OpenCores
URL https://opencores.org/ocsvn/openrisc/openrisc/trunk

Subversion Repositories openrisc

Compare Revisions

  • This comparison shows the changes necessary to convert path 
    /openrisc/trunk/rtos/freertos-6.1.1/Demo/dsPIC_MPLAB
    from Rev 590 to Rev 591
    ↔ Reverse comparison
  •

Rev 590 → Rev 591

/ParTest/ParTest.c
0,0 → 1,134
/*
FreeRTOS V6.1.1 - Copyright (C) 2011 Real Time Engineers Ltd.
 
***************************************************************************
* *
* If you are: *
* *
* + New to FreeRTOS, *
* + Wanting to learn FreeRTOS or multitasking in general quickly *
* + Looking for basic training, *
* + Wanting to improve your FreeRTOS skills and productivity *
* *
* then take a look at the FreeRTOS books - available as PDF or paperback *
* *
* "Using the FreeRTOS Real Time Kernel - a Practical Guide" *
* http://www.FreeRTOS.org/Documentation *
* *
* A pdf reference manual is also available. Both are usually delivered *
* to your inbox within 20 minutes to two hours when purchased between 8am *
* and 8pm GMT (although please allow up to 24 hours in case of *
* exceptional circumstances). Thank you for your support! *
* *
***************************************************************************
 
This file is part of the FreeRTOS distribution.
 
FreeRTOS is free software; you can redistribute it and/or modify it under
the terms of the GNU General Public License (version 2) as published by the
Free Software Foundation AND MODIFIED BY the FreeRTOS exception.
***NOTE*** The exception to the GPL is included to allow you to distribute
a combined work that includes FreeRTOS without being obliged to provide the
source code for proprietary components outside of the FreeRTOS kernel.
FreeRTOS is distributed in the hope that it will be useful, but WITHOUT
ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for
more details. You should have received a copy of the GNU General Public
License and the FreeRTOS license exception along with FreeRTOS; if not it
can be viewed here: http://www.freertos.org/a00114.html and also obtained
by writing to Richard Barry, contact details for whom are available on the
FreeRTOS WEB site.
 
1 tab == 4 spaces!
 
http://www.FreeRTOS.org - Documentation, latest information, license and
contact details.
 
http://www.SafeRTOS.com - A version that is certified for use in safety
critical systems.
 
http://www.OpenRTOS.com - Commercial support, development, porting,
licensing and training services.
*/
 
/* Scheduler includes. */
#include "FreeRTOS.h"
 
/* Demo app includes. */
#include "partest.h"
 
#define ptOUTPUT 0
#define ptALL_OFF 0
 
unsigned portBASE_TYPE uxOutput;
 
/*-----------------------------------------------------------
* Simple parallel port IO routines.
*-----------------------------------------------------------*/
 
void vParTestInitialise( void )
{
/* The explorer 16 board has LED's on port A. All bits are set as output
so PORTA is read-modified-written directly. Two pins have change
notification pullups that need disabling. */
CNPU2bits.CN22PUE = 0;
CNPU2bits.CN23PUE = 0;
TRISA = ptOUTPUT;
PORTA = ptALL_OFF;
uxOutput = ptALL_OFF;
}
/*-----------------------------------------------------------*/
 
void vParTestSetLED( unsigned portBASE_TYPE uxLED, signed portBASE_TYPE xValue )
{
unsigned portBASE_TYPE uxLEDBit;
 
/* Which port A bit is being modified? */
uxLEDBit = 1 << uxLED;
 
if( xValue )
{
/* Turn the LED on. */
portENTER_CRITICAL();
{
uxOutput |= uxLEDBit;
PORTA = uxOutput;
}
portEXIT_CRITICAL();
}
else
{
/* Turn the LED off. */
portENTER_CRITICAL();
{
uxOutput &= ~uxLEDBit;
PORTA = uxOutput;
}
portEXIT_CRITICAL();
}
}
/*-----------------------------------------------------------*/
 
void vParTestToggleLED( unsigned portBASE_TYPE uxLED )
{
unsigned portBASE_TYPE uxLEDBit;
 
uxLEDBit = 1 << uxLED;
portENTER_CRITICAL();
{
/* If the LED is already on - turn it off. If the LED is already
off, turn it on. */
if( uxOutput & uxLEDBit )
{
uxOutput &= ~uxLEDBit;
PORTA = uxOutput;
}
else
{
uxOutput |= uxLEDBit;
PORTA = uxOutput;
}
}
portEXIT_CRITICAL();
}
 
/lcd.c
0,0 → 1,350
/*
FreeRTOS V6.1.1 - Copyright (C) 2011 Real Time Engineers Ltd.
 
***************************************************************************
* *
* If you are: *
* *
* + New to FreeRTOS, *
* + Wanting to learn FreeRTOS or multitasking in general quickly *
* + Looking for basic training, *
* + Wanting to improve your FreeRTOS skills and productivity *
* *
* then take a look at the FreeRTOS books - available as PDF or paperback *
* *
* "Using the FreeRTOS Real Time Kernel - a Practical Guide" *
* http://www.FreeRTOS.org/Documentation *
* *
* A pdf reference manual is also available. Both are usually delivered *
* to your inbox within 20 minutes to two hours when purchased between 8am *
* and 8pm GMT (although please allow up to 24 hours in case of *
* exceptional circumstances). Thank you for your support! *
* *
***************************************************************************
 
This file is part of the FreeRTOS distribution.
 
FreeRTOS is free software; you can redistribute it and/or modify it under
the terms of the GNU General Public License (version 2) as published by the
Free Software Foundation AND MODIFIED BY the FreeRTOS exception.
***NOTE*** The exception to the GPL is included to allow you to distribute
a combined work that includes FreeRTOS without being obliged to provide the
source code for proprietary components outside of the FreeRTOS kernel.
FreeRTOS is distributed in the hope that it will be useful, but WITHOUT
ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for
more details. You should have received a copy of the GNU General Public
License and the FreeRTOS license exception along with FreeRTOS; if not it
can be viewed here: http://www.freertos.org/a00114.html and also obtained
by writing to Richard Barry, contact details for whom are available on the
FreeRTOS WEB site.
 
1 tab == 4 spaces!
 
http://www.FreeRTOS.org - Documentation, latest information, license and
contact details.
 
http://www.SafeRTOS.com - A version that is certified for use in safety
critical systems.
 
http://www.OpenRTOS.com - Commercial support, development, porting,
licensing and training services.
*/
 
/* Scheduler includes. */
#include "FreeRTOS.h"
#include "task.h"
#include "queue.h"
 
/* Demo includes. */
#include "lcd.h"
 
/*
* The LCD is written to by more than one task so is controlled by this
* 'gatekeeper' task. This is the only task that is actually permitted to
* access the LCD directly. Other tasks wanting to display a message send
* the message to the gatekeeper.
*/
static void vLCDTask( void *pvParameters );
 
/*
* Setup the peripherals required to communicate with the LCD.
*/
static void prvSetupLCD( void );
 
/*
* Move to the first (0) or second (1) row of the LCD.
*/
static void prvLCDGotoRow( unsigned portSHORT usRow );
 
/*
* Write a string of text to the LCD.
*/
static void prvLCDPutString( portCHAR *pcString );
 
/*
* Clear the LCD.
*/
static void prvLCDClear( void );
 
/*-----------------------------------------------------------*/
 
/* Brief delay to permit the LCD to catch up with commands. */
#define lcdVERY_SHORT_DELAY ( 1 )
#define lcdSHORT_DELAY ( 4 / portTICK_RATE_MS )
#define lcdLONG_DELAY ( 15 / portTICK_RATE_MS )
 
/* LCD commands. */
#define lcdCLEAR ( 0x01 )
#define lcdHOME ( 0x02 )
#define lcdLINE2 ( 0xc0 )
 
/* SFR that seems to be missing from the standard header files. */
#define PMAEN *( ( unsigned short * ) 0x60c )
 
/* LCD R/W signal. */
#define lcdRW LATDbits.LATD5
 
/* LCD lcdRS signal. */
#define lcdRS LATBbits.LATB15
 
/* LCD lcdE signal . */
#define lcdE LATDbits.LATD4
 
/* Control signal pin direction. */
#define RW_TRIS TRISDbits.TRISD5
#define RS_TRIS TRISBbits.TRISB15
#define E_TRIS TRISDbits.TRISD4
 
/* Port for LCD data */
#define lcdDATA LATE
#define lcdDATAPORT PORTE
 
/* I/O setup for data Port. */
#define TRISDATA TRISE
 
/* The length of the queue used to send messages to the LCD gatekeeper task. */
#define lcdQUEUE_SIZE 3
/*-----------------------------------------------------------*/
 
/* The queue used to send messages to the LCD task. */
xQueueHandle xLCDQueue;
 
static void prvLCDCommand( portCHAR cCommand );
static void prvLCDData( portCHAR cChar );
 
/*-----------------------------------------------------------*/
 
xQueueHandle xStartLCDTask( void )
{
/* Create the queue used by the LCD task. Messages for display on the LCD
are received via this queue. */
xLCDQueue = xQueueCreate( lcdQUEUE_SIZE, sizeof( xLCDMessage ) );
 
/* Start the task that will write to the LCD. The LCD hardware is
initialised from within the task itself so delays can be used. */
xTaskCreate( vLCDTask, ( signed portCHAR * ) "LCD", configMINIMAL_STACK_SIZE, NULL, tskIDLE_PRIORITY + 1, NULL );
 
return xLCDQueue;
}
/*-----------------------------------------------------------*/
 
static void prvLCDGotoRow( unsigned portSHORT usRow )
{
if( usRow == 0 )
{
prvLCDCommand( lcdHOME );
}
else
{
prvLCDCommand( lcdLINE2 );
}
}
/*-----------------------------------------------------------*/
 
static void prvLCDCommand( portCHAR cCommand )
{
/* Prepare RD0 - RD7. */
lcdDATA &= 0xFF00;
 
/* Command byte to lcd. */
lcdDATA |= cCommand;
 
/* Ensure lcdRW is 0. */
lcdRW = 0;
lcdRS = 0;
 
/* Toggle lcdE line. */
lcdE = 1;
vTaskDelay( lcdVERY_SHORT_DELAY );
lcdE = 0;
 
vTaskDelay( lcdSHORT_DELAY );
}
/*-----------------------------------------------------------*/
 
static void prvLCDData( portCHAR cChar )
{
/* ensure lcdRW is 0. */
lcdRW = 0;
 
/* Assert register select to 1. */
lcdRS = 1;
 
/* Prepare RD0 - RD7. */
lcdDATA &= 0xFF00;
 
/* Data byte to lcd. */
lcdDATA |= cChar;
lcdE = 1;
Nop();
Nop();
Nop();
 
/* Toggle lcdE signal. */
lcdE = 0;
 
/* Negate register select to 0. */
lcdRS = 0;
 
vTaskDelay( lcdVERY_SHORT_DELAY );
}
/*-----------------------------------------------------------*/
 
static void prvLCDPutString( portCHAR *pcString )
{
/* Write out each character with appropriate delay between each. */
while( *pcString )
{
prvLCDData( *pcString );
pcString++;
vTaskDelay( lcdSHORT_DELAY );
}
}
/*-----------------------------------------------------------*/
 
static void prvLCDClear( void )
{
prvLCDCommand( lcdCLEAR );
}
/*-----------------------------------------------------------*/
 
static void prvSetupLCD( void )
{
/* Wait for proper power up. */
vTaskDelay( lcdLONG_DELAY );
/* Set initial states for the data and control pins */
LATE &= 0xFF00;
 
/* R/W state set low. */
lcdRW = 0;
 
/* lcdRS state set low. */
lcdRS = 0;
 
/* lcdE state set low. */
lcdE = 0;
 
/* Set data and control pins to outputs */
TRISE &= 0xFF00;
 
/* lcdRW pin set as output. */
RW_TRIS = 0;
 
/* lcdRS pin set as output. */
RS_TRIS = 0;
 
/* lcdE pin set as output. */
E_TRIS = 0;
 
/* 1st LCD initialization sequence */
lcdDATA &= 0xFF00;
lcdDATA |= 0x0038;
lcdE = 1;
Nop();
Nop();
Nop();
 
/* Toggle lcdE signal. */
lcdE = 0;
 
vTaskDelay( lcdSHORT_DELAY );
vTaskDelay( lcdSHORT_DELAY );
vTaskDelay( lcdSHORT_DELAY );
/* 2nd LCD initialization sequence */
lcdDATA &= 0xFF00;
lcdDATA |= 0x0038;
lcdE = 1;
Nop();
Nop();
Nop();
 
/* Toggle lcdE signal. */
lcdE = 0;
 
vTaskDelay( lcdSHORT_DELAY );
 
/* 3rd LCD initialization sequence */
lcdDATA &= 0xFF00;
lcdDATA |= 0x0038;
lcdE = 1;
Nop();
Nop();
Nop();
 
/* Toggle lcdE signal. */
lcdE = 0;
 
vTaskDelay( lcdSHORT_DELAY );
 
 
/* Function set. */
prvLCDCommand( 0x38 );
 
/* Display on/off control, cursor blink off (0x0C). */
prvLCDCommand( 0x0C );
 
/* Entry mode set (0x06). */
prvLCDCommand( 0x06 );
 
prvLCDCommand( lcdCLEAR );
}
/*-----------------------------------------------------------*/
 
static void vLCDTask( void *pvParameters )
{
xLCDMessage xMessage;
unsigned portSHORT usRow = 0;
 
/* Initialise the hardware. This uses delays so must not be called prior
to the scheduler being started. */
prvSetupLCD();
 
/* Welcome message. */
prvLCDPutString( "www.FreeRTOS.org" );
 
for( ;; )
{
/* Wait for a message to arrive that requires displaying. */
while( xQueueReceive( xLCDQueue, &xMessage, portMAX_DELAY ) != pdPASS );
 
/* Clear the current display value. */
prvLCDClear();
 
/* Switch rows each time so we can see that the display is still being
updated. */
prvLCDGotoRow( usRow & 0x01 );
usRow++;
prvLCDPutString( xMessage.pcMessage );
 
/* Delay the requested amount of time to ensure the text just written
to the LCD is not overwritten. */
vTaskDelay( xMessage.xMinDisplayTime );
}
}
 
 
 
 
/FreeRTOSConfig.h
0,0 → 1,102
/*
FreeRTOS V6.1.1 - Copyright (C) 2011 Real Time Engineers Ltd.
 
***************************************************************************
* *
* If you are: *
* *
* + New to FreeRTOS, *
* + Wanting to learn FreeRTOS or multitasking in general quickly *
* + Looking for basic training, *
* + Wanting to improve your FreeRTOS skills and productivity *
* *
* then take a look at the FreeRTOS books - available as PDF or paperback *
* *
* "Using the FreeRTOS Real Time Kernel - a Practical Guide" *
* http://www.FreeRTOS.org/Documentation *
* *
* A pdf reference manual is also available. Both are usually delivered *
* to your inbox within 20 minutes to two hours when purchased between 8am *
* and 8pm GMT (although please allow up to 24 hours in case of *
* exceptional circumstances). Thank you for your support! *
* *
***************************************************************************
 
This file is part of the FreeRTOS distribution.
 
FreeRTOS is free software; you can redistribute it and/or modify it under
the terms of the GNU General Public License (version 2) as published by the
Free Software Foundation AND MODIFIED BY the FreeRTOS exception.
***NOTE*** The exception to the GPL is included to allow you to distribute
a combined work that includes FreeRTOS without being obliged to provide the
source code for proprietary components outside of the FreeRTOS kernel.
FreeRTOS is distributed in the hope that it will be useful, but WITHOUT
ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for
more details. You should have received a copy of the GNU General Public
License and the FreeRTOS license exception along with FreeRTOS; if not it
can be viewed here: http://www.freertos.org/a00114.html and also obtained
by writing to Richard Barry, contact details for whom are available on the
FreeRTOS WEB site.
 
1 tab == 4 spaces!
 
http://www.FreeRTOS.org - Documentation, latest information, license and
contact details.
 
http://www.SafeRTOS.com - A version that is certified for use in safety
critical systems.
 
http://www.OpenRTOS.com - Commercial support, development, porting,
licensing and training services.
*/
 
#ifndef FREERTOS_CONFIG_H
#define FREERTOS_CONFIG_H
 
#include <p33FJ256GP710.h>
 
/*-----------------------------------------------------------
* Application specific definitions.
*
* These definitions should be adjusted for your particular hardware and
* application requirements.
*
* THESE PARAMETERS ARE DESCRIBED WITHIN THE 'CONFIGURATION' SECTION OF THE
* FreeRTOS API DOCUMENTATION AVAILABLE ON THE FreeRTOS.org WEB SITE.
*
* See http://www.freertos.org/a00110.html.
*----------------------------------------------------------*/
 
#define configUSE_PREEMPTION 1
#define configUSE_IDLE_HOOK 1
#define configUSE_TICK_HOOK 0
#define configTICK_RATE_HZ ( ( portTickType ) 1000 )
#define configCPU_CLOCK_HZ ( ( unsigned long ) 25000000 ) /* Fosc / 2 */
#define configMAX_PRIORITIES ( ( unsigned portBASE_TYPE ) 4 )
#define configMINIMAL_STACK_SIZE ( 105 )
#define configTOTAL_HEAP_SIZE ( ( size_t ) 5120 )
#define configMAX_TASK_NAME_LEN ( 4 )
#define configUSE_TRACE_FACILITY 0
#define configUSE_16_BIT_TICKS 1
#define configIDLE_SHOULD_YIELD 1
 
/* Co-routine definitions. */
#define configUSE_CO_ROUTINES 1
#define configMAX_CO_ROUTINE_PRIORITIES ( 2 )
 
/* Set the following definitions to 1 to include the API function, or zero
to exclude the API function. */
 
#define INCLUDE_vTaskPrioritySet 1
#define INCLUDE_uxTaskPriorityGet 0
#define INCLUDE_vTaskDelete 0
#define INCLUDE_vTaskCleanUpResources 0
#define INCLUDE_vTaskSuspend 1
#define INCLUDE_vTaskDelayUntil 1
#define INCLUDE_vTaskDelay 1
 
 
#define configKERNEL_INTERRUPT_PRIORITY 0x01
 
#endif /* FREERTOS_CONFIG_H */
/main.c
0,0 → 1,273
/*
FreeRTOS V6.1.1 - Copyright (C) 2011 Real Time Engineers Ltd.
 
***************************************************************************
* *
* If you are: *
* *
* + New to FreeRTOS, *
* + Wanting to learn FreeRTOS or multitasking in general quickly *
* + Looking for basic training, *
* + Wanting to improve your FreeRTOS skills and productivity *
* *
* then take a look at the FreeRTOS books - available as PDF or paperback *
* *
* "Using the FreeRTOS Real Time Kernel - a Practical Guide" *
* http://www.FreeRTOS.org/Documentation *
* *
* A pdf reference manual is also available. Both are usually delivered *
* to your inbox within 20 minutes to two hours when purchased between 8am *
* and 8pm GMT (although please allow up to 24 hours in case of *
* exceptional circumstances). Thank you for your support! *
* *
***************************************************************************
 
This file is part of the FreeRTOS distribution.
 
FreeRTOS is free software; you can redistribute it and/or modify it under
the terms of the GNU General Public License (version 2) as published by the
Free Software Foundation AND MODIFIED BY the FreeRTOS exception.
***NOTE*** The exception to the GPL is included to allow you to distribute
a combined work that includes FreeRTOS without being obliged to provide the
source code for proprietary components outside of the FreeRTOS kernel.
FreeRTOS is distributed in the hope that it will be useful, but WITHOUT
ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for
more details. You should have received a copy of the GNU General Public
License and the FreeRTOS license exception along with FreeRTOS; if not it
can be viewed here: http://www.freertos.org/a00114.html and also obtained
by writing to Richard Barry, contact details for whom are available on the
FreeRTOS WEB site.
 
1 tab == 4 spaces!
 
http://www.FreeRTOS.org - Documentation, latest information, license and
contact details.
 
http://www.SafeRTOS.com - A version that is certified for use in safety
critical systems.
 
http://www.OpenRTOS.com - Commercial support, development, porting,
licensing and training services.
*/
 
/*
* Creates all the demo application tasks, then starts the scheduler. The WEB
* documentation provides more details of the standard demo application tasks.
* In addition to the standard demo tasks, the following tasks and tests are
* defined and/or created within this file:
*
* "Fast Interrupt Test" - A high frequency periodic interrupt is generated
* using a free running timer to demonstrate the use of the
* configKERNEL_INTERRUPT_PRIORITY configuration constant. The interrupt
* service routine measures the number of processor clocks that occur between
* each interrupt - and in so doing measures the jitter in the interrupt
* timing. The maximum measured jitter time is latched in the usMaxJitter
* variable, and displayed on the LCD by the 'Check' as described below.
* The fast interrupt is configured and handled in the timer_test.c source
* file.
*
* "LCD" task - the LCD task is a 'gatekeeper' task. It is the only task that
* is permitted to access the LCD directly. Other tasks wishing to write a
* message to the LCD send the message on a queue to the LCD task instead of
* accessing the LCD themselves. The LCD task just blocks on the queue waiting
* for messages - waking and displaying the messages as they arrive. The LCD
* task is defined in lcd.c.
*
* "Check" task - This only executes every three seconds but has the highest
* priority so is guaranteed to get processor time. Its main function is to
* check that all the standard demo tasks are still operational. Should any
* unexpected behaviour within a demo task be discovered the 'check' task will
* write "FAIL #n" to the LCD (via the LCD task). If all the demo tasks are
* executing with their expected behaviour then the check task writes the max
* jitter time to the LCD (again via the LCD task), as described above.
*/
 
/* Standard includes. */
#include <stdio.h>
 
/* Scheduler includes. */
#include "FreeRTOS.h"
#include "task.h"
#include "queue.h"
#include "croutine.h"
 
/* Demo application includes. */
#include "BlockQ.h"
#include "crflash.h"
#include "blocktim.h"
#include "integer.h"
#include "comtest2.h"
#include "partest.h"
#include "lcd.h"
#include "timertest.h"
 
/* Demo task priorities. */
#define mainBLOCK_Q_PRIORITY ( tskIDLE_PRIORITY + 2 )
#define mainCHECK_TASK_PRIORITY ( tskIDLE_PRIORITY + 3 )
#define mainCOM_TEST_PRIORITY ( 2 )
 
/* The check task may require a bit more stack as it calls sprintf(). */
#define mainCHECK_TAKS_STACK_SIZE ( configMINIMAL_STACK_SIZE * 2 )
 
/* The execution period of the check task. */
#define mainCHECK_TASK_PERIOD ( ( portTickType ) 3000 / portTICK_RATE_MS )
 
/* The number of flash co-routines to create. */
#define mainNUM_FLASH_COROUTINES ( 5 )
 
/* Baud rate used by the comtest tasks. */
#define mainCOM_TEST_BAUD_RATE ( 19200 )
 
/* The LED used by the comtest tasks. mainCOM_TEST_LED + 1 is also used.
See the comtest.c file for more information. */
#define mainCOM_TEST_LED ( 6 )
 
/* The frequency at which the "fast interrupt test" interrupt will occur. */
#define mainTEST_INTERRUPT_FREQUENCY ( 20000 )
 
/* The number of processor clocks we expect to occur between each "fast
interrupt test" interrupt. */
#define mainEXPECTED_CLOCKS_BETWEEN_INTERRUPTS ( configCPU_CLOCK_HZ / mainTEST_INTERRUPT_FREQUENCY )
 
/* The number of nano seconds between each processor clock. */
#define mainNS_PER_CLOCK ( ( unsigned short ) ( ( 1.0 / ( double ) configCPU_CLOCK_HZ ) * 1000000000.0 ) )
 
/* Dimension the buffer used to hold the value of the maximum jitter time when
it is converted to a string. */
#define mainMAX_STRING_LENGTH ( 20 )
 
/*-----------------------------------------------------------*/
 
/*
* The check task as described at the top of this file.
*/
static void vCheckTask( void *pvParameters );
 
/*
* Setup the processor ready for the demo.
*/
static void prvSetupHardware( void );
 
/*-----------------------------------------------------------*/
 
/* The queue used to send messages to the LCD task. */
static xQueueHandle xLCDQueue;
 
/*-----------------------------------------------------------*/
 
/*
* Create the demo tasks then start the scheduler.
*/
int main( void )
{
/* Configure any hardware required for this demo. */
prvSetupHardware();
 
/* Create the standard demo tasks. */
vStartBlockingQueueTasks( mainBLOCK_Q_PRIORITY );
vStartIntegerMathTasks( tskIDLE_PRIORITY );
vStartFlashCoRoutines( mainNUM_FLASH_COROUTINES );
vAltStartComTestTasks( mainCOM_TEST_PRIORITY, mainCOM_TEST_BAUD_RATE, mainCOM_TEST_LED );
vCreateBlockTimeTasks();
 
/* Create the test tasks defined within this file. */
xTaskCreate( vCheckTask, ( signed char * ) "Check", mainCHECK_TAKS_STACK_SIZE, NULL, mainCHECK_TASK_PRIORITY, NULL );
 
/* Start the task that will control the LCD. This returns the handle
to the queue used to write text out to the task. */
xLCDQueue = xStartLCDTask();
 
/* Start the high frequency interrupt test. */
vSetupTimerTest( mainTEST_INTERRUPT_FREQUENCY );
 
/* Finally start the scheduler. */
vTaskStartScheduler();
 
/* Will only reach here if there is insufficient heap available to start
the scheduler. */
return 0;
}
/*-----------------------------------------------------------*/
 
static void prvSetupHardware( void )
{
vParTestInitialise();
}
/*-----------------------------------------------------------*/
 
static void vCheckTask( void *pvParameters )
{
/* Used to wake the task at the correct frequency. */
portTickType xLastExecutionTime;
 
/* The maximum jitter time measured by the fast interrupt test. */
extern unsigned short usMaxJitter ;
 
/* Buffer into which the maximum jitter time is written as a string. */
static char cStringBuffer[ mainMAX_STRING_LENGTH ];
 
/* The message that is sent on the queue to the LCD task. The first
parameter is the minimum time (in ticks) that the message should be
left on the LCD without being overwritten. The second parameter is a pointer
to the message to display itself. */
xLCDMessage xMessage = { 0, cStringBuffer };
 
/* Set to pdTRUE should an error be detected in any of the standard demo tasks. */
unsigned short usErrorDetected = pdFALSE;
 
/* Initialise xLastExecutionTime so the first call to vTaskDelayUntil()
works correctly. */
xLastExecutionTime = xTaskGetTickCount();
 
for( ;; )
{
/* Wait until it is time for the next cycle. */
vTaskDelayUntil( &xLastExecutionTime, mainCHECK_TASK_PERIOD );
 
/* Has an error been found in any of the standard demo tasks? */
 
if( xAreIntegerMathsTaskStillRunning() != pdTRUE )
{
usErrorDetected = pdTRUE;
sprintf( cStringBuffer, "FAIL #1" );
}
if( xAreComTestTasksStillRunning() != pdTRUE )
{
usErrorDetected = pdTRUE;
sprintf( cStringBuffer, "FAIL #2" );
}
 
if( xAreBlockTimeTestTasksStillRunning() != pdTRUE )
{
usErrorDetected = pdTRUE;
sprintf( cStringBuffer, "FAIL #3" );
}
 
if( xAreBlockingQueuesStillRunning() != pdTRUE )
{
usErrorDetected = pdTRUE;
sprintf( cStringBuffer, "FAIL #4" );
}
 
if( usErrorDetected == pdFALSE )
{
/* No errors have been discovered, so display the maximum jitter
timer discovered by the "fast interrupt test". */
sprintf( cStringBuffer, "%dns max jitter", ( short ) ( usMaxJitter - mainEXPECTED_CLOCKS_BETWEEN_INTERRUPTS ) * mainNS_PER_CLOCK );
}
 
/* Send the message to the LCD gatekeeper for display. */
xQueueSend( xLCDQueue, &xMessage, portMAX_DELAY );
}
}
/*-----------------------------------------------------------*/
 
void vApplicationIdleHook( void )
{
/* Schedule the co-routines from within the idle task hook. */
vCoRoutineSchedule();
}
/*-----------------------------------------------------------*/
 
/p33FJ256GP710.gld
0,0 → 1,1986
/*
** Linker script for PIC33FJ256GP710
*/
 
OUTPUT_ARCH("33FJ256GP710")
EXTERN(__resetPRI)
EXTERN(__resetALT)
 
 
/*
** Memory Regions
*/
MEMORY
{
data (a!xr) : ORIGIN = 0x800, LENGTH = 0x7800
reset : ORIGIN = 0x0, LENGTH = 0x4
ivt : ORIGIN = 0x4, LENGTH = 0xFC
aivt : ORIGIN = 0x104, LENGTH = 0xFC
program (xr) : ORIGIN = 0x200, LENGTH = 0x2AA00
FBS : ORIGIN = 0xF80000, LENGTH = 0x2
FSS : ORIGIN = 0xF80002, LENGTH = 0x2
FGS : ORIGIN = 0xF80004, LENGTH = 0x2
FOSCSEL : ORIGIN = 0xF80006, LENGTH = 0x2
FOSC : ORIGIN = 0xF80008, LENGTH = 0x2
FWDT : ORIGIN = 0xF8000A, LENGTH = 0x2
FPOR : ORIGIN = 0xF8000C, LENGTH = 0x2
CONFIG3 : ORIGIN = 0xF8000E, LENGTH = 0x2
FUID0 : ORIGIN = 0xF80010, LENGTH = 0x2
FUID1 : ORIGIN = 0xF80012, LENGTH = 0x2
FUID2 : ORIGIN = 0xF80014, LENGTH = 0x2
FUID3 : ORIGIN = 0xF80016, LENGTH = 0x2
}
__IVT_BASE = 0x4;
__AIVT_BASE = 0x104;
__DATA_BASE = 0x800;
__YDATA_BASE = 0x4800;
__DMA_BASE = 0x7800;
__DMA_END = 0x7FFF;
__CODE_BASE = 0x200;
 
 
/*
** ==================== Section Map ======================
*/
SECTIONS
{
/*
** ========== Program Memory ==========
*/
 
 
/*
** Reset Instruction
*/
.reset :
{
SHORT(ABSOLUTE(__reset));
SHORT(0x04);
SHORT((ABSOLUTE(__reset) >> 16) & 0x7F);
SHORT(0);
} >reset
 
 
/*
** Interrupt Vector Tables
**
** The primary and alternate tables are loaded
** here, between sections .reset and .text.
** Vector table source code appears below.
*/
 
 
/*
** User Code and Library Code
*/
.text __CODE_BASE :
{
*(.handle);
*(.libc) *(.libm) *(.libdsp); /* keep together in this order */
*(.lib*);
*(.text);
} >program
 
 
/*
** Configuration Words
*/
__FBS :
{ *(__FBS.sec) } >FBS
__FSS :
{ *(__FSS.sec) } >FSS
__FGS :
{ *(__FGS.sec) } >FGS
__FOSCSEL :
{ *(__FOSCSEL.sec) } >FOSCSEL
__FOSC :
{ *(__FOSC.sec) } >FOSC
__FWDT :
{ *(__FWDT.sec) } >FWDT
__FPOR :
{ *(__FPOR.sec) } >FPOR
__FUID0 :
{ *(__FUID0.sec) } >FUID0
__FUID1 :
{ *(__FUID1.sec) } >FUID1
__FUID2 :
{ *(__FUID2.sec) } >FUID2
__FUID3 :
{ *(__FUID3.sec) } >FUID3
 
 
/*
** =========== Data Memory ===========
*/
 
 
/*
** ICD Debug Exec
**
** This section provides optional storage for
** the ICD2 debugger. Define a global symbol
** named __ICD2RAM to enable ICD2. This section
** must be loaded at data address 0x800.
*/
.icd __DATA_BASE (NOLOAD):
{
. += (DEFINED (__ICD2RAM) ? 0x50 : 0 );
} > data
 
 
/*
** Other sections in data memory are not explicitly mapped.
** Instead they are allocated according to their section
** attributes, which is most efficient.
**
** If a specific arrangement of sections is required
** (other than what can be achieved using attributes)
** additional sections may be defined here. See chapter
** 10.5 in the MPLAB ASM30/LINK30 User's Guide (DS51317)
** for more information.
*/
 
 
/*
** ========== Debug Info ==============
*/
 
.comment 0 : { *(.comment) }
 
/*
** DWARF-2
*/
.debug_info 0 : { *(.debug_info) *(.gnu.linkonce.wi.*) }
.debug_abbrev 0 : { *(.debug_abbrev) }
.debug_line 0 : { *(.debug_line) }
.debug_frame 0 : { *(.debug_frame) }
.debug_str 0 : { *(.debug_str) }
.debug_loc 0 : { *(.debug_loc) }
.debug_macinfo 0 : { *(.debug_macinfo) }
.debug_pubnames 0 : { *(.debug_pubnames) }
.debug_ranges 0 : { *(.debug_ranges) }
.debug_aranges 0 : { *(.debug_aranges) }
 
} /* SECTIONS */
 
/*
** ================= End of Section Map ================
*/
 
/*
** Section Map for Interrupt Vector Tables
*/
SECTIONS
{
 
/*
** Interrupt Vector Table
*/
.ivt __IVT_BASE :
{
LONG( DEFINED(__ReservedTrap0) ? ABSOLUTE(__ReservedTrap0) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__OscillatorFail) ? ABSOLUTE(__OscillatorFail) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__AddressError) ? ABSOLUTE(__AddressError) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__StackError) ? ABSOLUTE(__StackError) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__MathError) ? ABSOLUTE(__MathError) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DMACError) ? ABSOLUTE(__DMACError) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__ReservedTrap6) ? ABSOLUTE(__ReservedTrap6) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__ReservedTrap7) ? ABSOLUTE(__ReservedTrap7) :
ABSOLUTE(__DefaultInterrupt));
 
LONG( DEFINED(__INT0Interrupt) ? ABSOLUTE(__INT0Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__IC1Interrupt) ? ABSOLUTE(__IC1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__OC1Interrupt) ? ABSOLUTE(__OC1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__T1Interrupt) ? ABSOLUTE(__T1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DMA0Interrupt) ? ABSOLUTE(__DMA0Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__IC2Interrupt) ? ABSOLUTE(__IC2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__OC2Interrupt) ? ABSOLUTE(__OC2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__T2Interrupt) ? ABSOLUTE(__T2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__T3Interrupt) ? ABSOLUTE(__T3Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__SPI1ErrInterrupt) ? ABSOLUTE(__SPI1ErrInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__SPI1Interrupt) ? ABSOLUTE(__SPI1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__U1RXInterrupt) ? ABSOLUTE(__U1RXInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__U1TXInterrupt) ? ABSOLUTE(__U1TXInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__ADC1Interrupt) ? ABSOLUTE(__ADC1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DMA1Interrupt) ? ABSOLUTE(__DMA1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt15) ? ABSOLUTE(__Interrupt15) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__SI2C1Interrupt) ? ABSOLUTE(__SI2C1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__MI2C1Interrupt) ? ABSOLUTE(__MI2C1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt18) ? ABSOLUTE(__Interrupt18) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__CNInterrupt) ? ABSOLUTE(__CNInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__INT1Interrupt) ? ABSOLUTE(__INT1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__ADC2Interrupt) ? ABSOLUTE(__ADC2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__IC7Interrupt) ? ABSOLUTE(__IC7Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__IC8Interrupt) ? ABSOLUTE(__IC8Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DMA2Interrupt) ? ABSOLUTE(__DMA2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__OC3Interrupt) ? ABSOLUTE(__OC3Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__OC4Interrupt) ? ABSOLUTE(__OC4Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__T4Interrupt) ? ABSOLUTE(__T4Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__T5Interrupt) ? ABSOLUTE(__T5Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__INT2Interrupt) ? ABSOLUTE(__INT2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__U2RXInterrupt) ? ABSOLUTE(__U2RXInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__U2TXInterrupt) ? ABSOLUTE(__U2TXInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__SPI2ErrInterrupt) ? ABSOLUTE(__SPI2ErrInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__SPI2Interrupt) ? ABSOLUTE(__SPI2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__C1RxRdyInterrupt) ? ABSOLUTE(__C1RxRdyInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__C1Interrupt) ? ABSOLUTE(__C1Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DMA3Interrupt) ? ABSOLUTE(__DMA3Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__IC3Interrupt) ? ABSOLUTE(__IC3Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__IC4Interrupt) ? ABSOLUTE(__IC4Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__IC5Interrupt) ? ABSOLUTE(__IC5Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__IC6Interrupt) ? ABSOLUTE(__IC6Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__OC5Interrupt) ? ABSOLUTE(__OC5Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__OC6Interrupt) ? ABSOLUTE(__OC6Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__OC7Interrupt) ? ABSOLUTE(__OC7Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__OC8Interrupt) ? ABSOLUTE(__OC8Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt45) ? ABSOLUTE(__Interrupt45) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DMA4Interrupt) ? ABSOLUTE(__DMA4Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__T6Interrupt) ? ABSOLUTE(__T6Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__T7Interrupt) ? ABSOLUTE(__T7Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__SI2C2Interrupt) ? ABSOLUTE(__SI2C2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__MI2C2Interrupt) ? ABSOLUTE(__MI2C2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__T8Interrupt) ? ABSOLUTE(__T8Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__T9Interrupt) ? ABSOLUTE(__T9Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__INT3Interrupt) ? ABSOLUTE(__INT3Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__INT4Interrupt) ? ABSOLUTE(__INT4Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__C2RxRdyInterrupt) ? ABSOLUTE(__C2RxRdyInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__C2Interrupt) ? ABSOLUTE(__C2Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt57) ? ABSOLUTE(__Interrupt57) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt58) ? ABSOLUTE(__Interrupt58) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DCIErrInterrupt) ? ABSOLUTE(__DCIErrInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DCIInterrupt) ? ABSOLUTE(__DCIInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DMA5Interrupt) ? ABSOLUTE(__DMA5Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt62) ? ABSOLUTE(__Interrupt62) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt63) ? ABSOLUTE(__Interrupt63) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt64) ? ABSOLUTE(__Interrupt64) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__U1ErrInterrupt) ? ABSOLUTE(__U1ErrInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__U2ErrInterrupt) ? ABSOLUTE(__U2ErrInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt68) ? ABSOLUTE(__Interrupt68) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DMA6Interrupt) ? ABSOLUTE(__DMA6Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__DMA7Interrupt) ? ABSOLUTE(__DMA7Interrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__C1TxReqInterrupt) ? ABSOLUTE(__C1TxReqInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__C2TxReqInterrupt) ? ABSOLUTE(__C2TxReqInterrupt) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt72) ? ABSOLUTE(__Interrupt72) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt73) ? ABSOLUTE(__Interrupt73) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt74) ? ABSOLUTE(__Interrupt74) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt75) ? ABSOLUTE(__Interrupt75) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt76) ? ABSOLUTE(__Interrupt76) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt77) ? ABSOLUTE(__Interrupt77) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt78) ? ABSOLUTE(__Interrupt78) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt79) ? ABSOLUTE(__Interrupt79) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt80) ? ABSOLUTE(__Interrupt80) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt81) ? ABSOLUTE(__Interrupt81) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt82) ? ABSOLUTE(__Interrupt82) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt83) ? ABSOLUTE(__Interrupt83) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt84) ? ABSOLUTE(__Interrupt84) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt85) ? ABSOLUTE(__Interrupt85) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt86) ? ABSOLUTE(__Interrupt86) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt87) ? ABSOLUTE(__Interrupt87) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt88) ? ABSOLUTE(__Interrupt88) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt89) ? ABSOLUTE(__Interrupt89) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt90) ? ABSOLUTE(__Interrupt90) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt91) ? ABSOLUTE(__Interrupt91) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt92) ? ABSOLUTE(__Interrupt92) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt93) ? ABSOLUTE(__Interrupt93) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt94) ? ABSOLUTE(__Interrupt94) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt95) ? ABSOLUTE(__Interrupt95) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt96) ? ABSOLUTE(__Interrupt96) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt97) ? ABSOLUTE(__Interrupt97) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt98) ? ABSOLUTE(__Interrupt98) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt99) ? ABSOLUTE(__Interrupt99) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt100) ? ABSOLUTE(__Interrupt100) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt101) ? ABSOLUTE(__Interrupt101) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt102) ? ABSOLUTE(__Interrupt102) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt103) ? ABSOLUTE(__Interrupt103) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt104) ? ABSOLUTE(__Interrupt104) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt105) ? ABSOLUTE(__Interrupt105) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt106) ? ABSOLUTE(__Interrupt106) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt107) ? ABSOLUTE(__Interrupt107) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt108) ? ABSOLUTE(__Interrupt108) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt109) ? ABSOLUTE(__Interrupt109) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt110) ? ABSOLUTE(__Interrupt110) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt111) ? ABSOLUTE(__Interrupt111) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt112) ? ABSOLUTE(__Interrupt112) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt113) ? ABSOLUTE(__Interrupt113) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt114) ? ABSOLUTE(__Interrupt114) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt115) ? ABSOLUTE(__Interrupt115) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt116) ? ABSOLUTE(__Interrupt116) :
ABSOLUTE(__DefaultInterrupt));
LONG( DEFINED(__Interrupt117) ? ABSOLUTE(__Interrupt117) :
ABSOLUTE(__DefaultInterrupt));
} >ivt
 
 
/*
** Alternate Interrupt Vector Table
*/
.aivt __AIVT_BASE :
{
LONG( DEFINED(__AltReservedTrap0) ? ABSOLUTE(__AltReservedTrap0) :
(DEFINED(__ReservedTrap0) ? ABSOLUTE(__ReservedTrap0) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltOscillatorFail) ? ABSOLUTE(__AltOscillatorFail) :
(DEFINED(__OscillatorFail) ? ABSOLUTE(__OscillatorFail) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltAddressError) ? ABSOLUTE(__AltAddressError) :
(DEFINED(__AddressError) ? ABSOLUTE(__AddressError) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltStackError) ? ABSOLUTE(__AltStackError) :
(DEFINED(__StackError) ? ABSOLUTE(__StackError) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltMathError) ? ABSOLUTE(__AltMathError) :
(DEFINED(__MathError) ? ABSOLUTE(__MathError) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDMACError) ? ABSOLUTE(__AltDMACError) :
(DEFINED(__DMACError) ? ABSOLUTE(__DMACError) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltReservedTrap6) ? ABSOLUTE(__AltReservedTrap6) :
(DEFINED(__ReservedTrap6) ? ABSOLUTE(__ReservedTrap6) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltReservedTrap7) ? ABSOLUTE(__AltReservedTrap7) :
(DEFINED(__ReservedTrap7) ? ABSOLUTE(__ReservedTrap7) :
ABSOLUTE(__DefaultInterrupt)));
 
LONG( DEFINED(__AltINT0Interrupt) ? ABSOLUTE(__AltINT0Interrupt) :
(DEFINED(__INT0Interrupt) ? ABSOLUTE(__INT0Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltIC1Interrupt) ? ABSOLUTE(__AltIC1Interrupt) :
(DEFINED(__IC1Interrupt) ? ABSOLUTE(__IC1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltOC1Interrupt) ? ABSOLUTE(__AltOC1Interrupt) :
(DEFINED(__OC1Interrupt) ? ABSOLUTE(__OC1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltT1Interrupt) ? ABSOLUTE(__AltT1Interrupt) :
(DEFINED(__T1Interrupt) ? ABSOLUTE(__T1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDMA0Interrupt) ? ABSOLUTE(__AltDMA0Interrupt) :
(DEFINED(__DMA0Interrupt) ? ABSOLUTE(__DMA0Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltIC2Interrupt) ? ABSOLUTE(__AltIC2Interrupt) :
(DEFINED(__IC2Interrupt) ? ABSOLUTE(__IC2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltOC2Interrupt) ? ABSOLUTE(__AltOC2Interrupt) :
(DEFINED(__OC2Interrupt) ? ABSOLUTE(__OC2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltT2Interrupt) ? ABSOLUTE(__AltT2Interrupt) :
(DEFINED(__T2Interrupt) ? ABSOLUTE(__T2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltT3Interrupt) ? ABSOLUTE(__AltT3Interrupt) :
(DEFINED(__T3Interrupt) ? ABSOLUTE(__T3Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltSPI1ErrInterrupt) ? ABSOLUTE(__AltSPI1ErrInterrupt) :
(DEFINED(__SPI1ErrInterrupt) ? ABSOLUTE(__SPI1ErrInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltSPI1Interrupt) ? ABSOLUTE(__AltSPI1Interrupt) :
(DEFINED(__SPI1Interrupt) ? ABSOLUTE(__SPI1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltU1RXInterrupt) ? ABSOLUTE(__AltU1RXInterrupt) :
(DEFINED(__U1RXInterrupt) ? ABSOLUTE(__U1RXInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltU1TXInterrupt) ? ABSOLUTE(__AltU1TXInterrupt) :
(DEFINED(__U1TXInterrupt) ? ABSOLUTE(__U1TXInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltADC1Interrupt) ? ABSOLUTE(__AltADC1Interrupt) :
(DEFINED(__ADC1Interrupt) ? ABSOLUTE(__ADC1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDMA1Interrupt) ? ABSOLUTE(__AltDMA1Interrupt) :
(DEFINED(__DMA1Interrupt) ? ABSOLUTE(__DMA1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt15) ? ABSOLUTE(__AltInterrupt15) :
(DEFINED(__Interrupt15) ? ABSOLUTE(__Interrupt15) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltSI2C1Interrupt) ? ABSOLUTE(__AltSI2C1Interrupt) :
(DEFINED(__SI2C1Interrupt) ? ABSOLUTE(__SI2C1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltMI2C1Interrupt) ? ABSOLUTE(__AltMI2C1Interrupt) :
(DEFINED(__MI2C1Interrupt) ? ABSOLUTE(__MI2C1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt18) ? ABSOLUTE(__AltInterrupt18) :
(DEFINED(__Interrupt18) ? ABSOLUTE(__Interrupt18) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltCNInterrupt) ? ABSOLUTE(__AltCNInterrupt) :
(DEFINED(__CNInterrupt) ? ABSOLUTE(__CNInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltINT1Interrupt) ? ABSOLUTE(__AltINT1Interrupt) :
(DEFINED(__INT1Interrupt) ? ABSOLUTE(__INT1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltADC2Interrupt) ? ABSOLUTE(__AltADC2Interrupt) :
(DEFINED(__ADC2Interrupt) ? ABSOLUTE(__ADC2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltIC7Interrupt) ? ABSOLUTE(__AltIC7Interrupt) :
(DEFINED(__IC7Interrupt) ? ABSOLUTE(__IC7Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltIC8Interrupt) ? ABSOLUTE(__AltIC8Interrupt) :
(DEFINED(__IC8Interrupt) ? ABSOLUTE(__IC8Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDMA2Interrupt) ? ABSOLUTE(__AltDMA2Interrupt) :
(DEFINED(__DMA2Interrupt) ? ABSOLUTE(__DMA2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltOC3Interrupt) ? ABSOLUTE(__AltOC3Interrupt) :
(DEFINED(__OC3Interrupt) ? ABSOLUTE(__OC3Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltOC4Interrupt) ? ABSOLUTE(__AltOC4Interrupt) :
(DEFINED(__OC4Interrupt) ? ABSOLUTE(__OC4Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltT4Interrupt) ? ABSOLUTE(__AltT4Interrupt) :
(DEFINED(__T4Interrupt) ? ABSOLUTE(__T4Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltT5Interrupt) ? ABSOLUTE(__AltT5Interrupt) :
(DEFINED(__T5Interrupt) ? ABSOLUTE(__T5Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltINT2Interrupt) ? ABSOLUTE(__AltINT2Interrupt) :
(DEFINED(__INT2Interrupt) ? ABSOLUTE(__INT2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltU2RXInterrupt) ? ABSOLUTE(__AltU2RXInterrupt) :
(DEFINED(__U2RXInterrupt) ? ABSOLUTE(__U2RXInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltU2TXInterrupt) ? ABSOLUTE(__AltU2TXInterrupt) :
(DEFINED(__U2TXInterrupt) ? ABSOLUTE(__U2TXInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltSPI2ErrInterrupt) ? ABSOLUTE(__AltSPI2ErrInterrupt) :
(DEFINED(__SPI2ErrInterrupt) ? ABSOLUTE(__SPI2ErrInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltSPI2Interrupt) ? ABSOLUTE(__AltSPI2Interrupt) :
(DEFINED(__SPI2Interrupt) ? ABSOLUTE(__SPI2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltC1RxRdyInterrupt) ? ABSOLUTE(__AltC1RxRdyInterrupt) :
(DEFINED(__C1RxRdyInterrupt) ? ABSOLUTE(__C1RxRdyInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltC1Interrupt) ? ABSOLUTE(__AltC1Interrupt) :
(DEFINED(__C1Interrupt) ? ABSOLUTE(__C1Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDMA3Interrupt) ? ABSOLUTE(__AltDMA3Interrupt) :
(DEFINED(__DMA3Interrupt) ? ABSOLUTE(__DMA3Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltIC3Interrupt) ? ABSOLUTE(__AltIC3Interrupt) :
(DEFINED(__IC3Interrupt) ? ABSOLUTE(__IC3Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltIC4Interrupt) ? ABSOLUTE(__AltIC4Interrupt) :
(DEFINED(__IC4Interrupt) ? ABSOLUTE(__IC4Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltIC5Interrupt) ? ABSOLUTE(__AltIC5Interrupt) :
(DEFINED(__IC5Interrupt) ? ABSOLUTE(__IC5Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltIC6Interrupt) ? ABSOLUTE(__AltIC6Interrupt) :
(DEFINED(__IC6Interrupt) ? ABSOLUTE(__IC6Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltOC5Interrupt) ? ABSOLUTE(__AltOC5Interrupt) :
(DEFINED(__OC5Interrupt) ? ABSOLUTE(__OC5Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltOC6Interrupt) ? ABSOLUTE(__AltOC6Interrupt) :
(DEFINED(__OC6Interrupt) ? ABSOLUTE(__OC6Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltOC7Interrupt) ? ABSOLUTE(__AltOC7Interrupt) :
(DEFINED(__OC7Interrupt) ? ABSOLUTE(__OC7Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltOC8Interrupt) ? ABSOLUTE(__AltOC8Interrupt) :
(DEFINED(__OC8Interrupt) ? ABSOLUTE(__OC8Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt45) ? ABSOLUTE(__AltInterrupt45) :
(DEFINED(__Interrupt45) ? ABSOLUTE(__Interrupt45) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDMA4Interrupt) ? ABSOLUTE(__AltDMA4Interrupt) :
(DEFINED(__DMA4Interrupt) ? ABSOLUTE(__DMA4Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltT6Interrupt) ? ABSOLUTE(__AltT6Interrupt) :
(DEFINED(__T6Interrupt) ? ABSOLUTE(__T6Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltT7Interrupt) ? ABSOLUTE(__AltT7Interrupt) :
(DEFINED(__T7Interrupt) ? ABSOLUTE(__T7Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltSI2C2Interrupt) ? ABSOLUTE(__AltSI2C2Interrupt) :
(DEFINED(__SI2C2Interrupt) ? ABSOLUTE(__SI2C2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltMI2C2Interrupt) ? ABSOLUTE(__AltMI2C2Interrupt) :
(DEFINED(__MI2C2Interrupt) ? ABSOLUTE(__MI2C2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltT8Interrupt) ? ABSOLUTE(__AltT8Interrupt) :
(DEFINED(__T8Interrupt) ? ABSOLUTE(__T8Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltT9Interrupt) ? ABSOLUTE(__AltT9Interrupt) :
(DEFINED(__T9Interrupt) ? ABSOLUTE(__T9Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltINT3Interrupt) ? ABSOLUTE(__AltINT3Interrupt) :
(DEFINED(__INT3Interrupt) ? ABSOLUTE(__INT3Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltINT4Interrupt) ? ABSOLUTE(__AltINT4Interrupt) :
(DEFINED(__INT4Interrupt) ? ABSOLUTE(__INT4Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltC2RxRdyInterrupt) ? ABSOLUTE(__AltC2RxRdyInterrupt) :
(DEFINED(__C2RxRdyInterrupt) ? ABSOLUTE(__C2RxRdyInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltC2Interrupt) ? ABSOLUTE(__AltC2Interrupt) :
(DEFINED(__C2Interrupt) ? ABSOLUTE(__C2Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt57) ? ABSOLUTE(__AltInterrupt57) :
(DEFINED(__Interrupt57) ? ABSOLUTE(__Interrupt57) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt58) ? ABSOLUTE(__AltInterrupt58) :
(DEFINED(__Interrupt58) ? ABSOLUTE(__Interrupt58) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDCIErrInterrupt) ? ABSOLUTE(__AltDCIErrInterrupt) :
(DEFINED(__DCIErrInterrupt) ? ABSOLUTE(__DCIErrInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDCIInterrupt) ? ABSOLUTE(__AltDCIInterrupt) :
(DEFINED(__DCIInterrupt) ? ABSOLUTE(__DCIInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDMA5Interrupt) ? ABSOLUTE(__AltDMA5Interrupt) :
(DEFINED(__DMA5Interrupt) ? ABSOLUTE(__DMA5Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt62) ? ABSOLUTE(__AltInterrupt62) :
(DEFINED(__Interrupt62) ? ABSOLUTE(__Interrupt62) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt63) ? ABSOLUTE(__AltInterrupt63) :
(DEFINED(__Interrupt63) ? ABSOLUTE(__Interrupt63) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt64) ? ABSOLUTE(__AltInterrupt64) :
(DEFINED(__Interrupt64) ? ABSOLUTE(__Interrupt64) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltU1ErrInterrupt) ? ABSOLUTE(__AltU1ErrInterrupt) :
(DEFINED(__U1ErrInterrupt) ? ABSOLUTE(__U1ErrInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltU2ErrInterrupt) ? ABSOLUTE(__AltU2ErrInterrupt) :
(DEFINED(__U2ErrInterrupt) ? ABSOLUTE(__U2ErrInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt68) ? ABSOLUTE(__AltInterrupt68) :
(DEFINED(__Interrupt68) ? ABSOLUTE(__Interrupt68) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDMA6Interrupt) ? ABSOLUTE(__AltDMA6Interrupt) :
(DEFINED(__DMA6Interrupt) ? ABSOLUTE(__DMA6Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltDMA7Interrupt) ? ABSOLUTE(__AltDMA7Interrupt) :
(DEFINED(__DMA7Interrupt) ? ABSOLUTE(__DMA7Interrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltC1TxReqInterrupt) ? ABSOLUTE(__AltC1TxReqInterrupt) :
(DEFINED(__C1TxReqInterrupt) ? ABSOLUTE(__C1TxReqInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltC2TxReqInterrupt) ? ABSOLUTE(__AltC2TxReqInterrupt) :
(DEFINED(__C2TxReqInterrupt) ? ABSOLUTE(__C2TxReqInterrupt) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt72) ? ABSOLUTE(__AltInterrupt72) :
(DEFINED(__Interrupt72) ? ABSOLUTE(__Interrupt72) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt73) ? ABSOLUTE(__AltInterrupt73) :
(DEFINED(__Interrupt73) ? ABSOLUTE(__Interrupt73) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt74) ? ABSOLUTE(__AltInterrupt74) :
(DEFINED(__Interrupt74) ? ABSOLUTE(__Interrupt74) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt75) ? ABSOLUTE(__AltInterrupt75) :
(DEFINED(__Interrupt75) ? ABSOLUTE(__Interrupt75) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt76) ? ABSOLUTE(__AltInterrupt76) :
(DEFINED(__Interrupt76) ? ABSOLUTE(__Interrupt76) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt77) ? ABSOLUTE(__AltInterrupt77) :
(DEFINED(__Interrupt77) ? ABSOLUTE(__Interrupt77) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt78) ? ABSOLUTE(__AltInterrupt78) :
(DEFINED(__Interrupt78) ? ABSOLUTE(__Interrupt78) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt79) ? ABSOLUTE(__AltInterrupt79) :
(DEFINED(__Interrupt79) ? ABSOLUTE(__Interrupt79) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt80) ? ABSOLUTE(__AltInterrupt80) :
(DEFINED(__Interrupt80) ? ABSOLUTE(__Interrupt80) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt81) ? ABSOLUTE(__AltInterrupt81) :
(DEFINED(__Interrupt81) ? ABSOLUTE(__Interrupt81) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt82) ? ABSOLUTE(__AltInterrupt82) :
(DEFINED(__Interrupt82) ? ABSOLUTE(__Interrupt82) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt83) ? ABSOLUTE(__AltInterrupt83) :
(DEFINED(__Interrupt83) ? ABSOLUTE(__Interrupt83) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt84) ? ABSOLUTE(__AltInterrupt84) :
(DEFINED(__Interrupt84) ? ABSOLUTE(__Interrupt84) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt85) ? ABSOLUTE(__AltInterrupt85) :
(DEFINED(__Interrupt85) ? ABSOLUTE(__Interrupt85) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt86) ? ABSOLUTE(__AltInterrupt86) :
(DEFINED(__Interrupt86) ? ABSOLUTE(__Interrupt86) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt87) ? ABSOLUTE(__AltInterrupt87) :
(DEFINED(__Interrupt87) ? ABSOLUTE(__Interrupt87) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt88) ? ABSOLUTE(__AltInterrupt88) :
(DEFINED(__Interrupt88) ? ABSOLUTE(__Interrupt88) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt89) ? ABSOLUTE(__AltInterrupt89) :
(DEFINED(__Interrupt89) ? ABSOLUTE(__Interrupt89) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt90) ? ABSOLUTE(__AltInterrupt90) :
(DEFINED(__Interrupt90) ? ABSOLUTE(__Interrupt90) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt91) ? ABSOLUTE(__AltInterrupt91) :
(DEFINED(__Interrupt91) ? ABSOLUTE(__Interrupt91) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt92) ? ABSOLUTE(__AltInterrupt92) :
(DEFINED(__Interrupt92) ? ABSOLUTE(__Interrupt92) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt93) ? ABSOLUTE(__AltInterrupt93) :
(DEFINED(__Interrupt93) ? ABSOLUTE(__Interrupt93) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt94) ? ABSOLUTE(__AltInterrupt94) :
(DEFINED(__Interrupt94) ? ABSOLUTE(__Interrupt94) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt95) ? ABSOLUTE(__AltInterrupt95) :
(DEFINED(__Interrupt95) ? ABSOLUTE(__Interrupt95) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt96) ? ABSOLUTE(__AltInterrupt96) :
(DEFINED(__Interrupt96) ? ABSOLUTE(__Interrupt96) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt97) ? ABSOLUTE(__AltInterrupt97) :
(DEFINED(__Interrupt97) ? ABSOLUTE(__Interrupt97) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt98) ? ABSOLUTE(__AltInterrupt98) :
(DEFINED(__Interrupt98) ? ABSOLUTE(__Interrupt98) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt99) ? ABSOLUTE(__AltInterrupt99) :
(DEFINED(__Interrupt99) ? ABSOLUTE(__Interrupt99) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt100) ? ABSOLUTE(__AltInterrupt100) :
(DEFINED(__Interrupt100) ? ABSOLUTE(__Interrupt100) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt101) ? ABSOLUTE(__AltInterrupt101) :
(DEFINED(__Interrupt101) ? ABSOLUTE(__Interrupt101) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt102) ? ABSOLUTE(__AltInterrupt102) :
(DEFINED(__Interrupt102) ? ABSOLUTE(__Interrupt102) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt103) ? ABSOLUTE(__AltInterrupt103) :
(DEFINED(__Interrupt103) ? ABSOLUTE(__Interrupt103) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt104) ? ABSOLUTE(__AltInterrupt104) :
(DEFINED(__Interrupt104) ? ABSOLUTE(__Interrupt104) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt105) ? ABSOLUTE(__AltInterrupt105) :
(DEFINED(__Interrupt105) ? ABSOLUTE(__Interrupt105) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt106) ? ABSOLUTE(__AltInterrupt106) :
(DEFINED(__Interrupt106) ? ABSOLUTE(__Interrupt106) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt107) ? ABSOLUTE(__AltInterrupt107) :
(DEFINED(__Interrupt107) ? ABSOLUTE(__Interrupt107) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt108) ? ABSOLUTE(__AltInterrupt108) :
(DEFINED(__Interrupt108) ? ABSOLUTE(__Interrupt108) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt109) ? ABSOLUTE(__AltInterrupt109) :
(DEFINED(__Interrupt109) ? ABSOLUTE(__Interrupt109) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt110) ? ABSOLUTE(__AltInterrupt110) :
(DEFINED(__Interrupt110) ? ABSOLUTE(__Interrupt110) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt111) ? ABSOLUTE(__AltInterrupt111) :
(DEFINED(__Interrupt111) ? ABSOLUTE(__Interrupt111) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt112) ? ABSOLUTE(__AltInterrupt112) :
(DEFINED(__Interrupt112) ? ABSOLUTE(__Interrupt112) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt113) ? ABSOLUTE(__AltInterrupt113) :
(DEFINED(__Interrupt113) ? ABSOLUTE(__Interrupt113) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt114) ? ABSOLUTE(__AltInterrupt114) :
(DEFINED(__Interrupt114) ? ABSOLUTE(__Interrupt114) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt115) ? ABSOLUTE(__AltInterrupt115) :
(DEFINED(__Interrupt115) ? ABSOLUTE(__Interrupt115) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt116) ? ABSOLUTE(__AltInterrupt116) :
(DEFINED(__Interrupt116) ? ABSOLUTE(__Interrupt116) :
ABSOLUTE(__DefaultInterrupt)));
LONG( DEFINED(__AltInterrupt117) ? ABSOLUTE(__AltInterrupt117) :
(DEFINED(__Interrupt117) ? ABSOLUTE(__Interrupt117) :
ABSOLUTE(__DefaultInterrupt)));
} >aivt
} /* SECTIONS */
 
 
/*
** ============== Equates for SFR Addresses =============
*/
 
WREG0 = 0x0;
_WREG0 = 0x0;
WREG1 = 0x2;
_WREG1 = 0x2;
WREG2 = 0x4;
_WREG2 = 0x4;
WREG3 = 0x6;
_WREG3 = 0x6;
WREG4 = 0x8;
_WREG4 = 0x8;
WREG5 = 0xA;
_WREG5 = 0xA;
WREG6 = 0xC;
_WREG6 = 0xC;
WREG7 = 0xE;
_WREG7 = 0xE;
WREG8 = 0x10;
_WREG8 = 0x10;
WREG9 = 0x12;
_WREG9 = 0x12;
WREG10 = 0x14;
_WREG10 = 0x14;
WREG11 = 0x16;
_WREG11 = 0x16;
WREG12 = 0x18;
_WREG12 = 0x18;
WREG13 = 0x1A;
_WREG13 = 0x1A;
WREG14 = 0x1C;
_WREG14 = 0x1C;
WREG15 = 0x1E;
_WREG15 = 0x1E;
SPLIM = 0x20;
_SPLIM = 0x20;
ACCAL = 0x22;
_ACCAL = 0x22;
ACCAH = 0x24;
_ACCAH = 0x24;
ACCAU = 0x26;
_ACCAU = 0x26;
ACCBL = 0x28;
_ACCBL = 0x28;
ACCBH = 0x2A;
_ACCBH = 0x2A;
ACCBU = 0x2C;
_ACCBU = 0x2C;
PCL = 0x2E;
_PCL = 0x2E;
PCH = 0x30;
_PCH = 0x30;
TBLPAG = 0x32;
_TBLPAG = 0x32;
PSVPAG = 0x34;
_PSVPAG = 0x34;
RCOUNT = 0x36;
_RCOUNT = 0x36;
DCOUNT = 0x38;
_DCOUNT = 0x38;
DOSTARTL = 0x3A;
_DOSTARTL = 0x3A;
DOSTARTH = 0x3C;
_DOSTARTH = 0x3C;
DOENDL = 0x3E;
_DOENDL = 0x3E;
DOENDH = 0x40;
_DOENDH = 0x40;
SR = 0x42;
_SR = 0x42;
_SRbits = 0x42;
CORCON = 0x44;
_CORCON = 0x44;
_CORCONbits = 0x44;
MODCON = 0x46;
_MODCON = 0x46;
_MODCONbits = 0x46;
XMODSRT = 0x48;
_XMODSRT = 0x48;
XMODEND = 0x4A;
_XMODEND = 0x4A;
YMODSRT = 0x4C;
_YMODSRT = 0x4C;
YMODEND = 0x4E;
_YMODEND = 0x4E;
XBREV = 0x50;
_XBREV = 0x50;
_XBREVbits = 0x50;
DISICNT = 0x52;
_DISICNT = 0x52;
CNEN1 = 0x60;
_CNEN1 = 0x60;
_CNEN1bits = 0x60;
CNEN2 = 0x62;
_CNEN2 = 0x62;
_CNEN2bits = 0x62;
CNPU1 = 0x68;
_CNPU1 = 0x68;
_CNPU1bits = 0x68;
CNPU2 = 0x6A;
_CNPU2 = 0x6A;
_CNPU2bits = 0x6A;
INTCON1 = 0x80;
_INTCON1 = 0x80;
_INTCON1bits = 0x80;
INTCON2 = 0x82;
_INTCON2 = 0x82;
_INTCON2bits = 0x82;
IFS0 = 0x84;
_IFS0 = 0x84;
_IFS0bits = 0x84;
IFS1 = 0x86;
_IFS1 = 0x86;
_IFS1bits = 0x86;
IFS2 = 0x88;
_IFS2 = 0x88;
_IFS2bits = 0x88;
IFS3 = 0x8A;
_IFS3 = 0x8A;
_IFS3bits = 0x8A;
IFS4 = 0x8C;
_IFS4 = 0x8C;
_IFS4bits = 0x8C;
IEC0 = 0x94;
_IEC0 = 0x94;
_IEC0bits = 0x94;
IEC1 = 0x96;
_IEC1 = 0x96;
_IEC1bits = 0x96;
IEC2 = 0x98;
_IEC2 = 0x98;
_IEC2bits = 0x98;
IEC3 = 0x9A;
_IEC3 = 0x9A;
_IEC3bits = 0x9A;
IEC4 = 0x9C;
_IEC4 = 0x9C;
_IEC4bits = 0x9C;
IPC0 = 0xA4;
_IPC0 = 0xA4;
_IPC0bits = 0xA4;
IPC1 = 0xA6;
_IPC1 = 0xA6;
_IPC1bits = 0xA6;
IPC2 = 0xA8;
_IPC2 = 0xA8;
_IPC2bits = 0xA8;
IPC3 = 0xAA;
_IPC3 = 0xAA;
_IPC3bits = 0xAA;
IPC4 = 0xAC;
_IPC4 = 0xAC;
_IPC4bits = 0xAC;
IPC5 = 0xAE;
_IPC5 = 0xAE;
_IPC5bits = 0xAE;
IPC6 = 0xB0;
_IPC6 = 0xB0;
_IPC6bits = 0xB0;
IPC7 = 0xB2;
_IPC7 = 0xB2;
_IPC7bits = 0xB2;
IPC8 = 0xB4;
_IPC8 = 0xB4;
_IPC8bits = 0xB4;
IPC9 = 0xB6;
_IPC9 = 0xB6;
_IPC9bits = 0xB6;
IPC10 = 0xB8;
_IPC10 = 0xB8;
_IPC10bits = 0xB8;
IPC11 = 0xBA;
_IPC11 = 0xBA;
_IPC11bits = 0xBA;
IPC12 = 0xBC;
_IPC12 = 0xBC;
_IPC12bits = 0xBC;
IPC13 = 0xBE;
_IPC13 = 0xBE;
_IPC13bits = 0xBE;
IPC14 = 0xC0;
_IPC14 = 0xC0;
_IPC14bits = 0xC0;
IPC15 = 0xC2;
_IPC15 = 0xC2;
_IPC15bits = 0xC2;
IPC16 = 0xC4;
_IPC16 = 0xC4;
_IPC16bits = 0xC4;
IPC17 = 0xC6;
_IPC17 = 0xC6;
_IPC17bits = 0xC6;
INTTREG = 0xE0;
_INTTREG = 0xE0;
_INTTREGbits = 0xE0;
TMR1 = 0x100;
_TMR1 = 0x100;
PR1 = 0x102;
_PR1 = 0x102;
T1CON = 0x104;
_T1CON = 0x104;
_T1CONbits = 0x104;
TMR2 = 0x106;
_TMR2 = 0x106;
TMR3HLD = 0x108;
_TMR3HLD = 0x108;
TMR3 = 0x10A;
_TMR3 = 0x10A;
PR2 = 0x10C;
_PR2 = 0x10C;
PR3 = 0x10E;
_PR3 = 0x10E;
T2CON = 0x110;
_T2CON = 0x110;
_T2CONbits = 0x110;
T3CON = 0x112;
_T3CON = 0x112;
_T3CONbits = 0x112;
TMR4 = 0x114;
_TMR4 = 0x114;
TMR5HLD = 0x116;
_TMR5HLD = 0x116;
TMR5 = 0x118;
_TMR5 = 0x118;
PR4 = 0x11A;
_PR4 = 0x11A;
PR5 = 0x11C;
_PR5 = 0x11C;
T4CON = 0x11E;
_T4CON = 0x11E;
_T4CONbits = 0x11E;
T5CON = 0x120;
_T5CON = 0x120;
_T5CONbits = 0x120;
TMR6 = 0x122;
_TMR6 = 0x122;
TMR7HLD = 0x124;
_TMR7HLD = 0x124;
TMR7 = 0x126;
_TMR7 = 0x126;
PR6 = 0x128;
_PR6 = 0x128;
PR7 = 0x12A;
_PR7 = 0x12A;
T6CON = 0x12C;
_T6CON = 0x12C;
_T6CONbits = 0x12C;
T7CON = 0x12E;
_T7CON = 0x12E;
_T7CONbits = 0x12E;
TMR8 = 0x130;
_TMR8 = 0x130;
TMR9HLD = 0x132;
_TMR9HLD = 0x132;
TMR9 = 0x134;
_TMR9 = 0x134;
PR8 = 0x136;
_PR8 = 0x136;
PR9 = 0x138;
_PR9 = 0x138;
T8CON = 0x13A;
_T8CON = 0x13A;
_T8CONbits = 0x13A;
T9CON = 0x13C;
_T9CON = 0x13C;
_T9CONbits = 0x13C;
IC1BUF = 0x140;
_IC1BUF = 0x140;
IC1CON = 0x142;
_IC1CON = 0x142;
_IC1CONbits = 0x142;
IC2BUF = 0x144;
_IC2BUF = 0x144;
IC2CON = 0x146;
_IC2CON = 0x146;
_IC2CONbits = 0x146;
IC3BUF = 0x148;
_IC3BUF = 0x148;
IC3CON = 0x14A;
_IC3CON = 0x14A;
_IC3CONbits = 0x14A;
IC4BUF = 0x14C;
_IC4BUF = 0x14C;
IC4CON = 0x14E;
_IC4CON = 0x14E;
_IC4CONbits = 0x14E;
IC5BUF = 0x150;
_IC5BUF = 0x150;
IC5CON = 0x152;
_IC5CON = 0x152;
_IC5CONbits = 0x152;
IC6BUF = 0x154;
_IC6BUF = 0x154;
IC6CON = 0x156;
_IC6CON = 0x156;
_IC6CONbits = 0x156;
IC7BUF = 0x158;
_IC7BUF = 0x158;
IC7CON = 0x15A;
_IC7CON = 0x15A;
_IC7CONbits = 0x15A;
IC8BUF = 0x15C;
_IC8BUF = 0x15C;
IC8CON = 0x15E;
_IC8CON = 0x15E;
_IC8CONbits = 0x15E;
OC1RS = 0x180;
_OC1RS = 0x180;
OC1R = 0x182;
_OC1R = 0x182;
OC1CON = 0x184;
_OC1CON = 0x184;
_OC1CONbits = 0x184;
OC2RS = 0x186;
_OC2RS = 0x186;
OC2R = 0x188;
_OC2R = 0x188;
OC2CON = 0x18A;
_OC2CON = 0x18A;
_OC2CONbits = 0x18A;
OC3RS = 0x18C;
_OC3RS = 0x18C;
OC3R = 0x18E;
_OC3R = 0x18E;
OC3CON = 0x190;
_OC3CON = 0x190;
_OC3CONbits = 0x190;
OC4RS = 0x192;
_OC4RS = 0x192;
OC4R = 0x194;
_OC4R = 0x194;
OC4CON = 0x196;
_OC4CON = 0x196;
_OC4CONbits = 0x196;
OC5RS = 0x198;
_OC5RS = 0x198;
OC5R = 0x19A;
_OC5R = 0x19A;
OC5CON = 0x19C;
_OC5CON = 0x19C;
_OC5CONbits = 0x19C;
OC6RS = 0x19E;
_OC6RS = 0x19E;
OC6R = 0x1A0;
_OC6R = 0x1A0;
OC6CON = 0x1A2;
_OC6CON = 0x1A2;
_OC6CONbits = 0x1A2;
OC7RS = 0x1A4;
_OC7RS = 0x1A4;
OC7R = 0x1A6;
_OC7R = 0x1A6;
OC7CON = 0x1A8;
_OC7CON = 0x1A8;
_OC7CONbits = 0x1A8;
OC8RS = 0x1AA;
_OC8RS = 0x1AA;
OC8R = 0x1AC;
_OC8R = 0x1AC;
OC8CON = 0x1AE;
_OC8CON = 0x1AE;
_OC8CONbits = 0x1AE;
I2C1RCV = 0x200;
_I2C1RCV = 0x200;
I2C1TRN = 0x202;
_I2C1TRN = 0x202;
I2C1BRG = 0x204;
_I2C1BRG = 0x204;
I2C1CON = 0x206;
_I2C1CON = 0x206;
_I2C1CONbits = 0x206;
I2C1STAT = 0x208;
_I2C1STAT = 0x208;
_I2C1STATbits = 0x208;
I2C1ADD = 0x20A;
_I2C1ADD = 0x20A;
I2C1MSK = 0x20C;
_I2C1MSK = 0x20C;
I2C2RCV = 0x210;
_I2C2RCV = 0x210;
I2C2TRN = 0x212;
_I2C2TRN = 0x212;
I2C2BRG = 0x214;
_I2C2BRG = 0x214;
I2C2CON = 0x216;
_I2C2CON = 0x216;
_I2C2CONbits = 0x216;
I2C2STAT = 0x218;
_I2C2STAT = 0x218;
_I2C2STATbits = 0x218;
I2C2ADD = 0x21A;
_I2C2ADD = 0x21A;
I2C2MSK = 0x21C;
_I2C2MSK = 0x21C;
U1MODE = 0x220;
_U1MODE = 0x220;
_U1MODEbits = 0x220;
U1STA = 0x222;
_U1STA = 0x222;
_U1STAbits = 0x222;
U1TXREG = 0x224;
_U1TXREG = 0x224;
_U1TXREGbits = 0x224;
U1RXREG = 0x226;
_U1RXREG = 0x226;
_U1RXREGbits = 0x226;
U1BRG = 0x228;
_U1BRG = 0x228;
U2MODE = 0x230;
_U2MODE = 0x230;
_U2MODEbits = 0x230;
U2STA = 0x232;
_U2STA = 0x232;
_U2STAbits = 0x232;
U2TXREG = 0x234;
_U2TXREG = 0x234;
_U2TXREGbits = 0x234;
U2RXREG = 0x236;
_U2RXREG = 0x236;
_U2RXREGbits = 0x236;
U2BRG = 0x238;
_U2BRG = 0x238;
SPI1STAT = 0x240;
_SPI1STAT = 0x240;
_SPI1STATbits = 0x240;
SPI1CON1 = 0x242;
_SPI1CON1 = 0x242;
_SPI1CON1bits = 0x242;
SPI1CON2 = 0x244;
_SPI1CON2 = 0x244;
_SPI1CON2bits = 0x244;
SPI1BUF = 0x248;
_SPI1BUF = 0x248;
SPI2STAT = 0x260;
_SPI2STAT = 0x260;
_SPI2STATbits = 0x260;
SPI2CON1 = 0x262;
_SPI2CON1 = 0x262;
_SPI2CON1bits = 0x262;
SPI2CON2 = 0x264;
_SPI2CON2 = 0x264;
_SPI2CON2bits = 0x264;
SPI2BUF = 0x268;
_SPI2BUF = 0x268;
DCICON1 = 0x280;
_DCICON1 = 0x280;
_DCICON1bits = 0x280;
DCICON2 = 0x282;
_DCICON2 = 0x282;
_DCICON2bits = 0x282;
DCICON3 = 0x284;
_DCICON3 = 0x284;
_DCICON3bits = 0x284;
DCISTAT = 0x286;
_DCISTAT = 0x286;
_DCISTATbits = 0x286;
TSCON = 0x288;
_TSCON = 0x288;
_TSCONbits = 0x288;
RSCON = 0x28C;
_RSCON = 0x28C;
_RSCONbits = 0x28C;
RXBUF0 = 0x290;
_RXBUF0 = 0x290;
RXBUF1 = 0x292;
_RXBUF1 = 0x292;
RXBUF2 = 0x294;
_RXBUF2 = 0x294;
RXBUF3 = 0x296;
_RXBUF3 = 0x296;
TXBUF0 = 0x298;
_TXBUF0 = 0x298;
TXBUF1 = 0x29A;
_TXBUF1 = 0x29A;
TXBUF2 = 0x29C;
_TXBUF2 = 0x29C;
TXBUF3 = 0x29E;
_TXBUF3 = 0x29E;
TRISA = 0x2C0;
_TRISA = 0x2C0;
_TRISAbits = 0x2C0;
PORTA = 0x2C2;
_PORTA = 0x2C2;
_PORTAbits = 0x2C2;
LATA = 0x2C4;
_LATA = 0x2C4;
_LATAbits = 0x2C4;
TRISB = 0x2C6;
_TRISB = 0x2C6;
_TRISBbits = 0x2C6;
PORTB = 0x2C8;
_PORTB = 0x2C8;
_PORTBbits = 0x2C8;
LATB = 0x2CA;
_LATB = 0x2CA;
_LATBbits = 0x2CA;
TRISC = 0x2CC;
_TRISC = 0x2CC;
_TRISCbits = 0x2CC;
PORTC = 0x2CE;
_PORTC = 0x2CE;
_PORTCbits = 0x2CE;
LATC = 0x2D0;
_LATC = 0x2D0;
_LATCbits = 0x2D0;
TRISD = 0x2D2;
_TRISD = 0x2D2;
_TRISDbits = 0x2D2;
PORTD = 0x2D4;
_PORTD = 0x2D4;
_PORTDbits = 0x2D4;
LATD = 0x2D6;
_LATD = 0x2D6;
_LATDbits = 0x2D6;
TRISE = 0x2D8;
_TRISE = 0x2D8;
_TRISEbits = 0x2D8;
PORTE = 0x2DA;
_PORTE = 0x2DA;
_PORTEbits = 0x2DA;
LATE = 0x2DC;
_LATE = 0x2DC;
_LATEbits = 0x2DC;
TRISF = 0x2DE;
_TRISF = 0x2DE;
_TRISFbits = 0x2DE;
PORTF = 0x2E0;
_PORTF = 0x2E0;
_PORTFbits = 0x2E0;
LATF = 0x2E2;
_LATF = 0x2E2;
_LATFbits = 0x2E2;
TRISG = 0x2E4;
_TRISG = 0x2E4;
_TRISGbits = 0x2E4;
PORTG = 0x2E6;
_PORTG = 0x2E6;
_PORTGbits = 0x2E6;
LATG = 0x2E8;
_LATG = 0x2E8;
_LATGbits = 0x2E8;
ADC1BUF0 = 0x300;
_ADC1BUF0 = 0x300;
AD1CON1 = 0x320;
_AD1CON1 = 0x320;
_AD1CON1bits = 0x320;
AD1CON2 = 0x322;
_AD1CON2 = 0x322;
_AD1CON2bits = 0x322;
AD1CON3 = 0x324;
_AD1CON3 = 0x324;
_AD1CON3bits = 0x324;
AD1CHS123 = 0x326;
_AD1CHS123 = 0x326;
_AD1CHS123bits = 0x326;
AD1CHS0 = 0x328;
_AD1CHS0 = 0x328;
_AD1CHS0bits = 0x328;
AD1PCFGH = 0x32A;
_AD1PCFGH = 0x32A;
_AD1PCFGHbits = 0x32A;
AD1PCFGL = 0x32C;
_AD1PCFGL = 0x32C;
_AD1PCFGLbits = 0x32C;
AD1CSSH = 0x32E;
_AD1CSSH = 0x32E;
_AD1CSSHbits = 0x32E;
AD1CSSL = 0x330;
_AD1CSSL = 0x330;
_AD1CSSLbits = 0x330;
AD1CON4 = 0x332;
_AD1CON4 = 0x332;
_AD1CON4bits = 0x332;
ADC2BUF0 = 0x340;
_ADC2BUF0 = 0x340;
AD2CON1 = 0x360;
_AD2CON1 = 0x360;
_AD2CON1bits = 0x360;
AD2CON2 = 0x362;
_AD2CON2 = 0x362;
_AD2CON2bits = 0x362;
AD2CON3 = 0x364;
_AD2CON3 = 0x364;
_AD2CON3bits = 0x364;
AD2CHS123 = 0x366;
_AD2CHS123 = 0x366;
_AD2CHS123bits = 0x366;
AD2CHS0 = 0x368;
_AD2CHS0 = 0x368;
_AD2CHS0bits = 0x368;
AD2PCFGL = 0x36C;
_AD2PCFGL = 0x36C;
_AD2PCFGLbits = 0x36C;
AD2CSSL = 0x370;
_AD2CSSL = 0x370;
_AD2CSSLbits = 0x370;
AD2CON4 = 0x372;
_AD2CON4 = 0x372;
_AD2CON4bits = 0x372;
DMA0CON = 0x380;
_DMA0CON = 0x380;
_DMA0CONbits = 0x380;
DMA0REQ = 0x382;
_DMA0REQ = 0x382;
_DMA0REQbits = 0x382;
DMA0STA = 0x384;
_DMA0STA = 0x384;
DMA0STB = 0x386;
_DMA0STB = 0x386;
DMA0PAD = 0x388;
_DMA0PAD = 0x388;
DMA0CNT = 0x38A;
_DMA0CNT = 0x38A;
DMA1CON = 0x38C;
_DMA1CON = 0x38C;
_DMA1CONbits = 0x38C;
DMA1REQ = 0x38E;
_DMA1REQ = 0x38E;
_DMA1REQbits = 0x38E;
DMA1STA = 0x390;
_DMA1STA = 0x390;
DMA1STB = 0x392;
_DMA1STB = 0x392;
DMA1PAD = 0x394;
_DMA1PAD = 0x394;
DMA1CNT = 0x396;
_DMA1CNT = 0x396;
DMA2CON = 0x398;
_DMA2CON = 0x398;
_DMA2CONbits = 0x398;
DMA2REQ = 0x39A;
_DMA2REQ = 0x39A;
_DMA2REQbits = 0x39A;
DMA2STA = 0x39C;
_DMA2STA = 0x39C;
DMA2STB = 0x39E;
_DMA2STB = 0x39E;
DMA2PAD = 0x3A0;
_DMA2PAD = 0x3A0;
DMA2CNT = 0x3A2;
_DMA2CNT = 0x3A2;
DMA3CON = 0x3A4;
_DMA3CON = 0x3A4;
_DMA3CONbits = 0x3A4;
DMA3REQ = 0x3A6;
_DMA3REQ = 0x3A6;
_DMA3REQbits = 0x3A6;
DMA3STA = 0x3A8;
_DMA3STA = 0x3A8;
DMA3STB = 0x3AA;
_DMA3STB = 0x3AA;
DMA3PAD = 0x3AC;
_DMA3PAD = 0x3AC;
DMA3CNT = 0x3AE;
_DMA3CNT = 0x3AE;
DMA4CON = 0x3B0;
_DMA4CON = 0x3B0;
_DMA4CONbits = 0x3B0;
DMA4REQ = 0x3B2;
_DMA4REQ = 0x3B2;
_DMA4REQbits = 0x3B2;
DMA4STA = 0x3B4;
_DMA4STA = 0x3B4;
DMA4STB = 0x3B6;
_DMA4STB = 0x3B6;
DMA4PAD = 0x3B8;
_DMA4PAD = 0x3B8;
DMA4CNT = 0x3BA;
_DMA4CNT = 0x3BA;
DMA5CON = 0x3BC;
_DMA5CON = 0x3BC;
_DMA5CONbits = 0x3BC;
DMA5REQ = 0x3BE;
_DMA5REQ = 0x3BE;
_DMA5REQbits = 0x3BE;
DMA5STA = 0x3C0;
_DMA5STA = 0x3C0;
DMA5STB = 0x3C2;
_DMA5STB = 0x3C2;
DMA5PAD = 0x3C4;
_DMA5PAD = 0x3C4;
DMA5CNT = 0x3C6;
_DMA5CNT = 0x3C6;
DMA6CON = 0x3C8;
_DMA6CON = 0x3C8;
_DMA6CONbits = 0x3C8;
DMA6REQ = 0x3CA;
_DMA6REQ = 0x3CA;
_DMA6REQbits = 0x3CA;
DMA6STA = 0x3CC;
_DMA6STA = 0x3CC;
DMA6STB = 0x3CE;
_DMA6STB = 0x3CE;
DMA6PAD = 0x3D0;
_DMA6PAD = 0x3D0;
DMA6CNT = 0x3D2;
_DMA6CNT = 0x3D2;
DMA7CON = 0x3D4;
_DMA7CON = 0x3D4;
_DMA7CONbits = 0x3D4;
DMA7REQ = 0x3D6;
_DMA7REQ = 0x3D6;
_DMA7REQbits = 0x3D6;
DMA7STA = 0x3D8;
_DMA7STA = 0x3D8;
DMA7STB = 0x3DA;
_DMA7STB = 0x3DA;
DMA7PAD = 0x3DC;
_DMA7PAD = 0x3DC;
DMA7CNT = 0x3DE;
_DMA7CNT = 0x3DE;
DMACS0 = 0x3E0;
_DMACS0 = 0x3E0;
_DMACS0bits = 0x3E0;
DMACS1 = 0x3E2;
_DMACS1 = 0x3E2;
_DMACS1bits = 0x3E2;
DSADR = 0x3E4;
_DSADR = 0x3E4;
C1CTRL1 = 0x400;
_C1CTRL1 = 0x400;
_C1CTRL1bits = 0x400;
C1CTRL2 = 0x402;
_C1CTRL2 = 0x402;
_C1CTRL2bits = 0x402;
C1VEC = 0x404;
_C1VEC = 0x404;
_C1VECbits = 0x404;
C1FCTRL = 0x406;
_C1FCTRL = 0x406;
_C1FCTRLbits = 0x406;
C1FIFO = 0x408;
_C1FIFO = 0x408;
_C1FIFObits = 0x408;
C1INTF = 0x40A;
_C1INTF = 0x40A;
_C1INTFbits = 0x40A;
C1INTE = 0x40C;
_C1INTE = 0x40C;
_C1INTEbits = 0x40C;
C1EC = 0x40E;
_C1EC = 0x40E;
_C1ECbits = 0x40E;
C1RERRCNT = 0x40E;
_C1RERRCNT = 0x40E;
C1TERRCNT = 0x40F;
_C1TERRCNT = 0x40F;
C1CFG1 = 0x410;
_C1CFG1 = 0x410;
_C1CFG1bits = 0x410;
C1CFG2 = 0x412;
_C1CFG2 = 0x412;
_C1CFG2bits = 0x412;
C1FEN1 = 0x414;
_C1FEN1 = 0x414;
_C1FEN1bits = 0x414;
C1FMSKSEL1 = 0x418;
_C1FMSKSEL1 = 0x418;
_C1FMSKSEL1bits = 0x418;
C1FMSKSEL2 = 0x41A;
_C1FMSKSEL2 = 0x41A;
_C1FMSKSEL2bits = 0x41A;
C1BUFPNT1 = 0x420;
_C1BUFPNT1 = 0x420;
_C1BUFPNT1bits = 0x420;
C1RXFUL1 = 0x420;
_C1RXFUL1 = 0x420;
_C1RXFUL1bits = 0x420;
C1BUFPNT2 = 0x422;
_C1BUFPNT2 = 0x422;
_C1BUFPNT2bits = 0x422;
C1RXFUL2 = 0x422;
_C1RXFUL2 = 0x422;
_C1RXFUL2bits = 0x422;
C1BUFPNT3 = 0x424;
_C1BUFPNT3 = 0x424;
_C1BUFPNT3bits = 0x424;
C1BUFPNT4 = 0x426;
_C1BUFPNT4 = 0x426;
_C1BUFPNT4bits = 0x426;
C1RXOVF1 = 0x428;
_C1RXOVF1 = 0x428;
_C1RXOVF1bits = 0x428;
C1RXOVF2 = 0x42A;
_C1RXOVF2 = 0x42A;
_C1RXOVF2bits = 0x42A;
C1RXM0SID = 0x430;
_C1RXM0SID = 0x430;
_C1RXM0SIDbits = 0x430;
C1TR01CON = 0x430;
_C1TR01CON = 0x430;
_C1TR01CONbits = 0x430;
C1RXM0EID = 0x432;
_C1RXM0EID = 0x432;
_C1RXM0EIDbits = 0x432;
C1TR23CON = 0x432;
_C1TR23CON = 0x432;
_C1TR23CONbits = 0x432;
C1RXM1SID = 0x434;
_C1RXM1SID = 0x434;
_C1RXM1SIDbits = 0x434;
C1TR45CON = 0x434;
_C1TR45CON = 0x434;
_C1TR45CONbits = 0x434;
C1RXM1EID = 0x436;
_C1RXM1EID = 0x436;
_C1RXM1EIDbits = 0x436;
C1TR67CON = 0x436;
_C1TR67CON = 0x436;
_C1TR67CONbits = 0x436;
C1RXM2SID = 0x438;
_C1RXM2SID = 0x438;
_C1RXM2SIDbits = 0x438;
C1RXM2EID = 0x43A;
_C1RXM2EID = 0x43A;
_C1RXM2EIDbits = 0x43A;
C1RXD = 0x440;
_C1RXD = 0x440;
C1RXF0SID = 0x440;
_C1RXF0SID = 0x440;
_C1RXF0SIDbits = 0x440;
C1RXF0EID = 0x442;
_C1RXF0EID = 0x442;
_C1RXF0EIDbits = 0x442;
C1TXD = 0x442;
_C1TXD = 0x442;
C1RXF1SID = 0x444;
_C1RXF1SID = 0x444;
_C1RXF1SIDbits = 0x444;
C1RXF1EID = 0x446;
_C1RXF1EID = 0x446;
_C1RXF1EIDbits = 0x446;
C1RXF2SID = 0x448;
_C1RXF2SID = 0x448;
_C1RXF2SIDbits = 0x448;
C1RXF2EID = 0x44A;
_C1RXF2EID = 0x44A;
_C1RXF2EIDbits = 0x44A;
C1RXF3SID = 0x44C;
_C1RXF3SID = 0x44C;
_C1RXF3SIDbits = 0x44C;
C1RXF3EID = 0x44E;
_C1RXF3EID = 0x44E;
_C1RXF3EIDbits = 0x44E;
C1RXF4SID = 0x450;
_C1RXF4SID = 0x450;
_C1RXF4SIDbits = 0x450;
C1RXF4EID = 0x452;
_C1RXF4EID = 0x452;
_C1RXF4EIDbits = 0x452;
C1RXF5SID = 0x454;
_C1RXF5SID = 0x454;
_C1RXF5SIDbits = 0x454;
C1RXF5EID = 0x456;
_C1RXF5EID = 0x456;
_C1RXF5EIDbits = 0x456;
C1RXF6SID = 0x458;
_C1RXF6SID = 0x458;
_C1RXF6SIDbits = 0x458;
C1RXF6EID = 0x45A;
_C1RXF6EID = 0x45A;
_C1RXF6EIDbits = 0x45A;
C1RXF7SID = 0x45C;
_C1RXF7SID = 0x45C;
_C1RXF7SIDbits = 0x45C;
C1RXF7EID = 0x45E;
_C1RXF7EID = 0x45E;
_C1RXF7EIDbits = 0x45E;
C1RXF8SID = 0x460;
_C1RXF8SID = 0x460;
_C1RXF8SIDbits = 0x460;
C1RXF8EID = 0x462;
_C1RXF8EID = 0x462;
_C1RXF8EIDbits = 0x462;
C1RXF9SID = 0x464;
_C1RXF9SID = 0x464;
_C1RXF9SIDbits = 0x464;
C1RXF9EID = 0x466;
_C1RXF9EID = 0x466;
_C1RXF9EIDbits = 0x466;
C1RXF10SID = 0x468;
_C1RXF10SID = 0x468;
_C1RXF10SIDbits = 0x468;
C1RXF10EID = 0x46A;
_C1RXF10EID = 0x46A;
_C1RXF10EIDbits = 0x46A;
C1RXF11SID = 0x46C;
_C1RXF11SID = 0x46C;
_C1RXF11SIDbits = 0x46C;
C1RXF11EID = 0x46E;
_C1RXF11EID = 0x46E;
_C1RXF11EIDbits = 0x46E;
C1RXF12SID = 0x470;
_C1RXF12SID = 0x470;
_C1RXF12SIDbits = 0x470;
C1RXF12EID = 0x472;
_C1RXF12EID = 0x472;
_C1RXF12EIDbits = 0x472;
C1RXF13SID = 0x474;
_C1RXF13SID = 0x474;
_C1RXF13SIDbits = 0x474;
C1RXF13EID = 0x476;
_C1RXF13EID = 0x476;
_C1RXF13EIDbits = 0x476;
C1RXF14SID = 0x478;
_C1RXF14SID = 0x478;
_C1RXF14SIDbits = 0x478;
C1RXF14EID = 0x47A;
_C1RXF14EID = 0x47A;
_C1RXF14EIDbits = 0x47A;
C1RXF15SID = 0x47C;
_C1RXF15SID = 0x47C;
_C1RXF15SIDbits = 0x47C;
C1RXF15EID = 0x47E;
_C1RXF15EID = 0x47E;
_C1RXF15EIDbits = 0x47E;
C2CTRL1 = 0x500;
_C2CTRL1 = 0x500;
_C2CTRL1bits = 0x500;
C2CTRL2 = 0x502;
_C2CTRL2 = 0x502;
_C2CTRL2bits = 0x502;
C2VEC = 0x504;
_C2VEC = 0x504;
_C2VECbits = 0x504;
C2FCTRL = 0x506;
_C2FCTRL = 0x506;
_C2FCTRLbits = 0x506;
C2FIFO = 0x508;
_C2FIFO = 0x508;
_C2FIFObits = 0x508;
C2INTF = 0x50A;
_C2INTF = 0x50A;
_C2INTFbits = 0x50A;
C2INTE = 0x50C;
_C2INTE = 0x50C;
_C2INTEbits = 0x50C;
C2EC = 0x50E;
_C2EC = 0x50E;
_C2ECbits = 0x50E;
C2RERRCNT = 0x50E;
_C2RERRCNT = 0x50E;
C2TERRCNT = 0x50F;
_C2TERRCNT = 0x50F;
C2CFG1 = 0x510;
_C2CFG1 = 0x510;
_C2CFG1bits = 0x510;
C2CFG2 = 0x512;
_C2CFG2 = 0x512;
_C2CFG2bits = 0x512;
C2FEN1 = 0x514;
_C2FEN1 = 0x514;
_C2FEN1bits = 0x514;
C2FMSKSEL1 = 0x518;
_C2FMSKSEL1 = 0x518;
_C2FMSKSEL1bits = 0x518;
C2FMSKSEL2 = 0x51A;
_C2FMSKSEL2 = 0x51A;
_C2FMSKSEL2bits = 0x51A;
C2BUFPNT1 = 0x520;
_C2BUFPNT1 = 0x520;
_C2BUFPNT1bits = 0x520;
C2RXFUL1 = 0x520;
_C2RXFUL1 = 0x520;
_C2RXFUL1bits = 0x520;
C2BUFPNT2 = 0x522;
_C2BUFPNT2 = 0x522;
_C2BUFPNT2bits = 0x522;
C2RXFUL2 = 0x522;
_C2RXFUL2 = 0x522;
_C2RXFUL2bits = 0x522;
C2BUFPNT3 = 0x524;
_C2BUFPNT3 = 0x524;
_C2BUFPNT3bits = 0x524;
C2BUFPNT4 = 0x526;
_C2BUFPNT4 = 0x526;
_C2BUFPNT4bits = 0x526;
C2RXOVF1 = 0x528;
_C2RXOVF1 = 0x528;
_C2RXOVF1bits = 0x528;
C2RXOVF2 = 0x52A;
_C2RXOVF2 = 0x52A;
_C2RXOVF2bits = 0x52A;
C2RXM0SID = 0x530;
_C2RXM0SID = 0x530;
_C2RXM0SIDbits = 0x530;
C2TR01CON = 0x530;
_C2TR01CON = 0x530;
_C2TR01CONbits = 0x530;
C2RXM0EID = 0x532;
_C2RXM0EID = 0x532;
_C2RXM0EIDbits = 0x532;
C2TR23CON = 0x532;
_C2TR23CON = 0x532;
_C2TR23CONbits = 0x532;
C2RXM1SID = 0x534;
_C2RXM1SID = 0x534;
_C2RXM1SIDbits = 0x534;
C2TR45CON = 0x534;
_C2TR45CON = 0x534;
_C2TR45CONbits = 0x534;
C2RXM1EID = 0x536;
_C2RXM1EID = 0x536;
_C2RXM1EIDbits = 0x536;
C2TR67CON = 0x536;
_C2TR67CON = 0x536;
_C2TR67CONbits = 0x536;
C2RXM2SID = 0x538;
_C2RXM2SID = 0x538;
_C2RXM2SIDbits = 0x538;
C2RXM2EID = 0x53A;
_C2RXM2EID = 0x53A;
_C2RXM2EIDbits = 0x53A;
C2RXD = 0x540;
_C2RXD = 0x540;
C2RXF0SID = 0x540;
_C2RXF0SID = 0x540;
_C2RXF0SIDbits = 0x540;
C2RXF0EID = 0x542;
_C2RXF0EID = 0x542;
_C2RXF0EIDbits = 0x542;
C2TXD = 0x542;
_C2TXD = 0x542;
C2RXF1SID = 0x544;
_C2RXF1SID = 0x544;
_C2RXF1SIDbits = 0x544;
C2RXF1EID = 0x546;
_C2RXF1EID = 0x546;
_C2RXF1EIDbits = 0x546;
C2RXF2SID = 0x548;
_C2RXF2SID = 0x548;
_C2RXF2SIDbits = 0x548;
C2RXF2EID = 0x54A;
_C2RXF2EID = 0x54A;
_C2RXF2EIDbits = 0x54A;
C2RXF3SID = 0x54C;
_C2RXF3SID = 0x54C;
_C2RXF3SIDbits = 0x54C;
C2RXF3EID = 0x54E;
_C2RXF3EID = 0x54E;
_C2RXF3EIDbits = 0x54E;
C2RXF4SID = 0x550;
_C2RXF4SID = 0x550;
_C2RXF4SIDbits = 0x550;
C2RXF4EID = 0x552;
_C2RXF4EID = 0x552;
_C2RXF4EIDbits = 0x552;
C2RXF5SID = 0x554;
_C2RXF5SID = 0x554;
_C2RXF5SIDbits = 0x554;
C2RXF5EID = 0x556;
_C2RXF5EID = 0x556;
_C2RXF5EIDbits = 0x556;
C2RXF6SID = 0x558;
_C2RXF6SID = 0x558;
_C2RXF6SIDbits = 0x558;
C2RXF6EID = 0x55A;
_C2RXF6EID = 0x55A;
_C2RXF6EIDbits = 0x55A;
C2RXF7SID = 0x55C;
_C2RXF7SID = 0x55C;
_C2RXF7SIDbits = 0x55C;
C2RXF7EID = 0x55E;
_C2RXF7EID = 0x55E;
_C2RXF7EIDbits = 0x55E;
C2RXF8SID = 0x560;
_C2RXF8SID = 0x560;
_C2RXF8SIDbits = 0x560;
C2RXF8EID = 0x562;
_C2RXF8EID = 0x562;
_C2RXF8EIDbits = 0x562;
C2RXF9SID = 0x564;
_C2RXF9SID = 0x564;
_C2RXF9SIDbits = 0x564;
C2RXF9EID = 0x566;
_C2RXF9EID = 0x566;
_C2RXF9EIDbits = 0x566;
C2RXF10SID = 0x568;
_C2RXF10SID = 0x568;
_C2RXF10SIDbits = 0x568;
C2RXF10EID = 0x56A;
_C2RXF10EID = 0x56A;
_C2RXF10EIDbits = 0x56A;
C2RXF11SID = 0x56C;
_C2RXF11SID = 0x56C;
_C2RXF11SIDbits = 0x56C;
C2RXF11EID = 0x56E;
_C2RXF11EID = 0x56E;
_C2RXF11EIDbits = 0x56E;
C2RXF12SID = 0x570;
_C2RXF12SID = 0x570;
_C2RXF12SIDbits = 0x570;
C2RXF12EID = 0x572;
_C2RXF12EID = 0x572;
_C2RXF12EIDbits = 0x572;
C2RXF13SID = 0x574;
_C2RXF13SID = 0x574;
_C2RXF13SIDbits = 0x574;
C2RXF13EID = 0x576;
_C2RXF13EID = 0x576;
_C2RXF13EIDbits = 0x576;
C2RXF14SID = 0x578;
_C2RXF14SID = 0x578;
_C2RXF14SIDbits = 0x578;
C2RXF14EID = 0x57A;
_C2RXF14EID = 0x57A;
_C2RXF14EIDbits = 0x57A;
C2RXF15SID = 0x57C;
_C2RXF15SID = 0x57C;
_C2RXF15SIDbits = 0x57C;
C2RXF15EID = 0x57E;
_C2RXF15EID = 0x57E;
_C2RXF15EIDbits = 0x57E;
ODCA = 0x6C0;
_ODCA = 0x6C0;
_ODCAbits = 0x6C0;
ODCD = 0x6D2;
_ODCD = 0x6D2;
_ODCDbits = 0x6D2;
ODCF = 0x6DE;
_ODCF = 0x6DE;
_ODCFbits = 0x6DE;
ODCG = 0x6E4;
_ODCG = 0x6E4;
_ODCGbits = 0x6E4;
RCON = 0x740;
_RCON = 0x740;
_RCONbits = 0x740;
OSCCON = 0x742;
_OSCCON = 0x742;
_OSCCONbits = 0x742;
CLKDIV = 0x744;
_CLKDIV = 0x744;
_CLKDIVbits = 0x744;
PLLFBD = 0x746;
_PLLFBD = 0x746;
_PLLFBDbits = 0x746;
OSCTUN = 0x748;
_OSCTUN = 0x748;
_OSCTUNbits = 0x748;
BSRAM = 0x750;
_BSRAM = 0x750;
_BSRAMbits = 0x750;
SSRAM = 0x752;
_SSRAM = 0x752;
_SSRAMbits = 0x752;
NVMCON = 0x760;
_NVMCON = 0x760;
_NVMCONbits = 0x760;
NVMKEY = 0x766;
_NVMKEY = 0x766;
PMD1 = 0x770;
_PMD1 = 0x770;
_PMD1bits = 0x770;
PMD2 = 0x772;
_PMD2 = 0x772;
_PMD2bits = 0x772;
PMD3 = 0x774;
_PMD3 = 0x774;
_PMD3bits = 0x774;
/lcd.h
0,0 → 1,75
/*
FreeRTOS V6.1.1 - Copyright (C) 2011 Real Time Engineers Ltd.
 
***************************************************************************
* *
* If you are: *
* *
* + New to FreeRTOS, *
* + Wanting to learn FreeRTOS or multitasking in general quickly *
* + Looking for basic training, *
* + Wanting to improve your FreeRTOS skills and productivity *
* *
* then take a look at the FreeRTOS books - available as PDF or paperback *
* *
* "Using the FreeRTOS Real Time Kernel - a Practical Guide" *
* http://www.FreeRTOS.org/Documentation *
* *
* A pdf reference manual is also available. Both are usually delivered *
* to your inbox within 20 minutes to two hours when purchased between 8am *
* and 8pm GMT (although please allow up to 24 hours in case of *
* exceptional circumstances). Thank you for your support! *
* *
***************************************************************************
 
This file is part of the FreeRTOS distribution.
 
FreeRTOS is free software; you can redistribute it and/or modify it under
the terms of the GNU General Public License (version 2) as published by the
Free Software Foundation AND MODIFIED BY the FreeRTOS exception.
***NOTE*** The exception to the GPL is included to allow you to distribute
a combined work that includes FreeRTOS without being obliged to provide the
source code for proprietary components outside of the FreeRTOS kernel.
FreeRTOS is distributed in the hope that it will be useful, but WITHOUT
ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or
FITNESS FOR A PARTICULAR PURPOSE. See the GNU General Public License for
more details. You should have received a copy of the GNU General Public
License and the FreeRTOS license exception along with FreeRTOS; if not it
can be viewed here: http://www.freertos.org/a00114.html and also obtained
by writing to Richard Barry, contact details for whom are available on the
FreeRTOS WEB site.
 
1 tab == 4 spaces!
 
http://www.FreeRTOS.org - Documentation, latest information, license and
contact details.
 
http://www.SafeRTOS.com - A version that is certified for use in safety
critical systems.
 
http://www.OpenRTOS.com - Commercial support, development, porting,
licensing and training services.
*/
 
#ifndef LCD_INC_H
#define LCD_INC_H
 
/* Create the task that will control the LCD. Returned is a handle to the queue
on which messages to get written to the LCD should be written. */
xQueueHandle xStartLCDTask( void );
 
typedef struct
{
/* The minimum amount of time the message should remain on the LCD without
being overwritten. */
portTickType xMinDisplayTime;
 
/* A pointer to the string to be displayed. */
char *pcMessage;
 
} xLCDMessage;
 
 
#endif /* LCD_INC_H */
 
 

powered by: WebSVN 2.1.0

© copyright 1999-2024 OpenCores.org, equivalent to Oliscience, all rights reserved. OpenCores®, registered trademark.