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2007 3FF1
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0000 0000 30FF 0001 0086 0002 0185 0003 0004 0005 0006 1683 0186 0188 1283
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0007 3081 0008 0088
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0009 0009 000A 000B 000C 3003 3EFF 1D03 280A
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000D 1508 000E 1908 000F 280E 0010 0011 0012 0013 1683 0909 1283 0086
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00016 00001 00002 00151 00017 00018 00019 00020 00021 00022 00023 00024 00025 00026 00027 00028 00029 00030 00031 00032 00033 00034 00035 00036 00037 00038 00039 00040 00041 00042 00043 00044 00045 00046 00047 00048 00049 00050 00051 00052 00053 00054 00055 00056 00057 00058 00059 00060
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INCLUDE p16c711.inc LIST ; P16C711.INC Standard Header File, Version LIST ; Registers
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__CONFIG _CP_OFF&_WDT_OFF&_XT_OSC&_PWRTE_ON PAGE Mainline of ADC 0 0x0FF PORTB PORTA STATUS, RP0 TRISB & 0x07F ADCON1 ^ 0x080 STATUS, RP0 0x081 ADCON0
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org movlw movwf clrf bsf clrf clrf bcf movlw movwf
Turn off Use PORTA
; Have to go ; Set all ; Make RA0 ; Go back to ; Setup ; ; ; CHS1:CHS0 ; Go/_Done ; ADIF - 0 ; ADON - 1
Loop movlw addlw btfss goto bsf btfsc goto bsf comf bcf movwf goto 3 0x0FF STATUS, Z $ - 2 ADCON0, GO ADCON0, GO $ - 1 STATUS, RP0 ADRES, w STATUS, RP0 PORTB Loop ; ; Wait 12 Take One
Turn on Wait for
Get the
MICROCHIP MPLAB IDE
00061 00062 00063 SYMBOL TABLE LABEL ADCON0 ADCON1 ADCS0 ADCS1 ADIE ADIF ADON ADRES C CHS0 CHS1 DC F FSR GIE GO GO_DONE INDF INTCON INTE INTEDG INTF IRP Loop NOT_BO NOT_BOR NOT_DONE NOT_PD NOT_POR NOT_RBPU NOT_TO OPTION_REG PCFG0 PCFG1 PCL PCLATH PCON PORTA PORTB PS0 PS1
VALUE 00000008 00000088 00000006 00000007 00000006 00000001 00000000 00000009 00000000 00000003 00000004 00000001 00000001 00000004 00000007 00000002 00000002 00000000 0000000B 00000004 00000006 00000001 00000007 00000009 00000000 00000000 00000002 00000003 00000001 00000007 00000004 00000081 00000000 00000001 00000002 0000000A 00000087 00000005 00000006 00000000 00000001
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PS2 PSA RBIE RBIF RP0 RP1 STATUS T0CS T0IE T0IF T0SE TMR0 TRISA TRISB W Z _BODEN_OFF _BODEN_ON _CP_OFF _CP_ON _HS_OSC _LP_OSC _PWRTE_OFF _PWRTE_ON _RC_OSC _WDT_OFF _WDT_ON _XT_OSC __16C711 MEMORY USAGE MAP ( X = Used,
00000002 00000003 00000003 00000000 00000005 00000006 00000003 00000005 00000005 00000002 00000004 00000001 00000085 00000086 00000000 00000002 00003FBF 00003FFF 00003FFF 0000004F 00003FFE 00003FFC 00003FFF 00003FF7 00003FFF 00003FFB 00003FFF 00003FFD 00000001 - = Unused)
0000 : XXXXXXXXXXXXXXXX XXXXX================================== 2000 : ====X=================================================== All other memory blocks unused. Program Memory Words Used: Program Memory Words Free: Errors : Warnings : Messages : 0 0 reported, 0 reported, 21 1003
0 suppressed 0 suppressed
There are three separate areas in the listing le that you should be aware of. The rst is the source code area in which the object code (the hex instruction value) is given to the left of the source le line along with the address where it is located. Each line is repeated with its line number in the source le listed. With this information, instructions
MICROCHIP MPLAB IDE
can be found either by their address within the PIC microcontroller s program memory space or by the line they are found on in the source code. The next section in the listing le is a list of all the labels in the application and what their values are. Note that along with hardware register addresses, bit numbers, labels, and variable le register addresses are all included in this section, listed in alphabetical order. If you are familiar with other assemblers, you may expect that the label types and references to them are also included. In MPLAB just the label and its value at the end of the application are listed. The last section is a summary of the addresses used by the application along with a total of any errors, warnings, or messages. The program memory address summary can be very useful when you are using a large portion of the address space in the PIC microcontroller and you want to get an idea of what is available. The last output le you should be concerned with is the .err or error le. This le consists of a list of source les and line numbers of the errors encountered in the assembly/ compile step. The information is identical to what is in the .lst le, but it can be easier to see the messages because only the errors are listed in this le. When a source le has been converted successfully into an object le, the .err le length should be zero. This is a bit of a philosophical point because some people will release an application with warnings and messages, which will not prevent the object le from being created (whereas an error will), but I like to make sure that there are no messages of any kind in my applications before going forward. Warnings and messages are usually an indicator of semantic errors in the logic of the program and not syntactic errors, which tend to be typos. This is the reason I do not suppress any warnings or messages and insist that the .err le is zero bytes long before proceeding and programming the code into the PIC microcontroller. There are a couple of things I don t like about how errors are reported in MPLAB. The rst is that the error descriptions can be somewhat terse and vague and may not be fully understood by new PIC microcontroller application developers. If you get an error and don t understand what it means, don t feel bad about it. Instead, jump to the line that is referenced (by double-clicking on the line in the error window displayed in MPLAB) and see if you can gure out what the problem is. The second thing I don t like is how errors with macros are reported. Macro errors are referenced back to the invoking line, not the line in the macro. This can make debugging macros a challenge, especially if they are very complex. The safest way to ensure that there aren t any problems is to only attempt to program a PIC microcontroller if the .err le is zero bytes long. This ensures that there are no misunderstood errors (in the form of messages and warnings) that could cause problems with your application later. Once all the source les have been assembled or compiled into object les, the linker combines them all together into a single .hex le, which is speci ed by the linker (.lkr) le. I tend to think of the linker le as a make le for PIC applications. It speci es which les are included in the application and when it comes time to Build All, it pulls together all the les to be included, and assembles/compiles them, and links their object les. An important le for the linker is any library (.lib) le that is included in an application. The libraries are collections of functions and subroutines used to provide basic functions for compiled code. An example of a library subroutine is C s printf, which formats and passes data to a console. The user simply speci es the include le that has
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