PIC Simulator IDE is powerful application that supplies PIC developers with user-friendly graphical development environment for Windows with integrated simulator (emulator), Basic compiler, assembler, disassembler and debugger. PIC Simulator IDE currently supports the following microcontrollers from the Microchip PICmicro product line: 12F629, 12F675, 16F627, 16F627A, 16F628, 16F628A, 16F630, 16F648A, 16F676, 16F684, 16F688, 16F72, 16F73, 16F74, 16F76, 16F77, 16F737, 16F747, 16F767, 16F777, 16F83, 16F84, 16F84A, 16F87, 16F88, 16F818, 16F819, 16F870, 16F871, 16F872, 16F873, 16F873A, 16F874, 16F874A, 16F876, 16F876A, 16F877, 16F877A.

You are welcome to download the fully functional evaluation copy of the software on the downloads page. PIC Simulator IDE requires a license to operate after the evaluation period. If you would like to see several original comments I received from the users of my Simulators, please visit the comments page
 

There are four types of licenses available:

Personal license for individuals grants right to one single user to use the program on one home personal computer for non-commercial purposes.
Commercial/educational license for business companies, educational institutions and individuals using the software for commercial purposes grants right to the owner to use the program on one single computer. Multiple licenses are required for multiple computers with program installations.
Site license grants right to the institution to use the program on all computers located on one institution site (the most suitable choice for computer labs).
Institution license grants right to the institution to use the program on all computers on all sites that belong to the institution.

Once purchased license will be valid for all future versions of the corresponding application.

Your personal license is a permanent license that will enable you to use the software on your personal computer even when you get the new machine in the future. It is by no means linked to your present computer, but only to your name.

Pic Examples

Screenshot 2
Screenshot 3

The screenshots of individual components:
PIC BASIC Compiler
PIC Assembler
Debugger - Breakpoints Manager
Microcontroller View
LCD Module Simulator
PIC Disassembler
Program Memory Viewer
EEPROM Memory Viewer
Hardware Stack Viewer
Configuration Bits
Serial Port Terminal
Interactive Assembler Editor (1)
Interactive Assembler Editor (2)

Default extension for basic source files is BAS. The compiler output is assembler source file (with ASM extension) that can be translated to binary code using integrated assembler. Smart editor marks all reserved keywords in different color, that simplifies debugging process.

Three data types are supported:
- Bit (1-bit, 0 or 1)
- Byte (1-byte integers in the range 0 to 255)
- Word (2-byte integers in the range 0 to 65,535)

Declarations may be placed anywhere in the program. All variables are considered global. The total number of variables is limited by the available microcontroller RAM memory. Variables are declared using DIM statement:
DIM A AS BIT
DIM B AS BYTE
DIM C AS WORD

It is also possible to use one-dimensional arrays. For example:
DIM A(10) AS BYTE
declares an array of 10 Byte variables with array index in the range [0-9].

It is possible to make conversions between Byte and Word data types using .LB and .HB extensions or directly:
DIM A AS BYTE
DIM B AS WORD
A = B.HB
A = B.LB 'This statement is equivalent to A = B
B.HB = A
B.LB = A
B = A 'This statement will also clear the high byte of B variable

All special function registers (SFRs) are available as Byte variables in basic programs. Individual bits of a Byte variable can be addressed by .0, .1, .2, .3, .4, .5, .6 and .7 extensions:
DIM A AS BIT
DIM B AS BYTE
A = B.7
B.6 = 1
TRISA.1 = 0
TRISB = 0
PORTA.1 = 1
PORTB = 255

It is also possible to use symbolic names (symbols) in programs:
SYMBOL LED1 = PORTB.0
LED1 = 1

There are three statements that are used for bit manipulation - HIGH, LOW and TOGGLE. If the argument of these statements is a bit in one of the PORT registers, then the same bit in the corresponding TRIS register is automatically cleared, setting the affected pin as an output pin. Some examples:
HIGH PORTB.0
LOW ADCON0.0
TOGGLE OPTION_REG.4

Constants can be used in decimal number system with no special marks, in hexadecimal number system with leading 0x notation and in binary system with leading % mark. Keywords True and False are also available for Bit type constants. For example:
DIM A AS BIT
DIM B AS BYTE
A = TRUE
B = 0x55
B = %01010101

Five arithmetic operations (+, -, *, /, MOD) are available for Byte and Word data types. It is possible to make only one arithmetic operation in one single statement. Arithmetic operations are allowed only in assignment statements and all variables in one such statement must be the same data type or constants. For example:
DIM A AS WORD
DIM B AS WORD
A = 123
B = A * 234

Square root of a number can be calculated using SQR function:
DIM A AS WORD
A = 3600
A = SQR(A)

For Bit data type variables seven logical operations are available. It is possible to make only one logical operation in one single statement. Logical operations are allowed only in assignment statements. For example:
DIM A AS BIT
DIM B AS BIT
DIM C AS BIT
C = NOT A
C = A AND B
C = A OR B
C = A XOR B
C = A NAND B
C = A NOR B
C = A NXOR B

The GOTO statement uses line label name as argument. Line labels must be followed by colon mark ":". Here is one example:
DIM A AS WORD
A = 0
loop: A = A + 1
GOTO loop

WAITMS and WAITUS statements can be used to force program to wait for the specified number of milliseconds or microseconds. It is also possible to use variable argument of Byte or Word data type. These routines use Clock Frequency parameter that can be changed from the Options menu. WAITUS routine has minimal delay and step that also depends on the Clock Frequency parameter.
DIM A AS WORD
A = 100
WAITMS A
WAITUS 50

PLEASE NOTE: When writing programs for real PIC devices you will most likely use delay intervals that are comaprable to 1 second or 1000 milliseconds. Many examples in this help file also use such 'real-time' intervals. But, if you want to simulate those programs you have to be very patient to see something to happen, even on very powerful PCs available today. For simulation of 'WaitMs 1000' statement on 4MHz you have to wait the simulator to simulate 1000000 instructions and it will take considerable amount of time even if 'extremely fast' simulation rate is selected. So, just for the purpose of simulation you should recompile your programs with adjusted delay intervals, that should not exceed 1-10ms. But, be sure to recompile your program with original delays before you download it to a real device.

Access to EEPROM data memory can be programmed using READ and WRITE statements. The first argument is the address of a byte in EEPROM memory and can be a constant or Byte variable. The second argument is data that is read or written (for READ statement it must be a Byte variable).
DIM A AS BYTE
DIM B AS BYTE
A = 10
READ A, B
WRITE 11, B

Three standard BASIC statements are supported: FOR-TO-STEP-NEXT, WHILE-WEND and IF-THEN-ELSE-ENDIF. Here are several examples:
DIM A AS BYTE
TRISB = 0
A = 255
WHILE A > 0
   PORTB = A
   A = A - 1
   WAITMS 100
WEND
PORTB = A
 

TRISB = 0
loop:
IF PORTA.0 THEN
   PORTB.0 = 1
ELSE
   PORTB.0 = 0
ENDIF
GOTO loop
 

DIM A AS WORD
TRISB = 0
FOR A = 0 TO 10000 STEP 10
   PORTB = A.LB
NEXT A
 

DIM A AS BYTE
DIM B AS BYTE
DIM C AS BYTE
B = 255
C = 2
TRISB = 0
FOR A = B TO 0 STEP -C
   PORTB = A
NEXT A

IF statements that are not used for conditional branching must always be used in connection with ENDIF, even if there is only one statement to be executed if the condition is satisfied. If there are statements following THEN in the same line an error is generated. Only GOTO statement (or just line label name) may be placed in the same line after THEN statement. There are no limits for the number of nested statements of any kind.

SHIFTLEFT and SHIFTRIGHT functions can be used to shift bit-level representation of a variable left and right. The first argument is input variable and the second argument is number of shifts to be performed. Here are two examples:
TRISB = 0x00
PORTB = %00000011
goleft:
WAITMS 250
PORTB = SHIFTLEFT(PORTB, 1)
IF PORTB = %11000000 THEN GOTO goright
GOTO goleft
goright:
WAITMS 250
PORTB = SHIFTRIGHT(PORTB, 1)
IF PORTB = %00000011 THEN GOTO goleft
GOTO goright
 

TRISB = 0x00
PORTB = %00000001
goleft:
WAITMS 250
PORTB = SHIFTLEFT(PORTB, 1)
IF PORTB.7 THEN goright
GOTO goleft
goright:
WAITMS 250
PORTB = SHIFTRIGHT(PORTB, 1)
IF PORTB.0 THEN goleft
GOTO goright

ADCIN statement is available as a support for internal A/D converter. Its first argument is ADC channel number and the second argument is a variable that will be used to store the result od A/D conversion. ADCIN statement uses two parameters ADC_CLOCK and ADC_SAMPLEUS that have default values 3 and 20. These default values can be changed using DEFINE directive. ADC_CLOCK parameter determines the choice for ADC clock source (0-3). ADC_SAMPLEUS parameter sets the desired ADC acquisition time in microseconds (0-255). ADCIN statement presupposes that the corresponding pin is configured as an analog input (TRIS and ADCON1 register). Here is one example:
DIM V(5) AS BYTE
DIM VM AS WORD
DIM I AS BYTE
DEFINE ADC_CLOCK = 3
DEFINE ADC_SAMPLEUS = 50
TRISA = 0xFF
TRISB = 0
ADCON1 = 0
FOR I = 0 TO 4
   ADCIN 0, V(I)
NEXT I
VM = 0
FOR I = 0 TO 4
   VM = VM + V(I)
NEXT I
VM = VM / 5
PORTB = VM.LB

Structured programs can be written using subroutine calls with GOSUB statement that uses line label name as argument. Return from a subroutine is performed by RETURN statement. User need to take care that the program structure is consistent. When using subroutines, main routine need to be ended with END statement. END statement is compiled as an infinite loop. Here is an example:
SYMBOL ad_action = ADCON0.2
SYMBOL display = PORTB
TRISB = %00000000
TRISA = %111111
ADCON0 = 0xC0
ADCON1 = 0
HIGH ADCON0.0
main:
GOSUB getadresult
display = ADRESH
GOTO main
END
getadresult:
HIGH ad_action
WHILE ad_action
WEND
RETURN

Interrupt routine should be placed as all other subroutines after the END statement. It should begin with ON INTERRUPT and end with RESUME statement. If arithmetic operations, arrays or any other complex statements are used in interrupt routine, then SAVE SYSTEM statement should be placed right after ON INTERRUPT statement to save the content of registers used by system. ENABLE and DISABLE statements can be used in main program to control GIE bit in INTCON register. For example:
DIM A AS BYTE
A = 255
TRISA = 0
PORTA = A
INTCON.4 = 1
ENABLE
END
ON INTERRUPT
   A = A - 1
   PORTA = A
   INTCON.1 = 0
RESUME
 

DIM T AS WORD
T = 0
TRISA = 0xFF
ADCON1 = 0
TRISB = 0
OPTION_REG.5 = 0
INTCON.5 = 1
ENABLE
loop:
   ADCIN 0, PORTB
GOTO loop
END
ON INTERRUPT
   SAVE SYSTEM
   T = T + 1
   INTCON.2 = 0
RESUME

Basic compiler also features the support for LCD modules. Prior to using LCD related statements, user should set up LCD interface using DEFINE directives. Here is the list of available parameters:
LCD_BITS - defines the number of data interface lines (allowed values are 4 and 8; default is 4)
LCD_DREG - defines the port where data lines are connected to (default is PORTB)
LCD_DBIT - defines the position of data lines for 4-bit interface (0 or 4; default is 4), ignored for 8-bit interface
LCD_RSREG - defines the port where RS line is connected to (default is PORTB)
LCD_RSBIT - defines the pin where RS line is connected to (default is 3)
LCD_EREG - defines the port where E line is connected to (default is PORTB)
LCD_EBIT - defines the pin where E line is connected to (default is 2)
LCD_RWREG - defines the port where R/W line is connected to (set to 0 if not used; 0 is default)
LCD_RWBIT - defines the pin where R/W line is connected to (set to 0 if not used; 0 is default)
LCD_COMMANDUS - defines the delay after LCDCMDOUT statement (default value is 5000)
LCD_DATAUS - defines the delay after LCDOUT statement (default value is 50)
LCD_INITMS - defines the delay for LCDINIT statement (default value is 100)
The last three parameters should be set to low values when using integrated LCD module simulator.

LCDINIT statement should be placed in the program before any of LCDOUT (used for sending data) and LCDCMDOUT (used for sending commands) statements. Its argument is used to define the cursor type: 0 = no cursor (default), 1 = blink, 2 = underline, 3 = blink + underline. LCDOUT and LCDCMDOUT statements may have multiple arguments separated by ','. Strings, constants and variables can be used as arguments of LCDOUT statement. If '#' sign is used before the name of a variable then its decimal representation is sent to the LCD module. Constants and variables can be used as arguments of LCDCMDOUT statement and the following keywords are also available: LcdClear, LcdHome, LcdLine2Home, LcdLeft, LcdRight, LcdShiftLeft, LcdShiftRight, LcdLine1Clear, LcdLine2Clear, LcdLine1Pos() and LcdLine2Pos(). Argument of LcdLine1Pos() and LcdLine2Pos() statements can be a number in the range (1-40) or Byte data type variable. The value contained in that variable should be in the same range. Here are some examples:
DEFINE LCD_BITS = 8
DEFINE LCD_DREG = PORTB
DEFINE LCD_DBIT = 0
DEFINE LCD_RSREG = PORTD
DEFINE LCD_RSBIT = 1
DEFINE LCD_EREG = PORTD
DEFINE LCD_EBIT = 3
DEFINE LCD_RWREG = PORTD
DEFINE LCD_RWBIT = 2
DEFINE LCD_COMMANDUS = 10000
DEFINE LCD_DATAUS = 100
DEFINE LCD_INITMS = 1000
LCDINIT
loop:
   LCDOUT "Hello world!"
   WAITMS 1000
   LCDCMDOUT LcdClear
   WAITMS 1000
GOTO loop
 

DEFINE LCD_BITS = 8
DEFINE LCD_DREG = PORTB
DEFINE LCD_DBIT = 0
DEFINE LCD_RSREG = PORTD
DEFINE LCD_RSBIT = 1
DEFINE LCD_EREG = PORTD
DEFINE LCD_EBIT = 3
DEFINE LCD_RWREG = PORTD
DEFINE LCD_RWBIT = 2
DEFINE LCD_COMMANDUS = 10000
DEFINE LCD_DATAUS = 100
DEFINE LCD_INITMS = 1000
DIM A AS WORD
A = 65535
LCDINIT 3
WAITMS 1000
loop:
   LCDOUT "I am counting!"
   LCDCMDOUT LcdLine2Home
   LCDOUT #A
   A = A - 1
   WAITMS 250
   LCDCMDOUT LcdClear
GOTO loop

LCD related statements will take control over TRIS registers connected with pins used for LCD interface, but if you use PORTA or PORTE pins on devices with A/D Converter Module then you should take control over ADCON1 register to set used pins as digital I/O.

You can setup up to eight user defined charcters to be used on LCD. This can easily be done with LCDDEFCHAR statement. The first argument of this statement is char number and must be in the range 0-7. Next 8 arguments form 8-line char pattern (from the top to the bottom) and must be in the range 0-31 (5-bits wide). These 8 user characters are assigned to char codes 0-7 and 8-15 and can be displayed using LCDOUT statement. After LCDDEFCHAR statement the cursor will be in HOME position. For example:
LCDDEFCHAR 0, 10, 10, 10, 10, 10, 10, 10, 10
LCDDEFCHAR 1, %11111, %10101, %10101, %10101, %10101,
%10101, %10101, %11111
LCDOUT 0, 1, "Hello!", 1, 0

The support for both hardware and software serial communication is also available. HSEROPEN, HSEROUT, HSERIN and HSERGET statements can be used with PIC devices that have internal hardware UART. HSEROPEN statement sets up the hardware UART. Its only argument is baud rate and allowed values are: 300, 600, 1200, 2400, 4800, 9600, 14400, 19200, 28800, 38400 and 56000. If the argument is omitted UART will be set up for 9600 baud rate. SEROUT statement is used for serial transmission. HSEROUT statement may have multiple arguments separated by ','. You can use strings, LF keyword for Line Feed character or CRLF keyword for Carriage Return - Line Feed sequence, constants and variables. If '#' sign is used before the name of a variable then its decimal representation is sent to the serial port. HSERIN statement can be used to load a list of Byte and Word variables with the values received on serial port. This statement will wait until the required number of bytes is received on serial port. HSERGET statement have one argument that must be a Byte variable. If there is a charcter waiting in the receive buffer it will be loaded in the variable, otherwise 0 value will be loaded. Here are some examples:
DIM I AS BYTE
HSEROPEN 38400
WAITMS 1000
FOR I = 20 TO 0 STEP -1
   HSEROUT "Number: ", #I, CrLf
   WAITMS 500
NEXT I
 

DIM I AS BYTE
HSEROPEN 19200
loop:
   HSERIN I
   HSEROUT "Number: ", #I, CrLf
GOTO loop
 

DIM I AS BYTE
HSEROPEN 19200
loop:
   HSERGET I
   IF I > 0 THEN
      HSEROUT "Number: ", #I, CrLf
      WAITMS 50
   ENDIF
GOTO loop

On all supported PIC devices you can use software serial communication routines with SEROUT and SERIN statements. The first argument of both statements must be one of the microcontroller's pins, and the second argument is baud rate: 300, 600, 1200, 2400, 4800 or 9600. For SEROUT statement then follows the list of arguments to be sent to serial port. You can use strings, LF keyword for Line Feed character or CRLF keyword for Carriage Return - Line Feed sequence, constants and variables. If '#' sign is used before the name of a variable then its decimal representation is sent to the serial port. SEROUT statement uses SEROUT_DELAYUS parameter that can be set by DEFINE directive and has default value of 1000 microseconds. This defines the delay interval before a character is actually sent to the port and it is used to increase the reliability of software SEROUT routine. For HSERIN statement then follows the list of Byte and Word variables to be loaded with the values received on serial port. This statement will wait until the required number of bytes is received on serial port. Some examples:
DEFINE SEROUT_DELAYUS = 5000
SEROUT PORTC.6, 1200, "Hello world!", CrLf
 

DIM I AS BYTE
loop:
   SERIN PORTC.7, 9600, I
   SEROUT PORTC.6, 9600, "Number: ", #I, CrLf
GOTO loop

It is possible to use comments in basic source programs. The comments must begin with single quote symbol (') and may be placed anywhere in the program.

Lines of assembler source code may be placed anywhere in basic source program and must begin with ASM: prefix. For example:
ASM:   NOP
ASM:LABEL1:   MOVLW 0xFF

BASIC compiler has no optimization abilities. Its assembler output has all necessary comment lines, that makes this compiler very useful for educational purposes, also. This is not the final release of integrated PIC BASIC compiler

PIC Programmer

PIC programmers and PIC programming are the main topics on many web sites. This page is the result of my intention to give my contribution to those efforts and to help the users of my PIC Simulator IDE and its integrated basic compiler get some basic information how to put the generated HEX code into a real PIC chip.

The PIC programmer and PIC programming software that is presented here has been tested by now with the following models: 16F84A-20, 16F628-20, 16F874-20. It is firmly believed that all 16F devices from Microchip PICmicro product line (16F627, 16F628, 16F72, 16F73, 16F74, 16F76, 16F77, 16F83, 16F84, 16F870, 16F871, 16F872, 16F873, 16F874, 16F876, 16F877) can be programmed using this equipment. The reports regarding the models you have personally tested will be appreciated.

Oshon PIC Programmer software is very easy to use and works on all Windows platforms (including Windows XP). It is free software and you can download it here - download. PIC Simulator IDE should also be installed on your PC prior to using the programming software.

Oshon PIC Programmer uses PC's parallel port to communicate with programming hardware. The programming hardware should meet the following requirements:
- Pins 18-25 of parallel port connector should be connected to GND line on the programmer
- Pin 4 (D2) should control (turn on/off) VDD voltage on VDD pin of PIC chip
- Pin 5 (D3) should control VPP (programming high) voltage on MCLR pin of PIC chip
- Pin 3 (D1) should control CLOCK line on RB6 pin of PIC chip
- Pin 2 (D0) should control DATA line on RB7 pin of PIC chip
- Pin 10 (ACK) should be controlled by the DATA line (RB7 pin of PIC chip)

The polarity of the responses of all these signals can be inverted by the software, and should not affect the hardware design. It is required that programmer has its own power supply with two voltage levels: 13V for MCLR pin (programming voltage) and 5V for the rest of hardware.

There are many PIC programming hardwares all over the Internet that meet these requirements. I present here the schematics of one simple design that I personally use to program my PIC chips. This schematics is also available from the Hardware menu of the programming software.

15V to 25V will do for this circuit. Many people connect 2 x 9V batteries together.

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