") LCD_Out_cp(strasrh) LCD_Out_cp(":") LCD_Out_cp(strasrm) LCD_Out(2,1," M ") LCD_Out_cp(strmagrebh) LCD_Out_cp(":") LCD_Out_cp(strmagrebm) LCD_Out_cp(" E ") LCD_Out_cp(str1) LCD_Out_cp(":") LCD_Out_cp(str) end sub main: TRISB = 0 PORTB = 0 TRISC.0 = 0 TRISC.1 = 0 TRISC.2 = 0 TRISA.0 = 0 TRISC.3 = 1 TRISC.4 = 1 TRISD = 0 PORTA = 0x00 PORTB = 0x00 PORTC = 0x00 PORTD = 0x00 PORTE = 0x00 LATA = 0x00 LATB = 0x00 LATC = 0x00 LATD = 0x00 LATE = 0x00 LCD_Init() LCD_Cmd(_LCD_CURSOR_OFF) LCD_Cmd(_LCD_CLEAR) LCD_Out(1,1,"Prayer Time") Delay_ms(2000) LCD_Cmd(_LCD_CLEAR) I2C1_Init(100000) while true Read_Time(seconds,minutes,hours,week_day,day,month,year) 'day = Bcd2Dec(dday) 'month_= Bcd2Dec(mn) 'y = 2014 seconds = ((seconds and 0x70) >> 4)*10 + (seconds and 0x0F) minutes = ((minutes and 0xF0) >> 4)*10 + (minutes and 0x0F) hours = ((hours and 0x30) >> 4)*10 + (hours and 0x0F) week_day = (week_day and 0x07) day = ((day and 0xF0) >> 4)*10 + (day and 0x0F) month = ((month and 0x10) >> 4)*10 + (month and 0x0F) year = ((year and 0xF0) >> 4)*10+(year and 0x0F) month_ = month y = 2000 + year awqat() for i = 0 to 47 x[i] = 0 x1[i] = 0 next i memset(@x, 0, sizeof(x)) memset(@x1, 0, sizeof(x1)) for i = 0 to 7 x[i] = dhr.i x1[i] = esha.i next i for i = 0 to 7 x[i+8] = dhr1.i x1[i+8] = esha1.i next i for i = 0 to 7 x[i+16] = fjr.i x1[i+16] = marb.i next i for i = 0 to 7 x[i+24] = fjr1.i x1[i+24] = marb1.i next i for i = 0 to 7 x[i+32] = minutes.i x1[i+32] = asr.i next i for i = 0 to 7 x[i+40] = hr.i x1[i+40] = asr1.i next i for i = 0 to 47 PORTB.0 = x[i] PORTC.0 = x1[i] PORTB.1 = 0 PORTC.1 = 0 Delay_us(20) PORTB.1 = 1 PORTC.1 = 1 next i PORTA.0 = 1 Delay_ms(300) PORTB.2 = 0 PORTC.2 = 0 Delay_us(20) PORTB.2 = 1 PORTC.2 = 1 PORTA.0 = 0 Delay_ms(300) 'LCD_Out(1,1,"Esha") IntToStr(esha, str) IntToStr(esha1, str1) IntToStr(dhr1, strzoherh) IntToStr(dhrtime, strzoherm) IntToStr(asr1, strasrh) IntToStr(asrtime, strasrm) IntToStr(marb1, strmagrebh) IntToStr(marb, strmagrebm) IntToStr(fjr1, strfajrh) IntToStr(fajrtime, strfajrm) Ltrim(str) Ltrim(str1) Ltrim(strmagrebh) Ltrim(strmagrebm) Ltrim(strasrh) Ltrim(strasrm) Ltrim(strzoherh) Ltrim(strzoherm) Ltrim(strfajrh) Ltrim(strfajrm) '/////////////////////////////////////////////////////////// Lcd_Cmd(_LCD_CLEAR) ' Prepare and output static text on LCD LCD_Chr(1,8,".") LCD_Chr(1,11,".") LCD_Out(2,1,"Time:") LCD_Chr(2,8,":") LCD_Chr(2,11,":") LCD_Out(1,12,"201") Show_Time() showpray() wend end.
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Code - [expand] program prayer_time ' Lcd module connections dim LCD_RS as sbit at LATD0_bit LCD_EN as sbit at LATD1_bit LCD_D4 as sbit at LATD4_bit LCD_D5 as sbit at LATD5_bit LCD_D6 as sbit at LATD6_bit LCD_D7 as sbit at LATD7_bit LCD_RS_Direction as sbit at TRISD0_bit LCD_EN_Direction as sbit at TRISD1_bit LCD_D4_Direction as sbit at TRISD4_bit LCD_D5_Direction as sbit at TRISD5_bit LCD_D6_Direction as sbit at TRISD6_bit LCD_D7_Direction as sbit at TRISD7_bit ' End Lcd module connections '//////////////////////////////////////////////////////////////////////////////////////// ' RTC Definitions hours, minutes, seconds, day, week_day, month, year as byte ' Global date/time variables oldstate as byte ' RTC Definitions const RTC_ADDR = 0xD0 ' Configure user buttons 'TRISA0_bit = 1 ' Set RA0 pin as input. '{************************************************************************************************** '* DS1307 Functions '**************************************************************************************************} '{************************************************************************************************** '* Read data from RTC DS1307 '* input : addres of RTC register '* output: value of of RTC register '**************************************************************************************************} sub function RTC_Read(dim addr as byte) as byte dim value as byte I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307, see DS1307 datasheet I2C1_Wr(addr) ' Start from address 2 I2C1_Start() ' Issue repeated start signal I2C1_Wr(RTC_ADDR) ' Address DS1307 for reading R/W=1 value = I2C1_Rd(0) ' Read seconds byte I2C1_Stop() ' Issue stop signal result = value end sub '{************************************************************************************************** '* Write data from DS1307 '* input : addres of RTC register, value of of RTC register '**************************************************************************************************} sub procedure RTC_Write(dim addr as byte, dim value as byte) I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307 I2C1_Wr(addr) ' Start from address I2C1_Wr(value) ' Write value to RTC register I2C1_Stop() ' Issue stop signal end sub '{************************************************************************************************** '* Read time from RTC DS1307 '* input : pointer to variables where RTC data will be stored '* output: variables with RTC data '**************************************************************************************************} sub procedure Read_Time(dim p_hours as ^byte, dim p_minutes as ^byte, dim p_seconds as ^byte, dim p_day as ^byte, dim p_week as ^byte, dim p_month as ^byte, dim p_year as ^byte) I2C1_Start() ' Issue start signal I2C1_Wr(RTC_ADDR) ' Address DS1307, see DS1307 datasheet I2C1_Wr(0) ' Start from address 0 I2C1_Repeated_Start() ' Issue repeated start signal I2C1_Wr(RTC_ADDR + 1) ' Address DS1307 for reading R/W=1 p_seconds^ = I2C1_Rd(1) ' Read seconds byte p_minutes^ = I2C1_Rd(1) ' Read minutes byte p_hours^ = I2C1_Rd(1) ' Read hours byte p_week^ = I2C1_Rd(1) p_day^ = I2C1_Rd(1) p_month^ = I2C1_Rd(1) p_year^ = I2C1_Rd(0) I2C1_Stop() ' Issue stop signal end sub '{************************************************************************************************** '* Write time to RTC DS1307 '* input : variables with RTC data '**************************************************************************************************} sub procedure Write_Time(dim c_hours as byte, dim c_minutes as byte, dim c_seconds as byte, dim c_day as byte, dim c_week as byte, dim c_month as byte, dim c_year as byte) I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address (REG0) I2C1_Wr(0x80) ' write $80 to REG0. (pause counter + 0 sec) I2C1_Wr(c_minutes) ' write 0 to minutes word to (REG1) I2C1_Wr(c_hours) ' write 17 to hours word (24-hours mode)(REG2) I2C1_Wr(c_week) ' write 2 - Monday (REG3) I2C1_Wr(c_day) ' write 4 to date word (REG4) I2C1_Wr(c_month) ' write 5 (May) to month word (REG5) I2C1_Wr(c_year) ' write 01 to year word (REG6) I2C1_Stop() ' issue stop signal I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address 0 I2C1_Wr(0 or c_seconds) ' write 0 to REG0 (enable counting + 0 sec) I2C1_Stop() ' issue stop signal end sub '{************************************************************************************************** '* Show on the LCD display '* input : variables with RTC data '**************************************************************************************************} sub procedure Show_Time() dim txt as string[4] select case week_day case 1 txt = "Sun" case 2 txt = "Mon" case 3 txt = "Tue" case 4 txt = "Wed" case 5 txt = "Thu" case 6 txt = "Fri" case 7 txt = "Sat" end select LCD_Out(1,1, txt) Lcd_Chr(1, 6, (day div 10) + 48) ' Print tens digit of day variable Lcd_Chr(1, 7, (day mod 10) + 48) ' Print oness digit of day variable Lcd_Chr(1, 9, (month div 10) + 48) Lcd_Chr(1,10, (month mod 10) + 48) Lcd_Chr(1,14, (year div 10) + 48) Lcd_Chr(1,15, (year mod 10) + 48) Lcd_Chr(2, 6, (hours div 10) + 48) Lcd_Chr(2, 7, (hours mod 10) + 48) Lcd_Chr(2, 9, (minutes div 10) + 48) Lcd_Chr(2,10, (minutes mod 10) + 48) Lcd_Chr(2,12, (seconds div 10) + 48) Lcd_Chr(2,13, (seconds mod 10) + 48) end sub '///////////////////////////////////////////////////////////////////// Dim y, L1 as longint Dim D_, L, ty, Lambda, Obliquity, Alpha, ST, Dec1, noon, utnoon, dhrtime, asrtime, asralt, durinalarc, marbtime, EshaArc, M, eshatime, fajrtime, shroq, ard, tol as float i, farq as byte day_, month_, dhr, dhr1, asr, asr1, fjr, fjr1, marb, marb1, esha, esha1 as byte Dim x, x1 as byte[48] Dim sec, minutes_, hr, dday, mn, year_ as short 'edited Dim str,str1,strzoherh,strzoherm,strasrh,strasrm,strmagrebh,strmagrebm,strfajrh,strfajrm as String[20] Dim ssec, sminutes, shr, sweek_day, sdday, smn, syear as String[20] sub procedure awqat() ard = 34.54 tol = 31.522 farq = 2 D_ = ((367 * y) - (floor((1.75) * (y + floor((month_ + 9) / 12)))) + floor(275 * (month_ / 9)) + day - 730531.5) L = 280.461+0.9856474 * D_ L1 = L L = L - L1 L1 = L1 mod 360 L = L1 + L M = 357.528 + 0.9856003 * D_ L1 = M M = M - L1 L1 = L1 mod 360 M = L1 + M Obliquity = 23.439 - 0.0000004 * D_ Lambda = L + 1.915 * sin(M * PI / 180) + 0.02 * sin(2 * M * PI / 180) L1 = Lambda Lambda = Lambda - L1 L1 = L1 mod 360 Lambda = L1 + Lambda Alpha = atan(cos(Obliquity * PI / 180) * tan(Lambda * PI / 180)) * 180/PI Alpha = Alpha - (360 * floor(Alpha / 360)) Alpha = Alpha + 90 * (floor(Lambda / 90) - floor(Alpha / 90)) ST = 100.46 + 0.985647352 * D_ L1 = ST ST = ST - L1 L1 = L1 mod 360 ST = L1 + ST Dec1 = asin(sin(Obliquity * PI / 180) * sin(Lambda * PI / 180)) * 180 / PI noon = Alpha - ST if noon >= 0 then noon = fabs(noon) L1 = fabs(noon) noon = noon - L1 L1 = L1 mod 360 noon = noon + L1 else noon = fabs(noon) L1 = fabs(noon) noon = noon - L1 L1 = L1 mod 360 noon = noon + L1 noon = 360 - noon end if utnoon = noon - tol dhrtime = (utnoon/15)+farq dhr1 = dhrtime dhrtime = dhrtime - dhr1 dhr = floor(dhrtime * 60) dhrtime = (utnoon / 15) + 3 asralt = atan(1 + tan((ard - Dec1) * PI / 180)) * 180 / PI asrtime = acos((sin((90 - asralt) * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * COS(ard * PI / 180))) * 180 / PI asrtime = (asrtime / 15) + dhrtime asr1 = asrtime asrtime = asrtime - asr1 asr=floor(asrtime * 60) durinalarc = acos((sin( - 0.8333 * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * cos(ard * PI / 180))) * 180 / PI shroq = dhrtime - durinalarc / 15 marbtime = dhrtime + durinalarc / 15 marb1 = marbtime marbtime = marbtime - marb1 marb = floor(marbtime * 60) EshaArc = acos((sin(-18 * PI / 180) - sin(Dec1 * PI / 180) * sin(ard * PI / 180)) / (cos(Dec1 * PI / 180) * cos(ard * PI / 180))) * 180 / PI eshatime = dhrtime + EshaArc / 15 esha1 = eshatime eshatime = eshatime - esha1 esha = floor(eshatime * 60) fajrtime = dhrtime - EshaArc / 15 fjr1 = fajrtime fajrtime = fajrtime - fjr1 fjr = floor(fajrtime * 60) 'dhr = Dec2Bcd(dhr) 'dhr1 = Dec2Bcd(dhr1) 'fjr = Dec2Bcd(fjr) 'fjr1 = Dec2Bcd(fjr1) if asr1 > 12 then asr1 = asr1 - 12 end if if marb1 > 12 then marb1 = marb1 - 12 end if if esha1 > 12 then esha1 = esha1 - 12 end if ' 'asr = Dec2Bcd(asr) 'asr1 = Dec2Bcd(asr1) 'marb = Dec2Bcd(marb) 'marb1= Dec2Bcd(marb1) 'esha = Dec2Bcd(esha) 'esha1 = Dec2Bcd(esha1) end sub sub procedure Read_Time_(Dim byref seconds, minutes, hours, week_day, day, month, year as short) I2C1_Start() I2C1_Wr(0xD0) I2C1_Wr(0) I2C1_Repeated_Start() I2C1_Wr(0xD1) seconds = I2C1_Rd(1) minutes = I2C1_Rd(1) hours = I2C1_Rd(1) week_day = I2C1_Rd(1) day = I2C1_Rd(1) month = I2C1_Rd(1) year = I2C1_Rd(0) I2C1_Stop() end sub sub procedure Write_Time_(Dim address as short, Dim data_wr as short) I2C1_Start() I2C1_Wr(0xD0) I2C1_Wr(address) I2C1_Wr(data_wr) I2C1_Stop() end sub sub procedure showpray() LCD_Out(1,1,"F") LCD_Out_cp(strfajrh) LCD_Out_cp(":") LCD_Out_cp(strfajrm) LCD_Out_cp(" Z") LCD_Out_cp(strzoherh) LCD_Out_cp(":") LCD_Out_cp(strzoherm) LCD_Out_cp(" A") LCD_Out_cp(strasrh) LCD_Out_cp(":") LCD_Out_cp(strasrm) LCD_Out(2,1," M ") LCD_Out_cp(strmagrebh) LCD_Out_cp(":") LCD_Out_cp(strmagrebm) LCD_Out_cp(" E ") LCD_Out_cp(str1) LCD_Out_cp(":") LCD_Out_cp(str) end sub main: TRISB = 0 PORTB = 0 TRISC.0 = 0 TRISC.1 = 0 TRISC.2 = 0 TRISA.0 = 0 TRISC.3 = 1 TRISC.4 = 1 TRISD = 0 PORTA = 0x00 PORTB = 0x00 PORTC = 0x00 PORTD = 0x00 PORTE = 0x00 LATA = 0x00 LATB = 0x00 LATC = 0x00 LATD = 0x00 LATE = 0x00 LCD_Init() LCD_Cmd(_LCD_CURSOR_OFF) LCD_Cmd(_LCD_CLEAR) LCD_Out(1,1,"Prayer Time") Delay_ms(2000) LCD_Cmd(_LCD_CLEAR) I2C1_Init(100000) while true Read_Time(seconds,minutes,hours,week_day,day,month,year) 'day = Bcd2Dec(dday) 'month_= Bcd2Dec(mn) 'y = 2014 seconds = ((seconds and 0x70) >> 4)*10 + (seconds and 0x0F) minutes = ((minutes and 0xF0) >> 4)*10 + (minutes and 0x0F) hours = ((hours and 0x30) >> 4)*10 + (hours and 0x0F) week_day = (week_day and 0x07) day = ((day and 0xF0) >> 4)*10 + (day and 0x0F) month = ((month and 0x10) >> 4)*10 + (month and 0x0F) year = ((year and 0xF0) >> 4)*10+(year and 0x0F) month_ = month y = 2000 + year awqat() for i = 0 to 47 x[i] = 0 x1[i] = 0 next i memset(@x, 0, sizeof(x)) memset(@x1, 0, sizeof(x1)) for i = 0 to 7 x[i] = dhr.i x1[i] = esha.i next i for i = 0 to 7 x[i+8] = dhr1.i x1[i+8] = esha1.i next i for i = 0 to 7 x[i+16] = fjr.i x1[i+16] = marb.i next i for i = 0 to 7 x[i+24] = fjr1.i x1[i+24] = marb1.i next i for i = 0 to 7 x[i+32] = minutes.i x1[i+32] = asr.i next i for i = 0 to 7 x[i+40] = hr.i x1[i+40] = asr1.i next i for i = 0 to 47 PORTB.0 = x[i] PORTC.0 = x1[i] PORTB.1 = 0 PORTC.1 = 0 Delay_us(20) PORTB.1 = 1 PORTC.1 = 1 next i PORTA.0 = 1 Delay_ms(300) PORTB.2 = 0 PORTC.2 = 0 Delay_us(20) PORTB.2 = 1 PORTC.2 = 1 PORTA.0 = 0 Delay_ms(300) 'LCD_Out(1,1,"Esha") IntToStr(esha, str) IntToStr(esha1, str1) IntToStr(dhr1, strzoherh) IntToStr(dhrtime, strzoherm) IntToStr(asr1, strasrh) IntToStr(asrtime, strasrm) IntToStr(marb1, strmagrebh) IntToStr(marb, strmagrebm) IntToStr(fjr1, strfajrh) IntToStr(fajrtime, strfajrm) Ltrim(str) Ltrim(str1) Ltrim(strmagrebh) Ltrim(strmagrebm) Ltrim(strasrh) Ltrim(strasrm) Ltrim(strzoherh) Ltrim(strzoherm) Ltrim(strfajrh) Ltrim(strfajrm) '/////////////////////////////////////////////////////////// Lcd_Cmd(_LCD_CLEAR) ' Prepare and output static text on LCD LCD_Chr(1,8,".") LCD_Chr(1,11,".") LCD_Out(2,1,"Time:") LCD_Chr(2,8,":") LCD_Chr(2,11,":") LCD_Out(1,12,"201") Show_Time() showpray() wend end.
Try this method.
Code:Dim my2DArray as char[32][6]
Edit: Try attached project. It displays some data. Also it displays Date and Time.
You have to write code for buttons. 3 buttons are needed to set date and time. One is to enter set mode and another to increment and one more to decrement.
Two buttons can also be used.
' Start the test examples
while(TRUE) ' Endless loop
if (Button(PORTA, 0, 1, 0)) then ' Detect logical one
oldstate = 1 ' Update flag
end if
if (oldstate and Button(PORTA, 0, 1, 1)) then ' Detect one-to-zero transition
' Write TIME 11 : 15 : 00 : 24. tuesday april 2012
Write_Time(0x11, 0x15, 0x00, 0x24, 0x03, 0x04, 0x12)
oldstate = 0 ' Update flag
end if
Read_Time(@hours, @minutes, @seconds, @day, @week, @month, @year)
Show_Time()
Delay_mS(10)You have to select the Buttons library in Library manager.
do
{
set = 0;
if(PORTA.F0 == 0)
{
Delay_ms(100);
if(PORTA.F0 == 0)
{
set_count++;
if(set_count >= 7)
{
set_count = 0;
}
}
}
if(set_count)
{
if(PORTA.F1 == 0)
{
Delay_ms(100);
if(PORTA.F1 == 0)
set = 1;
}
if(PORTA.F2 == 0)
{
Delay_ms(100);
if(PORTA.F2 == 0)
set = -1;
}
if(set_count && set)
{
switch(set_count)
{
case 1:
hour = BCD2Binary(hour);
hour = hour + set;
hour = Binary2BCD(hour);
if((hour & 0x1F) >= 0x13)
{
hour = hour & 0b11100001;
hour = hour ^ 0x20;
}
else if((hour & 0x1F) <= 0x00)
{
hour = hour | 0b00010010;
hour = hour ^ 0x20;
}
write_ds1307(2, hour); //write hour
break;
case 2:
minute = BCD2Binary(minute);
minute = minute + set;
if(minute >= 60)
minute = 0;
if(minute < 0)
minute = 59;
minute = Binary2BCD(minute);
write_ds1307(1, minute); //write min
break;
case 3:
if(abs(set))
write_ds1307(0,0x00); //Reset second to 0 sec. and start Oscillator
break;
case 4:
day = BCD2Binary(day);
day = day + set;
day = Binary2BCD(day);
if(day >= 0x32)
day = 1;
if(day <= 0)
day = 0x31;
write_ds1307(4, day); // write date 17
break;
case 5:
month = BCD2Binary(month);
month = month + set;
month = Binary2BCD(month);
if(month > 0x12)
month = 1;
if(month <= 0)
month = 0x12;
write_ds1307(5,month); // write month 6 June
break;
case 6:
year = BCD2Binary(year);
year = year + set;
year = Binary2BCD(year);
if(year <= -1)
year = 0x99;
if(year >= 0x50)
year = 0;
write_ds1307(6, year); // write year
break;
}
}
}if(PORTA.F0 == 0)
{if(PORTA.0 = 0)
{Dec2Bcd()Write_Time()sub procedure Write_Time(dim c_hours as byte, dim c_minutes as byte, dim c_seconds as byte,
dim c_day as byte, dim c_week as byte, dim c_month as byte, dim c_year as byte)
I2C1_Start() ' issue start signal
I2C1_Wr(RTC_ADDR) ' address DS1307
I2C1_Wr(0) ' start from word at address (REG0)
I2C1_Wr(0x80) ' write $80 to REG0. (pause counter + 0 sec)
I2C1_Wr(Dec2Bcd(c_minutes)) ' write 0 to minutes word to (REG1)
I2C1_Wr(Dec2Bcd(c_hours)) ' write 17 to hours word (24-hours mode)(REG2)
I2C1_Wr(Dec2Bcd(c_week)) ' write 2 - Monday (REG3)
I2C1_Wr(Dec2Bcd(c_day)) ' write 4 to date word (REG4)
I2C1_Wr(Dec2Bcd(c_month)) ' write 5 (May) to month word (REG5)
I2C1_Wr(Dec2Bcd(c_year)) ' write 01 to year word (REG6)
I2C1_Stop() ' issue stop signal
I2C1_Start() ' issue start signal
I2C1_Wr(RTC_ADDR) ' address DS1307
I2C1_Wr(0) ' start from word at address 0
I2C1_Wr(0 or Dec2Bcd(c_seconds)) ' write 0 to REG0 (enable counting + 0 sec)
I2C1_Stop() ' issue stop signal
end subDim sSec, sMin, sHr, sWeek, sDay, sMonth, sYear as byteTry like this
Code:if(PORTA.F0 == 0) {
is replaced with
Code:if(PORTA.0 = 0) {
When you are writing time to RTC you will have to convert your decimal value to bcd value and write to RTC. You have to usefunction.Code:Dec2Bcd()
Don't use BCD2Binary() etc...
Changefunction with this function and pass decimal values to the function.Code:Write_Time()
Code:sub procedure Write_Time(dim c_hours as byte, dim c_minutes as byte, dim c_seconds as byte, dim c_day as byte, dim c_week as byte, dim c_month as byte, dim c_year as byte) I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address (REG0) I2C1_Wr(0x80) ' write $80 to REG0. (pause counter + 0 sec) I2C1_Wr(Dec2Bcd(c_minutes)) ' write 0 to minutes word to (REG1) I2C1_Wr(Dec2Bcd(c_hours)) ' write 17 to hours word (24-hours mode)(REG2) I2C1_Wr(Dec2Bcd(c_week)) ' write 2 - Monday (REG3) I2C1_Wr(Dec2Bcd(c_day)) ' write 4 to date word (REG4) I2C1_Wr(Dec2Bcd(c_month)) ' write 5 (May) to month word (REG5) I2C1_Wr(Dec2Bcd(c_year)) ' write 01 to year word (REG6) I2C1_Stop() ' issue stop signal I2C1_Start() ' issue start signal I2C1_Wr(RTC_ADDR) ' address DS1307 I2C1_Wr(0) ' start from word at address 0 I2C1_Wr(0 or Dec2Bcd(c_seconds)) ' write 0 to REG0 (enable counting + 0 sec) I2C1_Stop() ' issue stop signal end sub
Also use only three buttons to set date and time. Remember clock is running in 24 hour format. Also use six variables like
for setting time. These variable should increment and decrement in their boundaries when buttons are pressed and when set button is pressed 2nd time then these variables should be passed to Write_Time() function for writing time to RTC.Code:Dim sSec, sMin, sHr, sWeek, sDay, sMonth, sYear as byte
If set button pressed 1st time system eneters time set mode and pressing again exits set mode and enters run mode. You also have to make changes to Display time during setting.
void displayMay()
{
date3=read_ds1307(4); // read date
//date2= Bcd2Dec16(date3);
date2=5;
//if (month==5) {
if (date2<21) { fager[2]=4 ;} else { fager[2]=3; }
fager[1]=((May[date2][0])/10)%10 ;
fager[0]=(May[date2][0])%10 ;
shrouq[2]=5;
shrouq[1]=((May[date2][1])/10)%10 ;
shrouq[0]=(May[date2][1])%10 ;
zoher[3]=1 ;
zoher[2]=2 ;
zoher[1]=((May[date2][2])/10)%10 ;
zoher[0]=(May[date2][2])%10 ;
aser[2]=4;
aser[1]=((May[date2][3])/10)%10 ;
aser[0]=(May[date2][3])%10 ;
maghreb[2]=7;
maghreb[1]=((May[date2][4])/10)%10 ;
maghreb[0]=(May[date2][4])%10 ;
if (date2<14) { isha[2]=8 ;} else { isha[2]=9; }
isha[1]=((May[date2][5])/10)%10 ;
isha[0]=(May[date2][5])%10 ;
//}
//isha[2]='5';
//char ap1[0]=Dec2Bcd(isha[2]);
//IntToStr()
//LCD_Out(1,1,"Esha")
Ltrim(isha);
LCD_Out(2,1,"F :");
Lcd_Chr_Cp(isha[0]);
Lcd_Chr_Cp(isha[1]);
Lcd_Chr_Cp(isha[2]);
Lcd_Chr_Cp('4');
//LCD_Out(2,1,isha);
// LCD_Out_cp(":")
// LCD_Out_cp(strfajrm)
//Ltrim(isha[2]);
//Lcd_out(2, 6, isha[2]);
//Lcd_out(2, 9, "jjj");
}const unsigned short May [32][6]={{4,5,12,4,7,8},{20,57,39,18,25,48},{19,56,39,18,26,49},{18,55,39,18,26,50},{17,55,39,18,27,51},{15,54,39,18,28,52},{14,53,39,18,28,53},{13,52,39,18,29,54},{12,51,39,18,30,55},{11,51,39,18,30,55},{10,50,39,18,31,56},{9,49,39,18,32,57},{8,48,39,18,32,59},{6,47,39,18,33,8},{4,46,39,18,34,1},{3,45,39,18,35,2},{2,45,39,18,36,3},{1,44,39,18,36,4},{1,44,39,18,37,5},{2,43,39,18,37,6},{59,43,39,18,38,6},{59,42,39,18,39,7},{58,42,39,18,39,8},{57,41,39,18,40,9},{56,41,40,19,41,10},{55,41,40,19,41,11},{55,40,40,19,42,12},{54,40,40,19,43,12},{53,39,40,19,43,13},{53,39,40,19,44,14},{52,38,40,19,44,15}};The array contains bcd values. It has to be converted to character by adding 48 to each array element and terminating the arry element with '\0' and then sending it to LCD_Out() for printing.
shrouq[2]=5;
shrouq[1]=((May[date2][1])/10)%10 ;
shrouq[0]=(May[date2][1])%10 ;shrouq[2]=5 + 48;
shrouq[1]=(((May[date2][1])/10)%10) + 48 ;
shrouq[0]=((May[date2][1])%10) + 48 ;
shrouq[3] = '\0';IntToStr(shrouq, str);
Ltrim(str);
LCD_Out(1,1,str);const short Jan[32][6] = {{5,6,11,2,4,6},{7,41,45,31,52,14},{7,41,45,32,53,15},{7,41,46,32,54,15},{7,41,46,33,55,16},{8,41,47,34,55,17},{8,41,47,35,56,17},{8,41,48,35,57,18},{8,41,48,36,58,19},{8,42,49,37,59,19},{8,42,49,38,0,20},{8,42,50,38,1,21},{8,42,50,39,2,21},{8,42,51,40,2,22},{9,42,51,41,3,23},{9,42,52,41,4,23},{9,42,52,42,5,24},{9,42,52,43,6,25},{9,41,52,44,7,26},{8,41,53,44,8,26},{8,40,53,45,9,27},{8,40,53,46,9,28},{7,39,54,47,10,29},{7,39,54,48,11,30},{7,38,54,48,12,30},{7,38,54,49,13,31},{7,38,54,50,14,32},{6,37,55,51,15,33},{6,37,55,52,15,34},{6,36,55,53,16,35},{5,36,56,53,17,35},{5,35,56,54,18,36}};
char dummy[32][6];
unsigned short fager[4];
unsigned short shrouq[4];
unsigned short zoher[5];
unsigned short aser[4];
unsigned short maghreb[4];
unsigned short isha[4];
char ten = 10, fortyEight = 48;
char i = 0, j = 0;
void main() {
memset(fager, '\0', sizeof(fager));
memset(shrouq, '\0', sizeof(shrouq));
memset(zoher, '\0', sizeof(zoher));
memset(aser, '\0', sizeof(aser));
memset(maghreb, '\0', sizeof(maghreb));
memset(isha, '\0', sizeof(isha));
while(1) {
}
}
if(month == 1) { //Jan
for(i = 0; i < 32; i++) {
for(j = 0; j < 6; j++) {
dummy[i][j] = Jan[i][j]
}
}
fager[2] = dummy[0][0] + fortyEight;
fager[1] = 0 + fortyEight;
fager[0] = dummy[date][0] + fortyEight;
shrouq[2] = dummy[0][1] + fortyEight;
shrouq[1] = ((((dummy[date][1]) / ten) % ten)) + fortyEight;
shrouq[0] = ((dummy[date][1] % ten)) + fortyEight;
zoher[3] = 1 + fortyEight;
zoher[2] = 1 + fortyEight;
zoher[1] = ((((dummy[date][2]) / ten) % ten)) + fortyEight;
zoher[0] = (((dummy[date][2]) % ten)) + fortyEight;
aser[2] = 2 + fortyEight;
aser[1] = ((((dummy[date][3]) / ten) % ten)) + fortyEight;
aser[0] = (((dummy[date][3]) % ten)) + fortyEight;
if (date < ten) {
maghreb[2] = 4 + fortyEight;
}
else {
maghreb[2] = 5 + fortyEight;
}
maghreb[1] = ((((dummy[date][4]) / ten) % ten)) + fortyEight;
maghreb[0] = (((dummy[date][4]) % ten)) + fortyEight;
isha[2] = 6;
isha[1] = ((((dummy[date][5]) / ten) % ten)) + fortyEight;
isha[0] = (((dummy[date][5]) % ten)) + fortyEight;
}You have to do like this.
Code:shrouq[2]=5; shrouq[1]=((May[date2][1])/10)%10 ; shrouq[0]=(May[date2][1])%10 ;
shrouq is a 3 element array. Now make it 4 element array
unsigned short shrouq[4];
char ste[17]
Now do like this. (As each element of the array contains only values 0 to 9.
Code:shrouq[2]=5 + 48; shrouq[1]=(((May[date2][1])/10)%10) + 48 ; shrouq[0]=((May[date2][1])%10) + 48 ; shrouq[3] = '\0';
then
Code:IntToStr(shrouq, str); Ltrim(str); LCD_Out(1,1,str);
This is surely solve your problem but make sure RTC is working properly.
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Edit:
You have to do like this. Also replace RTC code with RTC code from libstock.
Code:const short Jan[32][6] = {{5,6,11,2,4,6},{7,41,45,31,52,14},{7,41,45,32,53,15},{7,41,46,32,54,15},{7,41,46,33,55,16},{8,41,47,34,55,17},{8,41,47,35,56,17},{8,41,48,35,57,18},{8,41,48,36,58,19},{8,42,49,37,59,19},{8,42,49,38,0,20},{8,42,50,38,1,21},{8,42,50,39,2,21},{8,42,51,40,2,22},{9,42,51,41,3,23},{9,42,52,41,4,23},{9,42,52,42,5,24},{9,42,52,43,6,25},{9,41,52,44,7,26},{8,41,53,44,8,26},{8,40,53,45,9,27},{8,40,53,46,9,28},{7,39,54,47,10,29},{7,39,54,48,11,30},{7,38,54,48,12,30},{7,38,54,49,13,31},{7,38,54,50,14,32},{6,37,55,51,15,33},{6,37,55,52,15,34},{6,36,55,53,16,35},{5,36,56,53,17,35},{5,35,56,54,18,36}}; char dummy[32][6]; unsigned short fager[4]; unsigned short shrouq[4]; unsigned short zoher[5]; unsigned short aser[4]; unsigned short maghreb[4]; unsigned short isha[4]; char ten = 10, fortyEight = 48; char i = 0, j = 0; void main() { memset(fager, '\0', sizeof(fager)); memset(shrouq, '\0', sizeof(shrouq)); memset(zoher, '\0', sizeof(zoher)); memset(aser, '\0', sizeof(aser)); memset(maghreb, '\0', sizeof(maghreb)); memset(isha, '\0', sizeof(isha)); while(1) { } } if(month == 1) { //Jan for(i = 0; i < 32; i++) { for(j = 0; j < 6; j++) { dummy[i][j] = Jan[i][j] } } fager[2] = dummy[0][0] + fortyEight; fager[1] = 0 + fortyEight; fager[0] = dummy[date][0] + fortyEight; shrouq[2] = dummy[0][1] + fortyEight; shrouq[1] = ((((dummy[date][1]) / ten) % ten)) + fortyEight; shrouq[0] = ((dummy[date][1] % ten)) + fortyEight; zoher[3] = 1 + fortyEight; zoher[2] = 1 + fortyEight; zoher[1] = ((((dummy[date][2]) / ten) % ten)) + fortyEight; zoher[0] = (((dummy[date][2]) % ten)) + fortyEight; aser[2] = 2 + fortyEight; aser[1] = ((((dummy[date][3]) / ten) % ten)) + fortyEight; aser[0] = (((dummy[date][3]) % ten)) + fortyEight; if (date < ten) { maghreb[2] = 4 + fortyEight; } else { maghreb[2] = 5 + fortyEight; } maghreb[1] = ((((dummy[date][4]) / ten) % ten)) + fortyEight; maghreb[0] = (((dummy[date][4]) % ten)) + fortyEight; isha[2] = 6; isha[1] = ((((dummy[date][5]) / ten) % ten)) + fortyEight; isha[0] = (((dummy[date][5]) % ten)) + fortyEight; }
IntToStr(shrouq, str);
Ltrim(str);
LCD_Out(1,1,str);LCD_Out(1,1,shrouq);Two good books for PIC are
Programming and Customizing the PIC Microcontroller 3rd Edition by Myke Predko and
Microprocessors from Assembly Language to C Using the PIC18Fxx2 by Robert B. Reese
And by the way did the RTC work and also did it display the Prayer times ?
I am attaching the file I edited. Make a timer interrupt of 5 seconds and display RTC date and time for 5 seconds and Prayer times for 5 seconds.
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I made a mistake in post #76.
This is wrong. shrouq is a string. No need for conversion.
Code:IntToStr(shrouq, str); Ltrim(str); LCD_Out(1,1,str);
It should be
Code:LCD_Out(1,1,shrouq);
In the code I see that RC3 and RC4 (I2C pins) are used for some other purpose. Please change those code by shifting those to PORTA or PORTB pins.
Embedded Circuit designing and Programming is my profession.
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7 Segment version. Year data written to RTC is not correct. Display still blinks. Test in hardware and reply. Maybe it is a Proteus problem. It displays all datas. Don't know why the last two 7 Segment displays are used.
BCD to Seven Segment decoder needed pullup resistors on output lines as they are open collector outputs.
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